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Treatments

Back Clinic Treatments. There are various treatments for all types of injuries and conditions here at Injury Medical & Chiropractic Clinic. The main goal is to correct any misalignments in the spine through manual manipulation and placing misaligned vertebrae back in their proper place. Patients will be given a series of treatments, which are based on the diagnosis. This can include spinal manipulation, as well as other supportive treatments. And as chiropractic treatment has developed, so have its methods and techniques.

Why do chiropractors use one method/technique over another?

A common method of spinal adjustment is the toggle drop method. With this method, a chiropractor crosses their hands and pressed down firmly on an area of the spine. They will then adjust the area with a quick and precise thrust. This method has been used for years and is often used to help increase a patient’s mobility.

Another popular method takes place on a special drop table. The table has different sections, which can be moved up or down based on the body’s position. Patients lie face down on their back or side while the chiropractor applies quick thrusts throughout the spinal area as the table section drops. Many prefer this table adjustment, as this method is lighter and does not include twisting motions used in other methods.

Chiropractors also use specialized tools to assist in their adjustments, i.e., the activator. A chiropractor uses this spring-loaded tool to perform the adjustment/s instead of their hands. Many consider the activator method to be the most gentle of all.

Whichever adjustment method a chiropractor uses, they all offer great benefits to the spine and overall health and wellness. If there is a certain method that is preferred, talk to a chiropractor about it. If they do not perform a certain technique, they may recommend a colleague that does.


Stress Management & Chiropractic Treatment in El Paso, TX

Stress Management & Chiropractic Treatment in El Paso, TX

Many people utilize chiropractic treatment for stress management. If you haven’t already considered chiropractic to help reduce your stress, then it might still be in your best interest to know if it actually can help manage stress. If that’s the case, how exactly can chiropractic treatment help reduce stress levels? Every individual experiences stress. If chiropractic is so effective for stress management, why isn’t it more well-known? Although the answer to that is complex, the popularity of chiropractic treatment for stress management is growing. The article below discusses how chiropractic can help reduce your stress.

 

What Causes Stress?

 

Stress is difficult to define, however, it can be identified as a physical and/or psychological reaction to pressure. Stress may be caused by numerous factors, including environmental, bodily and emotional channels. When we become stressed, the sympathetic nervous system triggers the “fight or flight” response, a defense mechanism which prepares the body for perceived danger. While short-term stress is helpful, long-term stress has been connected to a variety of health issues. For instance, too much stress can create excess tension on the neck, back and low back, which may in turn lead to subluxation or spinal misalingment. This can ultimately also be bad for the heart, digestion, metabolism, and the immune system.

 

How Can Chiropractic Care Help?

 

As mentioned above, stress can frequently take a toll on the spine. Tension may continue to build up as a result of chronic stress, eventually resulting in pain and discomfort, among other symptoms, such as back pain and sciatica. Chiropractic care can help in two ways. First, through the use of spinal adjustments and manual manipulations, a chiropractor will carefully correct the misalignment of the spine, or subluxation, releasing tension and stress and relaxing the body to decrease the physical and psychological strain on the body. Second, once the spine is properly realigned, the central nervous system can function effectively.

 

A doctor of chiropractic will always be happy to speak with you and get you on the path towards a healthy and stress free life. A chiropractor can offer stress management chiropractic treatment to help you feel healthy. The purpose of the following systematic review is to demonstrated how effective mindfulness-based stress reduction methods and techniques can help low back pain.

 

Mindfulness-Based Stress Reduction for Low Back Pain: A Systematic Review

 

Abstract

 

Background

 

Mindfulness-based stress reduction (MBSR) is frequently used for pain conditions. While systematic reviews on MBSR for chronic pain have been conducted, there are no reviews for specific pain conditions. Therefore a systematic review of the effectiveness of MBSR in low back pain was performed.

 

Methods

 

MEDLINE, the Cochrane Library, EMBASE, CAMBASE, and PsycInfo were screened through November 2011. The search strategy combined keywords for MBSR with keywords for low back pain. Randomized controlled trials (RCTs) comparing MBSR to control conditions in patients with low back pain were included. Two authors independently assessed risk of bias using the Cochrane risk of bias tool. Clinical importance of group differences was assessed for the main outcome measures pain intensity and back-specific disability.

 

Results

 

Three RCTs with a total of 117 chronic low back pain patients were included. One RCT on failed back surgery syndrome reported significant and clinically important short-term improvements in pain intensity and disability for MBSR compared to no treatment. Two RCTs on older adults (age???65 years) with chronic specific or non-specific low back pain reported no short-term or long-term improvements in pain or disability for MBSR compared to no treatment or health education. Two RCTs reported larger short-term improvements of pain acceptance for MBSR compared to no treatment.

 

Conclusion

 

This review found inconclusive evidence of effectiveness of MBSR in improving pain intensity or disability in chronic low back pain patients. However, there is limited evidence that MBSR can improve pain acceptance. Further RCTs with larger sample sizes, adequate control interventions, and longer follow-ups are needed before firm conclusions can be drawn.

 

Keywords: Low back pain, Mindfulness-based stress reduction, MBSR, Complementary therapies, Review

 

Background

 

Low back pain is a major public health problem, with 76 % of the population experiencing low back pain in a given year [1]. It has become the largest category of medical claims, placing a major burden on individuals and health care systems [2]. Low back pain is the most common condition for which complementary therapies are used [3]. In the US, more than half of patients suffering from low back pain use complementary therapies [4].

 

Mindfulness is the common ground of several complementary therapies. Derived from Buddhist spiritual tradition, mindfulness has been secularized and integrated into behavioral treatment approaches [5]. While mindfulness has been described as the core construct of Buddhist meditation [5], it also comprises a specific state of consciousness that has been characterized as non-elaborative, non-judgmental moment-to moment awareness, a way to accept and trust in one�s own experience [6]. Therefore, mindfulness-based therapies not only include training in so-called formal practice of mindfulness, this is meditation, but also training in so-called informal practice of mindfulness, this is retaining a mindful state of consciousness during routine activities in everyday life [7,8].

 

The most commonly used mindfulness-based intervention is mindfulness-based stress reduction (MBSR). MBSR has originally been developed in a behavioral medicine setting for patients with chronic pain and stress-related complaints [9,10]. MBSR is a structured 8-week group program of weekly 2.5-hour sessions and 1 all-day (7 to 8-hour) silent retreat. Key components of the program are sitting meditation, walking meditation, hatha yoga and body scan, a sustained mindfulness practice in which attention is sequentially focused on different parts of the body [6]. Another important component is the transition of mindfulness into everyday life.

 

Mindfulness-based cognitive therapy (MBCT) combines MBSR with cognitive-behavioral techniques [11,12]. It retains the original 8-week group-based approach. Originally developed as a treatment for major depression [11], MBCT is more and more adapted for other specific conditions [12]. Other mindfulness-based interventions include mindful exercise [13] and acceptance and commitment therapy [14] that do not necessarily include formal meditation practice.

 

Pain has been a key topic of research on MBSR from the beginning [9]. Several trials assessed the effect of MBSR on patients with heterogeneous chronic pain conditions, mainly reporting positive results [15-19]. A recent comprehensive meta-analysis of mindfulness-based interventions for chronic pain conditions found small effects on pain, depression and physical well-being when considering only randomized controlled trials [14]. However, this meta-analysis included only one trial on low back pain.

 

The aim of this review was to systematically assess and – if possible – meta-analyze the effectiveness of MBSR and MBCT in patients with low back pain.

 

Methods

 

PRISMA guidelines for systematic reviews and meta-analyses [20] and the recommendations of the Cochrane Collaboration [21] were followed.

 

Literature Search

 

The literature search comprised the following electronical databases from their inception through November 2011: Medline, EMBASE, the Cochrane Library, PsycINFO, and CAMBASE. The complete search strategy for Medline was as follows: (MBSR[Title/Abstract] OR MBCT[Title/Abstract] OR mindful*[Title/Abstract]) AND (low back pain[MeSH Terms] OR low back pain[Title/Abstract] OR lower back pain[Title/Abstract] OR lumbago[Title/Abstract] OR low backache[Title/Abstract] OR low back ache[Title/Abstract] OR sciatica[MeSH Terms] OR sciatica[Title/Abstract]). The search strategy was adapted for each database as necessary. No language restrictions were applied. In addition, reference lists of identified original articles were searched manually. All retrieved articles were read in full to determine eligibility.

 

Eligibility Criteria

 

Intervention

 

Studies that assessed MBSR or MBCT as the main intervention were included. Studies on mindfulness-based interventions that were clearly different from the original MBSR/MBCT programs, such as mindful exercise or acceptance and commitment therapy, were excluded while studies that used variations of the MBSR/MBCT programs, such as variations in program length, frequency or duration were included.

 

Study Type

 

Only randomized controlled trials (RCTs) were included, while observational studies or non-randomized trials were excluded. No treatment (�wait-list�), usual care or any active treatment were acceptable as control interventions.

 

Studies were included only if they were published as full-text articles in peer reviewed scientific journals.

 

Patients

 

Studies of patients with a diagnosis of low back pain were included regardless of pain cause, duration and intensity.

 

Data Extraction

 

Two reviewers independently extracted data on characteristics of the study (e.g. trial design, randomization, blinding), characteristics of the patient population (e.g. sample size, age, diagnosis), characteristics of the intervention and control condition (e.g. type, program length, frequency and duration), drop-outs, outcome measures, follow-ups, results and safety. Discrepancies were rechecked with a third reviewer and consensus achieved by discussion.

 

Risk of Bias in Individual Studies

 

Risk of bias was assessed by two authors independently using the Cochrane risk of bias tool. This tool assesses risk of bias on the following domains: selection bias, performance bias, detection bias, attrition bias, reporting bias, and other bias [21]. Discrepancies were rechecked with a third reviewer and consensus achieved by discussion. Trial authors were contacted for further details if necessary.

 

Data Analysis

 

Main outcome measures were pain intensity and back-related disability. Safety was defined as secondary outcome measure. Other outcome measures used in the included studies were analyzed exploratively.

 

Meta-analysis was planned if sufficient homogeneous RCTs were available for statistical pooling. However, as only 3 RCTs were available that were heterogeneous regarding characteristics of patients, interventions, and control conditions, no meta-analysis was performed.

 

To determine clinical importance of group differences the following criteria were used: 10 mm (or 10 %) difference in post-treatment scores or change scores on a 100 mm visual analog scale of pain intensity [22], and 2�3 points (or 8 %) difference in post-treatment or change scores on the Roland-Morris Disability Questionnaire for back-specific disability [23].

 

Results

 

Literature Search

 

Twenty-five records were retrieved in literature search, 10 of them were duplicates. Three full-text articles with a total of 117 patients were assessed for eligibility and all of them were eligible for qualitative analysis (Figure ?1).

 

Figure 1 Flowchart of the Results of the Literature Search

Figure 1: Flowchart of the results of the literature search.

 

Study Characteristics

 

Characteristics of the study, patient population, intervention, control condition, outcome measures, follow-ups and results are shown in Table ?1.

 

Table 1 Characteristics of the Included Studies

 

Setting and Patient Characteristics

 

All 3 included RCTs were conducted in the USA. Patients were recruited from a multidisciplinary spine and rehabilitation center [24], an adult pain clinic [25], and by posted flyers and newspaper advertisements [25,26]. Patients in 2 RCTs were older adults (age???65 years) with chronic (duration???3 months) low back pain [25,26]. In one of the two RCTs, minimal pain intensity was not defined [25] while in the other RCT pain had to be of at least moderate intensity on the �pain thermometer� [26]. Patients with non-specific low back pain, as well as specific low back pain, mainly due to osteoarthritis, were included [25,26]. The third RCT included patients of any age with failed back surgery syndrome; this is persistent back pain and/or leg pain of any duration and any intensity that persisted after lumbosacral surgery (within???2 years) [24].

 

MBSR

 

All included RCTs used MBSR interventions that were adapted from the original MBSR program developed at the University of Massachusetts. The two trials of older adults [25,26] utilized adapted 8-week programs with weekly 90-minute sessions. Roughly half of each session was dedicated to mindful meditation (body scan, sitting meditation, walking meditation), the other half to education and discussion. The programs did not incorporate yoga or an all-day silent retreat.

 

Patients in the trial on failed back surgery syndrome [24] participated in a MBSR intervention including 8 weekly 2.5 to 3.5-hour sessions and an additional 6-hour session in the 6th week. Besides education, the program included mindful meditation (sitting meditation, walking meditation) and gentle yoga.

 

Daily homework of 45 minutes meditation was recommended 6 days a week in all 3 trials [24-26].

 

In all 3 trials, MBSR was taught by 2 instructors each who completed the MBSR teacher training and had a long-standing meditation practice. In 2 trials, 1 of the instructors was a physician [25,26], while in the other trial 1 instructor was an osteopathic physician and the other 1 held a master�s degree in psychotherapy [24].

 

Control Conditions

 

Two RCTs compared MBSR to a waiting list control group [24,25]. Control patients did not receive any specific treatment during the course of the study but were offered the MBSR intervention after the post-treatment assessment. One of the RCTs of older adults [26] compared MBSR to a health education program that controlled for time, group size, and homework. Roughly half of each 90-minute session was dedicated to health-related, mainly back pain-related, education, the other half to mental exercise and discussion. Patients were provided a book and a games console with a “brain training” program as homework.

 

Co-Interventions

 

One RCT explicitly allowed patients in both groups to use additional usual medical care including pain medication during the course of the study [24]. The other 2 RCTs did not specify (dis-)allowance or actual use of co-interventions during the course of the study [25,26].

 

Outcome Measures

 

All 3 RCTs assessed post-intervention pain intensity using visual analog scales (VAS) [24], the McGill Pain questionnaire (MPQ) total score [25,26] or the MPQ current pain score [26]. Disability was also assessed post-intervention by all 3 RCTs, all using the Roland Morris Disability Questionnaire (RMDQ). Two RCTs [24,25] measured pain acceptance post-treatment using the Chronic Pain Acceptance Questionnaire (CPAQ). Two RCTs assessed quality of life [25,26] with the Medical Outcomes Study 36-item short-form survey (SF-36). One trial assessed analgesic use with an analgesic medication log [24] and sleep quality with the Pittsburgh Sleep Quality Index (PSQI) [24]. Another trial assessed self-efficacy using the Chronic Pain Self-Efficacy Scale (CPSS) [26] and mindfulness using the Mindful Attention Awareness Scale (MAAS) and the Five Facet Mindfulness Questionnaire (FFMQ) [26].

 

Only one RCT [26] reported group comparisons at longer-term follow-up.

 

Risk of Bias

 

Risk of bias for each study is shown in Table ?2. Risk of selection bias was low in all included RCTs. Only 1 study [26] reported blinding of outcome assessment and no study reported blinding of participants and personnel. However, one study [26] used an adequate active comparison group and treatment expectancy was comparably high in intervention and control group at baseline and post-treatment. Therefore it was judged that outcomes in this study were not likely to be influenced by lack of blinding. Risk of attrition bias was high in 2 out of 3 RCTs, while risk of reporting bias and other bias were low in all 3 RCTs.

 

Table 2 Risk of Bias Assessment of the Included Studies

Table 2: Risk of bias assessment of the included studies using the Cochrane risk of bias tool.

 

Effectiveness of MBSR Compared to No Treatment for Chronic Low Back Pain

 

One trial on mixed non-specific and specific chronic low back pain in older adults did not find any differences between MBSR and a wait-listed control group on pain intensity on the MPQ or back-specific disability as assessed with the RMDQ [25]. While disability improved within the MBSR group, group differences were not of clinical importance. This RCT reported MBSR being superior to wait-list in improving physical functioning, but not bodily pain, global health composite, physical health composite, or mental health composite on the SF-36. Pain acceptance on the CPAQ was reported to be significantly higher after MBSR as compared to no treatment. No differences in outcomes within the MBSR group were reported from end of intervention to 1-month follow-up.

 

One RCT on failed back surgery syndrome reported significant group differences between MBSR and a wait-listed control group in change of pain intensity immediately after the intervention period [24]. The difference in change scores between groups (MBSR: -6.9 cm vs. wait-list: -0.2 cm; sum score of 3 10 cm-VAS) was deemed clinically important. Significant and clinically important group differences after the intervention also were reported for change in disability on the RMDQ (MBSR: -3.6 vs. wait-list +0.1). Further, larger improvements were found for pain acceptance on the CPAQ, medication intake, and sleep quality on the PSQI for the MBSR group. While no group differences were assessed at 40-week follow-up, improvements in the MBSR group were reported to persist at this time point.

 

Effectiveness of MBSR Compared to Health Education for Chronic Low Back Pain

 

One RCT on mixed non-specific and specific chronic low back pain in older adults reported no differences between MBSR and health education on pain intensity on the MPQ or back-specific disability on the RMDQ [26]. While disability improved in both groups, group differences did not reach clinical importance. Group differences at short-term follow-up were reported for emotional role functioning on the SF-36, but not for bodily pain on the SF-36, self-efficacy on the CPSS or mindfulness on the MAAS or the FFMQ [26]. No group differences in disability, pain intensity, self-efficacy, quality of life or mindfulness were found at 4-month follow-up.

 

Safety

 

One RCT did neither report occurrence (or absence) of adverse events nor reasons for drop-outs [24]. Another RCT reported that no serious adverse events occurred [25]. However, 3 patients dropped out from the MBSR group due to unexpected health or family obligations [25]. The third RCT reported that there were no adverse events or drop-outs due to health obligations [26].

 

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Dr. Alex Jimenez’s Insight

Chronic stress can lead to prolonged muscle tension and other health issues. Too much tension in the muscles can begin to place unnecessary amounts of pressure on the bony structures of the body, which may lead to the misalignment of the spine, known as a subluxation. Chronic stress can also lead to nerve irritation. Chiropractic treatment is an effective stress management procedure because careful spinal adjustments and manual manipulations release muscle tension and help restore the body to a more balanced and relaxed state. Chiropractic treatment also helps reduce spinal nerve irritation as well as improve blood circulation. A healthy and balanced spine can be the key to effective stress management.

 

Discussion

 

This systematic review found only limited evidence that MBSR can provide short-term relief of pain and back-related disability in low back pain patients. Statistical significant and clinically relevant group differences were reported in only 1 out of 3 RCTs. Single studies reported effects on physical or emotional well-being but overall, only little effects on quality of life were reported. These results are only partly in line with a recent meta-analysis on mindfulness-based interventions for chronic pain that found MBSR to be superior to controls in reducing pain intensity and increasing physical wellbeing but not in increasing quality of life [14]. However, this meta-analysis included only 1 of the RCTs included in the present review [25].

 

Methodological differences between the included RCTs might explain some of the differences in results: firstly, different control groups were chosen; while 1 RCT used an adequate active control group [26], 2 RCTs compared MBSR to no treatment [24,25] and 1 of those was the only study that reported positive intervention effects on most of the study outcomes [24]. Secondly, another source of heterogeneity are differences in inclusion criteria between studies: the study that showed favorable effects of MBSR included a sample of highly chronified specific low back pain patients [24] while the 2 trials that showed little effects included patients with specific or unspecific low back pain [25,26]. Moreover, the 2 RCTs that did not report significant group differences in pain intensity or back-related disability included only older adults [25,26] while no age restriction was posed in the only RCT that reported effectiveness of MBSR for most outcome measures [24]. It has been argued that standard pain measurement instruments might not be suitable for elderly patients [27,28]. Specialized comprehensive approaches might be needed to correctly assess pain intensity in elderly patients [28]. Thirdly, the 2 RCTs that did not report significant group differences did not include yoga or an all-day retreat in their MBSR program [25,26]. Yoga has been reported to increase back-related function and to decrease disability in patients suffering from low back pain [29,30]. As the only RCT that reported favorable effects of MBSR on functional disability actually included yoga in the MBSR program [24], yoga might be crucial for this effect. Further research should include dismantling studies that separately evaluate the effects of different components of MBSR such as mindful meditation and yoga.

 

Although the use of pain intensity and disability as main outcome measures is in accordance with the IMMPACT recommendations [31], pain relief is not the main aim of MBSR [14]. Instead, patients are guided to accept all varieties of experience, be them pleasant or unpleasant, without elaboration or judgment [5,6]. In accordance with this approach, 2 RCTs reported increased pain acceptance after MBSR interventions [24,25]. Pain acceptance describes patients� attempt to maintain function in spite of their pain as far as possible [32]. Higher pain acceptance has been found to be associated with lower pain intensity and disability [33]. However, whether or not pain acceptance is a mechanism by which MBSR relieves pain in low back pain patients is beyond the scope of this review.

 

At the moment there is no evidence for longer-term effects of MBSR in low back pain. More RCTs with longer follow-ups are needed.

 

Generally, adverse events and reasons for drop-outs were poorly reported. This is unsatisfying since safety is a major issue in evaluating therapies. Further trials should put a focus on detailed reporting of safety data.

 

All included RCTs used MBSR as an intervention. No RCT assessing the effectiveness of MBCT in low back pain patients could be located. This is in line with the aforementioned meta-analysis of chronic pain that could not locate any trials on MBCT either [14].

 

The evidence found in this review is clearly limited due to several reasons. Firstly, the total number of eligible RCTs was small and clinical heterogeneity was high between RCTs. Thus, no meta-analysis could be performed. This review only included trials that were published in peer reviewed scientific journals. Therefore, some RCTs that were published in �grey literature� or conference proceedings only might have been missed. Secondly, the total number of included patients was low. No study included more than 20 patients in each group. More large RCTs are needed to definitely judge the effects of MBSR in low back pain. Thirdly, the evidence was suspect to high attrition bias. Fourthly, 2 out of 3 RCTs compared MBSR with wait-lists. While there is limited evidence that MBSR is effective in low back pain, more research is needed to evaluate superiority or inferiority of MBSR to other active treatments.

 

Conclusions

 

This systematic review found only inconclusive evidence of short-term effectiveness of MBSR in improving pain intensity and disability in patients suffering from low back pain. However, there is limited evidence from 2 wait-list controlled trials that MBSR can improve pain acceptance. Further trials with larger sample size, active control groups and longer follow-up are needed before the evidence for MBSR in low back pain can conclusively be judged.

 

Competing Interests

 

All authors disclose any commercial association that might create a conflict of interest in connection with the submitted manuscript. There is especially no competing financial interest for any of the authors.

 

Authors� Contributions

 

HC was responsible for conception and design of the review, carried out the literature search, performed data analysis, and drafted the manuscript. HH and RL performed data extraction and assessment of risk of bias, participated in conception and design of the review, and critically revised the manuscript. GD participated in conception and design of the review, and critically revised the manuscript. All authors read and approved the final manuscript.

 

Pre-Publication History

 

The pre-publication history for this paper can be accessed here:

www.biomedcentral.com/1472-6882/12/162/prepub

 

Acknowledgements

 

This review was partly supported by a grant from the Rut- and Klaus-Bahlsen-Foundation. The founding source had no influence on the design or conduct of the review; the collection, analysis, or interpretation of the data; or in the draft, revision, or approval of the manuscript.

 

Stress Management: an Exploratory Study of Chiropractic Patients

 

Abstract

 

Background

 

Stress is a recognized variable in the diagnosis, management, and prognosis of musculoskeletal conditions; chiropractic care is reputed to be successful in the management of stress-related visceral conditions. It may be useful for chiropractors to include stress management as a clinical care option.

 

Objective

 

To explore screening tools to aid stress self-assessment, investigate patients’ perceptions of stress management as a chiropractic care option, and examine which stress-management strategies chiropractic patients perceive as most useful.

 

Design

 

A multiphase qualitative study with purposive sampling of chiropractic clinics to maximize the diversity of the patient population. Convenience sampling of patients was undertaken in a Western Australian case study, an inner city, and a national exploratory study. Data for the case study were collected by semistructured interview. Questionnaires and a self-assessed stress-management task were used to collect data from the inner city and national studies. Data was thematically analyzed, and results were triangulated.

 

Results

 

The sample size of chiropractic patients in the West Australian case study was 48, 15 in the Western Australia exploratory study and 36 in the national study. A number of chiropractic patients participating in this study perceive themselves to be stressed and were interested in having stress-management strategies included in their chiropractic care. Individual patients preferred different stress-management options. This qualitative study found little justification for routinely using a stress-assessment technique more complex than asking the patient to rate his or her stress level as absent, minimal, moderate, or severe. Exercise, particularly walking, was found to be a prevalent pasttime among participants in the case study.

