Back Clinic Chiropractic Examination. An initial chiropractic examination for musculoskeletal disorders will typically have four parts: a consultation, case history, and physical examination. Laboratory analysis and X-ray examination may be performed. Our office provides additional Functional and Integrative Wellness Assessments in order to bring greater insight into a patient’s physiological presentations.
Consultation:
The patient will meet the chiropractor which will assess and question a brief synopsis of his or her lower back pain, such as:
Duration and frequency of symptoms
Description of the symptoms (e.g. burning, throbbing)
Areas of pain
What makes the pain feel better (e.g. sitting, stretching)
What makes the pain feel worse (e.g. standing, lifting).
Case history. The chiropractor identifies the area(s) of complaint and the nature of the back pain by asking questions and learning more about different areas of the patient’s history, including:
Family history
Dietary habits
Past history of other treatments (chiropractic, osteopathic, medical and other)
Occupational history
Psychosocial history
Other areas to probe, often based on responses to the above questions.
Physical examination: We will utilize a variety of methods to determine the spinal segments that require chiropractic treatments, including but not limited to static and motion palpation techniques determining spinal segments that are hypo mobile (restricted in their movement) or fixated. Depending on the results of the above examination, a chiropractor may use additional diagnostic tests, such as:
X-ray to locate subluxations (the altered position of the vertebra)
A device that detects the temperature of the skin in the paraspinal region to identify spinal areas with a significant temperature variance that requires manipulation.
Laboratory Diagnostics: If needed we also use a variety of lab diagnostic protocols in order to determine a complete clinical picture of the patient. We have teamed up with the top labs in the city in order to give our patients the optimal clinical picture and appropriate treatments.
There are a number of important factors to take into consideration, such as the timing of when an MRI scan must be performed and limitations with interpretation of findings, to get an MRI scan for herniated discs.
To begin with, the difficulty with the results of an MRI scan, as with a number of other diagnostic studies, is that the abnormality may not always be the source of an individual’s back pain or other symptoms. Numerous studies have shown that approximately 30 percent of people in their twenties and forties have a lumbar disc herniation in their MRI scan, even though they don’t have any pain.
An MRI scan cannot be interpreted on its own. Everything Has to Be well-correlated into the individual patient’s condition, for example:
Symptoms (such as the duration, location, and severity of pain)
Any deficits in their examination
Another concern with MRI scans is the time of when the scan is done. When a patient has experienced the following symptoms would be the only time that an MRI scan is needed immediately:
Bowel or bladder incontinence
Progressive weakness due to nerve damage in the legs.
Herniated Disc Analysis with MRI
Obtaining an MRI (magnetic resonance imaging) can be an important step in correctly assessing a herniated disc in the spine. Unlike an X-ray, MRI uses a magnetic field and a computer to create and record detailed pictures of the internal workings of your entire body. This technology can also be capable of producing cross-sectional views in identifying a disc of the body, which greatly help doctors. MRI scans are based on new technology, but they have become essential in diagnosing a number of back and neck issues, such as spinal stenosis, herniated discs and bone spurs.
An MRI scan has a number of benefits that greatly help a herniated disc patient. The advantages of an MRI can be:
Unobtrusive
Painless and free of radiation
Can focus on a particular part of the entire body
Extremely accurate
Diagnosing Disc Herniation
Should you believe you have a herniated disc in the neck or back, the very first step would be to visit a physician. Your physician will have the ability to supply you with a complete evaluation and inspection of your medical history to create a identification. Following that, you may be referred to execute an MRI stabilize and to confirm the herniated disc.
At the imaging center you’ll be put to the tubular MRI machine to get a body scan. You may remain enclosed in the MRI device for up to an hour while the comprehensive scan of place where the herniated disc along the spine is completed. The MRI can reveal the exact condition of the herniated disc and surrounding arrangements. This allows your doctor to produce the treatment plan that is right for you and to understand the origin of the disc damage and pain.