 

Conclusion

 

This study was too small to warrant statistical analysis; nonetheless, the results of this study are relevant because some patients believe they would benefit from chiropractic care that includes information about stress-management strategies.

 

In conclusion, chiropractic treatment is growing as a popular stress management option. When we become stressed, the spine can build up continuous tension which can ultimately affect our overall health and wellness. While the research studies above require additional evidence to support the findings, chiropractic treatment has been considered by more individuals as an alternative option for stress management methods and techniques. Information referenced from the National Center for Biotechnology Information (NCBI). The scope of our information is limited to chiropractic as well as to spinal injuries and conditions. To discuss the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .

 

Curated by Dr. Alex Jimenez

 

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Additional Topics: Back Pain

 

According to statistics, approximately 80% of people will experience symptoms of back pain at least once throughout their lifetimes. Back pain is a common complaint which can result due to a variety of injuries and/or conditions. Often times, the natural degeneration of the spine with age can cause back pain. Herniated discs occur when the soft, gel-like center of an intervertebral disc pushes through a tear in its surrounding, outer ring of cartilage, compressing and irritating the nerve roots. Disc herniations most commonly occur along the lower back, or lumbar spine, but they may also occur along the cervical spine, or neck. The impingement of the nerves found in the low back due to injury and/or an aggravated condition can lead to symptoms of sciatica.

 

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EXTRA IMPORTANT TOPIC: Managing Workplace Stress!

 

 

MORE IMPORTANT TOPICS: EXTRA EXTRA: Choosing Chiropractic? | Familia Dominguez | Patients | El Paso, TX Chiropractor

 

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18. Vowles KE, McCracken LM. Acceptance and values-based action in chronic pain: a study of treatment effectiveness and process. J Consult Clin Psychol. 2008;76:397�407. [PubMed]
19. Gardner-Nix J, Backman S, Barbati J, Grummitt J. Evaluating distance education of a mindfulness-based meditation programme for chronic pain management. J Telemed Telecare. 2008;14:88�92. doi: 10.1258/jtt.2007.070811. [PubMed] [Cross Ref]
20. Moher D, Liberati A, Teztlaff J, Altman G. PRISMA Group. Preferred Reporting Items for Systematic Reviews and Meta-Analyses: The PRISMA Statement. Ann Int Med. 2009;51:1�7. [PubMed]
21. Higgins JPT, Green S. Cochrane Handbook for systematic reviews of intervention. [ www.cochrane-handbook.org/%5D Version 5.1.0.
22. Dworkin RH, Turk DC, Wyrwich KW, Beaton D, Cleeland CS, Farrar JT, Haythornthwaite JA, Jensen MP, Kerns RD, Ader DN, Brandenburg N, Burke LB, Cella D, Chandler J, Cowan P, Dimitrova R, Dionne R, Hertz S, Jadad AR, Katz NP, Kehlet H, Kramer LD, Manning DC, McCormick C, McDermott MP, McQuay HJ, Patel S, Porter L, Quessy S, Rappaport BA, Rauschkolb C, Revicki DA, Rothman M, Schmader KE, Stacey BR, Stauffer JW, von Stein T, White RE, Witter J, Zavisic S. Interpreting the clinical importance of treatment outcomes in chronic pain clinical trials: IMMPACT recommendations. J Pain. 2008;9:105�121. doi: 10.1016/j.jpain.2007.09.005. [PubMed] [Cross Ref]
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Chiropractic & Stress Management for Back Pain in El Paso, TX

Chiropractic & Stress Management for Back Pain in El Paso, TX

Stress is a reality of contemporary living. In a society where work hours are increasing and the media is constantly overloading our senses with the most regent tragedy, it’s no wonder why so many people experience higher levels of stress on a regular basis. Fortunately, more healthcare professionals are implementing stress management methods and techniques as a part of a patient’s treatment. While stress is a natural response which helps prepare the body for danger, constant stress can have negative effects on the body, causing symptoms of back pain and sciatica. But, why does too much stress negatively affect the human body?

 

First, it’s important to understand how the body perceives stress. There are three basic “channels” through which we perceive stress: environment, body, and emotions. Environmental stress is rather self-explanatory; if you’re walking down a quiet road and you hear a loud bang nearby, your body will perceive that as an immediate danger. That is an environmental stressor. Pollution could be another example of environmental stress because it externally affects the body the more one is exposed to it.

 

Stress through the body includes disease, lack of sleep and/or improper nutrition. Emotional stress is a little different, since it involves the way our brains interpret certain things. For instance, if someone you work with is being passive-aggressive, you might become stressed. Thoughts such as, “is he mad at me for some reason” or “they must be having a tough morning”, could be perceived as emotional stress. What is unique about emotional stress, however, is that we have control on just how much of it we experience, much more so than environmental or body stressors.

 

Now that we understand how the body can perceive stress in a variety of ways, we can discuss what effects constant stress can have on our overall health and wellness. When the body is placed under stress, through any of the above mentioned channels, the body’s fight or flight response is triggered. The sympathetic nervous system, or SNS, becomes stimulated, which in turn makes the heart beats faster and all of the body’s senses become more intense. This is a leftover defense mechanism from prehistoric times; that is the reason we’ve survived to today, instead of all becoming lunch for hungry predators out in the wild.

 

Unfortunately, the real issue is that in contemporary society, people often become overstressed and the human body is unable to differentiate between an immediate threat and a simple societal issue. Over the years many research studies have been conducted to estimate the effect of chronic stress on the human body, with such effects as hypertension, increased risk for heart disease and damage to muscle tissue as well as symptoms of back pain and sciatica.

 

According to several other research studies, combining stress management methods and techniques with a variety of treatment options can help more effectively improve symptoms and can promote a faster recovery. Chiropractic care is a well-known alternative treatment option utilized to treat a variety of injuries and/or conditions of the musculoskeletal and nervous systems. Because chiropractic treatment focuses on the spine, the root of the nervous system, chiropractic can also help with stress. Among the effects of stress is strain, which may consequently lead to subluxation or misalignment of the spine. Spinal adjustment and manual manipulations can help ease muscle tension, which in turn eases the strain on specific areas of the spine and helps ease subluxation. A balanced spine is a crucial element of handling personal stress. As mentioned before, proper nutrition and sufficient sleep is also a crucial part of stress management, which is chiropractic care offers lifestyle modification advice to further improve the patient’s stress levels as well as decrease their symptoms.

 

The purpose of the article below is to demonstrate the research study process developed to compare complementary and alternative medicine with conventional mind-body therapies for chronic back pain. The randomized controlled trial was carefully conducted and the details behind the research study have been recorded below. As with other research studies, further evidence-based information may be required to effectively determine the effect of stress management with treatment for back pain.

 

Comparison of Complementary and Alternative Medicine with Conventional Mind�Body Therapies for Chronic Back Pain: Protocol for the Mind�Body Approaches to Pain (MAP) Randomized Controlled Trial

 

Abstract

 

Background

 

The self-reported health and functional status of persons with back pain in the United States have declined in recent years, despite greatly increased medical expenditures due to this problem. Although patient psychosocial factors such as pain-related beliefs, thoughts and coping behaviors have been demonstrated to affect how well patients respond to treatments for back pain, few patients receive treatments that address these factors. Cognitive-behavioral therapy (CBT), which addresses psychosocial factors, has been found to be effective for back pain, but access to qualified therapists is limited. Another treatment option with potential for addressing psychosocial issues, mindfulness-based stress reduction (MBSR), is increasingly available. MBSR has been found to be helpful for various mental and physical conditions, but it has not been well-studied for application with chronic back pain patients. In this trial, we will seek to determine whether MBSR is an effective and cost-effective treatment option for persons with chronic back pain, compare its effectiveness and cost-effectiveness compared with CBT and explore the psychosocial variables that may mediate the effects of MBSR and CBT on patient outcomes.

 

Methods/Design

 

In this trial, we will randomize 397 adults with nonspecific chronic back pain to CBT, MBSR or usual care arms (99 per group). Both interventions will consist of eight weekly 2-hour group sessions supplemented by home practice. The MBSR protocol also includes an optional 6-hour retreat. Interviewers masked to treatment assignments will assess outcomes 5, 10, 26 and 52 weeks postrandomization. The primary outcomes will be pain-related functional limitations (based on the Roland Disability Questionnaire) and symptom bothersomeness (rated on a 0 to 10 numerical rating scale) at 26 weeks.

 

Discussion

 

If MBSR is found to be an effective and cost-effective treatment option for patients with chronic back pain, it will become a valuable addition to the limited treatment options available to patients with significant psychosocial contributors to their pain.

 

Trial Registration

 

Clinicaltrials.gov Identifier: NCT01467843.

 

Keywords: Back pain, Cognitive-behavioral therapy, Mindfulness meditation

 

Background

 

Identifying cost-effective treatments for chronic low back pain (CLBP) remains a challenge for clinicians, researchers, payers and patients. About $26 billion is spent annually in the United States in direct costs of medical care for back pain [1]. In 2002, the estimated costs of lost worker productivity due to back pain were $19.8 billion [2]. Despite numerous options for evaluating and treating back pain, as well as the greatly increased medical care resources devoted to this problem, the health and functional status of persons with back pain in the United States has deteriorated [3]. Furthermore, both providers and patients are dissatisfied with the status quo [4-6] and continue to search for better treatment options.

 

There is substantial evidence that patient psychosocial factors, such as pain-related beliefs, thoughts and coping behaviors, can have a significant impact on the experience of pain and its effects on functioning [7]. This evidence highlights the potential value of treatments for back pain that address both the mind and the body. In fact, four of the eight nonpharmacologic treatments recommended by the American College of Physicians and the American Pain Society guidelines for persistent back pain include �mind�body� components [8]. One of these treatments, cognitive-behavioral therapy (CBT), includes mind�body components such as relaxation training and has been found to be effective for a variety of chronic pain problems, including back pain [9-13]. CBT has become the most widely applied psychosocial treatment for patients with chronic back pain. Another mind�body therapy, mindfulness-based stress reduction (MBSR) [14,15], focuses on teaching techniques to increase mindfulness. MBSR and related mindfulness-based interventions have been found to be helpful for a broad range of mental and physical health conditions, including chronic pain [14-19], but they have not been well-studied for chronic back pain [20-24]. Only a few small pilot trials have evaluated the effectiveness of MBSR for back pain [25,26] and all reported improvements in pain intensity [27] or patients� acceptance of pain [28,29].

 

Further research on the comparative effectiveness and cost-effectiveness of mind�body therapies should be a priority in back pain research for the following reasons: (1) the large personal and societal impact of chronic back pain, (2) the modest effectiveness of current treatments, (3) the positive results of the few trials in which researchers have evaluated mind�body therapies for back pain and (4) the growing popularity and safety, as well as the relatively low cost, of mind�body therapies. To help fill this knowledge gap, we are conducting a randomized trial to evaluate the effectiveness, comparative effectiveness and cost-effectiveness of MBSR and group CBT, compared with usual medical care only, for patients with chronic back pain.

 

Specific Aims

 

Our specific aims and their corresponding hypotheses are outlined below.

 

  • 1. To determine whether MBSR is an effective adjunct to usual medical care for persons with CLBP
  • Hypothesis 1: Individuals randomized to the MBSR course will show greater short-term (8 and 26 weeks) and long-term (52 weeks) improvement in pain-related activity limitations, pain bothersomeness and other health-related outcomes than those randomized to continued usual care alone.
  • 2. To compare the effectiveness of MBSR and group CBT in decreasing back pain�related activity limitations and pain bothersomeness
  • Hypothesis 2: MBSR will be more effective than group CBT in decreasing pain-related activity limitations and pain bothersomeness in both the short term and long term. The rationale for this hypothesis is based on (1) the modest effectiveness of CBT for chronic back pain found in past studies, (2) the positive results of the limited initial research evaluating MBSR for chronic back pain and (3) growing evidence that an integral part of MBSR training (but not CBT training)�yoga�is effective for chronic back pain.
  • 3. To identify the mediators of any observed effects of MBSR and group CBT on pain-related activity limitations and pain bothersomeness
  • Hypothesis 3a: The effects of MBSR on activity limitations and pain bothersomeness will be mediated by increases in mindfulness and acceptance of pain.
  • Hypothesis 3b: The effects of CBT on activity limitations and pain bothersomeness will be mediated by changes in pain-related cognition (decreases in catastrophizing, beliefs that one is disabled by pain and beliefs that pain signals harm, as well as increases in perceived control over pain and self-efficacy for managing pain) and changes in coping behaviors (increased use of relaxation, task persistence and coping self-statements and decreased use of rest).
  • 4. To compare the cost-effectiveness of MBSR and group CBT as adjuncts to usual care for persons with chronic back pain
  • Hypothesis 4: Both MBSR and group CBT will be cost-effective adjuncts to usual care.

 

We will also explore whether certain patient characteristics predict or moderate treatment effects. For example, we will explore whether patients with higher levels of depression are less likely to improve with both CBT and MBSR or whether such patients are more likely to benefit from CBT than from MBSR (that is, whether depression level is a moderator of treatment effects).

 

Methods/Design

 

Overview

 

We are conducting a randomized clinical trial in which individuals with CLBP are randomly assigned to group CBT, a group MBSR course or usual care alone (Figure 1). Participants will be followed for 52 weeks after randomization. Telephone interviewers masked to participants� treatment assignments will assess outcomes 4, 8, 26 and 52 weeks postrandomization. The primary outcomes we will assess are pain-related activity limitations and pain bothersomeness. Participants will be informed that the study researchers are comparing �two different widely used pain self-management programs that have been found helpful for reducing pain and making it easier to carry out daily activities�.

 

Figure 1 Flowchart of the Trial Protocol

Figure 1: Flowchart of the trial protocol. CBT, Cognitive-behavioral therapy; MBSR, Mindfulness-based stress reduction.

 

The protocol for this trial has been approved by the Human Subjects Review Committee of the Group Health Cooperative (250681-22). All participants will be required to give their informed consent before enrollment in this study.

 

Study Sample and Setting

 

The primary source of participants for this trial will be the Group Health Cooperative (GHC), a group-model, not-for-profit health-care organization that serves over 600,000 enrollees through its own primary care facilities in Washington state. As needed to achieve recruitment goals, direct mailings will be sent to persons 20 to 70 years of age living in the areas served by the GHC.

 

Inclusion and Exclusion Criteria

 

We are recruiting individuals from 20 to 70 years of age whose back pain has persisted for at least 3 months. The inclusion and exclusion criteria were developed to maximize the enrollment of appropriate patients while screening out patients who have low back pain of a specific nature (for example, spinal stenosis) or a complicated nature or who would have difficulty completing the study measures or interventions (for example, psychosis). Reasons for exclusion of GHC members were identified on the basis of (1) automated data recorded (using the International Classification of Diseases, Ninth Revision coding system), during all visits over the course of the previous year and (2) eligibility interviews conducted by telephone. For non-GHC members, reasons for exclusion were identified on the basis of telephone interviews. Tables 1 and ?2 list the inclusion and exclusion criteria, respectively, as well as the rationale for each criterion and the information sources.

 

Table 1 Inclusion Criteria

 

Table 2 Exclusion Criteria

 

In addition, we require that participants be willing and able to attend the CBT or MBSR classes during the 8-week intervention period if assigned to one of those treatments, and to respond to the four follow-up questionnaires so that we can assess outcomes.

 

Recruitment Procedures

 

Because the study intervention involves classes, we are recruiting participants in ten cohorts consisting of up to forty-five individuals each. We are recruiting participants from three main sources: (1) GHC members who have made visits to their primary care providers for low back pain and whose pain has persisted for at least 3 months, (2) GHC members who have not made a visit to their primary care provider for back pain but who are between the ages of 20 and 70 years and who respond to our nontargeted GHC mailing or our ad in GHC�s twice-yearly magazine and (3) community residents between the ages of 20 and 70 years who respond to a direct mail recruitment postcard.

 

For the targeted GHC population, a programmer will use GHC�s administrative and clinical electronic databases to identify potentially eligible members with a visit in the previous 3 to 15 months to a provider that resulted in a diagnosis consistent with nonspecific low back pain. These GHC members are mailed a letter and consent checklist that explains the study and eligibility requirements. Members interested in participating sign and return a statement indicating their willingness to be contacted. A research specialist then calls the potential participant to ask questions; determine eligibility; clarify risks, benefits and expected commitment to the study; and request informed consent. After informed consent has been obtained from the individual, the baseline telephone assessment is conducted.

 

For the nontargeted GHC population (that is, GHC members without visits with back pain diagnoses received within the previous 3 to 15 months but who could possibly have low back pain), a programmer uses administrative and clinical electronic databases to identify potentially eligible members who were not included in the targeted sample described in the preceding paragraph. This population also includes GHC members who respond to an ad in the GHC magazine. The same methods used for the targeted population are then used to contact and screen the potential participants, obtain their informed consent and collect baseline data.

 

With regard to community residents, we have purchased lists of the names and addresses of a randomly selected sample of people living within our recruitment area who are between 20 and 70 years of age. The people on the list are sent direct mail postcards describing the study including information regarding how to contact study staff if interested in participating. Once an interested person has contacted the research team the same process detailed above is followed.

 

To ensure that all initially screened study participants remain eligible at the time the classes begin, those who consent more than 14 days prior to the start of the intervention classes will be recontacted approximately 0 to 14 days prior to the first class to reconfirm their eligibility. The primary concern is to exclude persons who no longer have at least moderate baseline ratings of pain bothersomeness and pain-related interference with activities. Those individuals who remain eligible and give their final informed consent will be administered the baseline questionnaire.

 

Randomization

 

After completing the baseline assessment, participants will be randomized in equal proportions to the MBSR, CBT or usual care group. Those randomized to the MBSR or CBT group will not be informed of their type of treatment until they arrive at the first classes, which will occur simultaneously in the same building. The intervention group will be assigned on the basis of a computer-generated sequence of random numbers using a program which ensures that allocation cannot be changed after randomization. To ensure balance on a key baseline prognostic factor, randomization will be stratified based on our primary outcome measurement instrument: the modified version of the Roland Disability Questionnaire (RDQ) [30,31]. We will stratify participants into two activity limitations groups: moderate (RDQ score ?12 on a 0 to 23 scale) and high (RDQ scores ?13). Participants will be randomized within these strata in blocks of varying size (three, six or nine) to ensure a balanced but unpredictable assignment of participants. During recruitment, the study biostatistician will receive aggregated counts of participants randomized to each group to assure that the preprogrammed randomization algorithm is functioning properly.

 

Study Treatments

 

Both the group CBT and MBSR class series consist of eight weekly 2-hour sessions supplemented by home activities.

 

Mindfulness-Based Stress Reduction

 

Mindfulness-based stress reduction, a 30-year-old treatment program developed by Jon Kabat-Zinn, is well-described in the literature [32-34]. The authors of a recent meta-analysis found that MBSR had moderate effect sizes for improving the physical and mental well-being of patients with a variety of health conditions [16]. Our MBSR program is closely modeled on the original one and includes eight weekly 2-hour classes (summarized in Table 3), a 6-hour retreat between weeks 6 and 7 and up to 45 minutes per day of home practice. Our MBSR protocol was adapted by a senior MBSR instructor from the 2009 MBSR instructor�s manual used at the University of Massachusetts [35]. This manual permits latitude in how instructors introduce mindfulness and its practice to participants. The handouts and home practice materials are standardized for this study.

 

Table 3 Content of CBT and MBSR Class Sessions

Table 3: Content of cognitive-behavioral therapy and mindfulness-based stress reduction class sessions.

 

Participants will be given a packet of information during the first class that includes a course outline and instructor contact information; information about mindfulness, meditation, communication skills and effects of stress on the body, emotions and behavior; homework assignments; poems; and a bibliography. All sessions will include mindfulness exercises, and all but the first will include yoga or other forms of mindful movement. Participants will be given audio recordings of the mindfulness and yoga techniques, which will have been recorded by their own instructors. Participants will be asked to practice the techniques discussed in each class daily for up to 45 minutes throughout the intervention period and after classes end. They will also be assigned readings to complete before each class. Time will be devoted in each class to a review of challenges that participants have had in practicing what they learned in previous classes and with their homework. An optional day of practice on the Saturday between the sixth and seventh classes will be offered. This 6-hour �retreat� will be held with the participants in silence and only the instructor speaking. This will provide participants an opportunity to deepen what they have learned in class.

 

Cognitive-Behavioral Therapy

 

CBT for chronic pain is well-described in the literature and has been found to be modestly to moderately effective in improving chronic pain problems [9-13]. There is no single, standardized CBT intervention for chronic pain, although all CBT interventions are based on the assumption that both cognition and behavior influence adaptation to chronic pain and that maladaptive cognition and behavior can be identified and changed to improve patient functioning [36]. CBT emphasizes active, structured techniques to teach patients how to identify, monitor and change maladaptive thoughts, feelings and behaviors, with a focus on helping patients to acquire skills that they can apply to a variety of problems and collaboration between the patient and therapist. A variety of techniques are taught, including training in pain coping skills (for example, use of positive coping self-statements, distraction, relaxation and problem-solving). CBT also promotes setting and working toward behavioral goals.

 

Both individual and group formats have been used in CBT. Group CBT is often an important component of multidisciplinary pain treatment programs. We will use a group CBT format because it has been found to be efficacious [37-40], is more resource-efficient than individual therapy and provides patients with the potential benefits deriving from contact with, and support and encouragement from, others with similar experiences and problems. In addition, using group formats for both MBSR and CBT will eliminate intervention format as a possible explanation for any differences observed between the two therapies.

 

For this study, we developed a detailed therapist�s manual with content specific for each session, as well as a participant�s workbook containing materials for use in each session. We developed the therapist�s manual and participant�s workbooks based on existing published resources as well as on materials we have used in prior studies [39-47].

 

The CBT intervention (Table 3) will consist of eight weekly 2-hour sessions that will provide (1) education about the role of maladaptive automatic thoughts (for example, catastrophizing) and beliefs (for example, one�s ability to control pain, hurt equals harm) common in people with depression, anxiety and/or chronic pain and (2) instruction and practice in identifying and challenging negative thoughts, the use of thought-stopping techniques, the use of positive coping self-statements and goal-setting, relaxation techniques and coping with pain flare-ups. The intervention will also include education about activity pacing and scheduling and about relapse prevention and maintenance of gains. Participants will be given audio recordings of relaxation and imagery exercises and asked to set goals regarding their relaxation practice. During each session, participants will complete a personal action plan for activities to be completed between sessions. These plans will be used as logs for setting specific home practice goals and checking off activities completed during the week to be reviewed at the next week�s session.

 

Usual Care

 

The usual care group will receive whatever medical care they would normally receive during the study period. To minimize possible disappointment with not being randomized to a mind�body treatment, participants in this group will receive $50 compensation.

 

Class Sites

 

The CBT and MBSR classes will be held in facilities close to concentrations of GHC members in Washington state (Bellevue, Bellingham, Olympia, Seattle, Spokane and Tacoma).

 

Instructors

 

All MBSR instructors will have received either formal training in teaching MBSR from the Center for Mindfulness at the University of Massachusetts or equivalent training. They will themselves be practitioners of both mindfulness and a body-oriented discipline (for example, yoga), will have taught MBSR previously and will have made mindfulness a core component of their lives. The CBT intervention will be conducted by doctorate-level clinical psychologists with previous experience in providing CBT to patients with chronic pain.

 

Training and Monitoring of Instructors

 

All CBT instructors will be trained in the study protocol for the CBT intervention by the study�s clinical psychologist investigators (BHB and JAT), who are very experienced in administering CBT to patients with chronic pain. BHB will supervise the CBT instructors. One of the investigators (KJS) will train the MBSR instructors in the adapted MBSR protocol and supervise them. Each instructor will attend weekly supervision sessions, which will include discussion of positive experiences, adverse events, concerns raised by the instructor or participants and protocol fidelity. Treatment fidelity checklists highlighting the essential components for each session were created for both the CBT and MBSR arms. A trained research specialist will use the fidelity checklist during live observation of every session. The research specialist will provide feedback to the supervisor to facilitate weekly supervision of the instructors. In addition, all sessions will be audio-recorded. The supervisors will listen to a random sample and requested portions of sessions and will monitor them using the fidelity checklist. Feedback will be provided to the instructors during their weekly supervision sessions. Treatment fidelity will be monitored in both intervention groups by KJS and BHB with assistance from research specialists. In addition, they will review and rate on the fidelity checklist a random sample of the recorded sessions.