Herniated Disc Follow-Up Treatment
Most patients are able to successfully treat herniated disc pain using nonsurgical standard treatments prescribed by their physician. These include relaxation, compression treatment and mild exercise. Surgery can then be explored when months or weeks of treatment do not bring a return to previous action.
If you’re researching surgical options and have become concerned by a number of the risks and unsuccessful results of traditional open back operation, contact a specialist. Spine surgery specialists perform minimally invasive spine surgery, including invasive stabilization surgeries and minimally invasive decompression, which can treat a number of the very acute herniated discs. They may review your MRI to determine if you are a candidate for minimally invasive spine surgery, which may help you get your life back.
The scope of our information is limited to chiropractic and spinal injuries and conditions. To discuss options on the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .�
By Dr. Alex Jimenez
Additional Topics: Sciatica
Lower back pain is one of the most commonly reported symptoms among the general population. Sciatica, is well-known group of symptoms, including lower back pain, numbness and tingling sensations, which often describe the source of an individual’s lumbar spine issues. Sciatica can be due to a variety of injuries and/or conditions, such as spinal misalignment, or subluxation, disc herniation and even spinal degeneration.
A healthcare professional’s clinical diagnosis focuses on finding out the source of a patient’s pain. For this reason, the clinical identification of pain in the herniated disc relies on more than only the findings from a diagnostic evaluation, like CT scan or an MRI scan.
The spine care professional arrives at a clinical diagnosis of the cause of the patient’s pain by means of a combination of findings by a comprehensive medical history, conducting a complete physical exam, and, if appropriate, running one or more diagnostic tests:
Medical history: The physician will choose the patient’s medical history, such as a description of if sciatica, the back pain or other symptoms occur, a description of how the pain feels, what remedies, positions or activities make the pain feel better and more.
Physical examination: The physicians will conduct a physical exam of the individual, such as muscle power and analyzing neural function in parts of the leg or arm, analyzing for pain in positions and much more. Ordinarily, this series of physical tests will give a good idea of the type of back issue the individual has to the spine professional.
Diagnostic tests: After the physician has a fantastic idea of the origin of the patient’s pain, a diagnostic evaluation, such as a CT scan or a MRI scan, is often ordered to confirm the presence of an anatomical lesion at the backbone. The evaluations can give a picture of the location of nerve roots and the disc.
It’s important to emphasize that MRI scans and other diagnostic tests aren’t utilized to diagnose the patient’s pain; rather, they are only utilized to confirm the existence of an anatomical problem that was suspected or identified throughout the medical history and physical examination. Because of this, while the radiographic findings on an MRI scan or other tests are significant, they aren’t as important in diagnosing the reason for the patient’s pain (that the clinical investigation demonstrated) as are the findings from the medical history and physical examination. Many times, an MRI scan or other kind of evaluation will be used for the purpose of treatment, so the healthcare specialist can determine the way it’s currently impinging on the nerve root and precisely where the herniated disc is.
When MRI is Used to Diagnose Herniated Discs
When patients have predominantly experienced leg pain along with a lumbar disc herniation, MRI scans are usually recommended early in a patient’s path of pain.
Therefore, physicians often recommend waiting 3 to 6 months (following the onset of lower back pain) prior to having an MRI scan done as a way to see whether the pain will get better with conservative (nonsurgical) remedies. As a very general guideline, if the results of the MRI scan aren’t likely to affect a patient’s further back pain therapy, and �the patient will continue with non-surgical treatments such as chiropractic treatments, physical therapy and drugs, waiting to acquire an MRI scan, as well as other imaging scans, in most situations is a fair option.
What Happens When a Disc Herniates
Though the spinal discs are made to withstand significant amounts of force, injury and other issues with the disc can happen. After the disc ages or is injured, the outer portion (annulus fibrosus) of a disk may be torn as well as the disc’s inner substance (nucleus pulposus) can herniate or extrude out of the disk. Nerves, and the inner portion of the disc surround each spinal disc that leaks out comprises proteins, therefore when this material comes in contact with a nerve wracking pain that may travel down the length of the nerve can be caused by it. Even a tiny disk herniation which enables a small quantity of the inner disc material to touch the nerve may cause pain.