 

Participant Retention and Adherence to Home Practice

 

Participants will receive a reminder call before the first class and whenever they miss a class. They will be asked to record their daily home practice on weekly logs. Questions about their home practice during the prior week will also be included in all follow-up interviews. To maintain interviewer blinding, adherence questions will be asked after all outcome data have been recorded.

 

Measures

 

We will assess a variety of participant baseline characteristics, including sociodemographic characteristics, back pain history and expectations of the helpfulness of the mind�body treatments for back pain (Table 4).

 

Table 4 Baseline and Follow-Up Measures

 

We will assess a core set of outcomes for patients with spinal disorders (back-related function, pain, general health status, work disability and patient satisfaction) [48] that are consistent with the Initiative on Methods, Measurement, and Pain Assessment in Clinical Trials recommendations for clinical trials of chronic pain treatment efficacy and effectiveness [49]. We will measure both short-term outcomes (8 and 26 weeks) and long-term outcomes (52 weeks). We will also include a brief, 4-week, midtreatment assessment to permit analyses of the hypothesized mediators of the effects of MBSR and CBT on the primary outcomes. The primary study endpoint is 26 weeks. Participants will be paid $20 for each follow-up interview completed to maximize response rates.

 

Co�Primary Outcome Measures

 

The co�primary outcome measures will be back-related activity limitations and back pain bothersomeness.

 

Back-related activity limitations will be measured with the modified RDQ, which asks whether 23 specific activities have been limited due to back pain (yes or no) [30]. We have further modified the RDQ to ask a question about the previous week rather than just �today�. The original RDQ has been found to be reliable, valid and sensitive to clinical changes [31,48,50-53], and it is appropriate for telephone administration and use with patients with moderate activity limitations [50].

 

Back pain bothersomeness will be measured by asking participants to rate how bothersome their back pain has been during the previous week on a 0 to 10 scale (0?=?�not at all bothersome� and 10?=?�extremely bothersome�). On the basis of data compiled from a similar group of GHC members with back pain, we found this bothersomeness measure to be highly correlated with a 0 to 10 measure of pain intensity (r?=?0.8 to 0.9; unpublished data (DCC and KJS) and with measures of function and other outcome measures [54]. The validity of numerical rating scales of pain has been well-documented, and such scales have demonstrated sensitivity in detecting changes in pain after treatment [55].

 

We will analyze and report these co�primary outcomes in two ways. First, for our primary endpoint analyses, we will compare the percentages of participants in the three treatment groups who achieve clinically meaningful improvement (?30% improvement from baseline) [56,57] at each time point (with 26-week follow-up being the primary endpoint). We will then examine, in a secondary outcome analysis, the adjusted mean differences between groups on these measures at the time of follow-up.

 

Secondary Outcome Measures

 

The secondary outcomes that we will measure are depressive symptoms, anxiety, pain-related activity interference, global improvement with treatment, use of medications for back pain, general health status and qualitative outcomes.

 

Depressive symptoms will be assessed with the Patient Health Questionnaire-8 (PHQ-8) [58]. With the exception of the elimination of a question about suicidal ideation, the PHQ-8 is identical to the PHQ-9, which has been found to be reliable, valid and responsive to change [59,60].

 

Anxiety will be measured with the 2-item Generalized Anxiety Disorder scale (GAD-2), which has demonstrated high sensitivity and specificity in detecting generalized anxiety disorder in primary care populations [61,62].

 

Pain-related activity interference with daily activities will be assessed using three items from the Graded Chronic Pain Scale (GCPS). The GCPS has been validated and shown to have good psychometric properties in a large population survey and in large samples of primary care patients with pain [63,64]. Participants will be asked to rate the following three items on a 0 to 10 scale: their current back pain (back pain �right now�), their worst back pain in the previous month and their average pain level over the previous month.

 

Global improvement with treatment will be measured with the Patient Global Impression of Change scale [65]. This single question asks participants to rate their improvement with treatment on a 7-point scale that ranges from �very much improved� to �very much worse,� with �no change� used as the midpoint. Global ratings of improvement with treatment provide a measure of overall clinical benefit from treatment and are considered one of the core outcome domains in pain clinical trials [49].

 

Use of medications and exercise for back pain during the previous week will be assessed with the 8-, 26- and 52-week questionnaires.

 

General health status will be assessed with the 12-item Short Form Health Survey (SF-12) [66], a widely used instrument that yields summary scores for physical and mental health status. The SF-12 will also be used to calculate quality-adjusted life-years (QALYs) using the Short Form Health Survey in 6 dimensions in the cost-effectiveness analyses [67].

 

Qualitative outcomes will be measured with open-ended questions. We have included open-ended questions in our previous trials and found that they yield valuable insights into participants� feelings about the value of specific components of the interventions and the impact of the interventions on their lives. We therefore will include open-ended questions about these issues at the end of the 8-, 26- and 52-week follow-up interviews.

 

Measures Used in Mediator Analyses

 

In the MBSR arm, we will evaluate the mediating effects of increased mindfulness (measured with the Nonreactivity, Observing, Acting with Awareness, and Nonjudging subscales of the Five Facet Mindfulness Questionnaire short form [68-70]) and increased pain acceptance (measured with the Chronic Pain Acceptance Questionnaire [71,72]) on the primary outcomes. In the CBT arm, we will evaluate the mediating effects of improvements in pain beliefs and/or appraisals (measured with the Patient Self-Efficacy Questionnaire [73]; the Survey of Pain Attitudes 2-item Control, Disability, and Harm scales [74-76]; and the Pain Catastrophizing Scale [77-80]) and changes in the use of pain coping strategies (measured with the Chronic Pain Coping Inventory 2-item Relaxation scale and the complete Activity Pacing scale [81,82]) on the primary outcomes. Although we expect the effects of MBSR and CBT on outcomes to be mediated by different variables, we will explore the effects of all potential mediators on outcomes in both treatment groups.

 

Measures Used in the Cost-Effectiveness Analyses

 

Direct costs will be estimated using cost data extracted from the electronic medical records for back-related services provided or paid by GHC and from patient reports of care not covered by GHC. Indirect costs will be estimated using the Work Productivity and Activity Impairment questionnaire [83]. The effectiveness of the intervention will be derived from the SF-12 general health status measure [84].

 

Data Collection, Quality Control and Confidentiality

 

Data will be collected from participants by trained telephone interviewers using a computer-assisted telephone interview (CATI) version of the questionnaires to minimize errors and missing data. Questions about experiences with specific aspects of the interventions (for example, yoga, meditation, instruction in coping strategies) that would unmask interviewers to treatment groups will be asked at each time point after all other outcomes have been assessed. We will attempt to obtain outcome data from all participants in the trial, including those who never attend or drop out of the classes, those who discontinue enrollment in the health plan and those who move away. Participants who do not respond to repeated attempts to obtain follow-up data by telephone will be mailed a questionnaire including only the two primary outcome measures and offered $10 for responding.

 

We are will collect information at every stage of recruitment, randomization and treatment so that we can report patient flow according to the CONSORT (Consolidated Standards of Reporting Trials) guidelines [85]. To maintain the confidentiality of patient-related information in the database, unique participant study numbers will be used to identify patient outcomes and treatment data. Study procedures are in place to ensure that all masked personnel will remain masked to treatment group.

 

Protection of Human Participants and Assessment of Safety

 

Protection of Human Participants

 

The GHC Institutional Review Board (IRB) approved this study.

 

Safety Monitoring

 

This trial will be monitored for safety by an independent Data and Safety Monitoring Board (DSMB) composed of a primary care physician experienced in mindfulness, a biostatistician and a clinical psychologist with experience in treating patients with chronic pain.

 

Adverse Experiences

 

We will collect data on adverse experiences (AEs) from several sources: (1) reports from the CBT and MBSR instructors of any participants� experiences of concern to them; (2) the 8-, 26- and 52-week CATI follow-up interviews in which the participants are asked about any harm they felt during the CBT or MBSR treatment and any serious health problems they had had during the respective time periods; and (3) spontaneous reports from participants. The project coinvestigators and a GHC primary care internist will review AE reports from all sources weekly. Any serious AEs will be reported promptly to the GHC IRB and the DSMB. AEs that are not serious will be recorded and included in regular DSMB reports. Any identified deaths of participants will be reported to the DSMB chair within 7 days of discovery, regardless of attribution.

 

Stopping Rules

 

The trial will be stopped only if the DSMB believes that there is an unacceptable risk of serious AEs in one or more of the treatment arms. In this case, the DSMB can decide to terminate one of the arms of the trial or the entire trial.

 

Statistical Issues

 

Sample Size and Detectable Differences

 

Our sample size was chosen to ensure adequate power to detect a statistically significant difference between each of the two mind�body treatment groups and the usual care group, as well as power to detect a statistically significant difference between the two mind�body treatment groups. Because we considered patient activity limitations to be the more consequential of our two co�primary outcome measures, we based our sample size calculations on the modified RDQ [30]. We specified our sample size on the basis of the expected percentage of patients with a clinically meaningful improvement measured with the RDQ at the 26-week assessment (that is, at least 30% relative to baseline) [57].

 

Because of multiple comparisons, we will use Fisher�s protected least significant difference test [86], first analyzing if there is any significant difference among all three groups (using the omnibus ?2 likelihood ratio test) for each outcome and each time point. If we find a difference, we will then test for pairwise differences between groups. We will need 264 participants (88 in each group) to achieve 90% power to find either mind�body treatment different from usual care on the RDQ. This assumes that 30% of the usual care group and 55% of each mind�body treatment group will have clinically meaningful improvement on the RDQ at 26 weeks, rates of improvement that are similar to those we observed in a similar back pain population in an evaluation of complementary and alternative treatments for back pain [87]. We will have at least 80% power to detect a significant difference between MBSR and CBT on the RDQ if MBSR is at least 20 percentage points more effective than CBT (that is, 75% of the MBSR group versus 55% of the CBT group).

 

Our other co�primary outcome is the pain bothersomeness rating. With a total sample size of 264 participants, we will have 80% power to detect a difference between a mind�body treatment group and usual care on the bothersomeness rating scale, assuming that 47.5% of usual care and 69.3% of each mind�body treatment group have 30% or more improvement from baseline on the pain bothersomeness rating scale. We will have at least 80% power to detect a significant difference between MBSR and CBT on the bothersomeness rating scale if MBSR is at least 16.7 percentage points more effective than CBT (that is, 87% of the MBSR group versus 69.3% of the CBT group).

 

When analyzing the primary outcomes as continuous measures, we will have 90% power to detect a 2.4-point difference between usual care and either mind�body treatment on the modified RDQ scale scores and a 1.1-point difference between usual care and either mind�body treatment on the pain bothersomeness rating scale (assumes normal approximation to compare two independent means with equal variances and a two-sided P?=?0.05 significance level with standard deviations of 5.2 and 2.4 for RDQ and pain bothersomeness measures, respectively [88]. Assuming an 11% loss to follow-up (slightly higher than that found in our previous back pain trials), we plan to recruit a sample of 297 participants (99 per group).

 

Both of the co�primary outcomes will be tested at the P?<?0.05 level at each time point because they address separate scientific questions. Analyses of both outcomes at all follow-up time points will be reported, imposing a more stringent requirement than simply reporting a sole significant outcome.

 

Statistical Analyses

 

Primary Analyses

 

In our comparisons of treatments based on the outcome measures, we will analyze outcomes assessed at all follow-up time points in a single model, adjusting for possible correlation within individuals and treatment group cohorts using generalized estimating equations [89]. Because we cannot reasonably make an assumption regarding constant or linear group differences over time, we will include an interaction term between treatment groups and time points. We plan to adjust for baseline outcome values, sex and age, as well as other baseline characteristics found to differ significantly by treatment group or follow-up outcomes, to improve precision and power of our statistical tests. We will conduct the following set of analyses for both the continuous outcome score and the binary outcome (clinically significant change from baseline), including all follow-up time points (4, 8, 26 and 52 weeks). The MBSR treatment will be deemed successful only if the 26-week time point comparisons are significant. The other time points will be considered secondary evaluations.

 

We will use an intent-to-treat approach in all analyses; that is, the assessment of individuals will be analyzed by randomized group, regardless of participation in any classes. This analysis minimizes biases that often occur when participants who do not receive the assigned treatments are excluded from analysis. The regression model will be in the following general form:

 

Regression Model General Form

 

where yt is the response at follow-up time t, baseline is the prerandomization value of the outcome measure, treatment includes dummy variables for the MBSR and CBT groups, time is a series of dummy variables indicating the follow-up times and z is a vector of covariates representing other variables adjusted for. (Note that ?1, ?2, ?3 and ?4 are vectors.) The referent group in this model is the usual care group. For binary and continuous outcomes, we will use appropriate link functions (for example, logit for binary). For each follow-up time point at which the omnibus ?2 test is statistically significant, we will go on to test whether there is a difference between MBSR and usual care to address aim 1 and a difference between MBSR and CBT to address aim 2. We will also report the comparison of CBT to usual care. When determining whether MBSR is an effective treatment for back pain, we will require that aim 1, the comparison of MBSR to usual care, must be observed.

 

On the basis of our previous back pain trials, we expect at least an 89% follow-up and, if that holds true, our primary analysis will be a complete case analysis, including all observed follow-up outcomes. However, we will adjust for all baseline covariates that are predictive of outcome, their probability of being missing and differences between treatment groups. By adjusting for these baseline covariates, we assume that the missing outcome data in our model are missing at random (given that baseline data are predictive of missing data patterns) instead of missing completely at random. We will also conduct sensitivity analysis using an imputation method for nonignorable nonresponses to evaluate whether our results are robust enough to compensate for different missing data assumptions [90].

 

Mediator Analyses If MBSR or CBT is found to be effective (relative to usual care and/or to each other) in improving either primary outcome at 26 or 52 weeks, we will move to aim 3 to identify the mediators of the effects of MBSR and group CBT on the RDQ and pain bothersomeness scale. We will perform the series of mediation analyses separately for the two primary outcomes (RDQ and pain bothersomeness scale scores) and for each separate treatment comparator of interest (usual care versus CBT, usual care versus MBSR and CBT versus MBSR). We will conduct separate mediator analyses for the 26- and 52-week outcomes (if MBSR or CBT is found to be effective at those time points).

 

Next, we describe in detail the mediator analysis for the 26-week time point. A similar analysis will be conducted for the 52-week time point. We will apply the framework of the widely used approach of Baron and Kenny [91]. Once we have demonstrated the association between the treatment and the outcome variable (the �total effect� of the treatment on the outcome), the second step will be to demonstrate the association between the treatment and each putative mediator. We will construct a regression model for each mediator with the 4- or 8-week score of the mediator as the dependent variable and the baseline score of the mediator and treatment indicator as independent variables. We will conduct this analysis for each potential mediator and will include as potential mediators in the following step only those that have a P-value ?0.10 for the relationship with the treatment. The third step will be to demonstrate the reduction of the treatment effect on the outcome after removing the effect of the mediators. We will construct a multimediator inverse probability weighted (IPW) regression model [92]. This approach will allow us to estimate the direct effects of treatment after rebalancing the treatment groups with respect to the mediators. Specifically, we will first model the probability of the treatment effects, given the mediators (that is, all mediators that were found to be associated with treatment in step 2), using logistic regression and adjusting for potential baseline confounders. Using this model, we will obtain the estimated probability that each person received the observed treatment, given the observed mediator value. We will then use an IPW regression analysis to model the primary outcomes on treatment status while adjusting for the baseline levels of the outcome and mediator. Comparing the weighted model with the unweighted model will allow us to estimate how much of the direct effect of treatment on the associated outcome can be explained by each potential mediator. The inclusion in step 3 of all mediators found to be significant in step 2 will enable us to examine whether the specific variables that we hypothesized would differentially mediate the effects of MBSR versus CBT in fact mediate the effects of each treatment independently of the effects of the other �process variables�.

 

Cost-Effectiveness Analyses

 

A societal perspective cost�utility analysis (CUA) will be performed to compare the incremental societal costs revealed for each treatment arm (direct medical costs paid by GHC and the participant plus productivity costs) to incremental effectiveness in terms of change in participants� QALYs [93]. This analysis will be possible only for study participants recruited from GHC. This CUA can be used by policymakers concerned with the broad allocation of health-related resources [94,95]. For the payer perspective, direct medical costs (including intervention costs) will be compared to changes in QALYs. This CUA will help us to determine whether it makes economic sense for MBSR to be a reimbursed service among this population. A bootstrap methodology will be used to estimate confidence intervals [96]. In secondary analyses conducted to assess the sensitivity of the results to different cost outcome definitions, such as varying assumptions of wage rates used to value productivity and the inclusion of non-back-related health-care resource utilization [97] in the total cost amounts, will also be considered. In cost-effectiveness analyses, we will use intention to treat and adjust for health-care utilization costs in the one calendar year prior to enrollment and for baseline variables that might be associated with treatment group or outcome, such as medication use, to control for potential confounders. We expect there will be minimal missing data, but sensitivity analyses (as described above for the primary outcomes) will also be performed to assess cost measures.

 

Dr Jimenez White Coat

Dr. Alex Jimenez’s Insight

Stress is the body’s response to physical or psychological pressure. Several factors can trigger stress, which in turn activates the “fight or flight” response, a defense mechanism which prepares the body for perceived danger. When stressed, the sympathetic nervous system becomes stimulated and secretes a complex combination of hormones and chemicals. Short-term stress can be helpful, however long-term stress has been connected to a variety of health issues, including back pain and sciatica symptoms. According to research studies, stress management has become an essential addition for many treatment options because stress reduction may help improve treatment outcome measures. Chiropractic care uses spinal adjustments and manual manipulations together with lifestyle modifications to treat the spine, the root of the nervous system, as well as to promote decreased stress levels through proper nutrition, fitness and sleep.

 

Discussion

 

In this trial, we will seek to determine whether an increasingly popular approach for dealing with stress�mindfulness-based stress reduction�is an effective and cost-effective treatment option for persons with chronic back pain. Because of its focus on the mind as well as the body, MBSR has the potential to address some of the psychosocial factors that are important predictors of poor outcomes. In this trial, we will compare the effectiveness and cost-effectiveness of MBSR with that of CBT, which has been found to be effective for back pain but is not widely available. The study will also explore psychosocial variables that may mediate the effects of MBSR and CBT on patient outcomes. If MBSR is found to be an effective and cost-effective treatment option for persons with chronic back pain, it will be a valuable addition to the treatment options available for patients with significant psychosocial contributors to this problem.

 

Trial Status

 

Recruitment started in August 2012 and was completed in April 2014.

 

Abbreviations

 

AE: Adverse event; CAM: Complementary and alternative medicine; CATI: Computer-assisted telephone interview; CBT: Cognitive-behavioral therapy; CLBP: Chronic low back pain; CUA: Cost�utility analysis; DSMB: Data and Safety Monitoring Board; GHC: Group Health Cooperative; ICD-9: International Classification of Diseases Ninth Revision; IPW: Inverse probability weighting; IRB: Institutional Review Board; MBSR: Mindfulness-based stress reduction; NCCAM: National Center for Complementary and Alternative Medicine; QALY: Quality-adjusted life-year.

 

Competing Interests

 

The authors declare that they have no competing interests.

 

Authors� Contributions

 

DC and KS conceived of the trial. DC, KS, BB, JT, AC, BS, PH, RD and RH participated in refining the study design and implementation logistics and in the selection of outcome measures. AC developed plans for the statistical analyses. JT and AC developed plans for the mediator analyses. BS, BB and JT developed the materials for the CBT intervention. PH developed plans for the cost-effectiveness analyses. DC drafted the manuscript. All authors participated in the writing of the manuscript and read and approved the final manuscript.

 

Acknowledgements

 

The National Center for Complementary and Alternative Medicine (NCCAM) provided funding for this trial (grant R01 AT006226). The design of this trial was reviewed and approved by NCCAM�s Office of Clinical and Regulatory Affairs.

 

In conclusion, environmental, bodily and emotional stressors can trigger the “fight or flight response” in charge of preparing the the human body for danger. Although stress is essential to increase our performance, chronic stress can have a negative impact in the long-run, manifesting symptoms associated with back pain and sciatica. Chiropractic care utilizes a variety of treatment procedures, along with stress management methods and techniques, to help reduce stress as well as improve and manage symptoms associated with injuries and/or conditions of the musculoskeletal and nervous systems.�Information referenced from the National Center for Biotechnology Information (NCBI). The scope of our information is limited to chiropractic as well as to spinal injuries and conditions. To discuss the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .

 

 

Curated by Dr. Alex Jimenez

 

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Additional Topics: Back Pain

 

According to statistics, approximately 80% of people will experience symptoms of back pain at least once throughout their lifetimes. Back pain is a common complaint which can result due to a variety of injuries and/or conditions. Often times, the natural degeneration of the spine with age can cause back pain. Herniated discs occur when the soft, gel-like center of an intervertebral disc pushes through a tear in its surrounding, outer ring of cartilage, compressing and irritating the nerve roots. Disc herniations most commonly occur along the lower back, or lumbar spine, but they may also occur along the cervical spine, or neck. The impingement of the nerves found in the low back due to injury and/or an aggravated condition can lead to symptoms of sciatica.

 

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IMPORTANT TOPIC: EXTRA EXTRA: A Healthier You!

 

 

OTHER IMPORTANT TOPICS: EXTRA: Sports Injuries? | Vincent Garcia | Patient | El Paso, TX Chiropractor

 

 

 

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Stress Management & Low Back Pain in El Paso, TX

Stress Management & Low Back Pain in El Paso, TX

People experience stress on a regular basis. From worries about finances or employment to problems with your kids or significant other, even concerns about the condition of the world, can register as stressors for many individuals. Stress causes both acute (immediate) and chronic (long-term) health issues, including low back pain, a common symptom frequently reported by many patients who suffer from constant stress. Fortunately, several holistic treatment approaches, including chiropractic care, can help alleviate both the feelings and effect of stress, ultimately guiding people through proper stress management methods.

 

Symptoms of Stress

 

Stress triggers the body’s fight or flight response. The adrenaline surge you experience after hearing a loud sound is simply one of the remaining characteristics of our ancestors, afraid that that loud noise came from something which wanted to eat them.

 

Stress causes a number of physical changes in the body, starting with the brain. The heart rate increases and starts directing blood to the other extremities. Hearing and eyesight become more acute. And the adrenal glands begin secreting adrenaline as a means of preparing the body for physical exertion. This is exactly what the “flight or fight response” really means.

 

If you are walking alone at night and hear footsteps behind you, the fight of flight response can be incredibly effective towards your safety. However, if you experience prolonged stress, this sort of physical reaction contributes to a variety of health issues, such as high blood pressure, diabetes, a compromised immune system and muscle tissue damage. That’s because your body doesn’t recognize that there are different kinds of stress; it only knows that stress represents danger and it reacts accordingly.

 

Stress Management with Chiropractic Care

 

Chiropractic care can help improve as well as manage many symptoms of stress. This is because the spine is the root of the nervous system. Spinal adjustments and manual manipulations calm the fight or flight response by activating the parasympathetic system. Additionally, chiropractic can relieve pain and muscular tension, improve circulation, and correct spinal misalignments. These benefits all combine to ease the symptoms of stress, which reduces how stressed the patient feels.

 

A Well-Rounded Strategy

 

Chiropractors guide their patients through an assortment of stress management procedures, including dietary changes, exercise, meditation, and relaxation methods. A healthy diet can help the body handle an assortment of issues, including stress. Following a diet rich in fruits and vegetables, lean proteins, and complex carbohydrates, with minimal processed and prepackaged foods, can significantly improve overall health and wellness. Exercise is an effective stress reliever. The energy you expend through exercise relieves tension as well as the energy of stress. It also releases endorphins, which help elevate mood. Yoga is an especially effective kind of physical activity for relieving stress.