Pain from a Herniated Disc vs. Degenerative Disc Disease
A herniated disc will generally create another type of pain than degenerative disk disease (another common disc problem).
When a patient has a symptomatic degenerated disc (one which causes pain or other symptoms), it’s the disc space itself which is debilitating and is the origin of pain. This type of pain is called axial pain.
When a patient has a symptomatic herniated disc, it is not the disk space itself that hurts, but rather the disc difficulty is causing pain in a nerve in the spine. This kind of pain is typically called radicular pain (nerve root pain, or tingling from a lumbar herniated disk).
In conclusion, when an individual begins to experience painful symptoms along their lower back, or lumbar spine, although they may sometimes not experience any symptoms, it a herniated disc is suspected, its recommended to seek immediate medical attention and to consider having an MRI, CT scan or other imaging tests to properly diagnose the presence of a herniated disc or other injury and/or condition before following with treatment.
The scope of our information is limited to chiropractic and spinal injuries and conditions. To discuss options on the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .�
By Dr. Alex Jimenez
Additional Topics: Sciatica
Lower back pain is one of the most commonly reported symptoms among the general population. Sciatica, is well-known group of symptoms, including lower back pain, numbness and tingling sensations, which often describe the source of an individual’s lumbar spine issues. Sciatica can be due to a variety of injuries and/or conditions, such as spinal misalignment, or subluxation, disc herniation and even spinal degeneration.
Thomas M Kosloff1*�, David Elton1�, Jiang Tao2� and Wade M Bannister2�
CHIROPRACTIC & MANUAL THERAPIES
Abstract
Background: There is controversy surrounding the risk of manipulation, which is often used by chiropractors, with respect to its association with vertebrobasilar artery system (VBA) stroke. The objective of this study was to compare the associations between chiropractic care and VBA stroke with recent primary care physician (PCP) care and VBA stroke.
Methods: The study design was a case�control study of commercially insured and Medicare Advantage (MA) health plan members in the U.S. population between January 1, 2011 and December 31, 2013. Administrative data were used to identify exposures to chiropractic and PCP care. Separate analyses using conditional logistic regression were conducted for the commercially insured and the MA populations. The analysis of the commercial population was further stratified by age (<45 years; ?45 years). Odds ratios were calculated to measure associations for different hazard periods. A secondary descriptive analysis was conducted to determine the relevance of using chiropractic visits as a proxy for exposure to manipulative treatment.
Results: There were a total of 1,829 VBA stroke cases (1,159 � commercial; 670 � MA). The findings showed no significant association between chiropractic visits and VBA stroke for either population or for samples stratified by age. In both commercial and MA populations, there was a significant association between PCP visits and VBA stroke incidence regardless of length of hazard period. The results were similar for age-stratified samples. The findings of the secondary analysis showed that chiropractic visits did not report the inclusion of manipulation in almost one third of stroke cases in the commercial population and in only 1 of 2 cases of the MA cohort.
Conclusions: We found no significant association between exposure to chiropractic care and the risk of VBA stroke. We conclude that manipulation is an unlikely cause of VBA stroke. The positive association between PCP visits and VBA stroke is most likely due to patient decisions to seek care for the symptoms (headache and neck pain) of arterial dissection. We further conclude that using chiropractic visits as a measure of exposure to manipulation may result in unreliable estimates of the strength of association with the occurrence of VBA stroke.
Keywords: Chiropractic, Primary care, Cervical manipulation, Vertebrobasilar stroke, Adverse events
Background
The burden of neck pain and headache or migraine among adults in the United States is significant. Survey data indicate 13% of adults reported neck pain in the past 3 months [1]. In any given year, neck pain affects 30% to 50% of adults in the general population [2]. Prevalence rates were reportedly greater in more eco- nomically advantaged countries, such as the USA, with a higher incidence of neck pain noted in office and com- puter workers [3]. Similar to neck pain, the prevalence of headache is substantial. During any 3-month time- frame, severe headaches or migraines reportedly affect one in eight adults [1].