 

Meditation can be performed in a variety of ways and it can be practiced by various healthcare professionals. For some, writing in a journal is a kind of meditation, while others are more conventional in their strategy. Many relaxation techniques are closely linked to meditation, such as breathing exercises, releasing muscle tension, and listening to calming music or nature sounds.

 

  • Breathing exercises are simple and offer immediate stress relief. Begin with inhaling slowly and deeply through your nose, while counting to six and extending your stomach. Hold your breath for a count of four, then release the breath through your mouth, counting to six again. Repeat the cycle for three to five occasions.
  • Release muscle tension through a technique known as “progressive muscle relaxation”. Find a comfortable position, either sitting with your feet on the ground, or lying on your back. Work your way through each muscle group, beginning at your toes or your head, tensing the muscle for a count of five, and then releasing. Wait 30 minutes and then proceed to the next muscle group. Wondering how to tense the muscles of your face? For the face, raise your eyebrows as large as you can and feel the tension in your forehead and scalp. For the central portion of your own face, squint your eyes and wrinkle your nose and mouth. Finally, for the lower face, clench your teeth and pull back the corners of your mouth.
  • Soothing sounds like instrumental music or nature sounds help relax the body and the brain.

 

Maintaining a balanced lifestyle while also incorporating chiropractic care as a stress management strategy is an effective way to help improve and cope with the symptoms of stress. Reducing stress can ultimately help maintain your overall well-being.

 

Mindfulness-Based Stress Reduction and Cognitive-Behavioral Therapy for Chronic Low Back Pain: Similar Effects on Mindfulness, Catastrophizing, Self-Efficacy and Acceptance in a Randomized Controlled Trial

 

Abstract

 

Cognitive-behavioral therapy (CBT) is believed to improve chronic pain problems by decreasing patient catastrophizing and increasing patient self-efficacy for managing pain. Mindfulness-based stress reduction (MBSR) is believed to benefit chronic pain patients by increasing mindfulness and pain acceptance. However, little is known about how these therapeutic mechanism variables relate to each other or whether they are differentially impacted by MBSR versus CBT. In a randomized controlled trial comparing MBSR, CBT, and usual care (UC) for adults aged 20-70 years with chronic low back pain (CLBP) (N = 342), we examined (1) baseline relationships among measures of catastrophizing, self-efficacy, acceptance, and mindfulness; and (2) changes on these measures in the 3 treatment groups. At baseline, catastrophizing was associated negatively with self-efficacy, acceptance, and 3 aspects of mindfulness (non-reactivity, non-judging, and acting with awareness; all P-values <0.01). Acceptance was associated positively with self-efficacy (P < 0.01) and mindfulness (P-values < 0.05) measures. Catastrophizing decreased slightly more post-treatment with MBSR than with CBT or UC (omnibus P = 0.002). Both treatments were effective compared with UC in decreasing catastrophizing at 52 weeks (omnibus P = 0.001). In both the entire randomized sample and the sub-sample of participants who attended ?6 of the 8 MBSR or CBT sessions, differences between MBSR and CBT at up to 52 weeks were few, small in size, and of questionable clinical meaningfulness. The results indicate overlap across measures of catastrophizing, self-efficacy, acceptance, and mindfulness, and similar effects of MBSR and CBT on these measures among individuals with CLBP.

 

Keywords: chronic back pain, self-efficacy, mindfulness, acceptance, catastrophizing, CBT, MBSR

 

Introduction

 

Cognitive-behavioral therapy (CBT) has been demonstrated effective, and is widely recommended, for chronic pain problems.[20] Mindfulness-based interventions (MBIs) also show promise for patients with chronic pain[12,14,25,44,65] and their use by this population is increasing. Understanding the mechanisms of action of psychosocial treatments for chronic pain and commonalities in these mechanisms across different therapies is critical to improving the effectiveness and efficiency of these treatments.[27,52] Key mechanisms of action of CBT for chronic pain include decreased catastrophizing and increased self-efficacy for managing pain.[6-8,56] Increased mindfulness is considered a central mechanism of change in MBIs,[14,26,30] which also increase pain acceptance.[16,21,27,38,59] However, little is known about the associations among pain catastrophizing, self-efficacy, acceptance, and mindfulness prior to psychosocial treatment or about differences in effects of CBT versus MBIs on these variables.

 

There is some evidence suggesting significant associations among these therapeutic mechanism variables. Evidence regarding relationships between catastrophizing and mindfulness is mixed. Some studies[10,18,46] have found negative associations between measures of pain catastrophizing and mindfulness. However, others found no significant relationship[19] or associations (inverse) between catastrophizing and some aspects of mindfulness (non-judging, non-reactivity, and acting with awareness) but not others (e.g., observing).[18] Catastrophizing has also been reported to be associated negatively with pain acceptance.[15,22,60] In a pain clinic sample, general acceptance of psychological experiences was associated negatively with catastrophizing and positively with mindfulness.[19] Pain self-efficacy has been observed to be correlated positively with acceptance and negatively with catastrophizing.[22]

 

Further suggesting overlap across mechanisms of different psychosocial treatments for chronic pain, increases in mindfulness[10] and acceptance[1,64] have been found after cognitive-behavioral pain treatments, and reductions in catastrophizing have been observed after mindfulness-based pain management programs.[17,24,37] Little research has examined effects of MBIs for chronic pain on self-efficacy, although a small pilot study of migraine patients found greater increases in self-efficacy with Mindfulness-Based Stress Reduction (MBSR) training than with usual care.[63] We were unable to identify any studies of the relationships among all these therapeutic mechanism variables or of changes in all these variables with CBT versus an MBI for chronic pain.

 

The aim of this study was to replicate and extend prior research by using data from a randomized controlled trial (RCT) comparing MBSR, CBT, and usual care (UC) for chronic low back pain (CLBP)[12] to examine: (1) baseline relationships among measures of mindfulness and pain catastrophizing, self-efficacy, and acceptance; and (2) short- and long-term changes on these measures in the 3 treatment groups. Based on theory and previous research, we hypothesized that: (1) at baseline, catastrophizing would be inversely related to acceptance, self-efficacy, and 3 dimensions of mindfulness (non-reactivity, non-judging, acting with awareness), but not associated with the observing dimension of mindfulness; (2) at baseline, acceptance would be associated positively with self-efficacy; and (3) from baseline to 26 and 52 weeks, acceptance and mindfulness would increase more with MBSR than with CBT and UC, and catastrophizing would decrease more and self-efficacy would increase more with CBT than with MBSR and UC.

 

Methods

 

Setting, Participants and Procedures

 

Study participants were enrolled in an RCT comparing group MBSR, group CBT, and UC for non-specific chronic back pain between September 2012 and April 2014. We previously reported details of the study methods,[13] Consolidated Standards of Reporting Trials (CONSORT) flow diagram,[12] and outcomes.[12] In brief, participants were recruited from Group Health, an integrated healthcare system in Washington State, and from mailings to residents of communities served by Group Health. Eligibility criteria included age 20 – 70 years, back pain for at least 3 months, patient-rated bothersomeness of pain during the previous week ?4 (0 – 10 scale), and patient-rated pain interference with activities during the previous week ?3 (0 – 10 scale). We used International Classification of Diseases, Ninth Revision, Clinical Modification (ICD-9-CM)43 diagnostic codes from electronic medical records (EMR) of visits in the previous year and telephone screening to exclude patients with specific causes of low back pain. Exclusion criteria also included pregnancy, spine surgery in the previous 2 years, disability compensation or litigation, fibromyalgia or cancer diagnosis, other major medical condition, plans to see a medical specialist for back pain, inability to read or speak English, and participation in a �mind-body� treatment for back pain in the past year. Potential participants were told that they would be randomized to one of �two different widely-used pain self-management programs that have been found helpful for reducing pain and making it easier to carry out daily activities� or to continued usual care. Those assigned to MBSR or CBT were unaware of the specific treatment they would receive until the first intervention session. The study was approved by the Group Health institutional review board and all participants provided informed consent.

 

Participants were randomized to the MBSR, CBT, or UC conditions. Randomization was stratified based on the baseline value of the primary outcome, a modified version of the Roland Disability Questionnaire (RDQ),[42] into 2 back pain-related physical limitation stratification groups: moderate (RDQ score ?12 on the 0 – 23 scale) and high (RDQ scores ?13). To mitigate possible disappointment with not being randomized to CBT or MBSR, participants randomized to UC received $50 compensation. Data were collected from participants in computer-assisted telephone interviews by trained survey staff. All participants were paid $20 for each interview completed.

 

Measures

 

Participants provided descriptive information at the screening and baseline interviews, and completed the study measures at baseline (before randomization) and 8 (post-treatment), 26 (the primary study endpoint), and 52 weeks post-randomization. Participants also completed a subset of the measures at 4 weeks, but these data were not examined for the current report.

 

Descriptive Measures and Covariates

 

The screening and baseline interviews assessed, among other variables not analyzed for the present study, sociodemographic characteristics (age, gender, race, ethnicity, education, work status); pain duration (defined as length of time since a period of 1 or more weeks without low back pain); and number of days with back pain in the past 6 months. In this report, we describe the sample at baseline on these measures and on the primary outcome measures in the RCT: the modified Roland-Morris Disability Questionnaire (RDQ)[42] and a numerical rating of back pain bothersomeness. The RDQ, a widely-used measure of back pain-related functional limitations, asks whether 24 specific activities are limited today by back pain (yes or no).[45] We used a modified version that included 23 items[42] and asked about the previous week rather than today only. Back pain bothersomeness was measured by participants� ratings of how bothersome their back pain was during the previous week on a 0 to 10 numerical rating scale (0 = �not at all bothersome� and 10 = �extremely bothersome�). The covariates for the current report were the same as those in our prior analyses of the interventions� effects on the outcomes:[12] age, gender, education, and pain duration (less than one year versus at least one year since experiencing 1 week without low back pain). We decided a priori to control for these variables because of their potential to affect the therapeutic mechanism measures, participant response to treatment, and/or likelihood of obtaining follow-up information.

 

Measures of Potential Therapeutic Mechanisms

 

Mindfulness. Mindfulness has been defined as the awareness that emerges through purposeful, non-judgmental attention to the present moment.[29] We administered 4 subscales of the Five Facet Mindfulness Questionnaire-Short Form (FFMQ-SF):[5] Observing (noticing internal and external experiences; 4 items); Acting with Awareness (attending to present moment activities, as contrasted to behaving automatically while attention is focused elsewhere; 5 items); Non-reactivity (non-reactivity to inner experiences: allowing thoughts and feelings to arise and pass away without attachment or aversion; 5 items); and Non-judging (non-judging of inner experiences: engaging in a non-evaluative stance towards thoughts, emotions, and feelings; 5-item scale; however, one question [�I make judgments about whether my thoughts are good or bad�] inadvertently was not asked.). The FFMQ-SF has been demonstrated to be reliable, valid, and sensitive to change.[5] Participants rated their opinion of what generally is true for them in terms of their tendency to be mindful in their daily lives (scale from 1 = �never or very rarely true� to 5 = �very often or always true�). For each scale, the score was calculated as the mean of the answered items and thus the possible range was 1-5, with higher scores indicating higher levels of the mindfulness dimension. Prior studies have used sum scores rather than means, but we elected to use mean scores given the greater ease of interpretation.

 

Pain catastrophizing. The Pain Catastrophizing Scale (PCS) is a 13-item measure assessing pain-related catastrophizing, including rumination, magnification, and helplessness.[50] Participants rated the degree to which they had certain thoughts and feelings when experiencing pain (scale from 0 = �not at all� to 4 = �all the time�). Item responses were summed to yield a total score (possible range = 0-52). Higher scores indicate greater endorsement of catastrophic thinking in response to pain.

 

Pain acceptance. The Chronic Pain Acceptance Questionnaire-8 (CPAQ-8), an 8-item version of the 20-item Chronic Pain Acceptance Questionnaire (CPAQ), has been shown to be reliable and valid.[22,23] It has 2 scales: Activity Engagement (AE; engagement in life activities in a normal manner even while pain is being experienced) and Pain Willingness (PW; disengagement from attempts to control or avoid pain). Participants rated items on a scale from 0 (�never true�) to 6 (�always true�). Item responses were summed to create scores for each subscale (possible range 0-24) and the overall questionnaire (possible range 0-48). Higher scores indicate greater activity engagement/pain willingness/pain acceptance. Prior research suggests that the 2 subscales are moderately correlated and that each makes an independent contribution to the prediction of adjustment in people with chronic pain.[22]

 

Pain self-efficacy. The Pain Self-efficacy Questionnaire (PSEQ) consists of 10 items assessing individuals� confidence in their ability to cope with their pain and engage in activities despite their pain, each rated on a scale from 0 = �not at all confident� to 6 = �completely confident.�[39] The questionnaire has been demonstrated to be valid, reliable, and sensitive to change.[39] Item scores are summed to yield a total score (possible range 0-60); higher scores indicate greater self-efficacy.

 

Interventions

 

The 2 interventions were comparable in format (group), duration, frequency, and number of participants per group cohort. Both the MBSR and CBT interventions consisted of 8 weekly 2-hour sessions supplemented by home activities. For each intervention, we developed a therapist/instructor’s manual and participant’s workbook, both with structured and detailed content for each session. In each intervention, participants were assigned home activities and there was emphasis on incorporating intervention content in their daily lives. Participants were given materials to read at home and CDs with relevant content for home practice (e.g., meditation, body scan, and yoga in MBSR; relaxation and imagery exercises in CBT). We previously published detailed descriptions of both interventions,[12,13] but describe them briefly here.

 

MBSR

 

The MBSR intervention was modeled closely after the original program developed by Kabat-Zinn[28] and based on the 2009 MBSR instructor’s manual.[4] It consisted of 8 weekly sessions and an optional 6-hour retreat between the 6th and 7th sessions. The protocol included experiential training in mindfulness meditation and mindful yoga. All sessions included mindfulness exercises (e.g., body scan, sitting meditation) and mindful movement (most commonly, yoga).

 

CBT

 

The group CBT protocol included the techniques most commonly applied in CBT for CLBP[20,58] and used in prior studies.[11,33,41,51,53-55,57,61] The intervention included: (1) education about (a) chronic pain, (b) maladaptive thoughts (including catastrophizing) and beliefs (e.g., inability to control pain, hurt equals harm) common among individuals with chronic pain, (c) the relationships between thoughts and emotional and physical reactions, (d) sleep hygiene, and (e) relapse prevention and maintenance of gains; and (2) instruction and practice in identifying and challenging unhelpful thoughts, generating alternative appraisals that are more accurate and helpful, setting and working towards behavioral goals, abdominal breathing and progressive muscle relaxation techniques, activity pacing, thought-stopping and distraction techniques, positive coping self-statements, and coping with pain flare-ups. None of these techniques were included in the MBSR intervention, and mindfulness, meditation, and yoga techniques were not included in CBT. CBT participants were also given a book (The Pain Survival Guide[53]) and asked to read specific chapters between sessions. During each session, participants completed a personal action plan for activities to do between sessions.

 

Usual Care

 

Patients assigned to UC received no MBSR training or CBT as part of the study and received whatever health care they would customarily receive during the study period.

 

Instructors/Therapists and Treatment Fidelity Monitoring

 

As previously reported,[12] all 8 MBSR instructors received formal training in teaching MBSR from the Center for Mindfulness at the University of Massachusetts or equivalent training and had extensive previous experience teaching MBSR. The CBT intervention was conducted by 4 Ph.D.-level licensed psychologists with previous experience providing individual and group CBT to patients with chronic pain. Details of instructor training and supervision and treatment fidelity monitoring were provided previously.[12]

 

Statistical Analyses

 

We used descriptive statistics to summarize the observed baseline characteristics by randomization group, separately for the entire randomized sample and the subsample of participants who attended 6 or more of the 8 intervention classes (MBSR and CBT groups only). To examine the associations between the therapeutic mechanism measures at baseline, we calculated Spearman rho correlations for each pair of measures.

 

To estimate changes over time in the therapeutic mechanism variables, we constructed linear regression models with the change from baseline as the dependent variable, and included all post-treatment time points (8, 26, and 52 weeks) in the same model. A separate model was estimated for each therapeutic mechanism measure. Consistent with our approach for analyzing outcomes in the RCT,[12] we adjusted for age, gender, education, and baseline values of pain duration, pain bothersomeness, the modified RDQ, and the therapeutic mechanism measure of interest in that model. To estimate the treatment effect (difference between groups in change on the therapeutic mechanism measure) at each time point, the models included main effects for treatment group (CBT, MBSR, and UC) and time point (8, 26, and 52 weeks), and terms for the interactions between these variables. We used generalized estimating equations (GEE)[67] to fit the regression models, accounting for possible correlation between repeated measures from individual participants. To account for potential bias caused by differential attrition across treatment groups, our primary analysis used a 2-step GEE modeling approach to impute missing data on the therapeutic mechanism measures. This approach uses a pattern mixture model framework for non-ignorable non-response and adjusts the variance estimates in the final outcome model parameters to account for using imputed data.[62] We also, as a sensitivity analysis, conducted the regression analyses again with observed rather than imputed data to evaluate whether using imputed data had a substantial effect on the results and to allow direct comparison to other published studies.

 

The primary analysis included all randomized participants, using an intent-to-treat (ITT) approach. We repeated the regression analyses using the subsample of participants who were randomized to MBSR or CBT and who attended at least 6 of the 8 sessions of their assigned treatment (�as-treated� or �per protocol� analysis). For descriptive purposes, using regression models for the ITT sample with imputed data, we estimated mean scores (and their 95% confidence intervals [CI]) on the therapeutic mechanism variables at each time point adjusted for age, gender, education, and baseline values of pain duration, pain bothersomeness, and the modified RDQ.

 

To provide context for interpreting the results, we used t-tests and chi-square tests to compare the baseline characteristics of participants who did versus did not complete at least 6 of the 8 intervention sessions (MBSR and CBT groups combined). We compared intervention participation by group, using a chi-square test to compare the proportions of participants randomized to MBSR versus CBT who completed at least 6 of the 8 sessions.

 

Dr. Alex Jimenez’s Insight

Stress is primarily a part of the “fight or flight” response which helps the body effectively prepare for danger. When the body enters�a state of mental or emotional strain or tension due to adverse or very demanding circumstances,�a complex mix of hormones and chemicals, such as adrenaline, cortisol and norepinephrine, are secreted in order to prepare the body for physical and psychological action.�While short-term stress provides us with the necessary amount of edge required to improve our overall performance, long-term stress has been associated to a variety of health issues, including low back pain and sciatica. Stress management methods and techniques, including meditation and chiropractic care, have been demonstrated to help improve treatment outcomes of low back pain and sciatica. The following article discusses several types of stress management treatments and describes their effect on overall health and wellness.

 

Results

 

Characteristics of the Study Sample

 

As previously reported,[12] among 1,767 individuals who expressed interest in the study and were screened for eligibility, 1,425 were excluded (most commonly due to pain not present for more than 3 months and inability to attend the intervention sessions). The remaining 342 individuals enrolled and were randomized. Among the 342 individuals randomized, 298 (87.1%), 294 (86.0%), and 290 (84.8%) completed the 8-, 26-, and 52-week assessments, respectively.

 

Table 1 shows the characteristics of the sample at baseline. Among all participants, the mean age was 49 years, 66% were female, and 79% reported having had back pain for at least one year without a pain-free week. On average, PHQ-8 scores were at the threshold for mild depressive symptom severity.[32] Mean scores on the Pain Catastrophizing Scale (16-18) were below the various cut-points suggested for clinically relevant catastrophizing (e.g., 24,47 3049). Pain Self-Efficacy Scale scores were somewhat higher on average (about 5 points on the 0-60 scale) in our sample as compared with the primary care patients with low back pain enrolled in an RCT evaluating group CBT in England,[33] and about 15 points higher than among individuals with chronic pain attending a mindfulness-based pain management program in England.[17]

 

Table 1 Baseline Characteristics

 

About half of participants randomized to MBSR (50.9%) or CBT (56.3%) attended at least 6 sessions of their assigned treatment; the difference between treatments was not statistically significant (chi-square test, P = 0.42). At baseline, those randomized to MBSR and CBT who completed at least 6 sessions, as compared to those who did not, were significantly older (mean [SD] = 52.2 [10.9] versus 46.5 [13.0] years) and reported significantly lower levels of pain bothersomeness (mean [SD] = 5.7 [1.3] versus 6.4 [1.7]), disability (mean [SD] RDQ = 10.8 [4.5] versus 12.7 [5.0]), depression (mean [SD] PHQ-8 = 5.2 [4.1] versus 6.3 [4.3]), and catastrophizing (mean [SD] PCS = 15.9 [10.3] versus 18.9 [9.8]), and significantly greater pain self-efficacy (mean [SD] PSEQ = 47.8 [8.3] versus 43.2 [10.3]) and pain acceptance (CPAQ-8 total score mean [SD] = 31.3 [6.2] versus 29.0 [6.7]; CPAQ-8 Pain Willingness mean [SD] = 12.3 [4.1] versus 10.9 [4.8]) (all P-values < 0.05). They did not differ significantly on any other variable shown in Table 1.

 

Baseline Associations Between Therapeutic Mechanism Measures

 

Table 2 shows the Spearman correlations between the therapeutic mechanism measures at baseline. Our hypotheses about the baseline relationships among these measures were confirmed. Catastrophizing was correlated negatively with 3 dimensions of mindfulness (non-reactivity rho = ?0.23, non-judging rho = ?0.30, and acting with awareness rho = ?0.21; all P-values < 0.01), but not associated with the observing dimension of mindfulness (rho = ?0.01). Catastrophizing was also correlated negatively with acceptance (total CPAQ-8 score rho = ?0.55, Pain Willingness subscale rho = ?0.47, Activity Engagement subscale rho = ?0.40) and pain self-efficacy (rho = ?0.57) (all P-values < 0.01). Finally, pain self-efficacy was correlated positively with pain acceptance (total CPAQ-8 score rho = 0.65, Pain Willingness subscale rho = 0.46, Activity Engagement subscale rho = 0.58; all P-values < 0.01).

 

Table 2 Spearman rho Correlations

 

Treatment Group Differences in Changes on Therapeutic Mechanism Measures Among all Randomized Participants

 

Table 3 shows the adjusted mean changes from baseline in each study group and the adjusted mean differences between treatment groups on the therapeutic mechanism measures at each follow-up in the entire randomized sample. Figure 1 shows the adjusted mean PCS scores for each group at each time point. Contrary to our hypothesis that catastrophizing would decrease more with CBT than with MBSR, catastrophizing (PCS score) decreased significantly more from pre- to post-treatment in the MBSR group than in the CBT group (MBSR versus CBT adjusted mean [95% CI] difference in change = ?1.81 [?3.60, ?0.01]). Catastrophizing also decreased significantly more in MBSR than in UC (MBSR versus UC adjusted mean [95% CI] difference in change = ?3.30 [?5.11, ?1.50]), whereas the difference between CBT and UC was not significant. At 26 weeks, the treatment groups did not differ significantly in change in catastrophizing from baseline. However, at 52 weeks, both the MBSR and the CBT groups showed significantly greater decreases than did the UC group, and there was no significant difference between MBSR and CBT.

 

Figure 1 Adjusted Mean PCS Scores

Figure 1: Adjusted mean Pain Catastrophizing Scale (PCS) scores (and 95% confidence intervals) at baseline (pre-randomization), 8 weeks (post-treatment), 26 weeks, and 52 weeks for participants randomized to CBT, MBSR, and UC. Estimated means are adjusted for participant age, gender, education, whether or not at least 1 year since week without pain, and baseline RDQ and pain bothersomeness.

 

Table 3 Adjusted Mean Change from Baseline and Adjusted Mean Differences

 

Figure 2 shows the adjusted mean PSEQ scores for each group at each time point. Our hypothesis that self-efficacy would increase more with CBT than with MBSR and with UC was only partially confirmed. Self-efficacy (PSEQ scores) did increase significantly more from pre- to post-treatment with CBT than with UC, but not with CBT relative to the MBSR group, which also increased significantly more than did the UC group (adjusted mean [95% CI] difference in change on PSEQ from baseline for CBT versus UC = 2.69 [0.96, 4.42]; CBT versus MBSR = 0.34 [?1.43, 2.10]; MBSR versus UC = 3.03 [1.23, 4.82]) (Table 3). The omnibus test for differences across groups in self-efficacy change was not significant at 26 or 52 weeks.

 

Figure 2 Adjusted Mean PSEQ Scores

Figure 2: Adjusted mean Pain Self-Efficacy Questionnaire (PSEQ) scores (and 95% confidence intervals) at baseline (pre-randomization), 8 weeks (post-treatment), 26 weeks, and 52 weeks for participants randomized to CBT, MBSR, and UC. Estimated means are adjusted for participant age, gender, education, whether or not at least 1 year since week without pain, and baseline RDQ and pain bothersomeness.

 

Our hypothesis that acceptance would increase more with MBSR than with CBT and with UC was generally not confirmed. The omnibus test for differences across groups was not significant for the total CPAQ-8 or the Activity Engagement subscale at any time point (Table 3). The test for the Pain Willingness subscale was significant at 52 weeks only, when both the MBSR and CBT groups showed greater increases as compared with UC, but not as compared with each other (adjusted mean [95% CI] difference in change for MBSR versus UC = 1.15 [0.05, 2.24]; CBT versus UC = 1.23 [0.16, 2.30]).

 

Our hypothesis that mindfulness would increase more with MBSR than with CBT was partially confirmed. Both the MBSR and CBT groups showed greater increases as compared with UC on the FFMQ-SF Non-reactivity scale at 8 weeks (MBSR versus UC = 0.18 [0.01, 0.36]; CBT versus UC = 0.28 [0.10, 0.46]), but differences at later follow-ups were not statistically significant (Table 3, Figure 3). There was a significantly greater increase on the Non-judging scale with MBSR versus CBT (adjusted mean [95% CI] difference in change = 0.29 [0.12, 0.46]) as well as between MBSR and UC (0.32 [0.13, 0.50]) at 8 weeks, but no significant difference between groups at later time points (Figure 4). The omnibus test for differences among groups was not significant for the Acting with Awareness or Observing scales at any time point.

 

Figure 3 Adjusted Mean FFMQ-SF Non Reactivity Scores

Figure 3: Adjusted mean Five Facet Mindfulness Questionnaire-Short Form (FFMQ-SF) Non-reactivity scores (and 95% confidence intervals) at baseline (pre-randomization), 8 weeks (post-treatment), 26 weeks, and 52 weeks for participants randomized to CBT, MBSR, and UC. Estimated means are adjusted for participant age, gender, education, whether or not at least 1 year since week without pain, and baseline RDQ and pain bothersomeness.

 

Figure 4 Adjusted Mean FFMQ-SF Non Judging Scores

Figure 4: Adjusted mean Five Facet Mindfulness Questionnaire-Short Form (FFMQ-SF) Non-judging scores (and 95% confidence intervals) at baseline (pre-randomization), 8 weeks (post-treatment), 26 weeks, and 52 weeks for participants randomized to CBT, MBSR, and UC. Estimated means are adjusted for participant age, gender, education, whether or not at least 1 year since week without pain, and baseline RDQ and pain bothersomeness.

 

The sensitivity analyses using observed rather than imputed data yielded almost identical results, with 2 minor exceptions. The difference between MBSR and CBT in change in catastrophizing at 8 weeks, although similar in magnitude, was no longer statistically significant due to slight confidence interval changes. Second, the omnibus test for the CPAQ-8 Pain Willingness scale at 52 weeks was no longer statistically significant (P = 0.07).

 

Treatment Group Differences in Changes on Therapeutic Mechanism Measures Among Participants Randomized to CBT or MBSR Who Completed at Least 6 Sessions

 

Table 4 shows the adjusted mean change from baseline and adjusted mean between-group differences on the therapeutic mechanism measures at 8, 26, and 52 weeks for participants who were randomized to MBSR or CBT and completed 6 or more sessions of their assigned treatment. The differences between MBSR and CBT were similar in size to those in the ITT sample. There were only a few differences in statistical significance of the comparisons. In contrast to the results using the ITT sample, the difference between MBSR and CBT in catastrophizing (PCS) at 8 weeks was no longer statistically significant and at 52 weeks, the CBT group increased significantly more than did the MBSR group on the FFMQ-SF Observing scale (adjusted mean difference in change from baseline for MBSR versus CBT = ?0.30 [?0.53, ?0.07]). The sensitivity analyses using observed rather than imputed data yielded no meaningful differences in results.

 

Table 4 Adjusted Mean Change from Baseline and Adjusted Mean Differences

 

Discussion

 

In this analysis of data from an RCT comparing MBSR, CBT, and UC for CLBP, our hypotheses that MBSR and CBT would differentially affect measures of constructs believed to be therapeutic mechanisms generally were not confirmed. For example, our hypothesis that mindfulness would increase more with MBSR than with CBT was confirmed for only 1 of 4 measured facets of mindfulness (non-judging). Another facet, acting with awareness, increased more with CBT than with MBSR at 26 weeks. Both differences were small. Increased mindfulness after a CBT-based multidisciplinary pain program[10] was reported previously; our findings further support a view that both MBSR and CBT increase mindfulness in the short-term. We found no long-term effects of either treatment relative to UC on mindfulness.

 

Also contrary to hypothesis, catastrophizing decreased more post-treatment with MBSR than with CBT. However, the difference between treatments was small and not statistically significant at later follow-ups. Both treatments were effective compared with UC in decreasing catastrophizing at 52 weeks. Although previous studies demonstrated reductions in catastrophizing after both CBT[35,48,56,57] and mindfulness-based pain management programs,[17,24,37] ours is the first to demonstrate similar decreases for both treatments, with effects up to 1 year.

 

Increased self-efficacy has been shown to be associated with improvements in pain intensity and functioning,[6] and an important mediator of CBT benefits.[56] However, contrary to our hypothesis, pain self-efficacy did not increase more with CBT than with MBSR at any time point. Compared with UC, there were significantly greater increases in self-efficacy with both MBSR and CBT post-treatment. These results mirror previous findings of positive effects of CBT, including group CBT for back pain,[33] on self-efficacy.[3,56,57] Little research has examined self-efficacy changes after MBIs for chronic pain, although self-efficacy increased more with MBSR than with usual care for patients with migraines in a pilot study[63] and more with MBSR than with health education for CLBP in an RCT.[37] Our findings add to knowledge in this area by indicating that MBSR has short-term benefits for pain self-efficacy similar to those of CBT.

 

Prior uncontrolled studies found equivalent increases in pain acceptance after group CBT and Acceptance and Commitment Therapy64 (which, unlike traditional CBT, specifically fosters pain acceptance), and increased acceptance after CBT-based multidisciplinary pain treatment.[1,2] In our RCT, acceptance increased in all groups over time, with only 1 statistically significant difference among the 3 groups across the 3 acceptance measures and 3 follow-up time points (a greater increase with both MBSR and CBT than with UC on the Pain Willingness subscale at 52 weeks). This suggests that acceptance may increase over time regardless of treatment, although this needs to be confirmed in additional research.

 

Two possibilities could explain our previously-reported findings of generally similar effectiveness of MBSR and CBT for CLBP:[12] (1) the treatment effects on outcomes were due to different, but equally effective, therapeutic mechanisms, or (2) the treatments had similar effects on the same therapeutic mechanisms. Our current findings support the latter view. Both treatments may improve pain, function, and other outcomes through different strategies that decrease individuals� views of their pain as threatening and disruptive and encourage activity participation despite pain. MBSR and CBT differ in content, but both include relaxation techniques (e.g., progressive muscle relaxation in CBT, meditation in MBSR, breathing techniques in both) and strategies to decrease the threat value of pain (education and cognitive restructuring in CBT, accepting experiences without reactivity or judgment in MBSR). Thus, although CBT emphasizes learning skills for managing pain and decreasing negative emotional responses, and MBSR emphasizes mindfulness and meditation, both treatments may help patients relax, react less negatively to pain, and view thoughts as mental processes rather than as accurate representations of reality, thereby resulting in decreased emotional distress, activity avoidance, and pain bothersomeness.

 

Our analyses also revealed overlap among measures of different constructs believed to mediate the effects of MBSR and CBT on chronic pain outcomes. As hypothesized, prior to treatment, pain catastrophizing was associated negatively with pain self-efficacy, pain acceptance, and 3 dimensions of mindfulness (non-reactivity, non-judging, and acting with awareness), and pain acceptance was associated positively with pain self-efficacy. Pain acceptance and self-efficacy were also associated positively with measures of mindfulness. Our results are consistent with prior observations of negative associations between measures of catastrophizing and acceptance,[15,19,60] negative correlations between measures of catastrophizing and mindfulness,[10,46,18] and positive associations between measures of pain acceptance and mindfulness.[19]

 

As a group, to the extent that these measures reflect their intended constructs, these findings support a view of catastrophizing as inversely associated with two related constructs that reflect participation in customary activities despite pain but differ in emphasis on disengagement from attempts to control pain: pain acceptance (disengagement from attempts to control pain and participation in activities despite pain) and self-efficacy (confidence in ability to manage pain and participate in customary activities). The similarity of some questionnaire items further supports this view and likely contributes to the observed associations. For example, both the CPAQ-8 and the PSEQ contain items about doing normal activities despite pain. Furthermore, there is an empirical and conceptual basis for a view of catastrophizing (focus on pain with highly negative cognitive and affective responses) as also inversely associated with mindfulness (i.e., awareness of stimuli without judgment or reactivity), and for viewing mindfulness as consistent with, but distinct from, acceptance and self-efficacy. Further work is needed to clarify the relationships between these theoretical constructs and the extent to which their measures assess (a) constructs that are related but theoretically and clinically distinct versus (b) different aspects of an overarching theoretical construct.

 

It remains possible that MBSR and CBT differentially affect important mediators not assessed in this study. Our results highlight the need for further research to more definitively identify the mediators of the effects of MBSR and CBT on different pain outcomes, develop measures that assess these mediators most comprehensively and efficiently, better understand the relationships among therapeutic mechanism variables in affecting outcomes (e.g., decreased catastrophizing may mediate the effect of mindfulness on disability[10]), and refine psychosocial treatments to more effectively and efficiently impact these mediators. Research is also needed to identify patient characteristics associated with response to different psychosocial interventions for chronic pain.

 

Several study limitations warrant discussion. Participants had low baseline levels of psychosocial distress (e.g., catastrophizing, depression) and we studied group CBT, which has demonstrated efficacy,[33,40,55] resource-efficiency, and potential social benefits, but which may be less effective than individual CBT.[36,66] The results may not generalize to more distressed populations (e.g., pain clinic patients), which would have more room to improve on measures of maladaptive functioning and greater potential for treatments to differentially affect these measures, or to comparisons of MBSR with individual CBT.

 

Only somewhat over half of the participants randomized to MBSR or CBT attended at least 6 of the 8 sessions. Results could differ in studies with higher rates of treatment adherence; however, our results in �as-treated� analyses generally mirrored those of ITT analyses. Treatment adherence has been shown to be associated with benefits from both CBT for chronic back pain[31] and MBSR.[9] Research is needed to identify ways to increase MBSR and CBT session attendance, and to determine whether treatment effects on therapeutic mechanism and outcome variables are strengthened with greater adherence and practice.

 

Finally, our measures may not have adequately captured the intended constructs. For example, our mindfulness and pain acceptance measures were short forms of original measures; although these short forms have demonstrated reliability and validity, the original measures or other measures of these constructs might perform differently. Lauwerier et al.[34] note several problems with the CPAQ-8 Pain Willingness scale, including under-representation of pain willingness items. Furthermore, pain acceptance is measured differently across different pain acceptance measures, possibly reflecting differences in definitions.[34]

 

In sum, this is the first study to examine relationships among measures of key hypothesized mechanisms of MBSR and CBT for chronic pain – mindfulness and pain catastrophizing, self-efficacy, and acceptance – and to examine changes in these measures among participants in an RCT comparing MBSR and CBT for chronic pain. The catastrophizing measure was inversely associated with moderately inter-related measures of acceptance, self-efficacy, and mindfulness. In this sample of individuals with generally low levels of psychosocial distress at baseline, MBSR and CBT had similar short- and long-term effects on these measures. Measures of catastrophizing, acceptance, self-efficacy, and mindfulness may tap different aspects of a continuum of cognitive, affective, and behavioral responses to pain, with catastrophizing and activity avoidance at one end of the continuum and continued participation in usual activities and lack of negative cognitive and affective reactivity to pain at the other. Both MBSR and CBT may have therapeutic benefits by helping individuals with chronic pain shift from the former to the latter. Our results suggest the potential value of refining both measures and models of mechanisms of psychosocial pain treatments to more comprehensively and efficiently capture key constructs important in adaptation to chronic pain.

 

Summary

 

MBSR and CBT had similar short- and long-term effects on measures of mindfulness and pain catastrophizing, self-efficacy, and acceptance.

 

Acknowledgements

 

Research reported in this publication was supported by the National Center for Complementary & Integrative Health of the National Institutes of Health under Award Number R01AT006226. Preliminary results related to this study were presented in a poster at the 34th annual meeting of the American Pain Society, Palm Springs, May 2015 (Turner, J., Sherman, K., Anderson, M., Balderson, B., Cook, A., and Cherkin, D.: Catastrophizing, pain self-efficacy, mindfulness, and acceptance: Relationships and changes among individuals receiving CBT, MBSR, or usual care for chronic back pain).

 

Footnotes

 

Conflict of interest statement: Judith Turner receives royalties from PAR, Inc. on sales of the Chronic Pain Coping Inventory (CPCI) and CPCI/Survey of Pain Attitudes (SOPA) score report software. The other authors report no conflicts of interest.

 

In conclusion, stress is part of an essential response necessary to keep our body’s on edge in the case of danger, however, constant stress when there’s no real danger can become a real issue for many individuals, especially when symptoms of low back pain, among others begin to manifest. The purpose of the article above was to determine the effectiveness of stress management in the treatment of low back pain. Ultimately, stress management was concluded to help with treatment. Information referenced from the National Center for Biotechnology Information (NCBI). The scope of our information is limited to chiropractic as well as to spinal injuries and conditions. To discuss the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .

 

Curated by Dr. Alex Jimenez

 

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Additional Topics: Back Pain

 

According to statistics, approximately 80% of people will experience symptoms of back pain at least once throughout their lifetimes. Back pain is a common complaint which can result due to a variety of injuries and/or conditions. Often times, the natural degeneration of the spine with age can cause back pain. Herniated discs occur when the soft, gel-like center of an intervertebral disc pushes through a tear in its surrounding, outer ring of cartilage, compressing and irritating the nerve roots. Disc herniations most commonly occur along the lower back, or lumbar spine, but they may also occur along the cervical spine, or neck. The impingement of the nerves found in the low back due to injury and/or an aggravated condition can lead to symptoms of sciatica.

 

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Close Accordion
Herniated Disc & Sciatica Nonoperative Treatment in El Paso, TX

Herniated Disc & Sciatica Nonoperative Treatment in El Paso, TX

A herniated disc, also known as a slipped or ruptured disc, is a healthcare condition which occurs when a tear in the outer, fibrous ring of an intervertebral disc causes its soft, central portion to bulge out from the damaged, surrounding cartilage. Disc herniations are generally due to the degeneration of the outer ring of an intervertebral disc, known as the anulus fibrosus. Trauma, lifting injuries or straining may also cause a herniated disc. A tear in the intervertebral disc may result in the release of chemicals which may cause irritation and ultimately become the direct cause of severe back pain, even without nerve root compression.

 

Disc herniations also commonly develop following a previously existing disc protrusion, a healthcare condition in which the outermost layers of the anulus fibrosus remain intact, however, these can bulge if the disc is placed under pressure. Unlike a disc herniation, none of the gel-like section escapes the intervertebral disc. Herniated discs often heal on their own within several weeks. Severe disc herniations may require surgery, however, a variety of research studies have demonstrated that nonoperative treatment may help improve and manage the recovery process of a herniated disc without the need for surgical interventions.

 

Surgical vs Nonoperative Treatment for Lumbar Disk Herniation Using The Spine Patient Outcomes Research Trial (SPORT): A Randomized Trial

 

Abstract

 

  • Context: Lumbar diskectomy is the most common surgical procedure performed for back and leg symptoms in US patients, but the efficacy of the procedure relative to nonoperative care remains controversial.
  • Objective: To assess the efficacy of surgery for lumbar intervertebral disk herniation.
  • Design, Setting, and Patients: The Spine Patient Outcomes Research Trial, a randomized clinical trial enrolling patients between March 2000 and November 2004 from 13 multidisciplinary spine clinics in 11 US states. Patients were 501 surgical candidates (mean age, 42 years; 42% women) with imaging-confirmed lumbar intervertebral disk herniation and persistent signs and symptoms of radiculopathy for at least 6 weeks.
  • Interventions: Standard open diskectomy vs nonoperative treatment individualized to the patient.
  • Main Outcome Measures: Primary outcomes were changes from baseline for the Medical Outcomes Study 36-item Short-Form Health Survey bodily pain and physical function scales and the modified Oswestry Disability Index (American Academy of Orthopaedic Surgeons MODEMS version) at 6 weeks, 3 months, 6 months, and 1 and 2 years from enrollment. Secondary outcomes included sciatica severity as measured by the Sciatica Bothersomeness Index, satisfaction with symptoms, self-reported improvement, and employment status.
  • Results: Adherence to assigned treatment was limited: 50% of patients assigned to surgery received surgery within 3 months of enrollment, while 30% of those assigned to nonoperative treatment received surgery in the same period. Intent-to-treat analyses demonstrated substantial improvements for all primary and secondary outcomes in both treatment groups. Between-group differences in improvements were consistently in favor of surgery for all periods but were small and not statistically significant for the primary outcomes.
  • Conclusions: Patients in both the surgery and the nonoperative treatment groups improved substantially over a 2-year period. Because of the large numbers of patients who crossed over in both directions, conclusions about the superiority or equivalence of the treatments are not warranted based on the intent-to-treat analysis.
  • Trial Registration: clinicaltrials.gov Identifier: NCT00000410

 

Lumbar diskectomy is the most common surgical procedure performed in the United States for patients having back and leg symptoms; the vast majority of the procedures are elective. However, lumbar disk herniation is often seen on imaging studies in the absence of symptoms[1,2] and can regress over time without surgery.[3] Up to 15-fold variation in regional diskectomy rates in the United States[4] and lower rates internationally raise questions regarding the appropriateness of some of these surgeries.[5,6]

 

Several studies have compared surgical and nonoperative treatment of patients with herniated disk, but baseline differences between treatment groups, small sample sizes, or lack of validated outcome measures in these studies limit evidence-based conclusions regarding optimal treatment.[7-12] The Spine Patient Outcomes Research Trial (SPORT) was initiated in March 2000 to compare the outcomes of surgical and nonoperative treatment for lumbar intervertebral disk herniation, spinal stenosis, or degenerative spondylolisthesis.[13] The trial included both a randomized cohort and an observational cohort who declined to be randomized in favor of designating their own treatment but otherwise met all the other criteria for inclusion and who agreed to undergo follow-up according to the same protocol. This article reports intent-to-treat results through 2 years for the randomized cohort.

 

Methods

 

Study Design

 

SPORT was conducted at 13 multidisciplinary spine practices in 11 US states (California, Georgia, Illinois, Maine, Michigan, Missouri, Nebraska, New York, New Hampshire, Ohio, Pennsylvania). The human subjects committee of each participating institution approved a standardized protocol. All patients provided written informed consent. An independent data and safety monitoring board monitored the study at 6-month intervals.[13]

 

Patient Population

 

Patients were considered for inclusion if they were 18 years and older and diagnosed by participating physicians during the study enrollment period as having intervertebral disk herniation and persistent symptoms despite some nonoperative treatment for at least 6 weeks. The content of preenrollment nonoperative care was not prespecified in the protocol but included education/counseling (71%), physical therapy (67%), epidural injections (42%), chiropractic therapy (32%), anti-inflammatory medications (61%), and opioid analgesics (40%).

 

Specific inclusion criteria at enrollment were radicular pain (below the knee for lower lumbar herniations, into the anterior thigh for upper lumbar herniations) and evidence of nerve-root irritation with a positive nerve-root tension sign (straight leg raise�positive between 30� and 70� or positive femoral tension sign) or a corresponding neurologic deficit (asymmetrical depressed reflex, decreased sensation in a dermatomal distribution, or weakness in a myotomal distribution). Additionally, all participants were surgical candidates who had undergone advanced vertebral imaging (97% magnetic resonance imaging, 3% computed tomography) showing disk herniation (protrusion, extrusion, or sequestered fragment)[14] at a level and side corresponding to the clinical symptoms. Patients with multiple herniations were included if only one of the herniations was considered symptomatic (ie, if only one was planned to be operated on).

 

Exclusion criteria included prior lumbar surgery, cauda equina syndrome, scoliosis greater than 15�, segmental instability (>10� angular motion or >4-mm translation), vertebral fractures, spine infection or tumor, inflammatory spondyloarthropathy, pregnancy, comorbid conditions contraindicating surgery, or inability/unwillingness to have surgery within 6 months.

 

Study Interventions

 

The surgery was a standard open diskectomy with examination of the involved nerve root.[15,16] The procedure agreed on by all participating centers was performed under general or local anesthesia, with patients in the prone or knee-chest position. Surgeons were encouraged to use loupe magnification or a microscope. Using a midline incision reflecting the paraspinous muscles, the interlaminar space was entered as described by Delamarter and McCullough.[15] In some cases the medial border of the superior facet was removed to provide a clear view of the involved nerve root. Using a small annular incision, the fragment of disk was removed as described by Spengler.[16] The canal was inspected and the foramen probed for residual disk or bony pathology. The nerve root was decompressed, leaving it freely mobile.

 

The nonoperative treatment group received �usual care,� with the study protocol recommending that the minimum nonsurgical treatment include at least active physical therapy, education/counseling with home exercise instruction, and nonsteroidal anti-inflammatory drugs, if tolerated. Other nonoperative treatments were listed, and physicians were encouraged to individualize treatment to the patient; all nonoperative treatments were tracked prospectively.[13,17]

 

Study Measures

 

The primary measures were the Medical Outcomes Study 36-Item Short-Form Health Survey (SF-36) bodily pain and physical function scales[18-21] and the American Academy of Orthopaedic Surgeons MODEMS version of the Oswestry Disability Index (ODI).[22] As specified in the trial protocol, the primary outcomes were changes from baseline in these scales at 6 weeks, 3 months, 6 months, and 1 and 2 years from enrollment.

 

Secondary measures included patient self-reported improvement, work status, and satisfaction with current symptoms and with care.[23] Symptom severity was measured by the Sciatica Bothersomeness Index (range, 0-24; higher scores represent worse symptoms).[24,25]

 

Recruitment, Enrollment, and Randomization

 

A research nurse at each site identified potential participants and verified eligibility. For recruitment and informed consent, evidence-based videotapes described the surgical and non-operative treatments and the expected benefits, risks, and uncertainties.[26,27] Participants were offered enrollment in either the randomized trial or a concurrent observational cohort, the results of which are reported in a companion article.

 

Enrollment began in March 2000 and ended in November 2004. Baseline variables were collected prior to randomization. Patients self-reported race and ethnicity using National Institutes of Health categories.

 

Computer-generated random treatment assignment based on permuted blocks (randomly generated blocks of 6, 8, 10, and 12)[28] within sites occurred immediately after enrollment via an automated system at each site, ensuring proper allocation concealment. Study measures were collected at baseline and at regularly scheduled follow-up visits. Short-term follow-up visits occurred at 6 weeks and 3 months. If surgery was delayed beyond 6 weeks, additional follow-up data were obtained 6 weeks and 3 months postoperatively. Longer-term follow-up visits occurred at 6 months, 1 year from enrollment, and annually thereafter.

 

Statistical Analyses

 

We originally determined a sample size of 250 patients in each treatment group to be sufficient (with a 2-sided significance level of .05 and 85% power) to detect a 10-point difference in the SF-36 bodily pain and physical functioning scales or a similar effect size in the ODI. This difference corresponded to patients’ reports of being �a little better� in the Maine Lumbar Spine Study (MLSS).[29] The sample size calculation allowed for up to 20% missing data but did not account for any specific levels of nonadherence.