Neck pain is a very common reason for seeking health care services. �In 2004, 16.4 million patient visits or 1.5% of all health care visits to hospitals and physician offices, were for neck pain� [4]. Eighty percent (80%) of visits occurred as outpatient care in a physician�s office [4]. The utilization of health care resources for the treatment of headache is also significant. �In 2006, adults made nearly 11 million physician visits with a headache diagno- sis, over 1 million outpatient hospital visits, 3.3 million emergency department visits, and 445 thousand inpatient hospitalizations� [1].
In the United States, chiropractic care is frequently utilized by individuals with neck and/or headache com- plaints. A national survey of chiropractors in 2003 re- ported that neck conditions and headache/facial pain accounted respectively for 18.7% and 12% of the patient chief complaints [5]. Chiropractors routinely employ spinal manipulative treatment (SMT) in the management of patients presenting with neck and/or headache [6], either alone or combined with other treatment approaches [7-10].
While evidence syntheses suggest the benefits of SMT for neck pain [7-9,11-13] and various types of headaches [10,12,14-16], the potential for rare but serious adverse events (AE) following cervical SMT is a concern for researchers [17,18], practitioners [19,20], professional organizations [21-23], policymakers [24,25] and the public [26,27]. In particular, the occurrence of stroke affecting the vertebrobasilar artery system (VBA stroke) has been associated with cervical manipulation. A recent publication [28] assessing the safety of chiropractic care reported, �…the frequency of serious adverse events varied between 5 strokes/ 100,000 manipulations to 1.46 serious adverse events/ 10,000,000 manipulations and 2.68 deaths/10,000,000 manipulations�. These estimates were, however, derived from retrospective anecdotal reports and liability claims data, and do not permit confident conclusions about the actual frequency of neurological complications following spinal manipulation.
Several systematic reviews investigating the association between stroke and chiropractic cervical manipulation�have reported the data are insufficient to produce definitive conclusions about its safety [28-31]. Two case�control studies [32,33] used visits to a chiropractor as a proxy for SMT in their analyses of standardized health system databases for the population of Ontario (Canada). The more recent of these studies [32] also included a case-crossover methodology, which reduced the risk of bias from confounding variables. Both case�control studies reported an increased risk of VBA stroke in association with chiropractic visits for the population under age 45 years old. Cassidy, et al. [32] found, how- ever, the association was similar to visits to a primary care physician (PCP). Consequently, the results of this study suggested the association between chiropractic care and stroke was non-causal. In contrast to these studies, which found a significant association between chiropractic visits and VBA stroke in younger patients (<45 yrs.), the analysis of a population-based case-series suggested that VBA stroke patients who consulted a chiropractor the year before their stroke were older (mean age 57.6 yrs.) than previously documented [34].
The work by Cassidy, et al. [32] has been qualitatively appraised as one of the most robustly designed investigations of the association between chiropractic manipulative treatment and VBA stroke [31]. To the best of our knowledge, this work has not been reproduced in the U.S. population. Thus, the main purpose of this study is to replicate the case�control epidemiological design published by Cassidy, et al. [32] to investigate the association between chiropractic care and VBA stroke; and compare it to the association between recent PCP care and VBA stroke in samples of the U.S. commercial and Medicare Advantage (MA) populations. A secondary aim of this study is to assess the utility of employing chiropractic visits as a proxy measure for exposure to spinal manipulation.
Methods
Study design and population
We developed a case�control study based on the experience of commercially insured and MA health plan members between January 1, 2011 and December 31, 2013. General criteria for membership in a commercial or MA health plan included either residing or working in a region where health care coverage was offered by the in- surer. Individuals must have Medicare Part A and Part B to join a MA plan. The data set included health plan members located in 49 of 50 states. North Dakota was the only State not represented.
Both case and control data were extracted from the same source population, which encompassed national health plan data for 35,726,224 unique commercial and 3,188,825 unique MA members. Since members might be enrolled for more than one year, the average�annual commercial membership was 14.7 million members and the average annual MA membership was 1.4 million members over the three year study period, which is comparable to ~5% of the total US population based on the data available from US Census Bureau [35]. Administrative claims data were used to identify cases, as well as patient characteristics and health service utilization.
The stroke cases included all patients admitted to an acute care hospital with vertebrobasilar (VBA) occlusion and stenosis strokes as defined by ICD-9 codes of 433.0, 433.01, 433.20, and 433.21 during the study period. Pa- tients with more than one admission for a VBA stroke were excluded from the study. For each stroke case, four age and gender matched controls were randomly se- lected from sampled qualified members. Both cases and controls were randomly sorted prior to the matching using a greedy matching algorithm [36].
Exposures
The index date was defined as the date of admission for the VBA stroke. Any encounters with a chiropractor or a primary care physician (PCP) prior to the index date were considered as exposures. To evaluate the impact of chiropractic and PCP treatment, the designated hazard period in this study was zero to 30 days prior to the index date. For the PCP analysis, the index date was excluded from the hazard period since patients might consult PCPs after having a stroke. The standard health plan coverage included a limit of 20 chiropractic visits. In rare circumstances a small employer may have selected a 12-visit limit. An internal analysis (data not shown) revealed that 5% of the combined (commercial and MA) populations reached their chiropractic visit limits. Instances of an employer not covering chiropractic care were estimated to be so rare that it would have had no measurable impact on the analysis. There were no limits on the number of reimbursed PCP visits per year.
Analyses
Two sets of similar analyses were performed, one for the commercially insured population and one for the MA population. In each set of analyses, conditional logistic regression models were used to examine the association between the exposures and VBA strokes. To measure the association, we estimated the odds ratio of having the VBA stroke and the effect of total number of chiropractic visits and PCP visits within the hazard period. The analyses were applied to different hazard periods, including one day, three days, seven days, 14 days and 30 days for both chiropractic and PCP visits. The results of the chiropractic and PCP visit analyses were then compared to find evidence of excess risk of having stroke for patients with chiropractic visits during the
hazard period. Previous research has indicated that most patients who experience a vertebral artery dissection are under the age of 45. Therefore, in order to investigate the impact of exposure on the population at different ages, separate analyses were performed on patients stratified by age (under 45 years and 45 years and up) for the study of the commercial population. The number of visits within the hazard period was entered as a con- tinuous variable in the logistic model. The chi square test was used to analyze the proportion of co-morbidities in cases as compared to controls.
A secondary analysis was performed to evaluate the relevance of using chiropractic visits as a proxy for spinal manipulation. The commercial and MA databases were queried to identify the proportions of cases of VBA stroke and matched controls for which at least one chiropractic spinal manipulative treatment procedural code (CPT 98940 � 98942) was or was not recorded. The analysis also calculated the use of another manual therapy code (CPT 97140), which may be employed by chiropractors as an alternative means of reporting spinal manipulation.
Ethics
The New England Institutional Review Board (NEIRB) determined that this study was exempt from ethics review.
Results
The commercial study sample included 1,159 VBA stroke cases over the three year period and 4,633 age and gender matched controls. The average age of the patients was 65.1 years and 64.8% of the patients were male (Table 1). The prevalence rate of VBA stroke in the commercial population was 0.0032%.
There were a total of 670 stroke cases and 2,680 matched controls included in the MA study. The aver- age patient age was 76.1 years and 58.6% of the patients were male (Table 2). For the MA population, the prevalence rate of VBA stroke was 0.021%.
Claims during a one year period prior to the index date were extracted to identify comorbid disorders. Both the commercial and MA cases had a high percentage of comorbidities, with 71.5% of cases in the commercial study and 88.5% of the cases in the MA study reporting at least one of the comorbid conditions (Table 3). Six comorbid conditions of particular interest were identified, including hypertensive disease (ICD-9 401�404), ischemic�heart disease (ICD-9 410�414), disease of pulmonary circulation (ICD-9 415�417), other forms of heart disease (ICD-9 420�429), pure hypercholesterolemia (ICD-9 272.0) and diseases of other endocrine glands (ICD-9 249�250). There were statistically significant differences (p = <0.05) between groups for most comorbidities. Greater proportions of comorbid disorders (p = <0.0001) were reported in the commercial and MA cases for hyper- tensive disease, heart disease and endocrine disorders (Table 3). The commercial cases also showed a larger proportion of diseases of pulmonary circulation, which was statistically significant (p = 0.0008). There were no significance differences in pure hypercholesterolemia for either the commercial or MA populations. Overall, cases in both the commercial and MA populations were more likely (p = <0.0001) to have at least one co- morbid condition.