 

The analyses for the primary and secondary outcomes used all available data for each period on an intent-to-treat basis. Predetermined end points for the study included results at each of 6 weeks, 3 months, 6 months, 1 year, and 2 years. To adjust for the possible effect of missing data on the study results, the analysis of mean changes for continuous outcomes was performed using maximum likelihood estimation for longitudinal mixed-effects models under �missing at random� assumptions and including a term for treatment center. Comparative analyses were performed using the single imputation methods of baseline value carried forward and last value carried forward, as well as a longitudinal mixed model controlling for covariates associated with missed visits.[30]

 

For binary secondary outcomes, longitudinal logistic regression models were fitted using generalized estimating equations[31] as implemented in the PROC GENMOD program of SAS version 9.1 (SAS Institute Inc, Cary, NC). Treatment effects were estimated as differences in the estimated proportions in the 2 treatment groups.

 

P<.05 (2-sided) was used to establish statistical significance. For the primary outcomes, 95% confidence intervals (CIs) for mean treatment effects were calculated at each designated time point. Global tests of the joint hypothesis of no treatment effect at any of the designated periods were performed using Wald tests[32] as implemented in SAS. These tests account for the intraindividual correlation due to repeated measurements over time.[32]

 

Nonadherence to randomly assigned treatment may mean that the intention-to-treat analysis underestimates the real benefit of the treatment.[33,34] As a preplanned sensitivity analysis, we also estimated an �as-treated� longitudinal analysis based on comparisons of those actually treated surgically and nonoperatively. Repeated measures of outcomes were used as the dependent variables, and treatment received was included as a time-varying covariate. Adjustments were made for the time of surgery with respect to the original enrollment date to approximate the designated follow-up times. Baseline variables that were individually found to predict missing data or treatment received at 1 year were included to adjust for possible confounding.

 

Results

 

SPORT achieved full enrollment, with 501 (25%) of 1991 eligible patients enrolled in the randomized trial. A total of 472 participants (94%) completed at least 1 follow-up visit and were included in the analysis. Data were available for between 86% and 73% of patients at each of the designated follow-up times (Figure 1).

 

Figure 1 Flow Diagram of the SPORT RCT of Disc Herniation

Figure 1: Flow Diagram of the SPORT Randomized Controlled Trial of Disk Herniation: Exclusion, Enrollment, Randomization, and Follow-up.

 

Patient Characteristics

 

Baseline patient characteristics are shown in Table 1. Overall, the study population had a mean age of 42 years, with majorities being male, white, employed, and having attended at least some college; 16% were receiving disability compensation. All patients had radicular leg pain, 97% in a classic dermatomal distribution. Most of the herniations were at L5-S1, posterolateral, and were extrusions by imaging criteria.[14] The 2 randomized groups were similar at baseline.

 

Table 1 Patient Baseline Demographics

 

Nonoperative Treatments

 

A variety of nonoperative treatments were used during the study (Table 2). Most patients received education/counseling (93%) and anti-inflammatory medications (61%) (nonsteroidal anti-inflammatory drugs, cyclooxygenase 2 inhibitors, or oral steroids); 46% received opiates; more than 50% received injections (eg, epidural steroids); and 29% were prescribed activity restriction. Forty-four percent received active physical therapy during the trial; however, 67% had received it prior to enrollment.

 

Table 2 Nonoperative Treatments

 

Surgical Treatment and Complications

 

Table 3 gives the characteristics of surgical treatment and complications. The median surgical time was 75 minutes (interquartile range, 58-90), with a median blood loss of 49.5 mL (interquar-tile range, 25-75). Only 2% required transfusions. There were no perioperative deaths; 1 patient died from complications of childbirth 11 months after enrollment. The most common intraoperative complication was dural tear (4%). There were no postoperative complications in 95% of patients. Reoperation occurred in 4% of patients within 1 year of the initial surgery; more than 50% of the reoperations were for recurrent herniations at the same level.

 

Table 3 Operative Treatments, Complications and Events

 

Nonadherence

 

Nonadherence to treatment assignment affected both groups, ie, some patients in the surgery group chose to delay or decline surgery, and some in the nonoperative treatment group crossed over to receive surgery (Figure 1). The characteristics of crossover patients that were statistically different from patients who did not cross over are shown in Table 4. Those more likely to cross over to receive surgery tended to have lower incomes, worse baseline symptoms, more baseline disability on the ODI, and were more likely to rate their symptoms as getting worse at enrollment than the other patients receiving nonoperative treatment. Those more likely to cross over to receive nonoperative care were older, had higher incomes, were more likely to have an upper lumbar disk herniation, less likely to have a positive straight leg�raising test result, had less pain, better physical function, less disability on the ODI, and were more likely to rate their symptoms as getting better at enrollment than the other surgery patients.

 

Table 4 Statistically Significant Baseline Demographics

 

Missing Data

 

The rates of missing data were equivalent between the groups at each time point, with no evidence of differential dropout according to assigned treatment. Characteristics of patients with missed visits were very similar to those of the rest of the cohort except that patients with missing data were less likely to be married, more likely to be receiving disability compensation, more likely to smoke, more likely to display baseline motor weakness, and had lower baseline mental component summary scores on the SF-36.

 

Intent-to-Treat Analyses

 

Table 5 shows estimated mean changes from baseline and the treatment effects (differences in changes from baseline between treatment groups) for 3 months, 1 year, and 2 years. For each measure and at each point, the treatment effect favors surgery. The treatment effects for the primary outcomes were small and not statistically significant at any of the points. As shown in Figure 2, both treatment groups showed strong improvements at each of the designated follow-up times, with small advantages for surgery. However, for each primary outcome the combined global test for any difference at any period was not statistically significant. This test accounts for intraindividual correlations as described in the �Methods� section.

 

Figure 2 Mean Scores Over Time

Figure 2: Mean Scores Over Time for SF-36 Bodily Pain and Physical Function Scales and Oswestry Disability Index.

 

Table 5 Treatment Effects for Primary and Secondary Outcomes

Table 5: Treatment Effects for Primary and Secondary Outcomes Based on Intent-to-Treat Analyses*

 

For the secondary outcome of sciatica bothersomeness, Table 5 and Figure 3 show that there were greater improvements in the Sciatica Bothersomeness Index in the surgery group at all designated follow-up times: 3 months (treatment effect, ?2.1; 95% CI, ?3.4 to ?0.9), 1 year (treatment effect, ?1.6; 95% CI, ?2.9 to ?0.4), and 2 years (treatment effect, ?1.6; 95% CI, ?2.9 to ?0.3), with results of the global hypothesis test being statistically significant (P=.003). Patient satisfaction with symptoms and treatment showed small effects in favor of surgery while employment status showed small effects in favor of nonoperative care, but none of these changes was statistically significant. Self-rated progress showed a small statistically significant advantage for surgery (P=.04).

 

Figure 3 Measures Over Time

Figure 3: Measures Over Time for Sciatica Bothersomeness Index, Employment Status, Satisfaction With Symptoms, Satisfaction With Care, and Self-rated Improvement.

 

As-treated analyses based on treatment received were performed with adjustments for the time of surgery and factors affecting treatment crossover and missing data. These yielded far different results than the intent-to-treat analysis, with strong, statistically significant advantages seen for surgery at all follow-up times through 2 years. For example, at 1 year the estimated treatment effects for the SF-36 bodily pain and physical function scales, the ODI, and the sciatica measures were 15.0 (95% CI, 10.9 to 19.2), 17.5 (95% CI, 13.6 to 21.5), ?15.0 (95% CI, ?18.3 to ?11.7), and ?3.2 (95% CI, ?4.3 to ?2.1), respectively.

 

Sensitivity analysis was performed for 4 different analytic methods of dealing with the missing data. One method was based on simple mean changes for all patients with data at a given time point with no special adjustment for missing data. Two methods used single imputation methods�baseline value carried forward and last value carried forward.[32] The latter method used the same mixed-models approach for estimating mean changes as given in Table 5 but also adjusted for factors affecting the likelihood of missing data. Treatment effect estimates at 1 year ranged from 1.6 to 2.9 for the SF-36 bodily pain scale, 0.74 to 1.4 for the physical function scale, ?2.2 to ?3.3 for the ODI, and ?1.1 to ?1.6 for the sciatica measures. Given these ranges, there appear to be no substantial differences between any of these methods.

 

Dr Jimenez White Coat

Dr. Alex Jimenez’s Insight

Herniated disc symptoms vary on the location of the condition and on the surrounding soft tissues affected along the spine. Lumbar disc herniations, one of the most common area for herniated discs to occur, are characterized by the compression of the nerve roots along the lower back and can generally cause symptoms of sciatica. Surgery is commonly recommended to treat disc herniations, however, numerous treatment methods can help manage the condition without the need of surgical interventions. A research study conducted on sciatica caused by herniated discs determined that about 73 percent of participants experienced an improvement in symptoms with nonoperative treatment. The results of this article concluded that nonoperative treatment can be as effective as surgery in the treatment of herniated discs.

 

Comment

 

Both operated and nonoperated patients with intervertebral disk herniation improved substantially over a 2-year period. The intent-to-treat analysis in this trial showed no statistically significant treatment effects for the primary outcomes; the secondary measures of sciatica severity and self-reported progress did show statistically significant advantages for surgery. These results must be viewed in the context of the substantial rates of nonadherence to assigned treatment. The pattern of nonadherence is striking because, unlike many surgical studies, both the surgical and nonoperative treatment groups were affected.[35] The most comparable previous trial[8] had 26% crossover into surgery at 1 year, but only 2% crossover out of surgery. The mixing of treatments due to crossover can be expected to create a bias toward the null.[34] The large effects seen in the as-treated analysis and the characteristics of the crossover patients suggest that the intent-to-treat analysis underestimates the true effect of surgery.

 

SPORT findings are consistent with clinical experience in that relief of leg pain was the most striking and consistent improvement with surgery. Importantly, all patients in this trial had leg pain with physical examination and imaging findings that confirmed a disk herniation. There was little evidence of harm from either treatment. No patients in either group developed cauda equina syndrome; 95% of surgical patients had no intraoperative complications. The most common complication, dural tear, occurred in 4% of patients, similar to the 2% to 7% noted in the meta-analysis by Hoffman et al,7 2.2% seen in the MLSS,[29] and 4% in the recent series from Stanford.[36]

 

One limitation is the potential lack of representativeness of patients agreeing to be randomized to surgery or nonoperative care; however, the characteristics of patients agreeing to participate in SPORT were very similar to those in other studies.[29,36] The mean age of 42 years was similar to the mean ages in the MLSS,[29] the series of Spangfort,[37] and the randomized trial by Weber,[8] and only slightly older than those in the recent series from Stanford (37.5 years).[36] The proportion of patients receiving workers’ compensation in SPORT (16%) was similar to the proportion in the Stanford population (19%) but lower than that in the MLSS population (35%), which specifically oversampled patients receiving compensation. Baseline functional status was also similar, with a mean baseline ODI of 46.9 in SPORT vs 47.2 in the Stanford series, and a mean baseline SF-36 physical function score of 39 in SPORT vs 37 in the MLSS.

 

The strict eligibility criteria, however, may limit the generalizability of these results. Patients unable to tolerate symptoms for 6 weeks and demanding earlier surgical intervention were not included, nor were patients without clear signs and symptoms of radiculopathy with confirmatory imaging. We can draw no conclusions regarding the efficacy of surgery in these other groups. However, our entry criteria followed published guidelines for patient selection for elective diskectomy, and our results should apply to the majority of patients facing a surgical decision.[38,39]

 

To fully understand the treatment effect of surgery compared with nonoperative treatment, it is worth noting how each group fared. The improvements with surgery in SPORT were similar to those of prior series at 1 year: for the ODI, 31 points vs 34 points in the Stanford series; for the bodily pain scale, 40 points vs 44 in the MLSS; and for sciatica bothersomeness, 10 points vs 11 in the MLSS. Similarly, Weber[8] reported 66% �good� results in the surgery group, compared with the 76% reporting �major improvement� and 65% satisfied with their symptoms in SPORT.

 

The observed improvements with nonoperative treatment in SPORT were greater than those in the MLSS, resulting in the small estimated treatment effect. The nonoperative improvement of 37, 35, and 9 points in bodily pain, physical function, and sciatica bothersomeness, respectively, were much greater than the improvements of 20, 18, and 3 points reported in the MLSS. The greater improvement with nonoperative treatment in SPORT may be related to the large proportion of patients (43%) who underwent surgery in this group.

 

The major limitation of SPORT is the degree of nonadherence with randomized treatment. Given this degree of crossover, it is unlikely that the intent-to-treat analysis can form the basis of a valid estimate of the true treatment effect of surgery. The �as-treated� analysis with adjustments for possible confounders showed much larger effects in favor of surgical treatment. However, this approach does not have the strong protection against confounding that is afforded by randomization. We cannot exclude the possibility that baseline differences between the as-treated groups, or the selective choice of some but not other patients to cross over into surgery, may have affected these results, even after controlling for important covariates. Due to practical and ethical constraints, this study was not masked through the use of sham procedures. Therefore, any improvements seen with surgery may include some degree of �placebo effect.�

 

Another potential limitation is that the choice of nonoperative treatments was at the discretion of the treating physician and patient. However, given the limited evidence regarding efficacy for most nonoperative treatments for lumbar disk herniation and individual variability in response, creating a limited, fixed protocol for nonoperative treatment was neither clinically feasible nor generalizable. The nonoperative treatments used were consistent with published guidelines.[17,38,39] Compared with the MLSS, SPORT had lower use of activity restriction, spinal manipulation, transcutaneous electrical nerve stimulation, and braces and corsets, and higher rates of epidural steroid injections and use of narcotic analgesics. This flexible nonoperative protocol had the advantages of individualization that considered patient preferences in the choice of nonoperative treatment and of reflecting current practice among multidisciplinary spine practices. However, we cannot make any conclusion regarding the effect of surgery vs any specific nonoperative treatment. Similarly, we cannot adequately assess the relative efficacy of any differences in surgical technique.

 

Conclusion

 

Patients in both the surgery and nonoperative treatment groups improved substantially over the first 2 years. Between-group differences in improvements were consistently in favor of surgery for all outcomes and at all time periods but were small and not statistically significant except for the secondary measures of sciatica severity and self-rated improvement. Because of the high numbers of patients who crossed over in both directions, conclusions about the superiority or equivalence of the treatments are not warranted based on the intent-to-treat analysis alone.

 

Acknowledgments & Footnotes

 

Ncbi.nlm.nih.gov/pmc/articles/PMC2553805/

 

Manipulation or Microdiskectomy for Sciatica? A Prospective Randomized Clinical Study

 

Abstract

 

Objective: The purpose of this study was to compare the clinical efficacy of spinal manipulation against microdiskectomy in patients with sciatica secondary to lumbar disk herniation (LDH).

Methods: One hundred twenty patients presenting through elective referral by primary care physicians to neurosurgical spine surgeons were consecutively screened for symptoms of unilateral lumbar radiculopathy secondary to LDH at L3-4, L4-5, or L5-S1. Forty consecutive consenting patients who met inclusion criteria (patients must have failed at least 3 months of nonoperative management including treatment with analgesics, lifestyle modification, physiotherapy, massage therapy, and/or acupuncture) were randomized to either surgical microdiskectomy or standardized chiropractic spinal manipulation. Crossover to the alternate treatment was allowed after 3 months.

Results: Significant improvement in both treatment groups compared to baseline scores over time was observed in all outcome measures. After 1 year, follow-up intent-to-treat analysis did not reveal a difference in outcome based on the original treatment received. However, 3 patients crossed over from surgery to spinal manipulation and failed to gain further improvement. Eight patients crossed from spinal manipulation to surgery and improved to the same degree as their primary surgical counterparts.

Conclusions: Sixty percent of patients with sciatica who had failed other medical management benefited from spinal manipulation to the same degree as if they underwent surgical intervention. Of 40% left unsatisfied, subsequent surgical intervention confers excellent outcome. Patients with symptomatic LDH failing medical management should consider spinal manipulation followed by surgery if warranted.

 

In conclusion, a herniated disc causes the soft, central portion of an intervertebral disc to bulge out a tear in its outer, fibrous ring as a result of degeneration, trauma, lifting injuries or straining. Most disc herniations can heal on their own but those considered to be severe may require surgical interventions to treat them. Research studies, such as the one above, have demonstrated that nonoperative treatment may help the recovery of a herniated disc without the need for surgery. Information referenced from the National Center for Biotechnology Information (NCBI). The scope of our information is limited to chiropractic as well as to spinal injuries and conditions. To discuss the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .

 

Curated by Dr. Alex Jimenez

 

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Additional Topics: Back Pain

 

According to statistics, approximately 80% of people will experience symptoms of back pain at least once throughout their lifetimes. Back pain is a common complaint which can result due to a variety of injuries and/or conditions. Often times, the natural degeneration of the spine with age can cause back pain. Herniated discs occur when the soft, gel-like center of an intervertebral disc pushes through a tear in its surrounding, outer ring of cartilage, compressing and irritating the nerve roots. Disc herniations most commonly occur along the lower back, or lumbar spine, but they may also occur along the cervical spine, or neck. The impingement of the nerves found in the low back due to injury and/or an aggravated condition can lead to symptoms of sciatica.

 

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Rapid Pain Relief for Herniated Discs in El Paso, TX

Rapid Pain Relief for Herniated Discs in El Paso, TX

Herniated discs are a debilitating condition characterized by pain, numbness and weakness in one or more limbs. While some people may experience no pain at all, those that do may often wish for fast pain relief to avoid long periods of sick leave from their jobs. Many healthcare professionals recommend surgery for patients with persistent and/or worsening herniated disc symptoms but other non-operative treatment options can help treat disc herniations. The purpose of the following article is to demonstrate how a�structured physiotherapy treatment model can provide rapid relief to patients who qualify for lumbar disc surgery.

 

A Structured Physiotherapy Treatment Model Can Provide Rapid Relief to Patients Who Qualify for Lumbar Disc Surgery: A Prospective Cohort Study

 

Abstract

 

  • Objective: To evaluate a structured physiotherapy treatment model in patients who qualify for lumbar disc surgery.
  • Design: A prospective cohort study.
  • Patients: Forty-one patients with lumbar disc herniation, diagnosed by clinical assessments and magnetic resonance imaging.
  • Methods: Patients followed a structured physiotherapy treatment model, including Mechanical Diagnosis and Therapy (MDT), together with graded trunk stabilization training. Study outcome measures were the Oswestry Disability Index, a visual analogue scale for leg and back pain, the Tampa Scale for Kinesiophobia, the European Quality of Life in 5 Dimensions Questionnaires, the Zung Self-Rating Depression Scale, the Self-Efficacy Scale, work status, and patient satisfaction with treatment. Questionnaires were distributed before treatment and at 3-, 12- and 24-month follow-ups.
  • Results: The patients had already improved significantly (p<0.001) 3 months after the structured physiotherapy treatment model in all assessments: disability, leg and back pain, kinesiophobia, health-related quality of life, depression and self-efficacy. The improvement could still be seen at the 2-year follow-up.
  • Conclusion: This study recommends adopting the structured physiotherapy treatment model before considering surgery for patients with symptoms such as pain and disability due to lumbar disc herniation.
  • Keywords: intervertebral disc displacement; rehabilitation; physical therapy modalities.

 

Introduction

 

Symptoms of lumbar disc herniation are relatively common in the general population, although the prevalence rates vary widely between different studies (1). Symptom severity also varies and, in many patients, pain and loss of function may lead to disability and long periods of sick leave (2). Spontaneous resolution of symptoms after a lumbar disc herniation is regarded as common, which makes it difficult to evaluate the effects of treatment. Furthermore, in studies evaluating spontaneous healing, different physiotherapy treatments are often included, together with pain medication (3�5), which makes it difficult to determine the extent of natural healing. On the other hand, in patients with sciatica, but without confirmed disc herniation on magnetic resonance imaging (MRI), approximately one-third of subjects recover 2 weeks after the onset of sciatica and approximately three-quarters recover after 3 months (6).

 

In contrast to evaluating spontaneous healing, surgery for lumbar disc herniation has been investigated in numerous studies. Surgery has been compared with a variety of treatments, such as education, chiropractic, unspecified physiotherapy, acupuncture, injections and medication (7�10). The non-surgical treatments have, however, been described only in vague terms, and variations in treatments have been used. Previous studies have reported favourable short-term (after 1 year) outcomes for surgery, but no major differences between surgical and other treatments have been demonstrated in the long term (over 2 years) (7, 10, 11). The conclusions that are drawn from the comparison between surgery and non-systematic non-surgical treatments may thus be misleading. This has been confirmed in a systematic review, which concluded that there is conflicting evidence as to whether surgery is more beneficial than nonsurgical care for both short- and long-term follow-up (12).

 

Kinesiophobia has been evaluated in patients after lumbar disc surgery, and almost 50% of patients were classified as having kinesiophobia (13). To our knowledge kinesiophobia has not been evaluated in patients with lumbar disc herniation treated with a structured physiotherapy treatment.

 

There are many different non-surgical treatment methods for patients with low-back pain and sciatica. One common management method is Mechanical Diagnosis and Therapy (MDT), also known as the McKenzie method, which aims to eliminate or minimize pain (14). A systematic review from 2004 of the efficacy of MDT showed that patients with low-back pain treated�with MDT reported a greater, more rapid reduction in pain and disability compared with non-steroidal anti-inflammatory drugs (NSAIDs), educational booklets, back massage and back care advice, strength training, spinal mobilization and general exercises (15). In a randomized controlled trial with a 1-year follow-up from 2008, Paatelma and co-workers (16) found that the McKenzie method was only marginally more effective compared with only giving advice to patients with low-back pain. For patients with low-back pain, sciatica and a verified lumbar disc herniation, it has, however, been shown that a selected group of patients who responded to MDT after 5 days of treatment also reported that they were satisfied after 55 weeks (17). The patients started treatment just 12 days after the onset of symptoms and the effects of spontaneous healing cannot therefore be excluded. Taken together, the treatment effects of MDT for patients with a verified lumbar disc herniation appear to require further evaluation.

 

Trunk stabilization exercises, which aim to restore deep trunk muscle control, have been used for the prevention and rehabilitation of low-back pain (18). A randomized controlled trial revealed a reduction in the recurrence of low-back pain episodes after specific trunk stabilization exercises compared with a control group receiving advice and the use of medication (19). Dynamic lumbar stabilization exercises have been found to relieve pain and improve function in patients who have undergone microdiscectomy (20). The effects of trunk stabilization exercises combined with MDT have, however, not been studied in patients with non-operated lumbar disc herniation. MDT is seldom recommended for patients with MRI verified lumbar disc herniation with a broken outer annulus. At our hospital, however, we have several years of good clinical experience of a combination of MDT and trunk stabilization exercises for this category of patients. To our knowledge, no previous study has investigated whether patients with a lumbar disc herniation verified by MRI, symptoms for at least 6 weeks (minimizing effects of spontaneous healing) and who qualified for disc surgery could improve with a structured physiotherapy treatment model including MDT and gradually progressive trunk stabilization exercises. The aim of this study was therefore to�evaluate a structured physiotherapy treatment model in patients who qualified for lumbar disc surgery.

 

Material and Methods

 

During the study inclusion period, 150 patients, who were referred to the orthopaedic clinic at Sahlgrenska University Hospital, Gothenburg, from November 2003 to January 2008, were identified as potential participants since disc herniation was confirmed with MRI. Inclusion criteria were: 18�65 years of age; MRI confirming disc herniation explaining the clinical findings; symptoms for at least 6 weeks (minimizing the effects of spontaneous healing) and pain distribution with concomitant neurological disturbances correlated to the affected nerve root. Exclusion criteria were: cauda equina syndrome, previous spinal surgery, other spinal diseases, such as spinal stenosis and spondylolisthesis, and inadequate command of Swedish. However, 70 patients were excluded because of spontaneous resolution of pain and symptoms. The remaining 80 patients met the inclusion criteria and qualified for surgery. Orthopaedic surgeons determined whether the patients qualified for lumbar disc surgery after MRI and physical examination according to the recommendations of the American Academy of Orthopaedic Surgeons for patients with lumbar disc herniation (21).