Among the commercially insured, 1.6% of stroke cases had visited chiropractors within 30 days of being admit- ted to the hospital, as compared to 1.3% of controls visit- ing chiropractors within 30 days prior to their index date. Of the stroke cases, 18.9% had visited a PCP within 30 days prior to their index date, while only 6.8% of controls had visited a PCP (Table 4). The proportion of exposures for chiropractic visits was lower in the MA sample within the 30-day hazard period (cases = 0.3%; controls = 0.9%). However, the proportion of exposures for PCP visits was higher, with 21.3% of cases having PCP visits as compared to12.9% for controls (Table 5).
The results from the analyses of both the commercial population and the MA population were similar (Tables 6, 7 and 8). There was no association between chiropractic visits and VBA stroke found for the�overall sample, or for samples stratified by age. No estimated odds ratio was significant at the 95% confidence level. MA data were insufficient to calculate statistical measures of association for hazard periods less than 0�14 days for chiropractic visits. When stratified by age, the data were too sparse to calculate measures of association for hazard periods less than 0�30 days in the commercial population. The data were too few to analyze associative risk by headache and/or neck pain diagnoses (data not shown).
These results showed there is an association existing between PCP visits and VBA stroke incidence regardless of age or length of hazard period. A strong association was found for those visits close to the index date (OR 11.56; 95% CI 6.32-21.21) for all patients with a PCP visit within 0�1 day hazard period in the commercial sample. There was an increased risk of VBA stroke associated with each PCP visit within 30-days prior to the index date for MA patients (OR 1.51; 95% CI 1.32-1.73) and commercial patients (OR 2.01; 95% CI 1.77-2.29).
The findings of the secondary analysis showed � that of 1159 stroke cases from commercial population � there were a total of 19 stroke cases associated with chiropractic visits for which 13 (68%) had claims documentation indicating chiropractic SMT was performed. For the control group of the commercial cohort, 62 of 4633 controls had claims of any kind of chiropractic visits and 47 of 4633 controls had claims of SMT. In the commercial control group, 47 of 62 DC visits (76%) included SMT in the claims data. Only 1 of 2 stroke cases in the MA population included SMT in the claims data. For the MA cohort, 21 of 24 control chiropractic visits (88%) included SMT in the claims data (Table 9).
None of the stroke cases in either population included CPT 97140 as a substitute for the more conventionally re- ported chiropractic manipulative treatment procedural codes (98940 � 98942). For the control groups, there were three instances where CPT 97140 was reported without CPT 98940 � 98942 in the commercial population. The CPT code 97140 was not reported in MA control cohort.
Discussion
The primary aim of the present study was to investigate the association between chiropractic manipulative treatment and VBA stroke in a sample of the U.S. population. This study was modeled after a case�control design previously conducted for a Canadian population [32]. Administrative data for enrollees in a large national health care insurer were analyzed to explore the occurrence of VBA stroke across different time periods of exposure to chiropractic care in comparison with PCP care.
Unlike Cassidy et al. [32] and most other case�control studies [33,37,38], our results showed there was no significant association between VBA stroke and chiropractic visits. This was the case for both the commercial and MA populations. In contrast to two earlier case�control studies [32,33], this lack of association was found to be irrespective of age. Although, our results (Table 8) did lend credence to previous reports that VBA stroke occurs more frequently in patients under the age of 45 years. Additionally, the results from the present study did not identify a relevant temporal impact. There was no significant association, when the data were sufficient to calculate estimates, between chiropractic visits and stroke regardless of the hazard period (timing of most recent visit to a chiropractor and the occurrence of stroke).