 

Figure 1 Study Flowchart

Initially, the study was planned as a randomized controlled trial (RCT) between a structured physiotherapy treatment model and surgery, but the number of patients was not sufficient to obtain acceptable power. Eighteen of the 80 patients were initially randomized to physiotherapy, 17 patients were randomized to surgery and 45 patients did not agree to undergo randomization. Twenty-seven of the 45 patients who did not agree to randomization agreed to take part in the structured physiotherapy treatment and 18 patients agreed to undergo surgery. A decision was therefore made solely to present a cohort of 45 patients treated according to the structured physiotherapytreatment protocol (Fig. 1). Patients were given verbal and written information and informed consent was obtained. The study was approved by the Regional Ethical Review Board.

 

Before structured physiotherapy treatment began, 4 patients recovered to the extent that they could no longer be accepted as surgical candidates and they were therefore excluded from the study. The remaining 41 patients treated according to the structured physiotherapy model are presented in this paper.

 

A Structured Physiotherapy Treatment Model

 

Six physiotherapists with credentialed examinations in MDT, which is an examination within the MDT concept after completing 4 courses of 4 days each for evaluating and treating patients with spinal problems. Following completion of these courses, an extensive literature study and practice in evaluating and treating patients is required before the examination can be completed. The physiotherapists involved in the study had 5�20 years of clinical experience of treating patients with back problems and herniated lumbar disc. The inter-examiner reliability of the MDT assessment has been shown to be good if the examiner is trained in the MDT method (22). The physiotherapists examined and treated the patients during a 9-week period (Table I). For the first 2 weeks of treatment, an MDT protocol was followed, based on clinical examinations of individual mechanical and symptomatic responses to positions and movements, with the aim of minimizing pain and with the emphasis on self-management (14). During the third week of treatment, graded trunk stabilization exercises were added to the MDT protocol. The purpose of graded trunk stabilization exercises was to improve muscle control (23). The low-load muscular endurance exercises were gradually increased in intensity on an individual�basis with respect to the patients� reported leg pain and the observed movement control and quality. During treatment, the patients were encouraged to continue exercising on their own at a gym, or to perform some other type of physical training of their own choice after the structured physiotherapy treatment was concluded. Four weeks after the completion of the 9-week physiotherapy treatment period, the patients attended a follow-up visit with the physiotherapist who had treated them. The aim of this visit was to encourage a high level of compliance with respect to continued trunk stabilization exercises and MDT practice (Table I).

 

Table 1 Treatment Procedures

 

Study Outcome Measures

 

The patients were given a battery of questionnaires to complete. Independent examiners, who were not involved in the treatment, distributed the questionnaires before treatment (baseline) and at the 3-, 12- and 24-month follow-ups.

 

The primary outcome measures were pain intensity in the leg, rated using a visual analogue scale (VAS) 0�100 mm (24) and the Oswestry Disability Index (ODI) 0�100 % (25). A score of 0�10 mm on the VAS was defined as no pain according to �berg et al. (26). An ODI score of 0�20% was defined as minimal or no disability, and a score of over 40% was defined as severe disability (25). These primary outcome measures are commonly used in evaluations after surgery for lowback pain and for assessing patients with lumbar disc herniation (27).

 

Secondary outcome measures included pain intensity in the back rated using a VAS and the degree of kinesiophobia using the Tampa Scale for Kinesiophobia (TSK). The TSK score varies between 17 and 68 and a cut-off more than 37 was defined as a high degree of kinesiophobia (28). Health-Related Quality of Life (HRQoL) in the European Quality of Life in 5 Dimensions Questionnaires (EQ-5D) was used. The EQ-5D includes 2 parts, EQ-5Dindex ranges from 0 to 1.0, where 1.0 is optimal health and EQ-5DVAS is a vertical visual analogue scale ranging from 0 (worst possible health state) to 100 (best possible health state) (29). The Zung Self-Rating Depression Scale (ZDS) ranges from 20�80 and the more depressed the patient is, the higher score (30). The Self-Efficacy Scale (SES) ranges from 8 to 64, with higher scores indicating more positive beliefs (31) was also used. Work status was measured using a 3-grade Likert scale: working full time, full-time sick leave and part-time sick leave. Likewise, patient�satisfaction with treatment was measured on a 3-grade Likert scale; satisfied, less satisfied and dissatisfied (32). These secondary outcome measures evaluate bio-psychosocial factors described as important in connection with lumbar disc surgery (33).

 

Table 2 Baseline Characteristics for the 41 Patients

 

Statistical Analyses

 

The results are presented as median values and interquartile range (IQR), except for age, which is presented as the mean and standard deviation (SD). Changes over time within the group were analysed with the Wilcoxon signed-rank test. Statistical significance was set at an alpha level of 0.05.

 

Results

 

The baseline characteristics are shown in Table II. No patient had undergone surgery at the 3-month follow-up. At the 12-month follow-up, 3 patients had undergone surgery and, at the 24-month follow-up, 1 additional patient had been operated on. After surgery, these 4 patients were excluded from further follow-ups (Fig. 1).

 

Change Over Time in Primary Outcome Measures

 

Disability. The patients showed significant improvements (p < 0.001) in ODI at the 3-month follow-up compared with baseline. The median (IQR) score decreased from 42 (27�53) to 14 (8�33). This improvement could still be seen at 12 and 24 months (Table III and Fig. 2). At baseline, 22 patients reported�severe disability (54%) and 3 patients reported no disability. The degree of disability decreased at the 3-month follow-up, as only 9 patients (22%) reported severe disability and 26 (64%) reported no disability. At 12- and 24-month follow-ups only 2 patients (5%) reported severe disability. At 12-month followup 26 patients still reported no disability, and at 24-month follow-up 27 patients reported no disability.

 

Figure 2 Visual Analogue Scale Leg Pain and Oswestry Disability Index

 

Leg pain. A significant reduction in patients� leg pain was found at the 3-month follow-up (p < 0.001) on the VAS compared with baseline. The median (IQR) on the VAS decreased from 60 (40�75) to 9 (2�27). This improvement could still be seen at the 12- and 24-month follow-ups (Table III and Fig. 2). Before treatment, all patients reported leg pain. Three months after treatment, the median on the VAS was 9 mm, i.e. classified as no leg pain (26). Twenty-three patients (56%) reported no leg pain at the 3-month follow-up. At the 12-month follow-up 22 patients reported no leg pain, and after 24 months 24 patients reported no leg pain.

 

Table 3 Changes Over Time in Primary and Secondary Outcome Measures

 

Change in Secondary Outcome Measures Over Time

 

Back pain. A significant improvement in back pain was found at the 3-month follow-up (p < 0.001) on the VAS compared with baseline. This improvement could still be seen at 12 and 24 months (Table III). At baseline, 6 patients (15%) reported no back pain. Three months after treatment began, 20 patients (49%) reported no back pain.

 

Figure 3 Number of Patients Classified with Kinesiophobia at Baseline

 

Kinesiophobia. The degree of kinesiophobia showed a significant improvement at the 3-month follow-up (p < 0.001) and the improvement could be seen throughout the follow-up period (Table III). Before treatment, 25 patients (61%) were classified as having kinesiophobia and 15 patients (37%) had no kinesiophobia, while data for 1 patient was missing. After 3 months, 15 patients (37%) had kinesiophobia and 26 (63%) had no kinesiophobia. At the 12-month follow-up, the number of patients with kinesiophobia had reduced to 4 (11%) (Fig. 3).

 

Health-related quality of life, depression and self-efficacy. All 4 assessments (EQ-5Dindex, EQ-5DVAS, ZDS and SES) showed significant improvements at the 3-month follow-up (p < 0.001). This improvement could still be seen at 12 and 24 months (Table III).

 

Sick leave. At baseline, 22 patients (54%) were on full-time sick leave (Table IV), compared with 9 (22%) patients at�the 3-month follow-up. At baseline, 14 patients (34%) were working full time, compared with 22 (54%) at the 3-month follow-up.

 

Table 4 Number of Patients on Sick Leave at Each Follow Up

 

Satisfaction with Treatment

 

At the 3-month follow-up, 32 (78%) of 41 patients were satisfied with the structured physiotherapy treatment. Seven patients were less satisfied and 2 patients were dissatisfied. Both of the dissatisfied patients were later operated. At the 2-year follow-up, the number of satisfied patients was 29 (80%) of 36. Seven patients were less satisfied, but none dissatisfied after structured physiotherapy treatment.

 

Dr Jimenez White Coat

Dr. Alex Jimenez’s Insight

A disc herniation in the lumbar spine can cause pain, numbness and weakness in the lower back. Because of the severity of the symptoms, many patients seeking fast pain relief consider surgery. However, many non-operative treatment options can help improve as well as manage lumbar herniated disc symptoms.�A structured physiotherapy treatment model can provide rapid pain relief to patients who would otherwise qualify for lumbar disc surgery, according to the following article. Patients looking to avoid taking long periods of sick leave from work due to their symptoms may benefit from a structured physiotherapy treatment model. As with any type of injury and/or condition, the use of other treatment options should be properly considered before turning to surgical interventions for fast pain relief.

 

Discussion

 

The principal finding of this study was that patients who qualified for lumbar disc surgery improved to a statistically significant and clinically substantial degree just 3 months after the start of the structured physiotherapy treatment in all assessments: disability, leg and back pain, kinesiophobia, health-related quality of life, depression and self-efficacy. The improvements could still be seen at the 2-year follow-up.

 

The natural course of healing must be considered carefully, especially when evaluating treatment effects in patients with disc herniation. The symptoms often vary over time and many discs heal spontaneously and the symptoms cease. Approximately 75% of patients with sciatica, without an MRI-verified disc herniation, recover within 3 months, and approximately one-third of patients recover within 2 weeks after the onset of sciatica (6). The natural course of sciatica was evaluated in a randomized controlled trial (34), which compared NSAIDs with placebo. The patients were, however, examined within 14 days after the onset of radiating leg pain. After 3 months, 60% of the patients had recovered and, after 12 months, 70% had recovered. In order to minimize the influence of spontaneous healing in the present study, the patients were therefore included only if they had had persistent pain and disability for more than 6 weeks. In fact, the majority of the patients had had pain and disability for more than 3 months. It is therefore most likely that the effects of treatment seen in the present study are, in the majority of patients, an effect of the structured physiotherapy treatment model and not a result of spontaneous healing.

 

In the study by Weber et al. (34), the VAS leg pain mean score was reduced from 54 mm at baseline to 19 mm within 4 weeks for all 183 patients, regardless of treatment. After 1 year, the VAS leg pain mean score was 17 mm. The patients in the present study who were a little worse at baseline (60 mm) reported 9 mm on the VAS leg pain just 3 months after treatment. Consequently, in the present study, the median VAS level had already been reduced to under the no-pain score, defined as 0�10 on the VAS (26), at the 3-month follow-up and this was maintained to the 12- and 24-month follow-ups.

 

Physiotherapy treatment for patients with lumbar disc herniation can lead to improvements. Br�tz et al. (17) included a selected group of patients who responded with the centralization of pain after the first 5 daily sessions of treatment according to the MDT method. Centralization of pain is defined as a clinically induced change in the location of pain referred from the spine, that moves from the most distal position toward the lumbar midline (35). However, the patients� medium duration of symptoms before treatment was only 12 days and the possibility that patients recovered naturally cannot therefore be excluded (17).

 

In a retrospective study, 95 patients were treated with a functional restoration programme (36). The patients achieved significant improvements after a mean treatment period of 8.7 months. The evaluation was performed at discharge only. With a treatment period of this length, it is, however, difficult to differentiate between the effects of treatment and the natural healing process. In the present study, a shorter treatment period was adopted, and large and significant improvements were found after just 3 months and were still present at the 24-month follow-up. It is therefore not likely that the natural healing process was responsible for the positive results in the present study.

 

In a prospective study of 82 consecutive patients with acute severe sciatica, included for conservative management, only a minority of the patients had made a full recovery after 12 months (37). Twenty-five percent of the patients underwent surgery within 4 months and one-third had surgery within 1 year. In spite of the fact that the inclusion criteria in the present study followed the recommendations for surgery (21, 38), no patient required surgery at the 3-month follow-up and, after 12 months, only 3 patients (7%) had undergone surgery. The interpretation of the divergence could be that the structured physiotherapy treatment model used in the present study appeared to influence patients with lumbar disc herniation in a very positive direction. One recommendation is therefore to follow the structured physiotherapy treatment model before considering surgery.

 

In this study, MRI verification of disc herniation was an inclusion criterion. In clinical practice, MRI verification is not mandatory, as it is in surgical treatment, before introducing structured physiotherapy treatment to patients with symptoms from a disc herniation. Consequently, treatment according to the structured physiotherapy treatment model can start early after the commencement of symptoms, as it is not necessary to wait for an MRI. It is possible to speculate that, if treatment with a structured physiotherapy model starts earlier than in the present study, the improvements would be even better, further reducing the risk of persistent pain and accompanying problems. Moreover, the need for MRI is likely to diminish; this, however, should be further evaluated in future studies.

 

One explanation for the good results of this study could be that the patients followed a structured physiotherapy treatment model, comprising MDT and trunk stabilization exercises, allowing for an individual design and progression of the treatment. Similar results were described in a retrospective cohort study (39) using several treatment methods for pain control as well as for exercise training for patients with lumbar disc herniation. The evaluation was not carried out until approximately 31 months after treatment. The results of Saal et al. (39) and of the present study are in agreement, in that structured physiotherapy treatment can reduce symptoms, but symptoms were relieved much more rapidly in the present study.

 

In a multicentre study comprising 501 patients, randomized to surgery or non-operative care, 18% of the patients assigned to non-operative treatment underwent surgery within 6 weeks and 30% had surgery at approximately 3 months (7). The nonoperative treatment group received non-specified �usual care�, which could include a variety of different treatment methods. In contrast, the patients in the present study were offered a structured physiotherapy treatment model that included both bio-psychological and social components, as described in the International Classification of Functioning, Disability and Health (40).

 

There are many possible explanations for the positive effects seen in this present study, and 5 of these will now be discussed. Firstly, the patients were well informed about the design of the structured physiotherapy treatment model, including the timetable for different phases of the treatment and when the treatment was planned to end. This information enhanced the patients� opportunity for self-management and gave them an active role in treatment decision-making.

 

Secondly, the patients acquired strategies to deal with their pain by using the different activities and movements in order to reduce pain according to the MDT method (14). The MDT method aims to enhance the patients� ability to cope with the symptoms, motivate the patient to comply with the treatment and empower them to achieve independence. Leijon et al. (41) have shown that low levels of motivation plus pain are important factors that enhance non-adherence to physical activity. It therefore appears important to reduce pain and increase motivation as early as possible. It is reasonable to believe that, when the patients participated in the evaluation of different activities and exercises, this augmented their opportunity to discover the connection between activities and the following reduction or increase in symptoms. This could have led to the increased self-efficacy and empowerment of the patients. The use of empowerment in physiotherapy has been recommended in a review by Perrault (42), who argues that empowerment improves the intervention.

 

Thirdly, the intensity of exercises was gradually increased on an individual basis with respect to the patients� reported pain. The objective was to strengthen the patients� self-efficacy, which also improved significantly in the present study. Fourthly, the trunk stabilization exercises were conducted with the aim of increasing deep trunk muscle control (23). It can be speculated that the physiological effects of training may also have led to reduced pain through increased blood circulation, muscle relaxation and the release of pain-reducing substances, such as endorphins.

 

Finally, one reason for the improvements could be that the physiotherapists were experienced and well educated in the MDT method. Subsequently, the physiotherapists were able to guide the patients during the rehabilitation process. It is, however, not possible to determine whether and how much each of the reasons discussed above contributed to the improvements. It seems reasonable to assume that all 5 factors were operating.

 

In this study, the majority of patients experienced kinesiophobia before treatment started. As early as 3 months after the structured physiotherapy treatment started, the number of patients with kinesiophobia fell dramatically and the majority of patients no longer experienced kinesiophobia. These results are in agreement with those of a study of patients with chronic pain and high kinesiophobia who increased their physical activity level after a pain management programme designed to enable the patients to regain overall function (43).

 

There are some limitations to this study. It is not possible to exclude the possibility that some patients may have improved spontaneously without treatment. Measures were taken to limit this risk by using symptoms for at least 6 weeks as an inclusion criterion. Again, the majority of patients had symptoms for more than 3 months. Another limitation might relate to whether the patients were selected accurately for the study. Clinically experienced orthopaedic surgeons evaluated the clinical findings and the MRI scans and classified the patients as surgical candidates based on recommendations from the American Academy of Orthopaedic Surgeons for intervention for disc herniation published in 1993 (21). The patients included in the present study also fulfilled the recommendations as presented by Bono and co-workers in 2006 (38). The patients can therefore be regarded as serving as their own controls, and comparisons can be made with baseline symptoms and with patients from other studies. An RCT would have been the best way to explore different treatment options; however, we did not reach the number of patients required for an RCT. As the treatment model used in the present study has not been evaluated previously in a group of patients with long-standing pain, with the majority of the patients having pain for more than 3 months due to disc herniation, and, as the results are clinically interesting, it was decided to present the results as a cohort study.

 

In conclusion, this study shows that patients eligible for lumbar disc surgery improved significantly after treatment with the structured physiotherapy model, as early as 3 months after treatment, and the results could still be seen at the 24-month follow-up. Consequently, these patients did not qualify for lumbar disc surgery 3 months after the physiotherapy treatment started. Moreover, the majority of patients had symptoms for more than 3 months at the start of treatment and, for this reason, most of the spontaneous healing ought to have occurred before this study started. This study therefore recommends adoption of the structured physiotherapy treatment model before considering surgery when patients report symptoms such as pain and disability due to lumbar disc herniation.

 

Acknowledgements

 

The authors would like to thank physiotherapists Patrik Drevander, Christina Grund�n, Sofia Frid�n and Eva Fahlgren for treating the patients and Valter Sundh for statistical support. This study was supported by grants from the Health & Medical Care Committee of the V�stra G�taland Region, Ren�e Eander�s Foundation and Wilhelm & Martina Lundgren�s Foundation of Science.

 

Herniated discs can cause pain, numbness and weakness, a variety of symptoms which may often become so severe, that surgery might seem like the only option for fast relief. However, a�structured physiotherapy treatment model can provide rapid relief to patients who qualify for lumbar disc surgery, according to the results of the research study. Information referenced from the National Center for Biotechnology Information (NCBI). The scope of our information is limited to chiropractic as well as to spinal injuries and conditions. To discuss the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .

 

Curated by Dr. Alex Jimenez

 

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Additional Topics: Neck Pain

 

Neck pain is a common complaint which can result due to a variety of injuries and/or conditions. According to statistics, automobile accident injuries and whiplash injuries are some of the most prevalent causes for neck pain among the general population. During an auto accident, the sudden impact from the incident can cause the head and neck to jolt abruptly back-and-forth in any direction, damaging the complex structures surrounding the cervical spine. Trauma to the tendons and ligaments, as well as that of other tissues in the neck, can cause neck pain and radiating symptoms throughout the human body.

 

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IMPORTANT TOPIC: EXTRA EXTRA: A Healthier You!

 

OTHER IMPORTANT TOPICS: EXTRA: Sports Injuries? | Vincent Garcia | Patient | El Paso, TX Chiropractor

 

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with nerve root symptoms in a double-blind placebo-controlled
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AG, et al. Outcomes and adverse events from physiotherapy
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Hoogewoud HM, et al. Recovery of severe sciatica. Spine (Phila
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Constipation And Sciatica Treatment In El Paso, TX.

Constipation And Sciatica Treatment In El Paso, TX.

Constipation & Sciatica:

Constipation is an uncomfortable and common side effect of lower back and leg pain conditions. Sciatic nerve pain can occur at the same time as constipation does, but can also alternate where constipation ensues followed by sciatica.

Finding lasting relief is crucial, but understanding the exact reasons why the symptoms occur is just as important. These two conditions can be related or they may be completely coincidental. But the more they occur together, or in succession, there is greater chance that some structural or body connection is happening between the two.

The Facts: Sciatica & Constipation

constipationInvestigate why the source process may be the same for both conditions in some.

Constipation,�known as a recurrent and chronic health concern which plagues some people their entire lives. It can be caused by a variety of anatomical reasons, but many of these are fairly easy to diagnose, despite being difficult to cure using traditional medical therapy.

Sciatica is very much the same in that it can be chronic, recurrent and sometimes treatment-resistant.

What these disorders have in common is that they are often linked by nerve compression conditions within the spine. The source can be central or foraminal stenosis, which leads to compression of one or more of the lumbar nerve roots.

It is also possible for cervical central spinal stenosis to cause sciatica and may contribute to constipation, as well.

Both conditions are associated with the mind and body processes, that is physical illness caused or aggravated by mental factors, i.e. stress or some type of conflict. Constipation can be linked to conscious and subconscious emotional issues, while sciatica is just starting to receive the same recognition as a possible mind and body disorder.

Constipation/Sciatica: Solutions

constipationSciatica cases where constipation is also present involves the nerve roots in the lower spinal regions. These types of symptomatic expressions will be blamed on a variety of structural abnormalities in the lumbosacral region, which include degenerative disc disease, herniated discs and spinal osteoarthritis.

An alternative explanation for many cases of constipation accompanied by sciatica is regional oxygen deprivation. The solution to this condition is the treatment option invented by Dr. John Sarno. This simple treatment can usually solve even the most harmful of sciatica concerns. But the therapy remains controversial as it helps some and not others.

Sciatica/Constipation: Analysis

Once the symptoms have been diagnosed, if symptoms are structural, then treatments should resolve them or at least help in controlling the pain. If various treatments have been utilized with no relief, then it could be misdiagnosis.

Another anatomical condition that could be responsible for the symptoms or the cause could be a combination of the aforementioned mind and body issues working together. An epidemic problem that the healthcare system and one of the underlying reasons why so many with back, neck and sciatica pain never find a lasting cure. Don’t be surprised if to find out the pain was inaccurately diagnosed. This happens to millions every day.

Constipation can also be a result of serious internal diseases or organ malfunctions. Request a complete workup, which includes appropriate diagnostic testing for any significant or chronic constipation case.

Sometimes, this combination of symptoms may indicate the first signs of cauda equina syndrome.�This is a medical emergency and must be treated immediately.

Many will disregard any notion that sciatica is caused by constipation. Constipation can cause sciatica check other websites. Doctors do agree that constipation is one of a many of causes of sciatica.

But the bowels and the lower back are different parts of the body. It is important to understand that all parts of the body are connected in some way or other.

Sciatica?

If there is pain in the lower back near the buttocks and that pain travels down one or both legs, then chances are sciatica is present. Sciatica has become a common lower back pain that doctors, chiropractors, acupuncturists and physical therapists treat frequently. The pain is characterized with a combination of dull and sharp aches that create a feeling of pins and needles. With nerve conditions pins and needles are the most common type of pain.

Sciatica is the result of sciatic nerve compression. Constipation is a non-spinal condition that can cause sciatica. Just trying to use the bathroom can cause pain by irritating the sciatic nerve.

Sciatica happens when the sciatic nerve, which is the largest in the body, is compressed by an external pressure. Women in child birth and men who carry their wallets in the back pocket can experience sciatica.

Sciatica is treatable; if experiencing constipation and lower back pain at the same time, ask a doctor to test for sciatica. Doctors will order a CT scan, MRI, X-Ray or nerve conduction test.

Solving The Problem:

constipation

Experiencing sciatica related to constipation, then the first course of action is diet change. A fiber-infused diet that combines fruits and vegetables can relieve constipation. Or consider a fiber supplement.

Pain Reduction:

While waiting for constipation relief, there are various ways to reduce pain.

  • Take aspirin or ibuprofen, Anti-inflammatory medications reduce nerve and muscle inflammation, which alleviate nerve irritation.
  • Alternate hot and cold compresses, which reduce inflammation and sooth the pain. Can also be applied to the legs if the pain travels down the body.
  • Consider a firm mattress to support the back and alleviate any sciatica that may be the result from back strain.
  • A doctor may recommend several days of rest in order to allow the nerve damage time to heal.

Rules To Remember:

  • Do not bend or sit in a soft chair. Back support is critical.
  • Do not ignore the pain. Nerve pain heals within a week or gets worse.
  • Move slowly when standing or getting in and out of bed.
  • No heavy lifting & sometimes no lifting at all.

Good Nutrition & Chiropractic Treatment Contribute To Overall Well-Being

Amazing Results from Herniated Disc Early Treatment | El Paso, TX

Amazing Results from Herniated Disc Early Treatment | El Paso, TX

A herniated disc is typically a very painful condition, especially if the inner gel-like substance of the intervertebral disc, known as the nucleus pulposus, pushes through the thick, outer ring of cartilage and puts pressure on the sensitive nerves of the spine. Discs are soft, rubbery pads found between each vertebrae of the spine that act as shock-absorbers, allowing the spine to bend and/or flex. An intervertebral disc may begin to rupture as a result of wear-and-tear or due to a sudden injury. Fortunately, most individuals who’ve suffered a herniated disc can find relief from a variety of non-operative treatments before considering surgery. The following article highlights the impact of early treatment for herniated discs in the lumbar spine, or low back.

 

The Impact of Early Recovery on Long-Term Outcomes in a Cohort of Patients Undergoing Prolonged Non-Operative Treatment for Lumbar Disc Herniation: Clinical Article

 

Abstract

 

Object

 

The authors comprehensively studied the recovery of individual patients undergoing treatment for lumbar disc herniation. The primary goal was to gain insight into the variability of individual patient utility scores within a treatment cohort. The secondary goal was to determine how the rates and variability of patient recovery over time, represented by improvement in utility scores, affected long-term patient outcomes.

 

Methods

 

EuroQol Group�5 Dimension (EQ-5D) scores were obtained at baseline and at 2, 4, 8, 12, 26, 38, and 52 weeks for 93 patients treated under a prolonged conservative care protocol for lumbar disc herniation. Gaussian kernel densities were used to estimate the distribution of utility scores at each time point. Logistic regression and multistate Markov models were used to characterize individual patient improvement over time. Fisher exact tests were used to compare the distribution of EQ-5D domain scores.

 

Results

 

The distribution of utility scores was bimodal at 1 year and effectively sorted patients into a �higher� utility group (EQ-5D = 1; 43% of cohort) and a �lower� utility group (EQ-5D ? 0.86; 57% of cohort). Fisher exact tests revealed that pain/discomfort, mobility, and usual activities significantly differed between the 2 utility groups (p ? 0.001). The utility groups emerged at 8 weeks and were stable for the remainder of the treatment period. Using utility scores from 8 weeks, regression models predicted 1-year outcomes with 62% accuracy.

 

Conclusions

 

This study is the first to comprehensively consider the utility recovery of individual patients within a treatment cohort for lumbar disc herniation. The results suggest that most utility is recovered during the early treatment period. Moreover, the findings suggest that initial improvement is critical to a patient’s long-term outcome: patients who do not experience significant initial recovery appear unlikely to do so at a later time under the same treatment protocol.

 

Abbreviations used in this paper: AUC = area under a receiver-operating curve; EQ-5D = EuroQol Group�5 Dimension. Address correspondence to: Matthew C. Cowperthwaite, Ph.D., The University of Texas at Austin, Texas Advanced Computing Center, J.J. Pickle Research Campus, ROC 1.101, 10100 Burnet Rd., Austin, TX 78758. email: mattccowp@mac.com.

 

Plublished online June 28, 2013; DOI: 10.3171/2013.5.SPINE12992.

 

Introduction

 

Lumbar disc herniation is one of the most common causes of low-back pain and radiculopathy.[4] Treatment for patients with a herniated lumbar disc usually begins with conservative care such as analgesics, epidural steroid injections, and physical therapy,[1,5] with surgery reserved for patients with severe nerve root or cauda equina dysfunction or if conservative therapy is unsuccessful in controlling the symptoms.

 

Several recent studies have compared the effectiveness of conservative care and surgical treatment protocols for treating herniated lumbar discs, and have arrived at varying conclusions.[2,3,9,10,15�18] However, these studies have generally considered outcomes over a period of years, which is a significant length of time for patients who are waiting for their quality of life to improve. In clinical practice, this often leads to the following dilemma: most patients, particularly those with moderate symptoms, would prefer to avoid surgery, but are unwilling to wait an indefinite period of time for their symptoms to resolve. Unsurprisingly, lumbar discectomy is the most frequently performed surgical procedure in the US.[17,18]

 

Moreover, the above-mentioned studies have typically compared the average difference between treatment groups, without regard for individual recovery within the cohort. Additionally, this approach assumes that recovery in the protocols being compared proceeded similarly between observation intervals. To better understand the treatment responses of individual patients and the time frames of their responses, we comprehensively analyzed a cohort of patients undergoing a prolonged conservative care treatment protocol to gain insight into the dynamics of individual patient recovery over time, and whether these recovery dynamics influence long-term outcomes.

 

Methods

 

Study Data Set

 

The data set contained 142 patients randomized to a protocol of prolonged conservative care as part of the Leiden�The Hague Spine Intervention Prognostic Study.[10,15] The Sciatica Trial was reviewed and approved by the Medical Ethics Committee of Leiden University Medical Center.[11] Patients were enrolled into the Sciatica Trial entirely in the Netherlands.

 

In the Sciatica Trial, all patients aged 18 to 65 years, with persistent radicular pain in the L-4, L-5, or S-1 dermatome (with or without mild neurological deficit), severe disabling leg pain (lumbosacral radicular syndrome) lasting 6�12 weeks, and radiologically (MRI) confirmed disc herniation were considered eligible to enroll in the trial. Cauda equina syndrome or severe paresis, prior complaints of lumbosacral radicular syndrome in the previous 12 months, history of same-level unilateral disc surgery, spinal canal stenosis, and degenerative or lytic spondylolisthesis were all exclusion criteria. Cohort demographics and baseline characteristics were previously described; all patients reported both back and leg pain, but leg pain was generally more severe (mean leg pain 67.2 � 27.7 vs back pain 33.8 � 29.6, measured on a 100-point, horizontal visual analog scale).[15]

 

The Sciatica Trial used a pragmatic study design: conservative-care management was influenced as little as possible and was supervised by each patient’s general practitioner. Use of analgesics and physical therapy was determined by the treating physician. In this cohort, 46 patients (32%) elected to have surgery before the end of the 1st year; the mean timing of surgery was 12.6 weeks after the start of treatment. The surgical patients and 3 additional subjects with more than 2 missing utility measures were removed from the sample, resulting in a cohort of 93 patients considered in the present study; the crossover patients will be discussed in a separate study (manuscript in preparation). Our results were qualitatively unchanged when the excluded patients were retained in the analyses (data not shown).

 

In the Leiden�The Hague Spine Intervention Prognostic Study the EQ-5D instrument was used to measure patient utility at baseline and at 2, 4, 8, 12, 26, 38, and 52 weeks after enrollment into the study. The average duration of sciatica prior to enrollment was 9.5 weeks.[10,15] Utility is a valuation of a patient’s quality of life on a scale between 0 (as bad as dead) and 1 (perfect health). To estimate utility, the EQ-5D assesses a patient’s functional impairment in 5 domains: mobility, self-care, usual activities, pain, and anxiety.[6] For each domain, patients self-report the scores of 1 (no problems), 2 (some problems), or 3 (extreme problems). Utility scores were computed using the US valuation model,[12] which clearly distinguishes patients reporting no health problems (EQ-5D = 1) from those reporting at least some health problems (EQ-5D ? 0.86). Our results are independent of the particular valuation model (not shown). Completeness of the EQ-5D measures during follow-up ranged from 98% at 2 weeks to 90% at 38 weeks.

 

Statistical Analysis

 

All statistical analyses were conducted using the R statistical environment (version 2.9.2; www.rproject.org/) with the additional �msm,�[8] �ROCR,�[14] and �rms�[7] packages (all freely available from cran.rproject.org). Continuous variables are presented as means (� SEM) and were compared using 2-tailed Student t-tests. Significance was assessed at an ? ? 0.05 significance level, unless otherwise indicated. Missing EQ-5D measures were imputed using the mean of the measures at adjacent time points; our results are qualitatively similar under forward or backward imputation schemes (not shown).

 

Gaussian kernel density estimates were computed to estimate the distribution of utility scores. The kernel density estimates were estimated using a Silverman’s �rule-of-thumb� bandwidth and a Gaussian smoothing kernel.[13] The left- and right-most points were set to the theoretical minimum and maximum EQ-5D values, respectively, so that the area under the density curve summed to 1.

 

To determine whether specific EQ-5D domains differed between utility groups, Fisher-exact tests were conducted on contingency tables of the number of patients in each utility group that reported scores of 1, 2, or 3. Significance was assessed using a Bonferroni-corrected p value of 0.01.

 

Two-state, continuous-time Markov models were used to study the patterns and probabilities of patients transitioning between a �lower� utility (EQ-5D ? 0.86) and a �higher� utility group (EQ-5D = 1). The threshold utility value defining the groups remained fixed over time and was used to assign each patient to a utility group at each observation time. The models were fitted using the �msm� package[14] with piecewise-constant transition intensity matrices (Qt) estimated for each time interval between the points t = 0, 4, 8, 12, 26, 38, 52 (t = 2 was omitted because there were insufficient transitions to yield a robust model). Transition intensities were permitted to change between subsequent observation intervals, but remained homogeneous within each observation interval. The starting transition intensities were based on the observed frequencies of transitions in the data set and were calculated using the formula

 

Article-Formula.jpg

 

in which nij is the observed number of transitions from Group i to Group j over the duration of the study period (T), and nj is the initial number of patients in Group j. The fitted models were robust to the choice of starting transition intensities and yielded qualitatively similar parameter estimates over a range of starting parameters (not shown). The likelihood function was maximized using a Nelder-Mead algorithm, and convergence was visually verified and typically occurred well short of the maximum number of iterations.

 

Logistic regression models were used to test whether utility measurements from earlier time points could predict long-term outcomes. These models only included utility values up to a particular time point as predictors, with the response variable being the patient’s 1-year outcome (higher or lower utility group) modeled as a dichotomous variable; no additional clinical or demographic covariates were included in the models. The models were fitted using the �rms� package[7] and the fit was assessed using chi-square tests (? ? 0.05). Separate regression models were created for all utility measurements up to and including those for 2, 4, 8, 12, and 26 weeks; for example, the 8-week model would include utility measurements at 0, 2, 4, and 8 weeks. The AUC statistic was used to assess the performance of the models and was calculated using the ROCR package.[14]

 

Results

 

Delineation of Higher and Lower Utility Groups

 

The distributions of patient utility scores markedly changed over the course of 1 year of conservative care (Fig. 1). At baseline, the majority of patients reported a relatively poor quality of life; the mean EQ-5D score was 0.55 (median 0.60). Two distinct utility groups were found to be present at baseline: a �lower� utility group (EQ-5D ? 0.86) and a �higher� utility group (EQ-5D = 1). At 6 months, the lower utility group (n = 62, 67%) was larger than the higher utility group (n = 31, 33%); at 1 year, the lower utility group (n = 53, 57%) had declined, but remained larger than the higher utility group (n = 40, 43%).

 

Figure 1 Distribution of EQ-5D Patient Utilities | El Paso, TX Chiropractor

Figure 1: Distribution of EQ-5D patient utilities at baseline, 6 months, and 1 year. The solid lines depict Gaussian kernel density estimates (right axis) of each distribution. The gray lines outline the histogram with the height of each bar representing the frequency of patients (left axis) in the equal-width bins (0.05) with utility greater than the lower bound and less than or equal to the upper bound. The bounds of both distributions are set to the theoretical minimum and maximum of the EQ-5D utility instrument.

 

EQ-5D Domain Scores Between Groups

 

The average scores in each domain of the EQ-5D (Table 1) suggested that the pain/discomfort (low score = 1.9, high score = 1.0), mobility (low score = 1.4, high score = 1.0), and usual activities (low score = 1.5, high score = 1.0) domains differed most significantly between the high and low utility groups (p ? 0.001). The anxiety (low score = 1.2, high score = 1.0) and self-care (low score = 1.1, high score = 1.0) domains differed much less between the 2 utility groups, although they were also significant (p < 0.01).

 

Table 1 Distribution of Scores in Each EQ-5D Domain | El Paso, TX Chiropractor

 

Trajectory of Patient Utility Over Time

 

The series of patient utility scores measured over the study period are referred to as utility �trajectories,� which were studied to understand how patients recovered over the study period. In the study cohort, all patients experienced improvement during at least 1 observation period; only 19.3% (n = 18) never experienced a decline during their recovery. Recovery was variable: 49.5% of the patients (n = 46) experienced at least 2 reversals, which were defined as improvements (declines) immediately followed by declines (improvements) at the next observation. Furthermore, only 29% of patients (n = 27) had stable trajectories with no reversals. Overall, increases in utility were 4 times more common than decreases in utility.

 

The utility of the entire cohort increased by 0.296 (51.8% above baseline; p ? 0.001, Wilcoxon Mann-Whitney test) over the year (Fig. 2), but was markedly faster during the first 2 months (0.022/week) than the final 3 months (0.005/week). Over the same time frames, utility scores improved by 0.178 (35.2% above the baseline average) over the first 2 months and by 0.063 (1.3% above the 9-month average) during the final 3 months. The mean utility scores significantly differed between the 2 final utility groups at 8 weeks and remained significant for the rest of the year (p < 0.01, Student t-test; Fig. 2).

 

Figure 2 Graph of Mean Patient Utilities | El Paso, TX Chiropractor

Figure 2: Graph of mean patient utilities at each measurement time point. Error bars represent 95% CIs about the mean. High and low utility group refers to the final group in which the patient belongs at the 1-year time point.

 

Modeling Patient Recovery

 

Given that 2 utility groups were present over the study period, Markov models were used to study the robustness of these groups by estimating the likelihood of patients switching between the groups. The models suggested that the average probability of a patient remaining within their utility group was 97.9% and 97.6% for patients currently in the low and high utility groups, respectively (Fig. 3). The probability of a patient transitioning from the low to the high utility group was 2.1%; the corresponding probability for transitions from the high to the low utility group was 2.3%.

 

Figure 3 Graphs of the Markov Transition Probabilities | El Paso, TX Chiropractor

Figure 3: Graphs of the Markov transition probabilities (per week) for transitions within (lower) and between (upper) utility groups. Each point is centered at the middle of each time interval and represents the maximum-likelihood estimate of the per-week transition probability during the entire interval. Error bars (mean width of the 95% CI was 1.8) were omitted for clarity because the differences were not significant.

 

The models also suggested that the likelihood of a patient transitioning to another utility group declined over the study period. During the first 8 weeks, 2.8% and 3.5% of patients experienced low-to-high and high-to-low transitions, respectively; over the last 3 months, 1.6% and 1.3% of patients experienced low-to-high and high-to-low group transitions, respectively.

 

Predicting Individual Patient Outcome

 

At 8 weeks, logistic regression models could predict a patient’s outcome (final utility group) with modest accuracy (AUC = 0.62, or 62%). The accuracy of the models steadily increased as data from later time points were included; the 26-week model performance was good with an AUC of 0.78 (Fig. 4). The amount of improvement in utility scores from baseline to 8 weeks was also investigated as a predictor of good outcome (higher utility group). Patients with EQ-5D scores that improved by at least 0.30 during the first 8 weeks of treatment were 60% more likely to have a good outcome.

 

Figure 4 Graph Showing the Accuracy of Classifiers Based on Patient Utilities | El Paso, TX Chiropractor

Figure 4: Graph showing the accuracy of classifiers based on patient utilities. The horizontal line is drawn at 0.50, above which models would perform better than randomly assigning patients to utility groups.

 

Dr Jimenez White Coat

Dr. Alex Jimenez’s Insight

Herniated disc commonly develop in the lumbar spine, or lower back. Also referred to as a slipped disc or a ruptured disc, a herniated disc occurs when the soft, gel-like center of an intervertebral disc pushes through a tear in its surrounding outer ring, known as the annulus fibrosus. The symptoms of a herniated disc are generally specific to the exact level of the spine where the disc herniation occurs and whether or not the nerve tissue has been irritated by the intervertebral disc material leaking out of the inside of the disc. The most common symptoms of a disc herniation include pain, numbness, weakness and tingling sensations as well as causing radiating symptoms along the upper or lower extremities. Depending on the severity of the symptoms, herniated disc treatment can include, drugs and/or medications, epidural injections, physical therapy, chiropractic, and surgery, among others. According to the following article, early treatment can help promote and manage a faster herniated disc recovery from prolonged non-operative treatment methods.

 

Discussion

 

Several studies have sought to compare the relative effectiveness of surgery and conservative care for treatment of a lumbar disc herniation.[4�9,11] Generally, these studies have compared �average� differences between the study cohorts, while the individual trajectories by which patient utility changes over time have received less attention. To our knowledge, this study provides the first comprehensive statistical analysis of individual patient-level utility data from a large cohort of patients randomized to a prolonged conservative-care treatment protocol for lumbar disc herniation.[9]

 

The decision to proceed with surgery is straightforward in patients with severe, disabling symptoms or neurological deficits. Likewise, the decision to continue conservative care is simple for patients with mild symptoms or those who are content to live with their symptoms indefinitely. However, patients with moderate symptoms often present a greater challenge because most patients would prefer to avoid surgery if possible, but are also not content to wait indefinitely for their pain to resolve. These patients often ask for more than just the overall probability they will improve eventually; they usually want to know when they will recover. Moreover, they are usually interested in whether their current symptoms and progress affect the probability and extent of their future improvement.

 

For patients with moderate symptoms, the following observations from our study may be useful. First, the utility scores for individual patients diverged sharply at 8 weeks and were thereafter easily classified as either those reporting no health problems (higher utility, EQ-5D = 1) or those reporting at least some health problems (lower utility, EQ-5D ? 0.86). Among the lower utility group, the �pain/discomfort,� �mobility,� and �usual activities� domains of the EQ-5D differed most significantly from the higher utility group, which could potentially represent incompletely treated radiculopathy. Second, most improvement occurred early: almost one-third of the overall improvement in utility came in the first 2 months, while only 1% occurred in the last 3 months. Third, recovery is variable, with most patients (80%) experiencing at least 1 interval of deterioration and only 19% continuously improving without any setbacks. This may provide some reassurance to patients with generally good recovery to �stay the course� without resorting to more invasive measures such as surgery simply because of what may be a brief transient decrease in quality of life. Lastly, the probability of moving into another group was quite low (2%), which may be considered when counseling a patient who is not improving with his or her current treatment regimen.

 

We note the following limitations inherent in this cohort study. First, this is an observational study, and therefore we cannot infer causality for the emergence of the 2 utility groups, and because the individual treatment plans were unknown to us, we cannot comment on any specific type of conservative therapy. However, even if one considers the patients in the low utility group as nonresponders to conservative therapy (which is likely at least partly incorrect), the study does not imply that surgery would necessarily be beneficial in these patients. Second, the EQ-5D scores a patient’s overall health, and therefore unknown comorbid conditions likely account for at least some of the patients residing in the lower utility group and for part of the utility fluctuations. However, in the clinical setting, it should be obvious as to whether a patient’s symptoms are resulting from unresolved radiculopathy or from preexisting comorbidities. Lastly, we excluded crossover patients from our analysis. Crossover patients are likely those with the most severe symptoms and thus our results may be limited to patients with mild to moderate symptoms. However, we believe this exclusion is appropriate because, as mentioned above, the decision to operate is fairly straightforward when a patient has severe symptoms. From a clinical standpoint, patients with moderate symptoms and without neurological deficits after 8 weeks need the most information about the potential time course and extent of their nonoperative recovery to make an informed treatment decision.

 

The focus of the present study is individual utility recovery within a patient cohort rather than comparing average response to different treatment protocols. The goal was to gain insight into the dynamics of utility recovery among individual patients treated conservatively, but our approach could be applied to almost any treatment protocol. Studies of the changes (improvements or declines) in individual utility over time are useful because they may provide insights into a patient’s perception of their current treatment protocol (for example, patients in the low utility group would likely report a poor response to treatment), and also to identify a point at which continuing the same treatment is unlikely to improve a patient’s quality of life. Patients entering a conservative-care treatment protocol are likely to experience an initial period of rapid recovery, followed by a longer phase of more modest recovery. Our results suggest that, once the long-term recovery phase begins, patients are unlikely to spontaneously change their recovery for better or worse under the same treatment protocol. Lastly, patient utility scores early in the treatment process were reasonable predictors of long-term outcomes. This study is a comprehensive characterization of individual patients’ recovery of health utility from a lumbar disc herniation, and provides a unique picture for clinicians taking care of these patients. Our findings suggest that most recovery occurs early during treatment, and this early recovery period is important to long-term outcomes.

 

Conclusions

 

In a cohort of patients undergoing prolonged conservative care for treatment of lumbar disc herniation, 57% of the patients had lingering health problems at 1 year. Utility was recovered most rapidly early in the treatment process, and the majority of utility was also recovered in the initial treatment period. After the initial recovery period, we could identify with reasonable accuracy those patients who would fully recover and those who would not. Over the course of the year, recovery was observed to be highly variable, although most fluctuations were relatively small and only transient. These findings suggest that patients not initially responding to their treatment protocol should consider other options because they are unlikely to respond at a later time. However, patients and clinicians should also be mindful of transient decreases in quality of life, and carefully consider any changes in their treatment plan.

 

Disclosure

 

This work was partially supported by a charitable grant from the St. David’s Foundation Impact Fund to Dr. Cowperthwaite, and does not necessarily represent the views of the Impact Fund or the St. David’s Foundation.

 

Author contributions to the study and manuscript preparation include the following. Conception and design: all authors. Acquisition of data: Cowperthwaite, van den Hout. Analysis and interpretation of data: all authors. Drafting the article: Cowperthwaite. Critically revising the article: all authors. Reviewed submitted version of manuscript: all authors. Approved the final version of the manuscript on behalf of all authors: Cowperthwaite. Statistical analysis: Cowperthwaite, van den Hout. Administrative/technical/material support: Cowperthwaite. Study supervision: Cowperthwaite.

 

In conclusion, early non-operative treatment of lumbar herniated disc can effectively improve as well as manage recovery outcomes in patients with the condition. It’s important for patients with disc herniations in the lumbar spine to comprehend the source of their issue before receiving appropriate treatment for their symptoms. Furthermore, non-operative treatment is effective in most patients, surgical interventions may be considered according to the individual’s recovery outcome. Information referenced from the National Center for Biotechnology Information (NCBI). The scope of our information is limited to chiropractic as well as to spinal injuries and conditions. To discuss the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .

 

Curated by Dr. Alex Jimenez

 

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Additional Topics: Neck Pain

 

Neck pain is a common complaint which can result due to a variety of injuries and/or conditions. According to statistics, automobile accident injuries and whiplash injuries are some of the most prevalent causes for neck pain among the general population. During an auto accident, the sudden impact from the incident can cause the head and neck to jolt abruptly back-and-forth in any direction, damaging the complex structures surrounding the cervical spine. Trauma to the tendons and ligaments, as well as that of other tissues in the neck, can cause neck pain and radiating symptoms throughout the human body.

 

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IMPORTANT TOPIC: EXTRA EXTRA: A Healthier You!

 

 

OTHER IMPORTANT TOPICS: EXTRA: Sports Injuries? | Vincent Garcia | Patient | El Paso, TX Chiropractor

 

 

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References

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Cited By

1. Anurekha Ramakrishnan, MS, K. Michael Webb, MD, and Matthew C. Cowperthwaite, PhD. (2017) One-year outcomes of early-crossover patients in a cohort receiving nonoperative care for lumbar disc herniation. Journal of Neurosurgery: Spine 27:4, 391-396. . Online publication date: 1-Oct-2017. Abstract | Full Text | PDF (2037 KB)
2. Kimberly A Plomp, Una Strand Vi�arsd�ttir, Darlene A Weston, Keith Dobney, Mark Collard. (2015) The ancestral shape hypothesis: an evolutionary explanation for the occurrence of intervertebral disc herniation in humans. BMC Evolutionary Biology 15:1. . Online publication date: 1-Dec-2015. [Crossref]

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