There are several possible reasons for the variation in results with previous similar case�control studies. The younger (<45 yrs.) commercial cohort that received chiropractic care in our study had noticeably fewer cases. The 0�30 days hazard period included only 2 VBA stroke cases. There were no stroke cases for other hazard periods in this population. In contrast, earlier studies reported sufficient cases to calculate risk estimates for most hazard periods [32,33].
Another factor that potentially influenced the difference in results concerns the accuracy of hospital claims data in the U.S. vs. Ontario, Canada. The source population in the Province of Ontario was identified, in part, from the Discharge Abstract Database (DAD). The DAD includes hospital discharge and emergency visit diagnoses that have undergone a standardized assessment by a medical records coder [39]. To the best of our know- ledge, similar quality management practices were not routinely applied to hospital claims data used in sourcing the population for our study.
An additional reason for the disparity in results may be due to differences in the proportions of chiropractic visits where SMT was reportedly performed. Our study showed that SMT was not reported by chiropractors in more than 30% of commercial cases. It is plausible that a number of the cases in earlier studies also did not�include SMT as an intervention. Differences between studies in the proportion of cases reporting SMT may have affected the calculation of risk estimates.
Also, there were an insufficient number of cases having cervical and/or headache diagnoses in our study. Therefore, our sample population may have included proportionally less cases where cervical manipulation was performed.
Our results were consistent with previous findings [32,33] in showing a significant association between PCP visits and VBA stroke. The odds ratios for any PCP visit increase dramatically from 1�30 days to 1�1 day (Tables 6 and 7). This finding is consistent with the hypothesis that patients are more likely to see a PCP for symptoms related to vertebral artery dissection closer to the index date of their actual stroke. Since it is unlikely that the services provided by PCPs cause VBA strokes, the association�between recent PCP visits and VBA stroke is more likely attributable to the background risk related to the natural history of the condition [32].
A secondary goal of our study was to assess the utility of employing chiropractic visits as a surrogate for SMT. Our findings indicate there is a high risk of bias associated with using this approach, which likely overestimated the strength of association. Less than 70% of stroke cases (commercial and MA) associated with chiropractic care included SMT. A somewhat higher proportion of chiropractic visits included SMT for the control groups (commercial = 76%; MA = 88%).
There are plausible reasons that support these findings. Internal analyses of claims data (not shown) consistently demonstrate that one visit is the most common number associated with a chiropractic episode of care. The single visit may consist of an evaluation without treatment such as SMT. Further; SMT may have been viewed as contraindicated due to signs and symptoms of vertebral artery dissection (VAD) and/or stroke. This might explain the greater proportion of SMT provided to control groups in both the commercial and MA populations.
Overall, our results increase confidence in the findings of a previous study [32], which concluded there was no excess risk of VBA stroke associated chiropractic care compared to primary care. Further, our results indicate there is no significant risk of VBA stroke associated with chiropractic care. Additionally, our findings highlight the potential flaws in using a surrogate variable (chiropractic visits) to estimate the risk of VBA stroke in association with a specific intervention (manipulation).
Our study had a number of strengths and limitations. Both case and control data were extracted from the same source population, which encompassed national health plan data for approximately 36 million�commercial and 3 million MA members. A total of 1,829 cases were identified, making this the largest case� control study to investigate the association between chiropractic manipulation and VBA stroke. Due to the nationwide setting and large sample size, our study likely reduced the risk of bias related to geographic factors. However, there was a risk of selection bias � owing to the data set being from a single health insurer � including income status, workforce participation, and links to health care providers and hospitals.
Our study closely followed a methodological approach that had previously been described [32], thus allowing for more confident comparisons.
The current investigation analyzed data for a number of comorbid conditions that have been identified as potentially modifiable risk factors for a first ischemic stroke [40]. The differences between groups were statistically significant for most comorbidities. Information was not obtainable about behavioral comorbid factors e.g., smoking and body mass. With the exception of hypertensive disease, there are reasons to question the clinical significance of these conditions in the occurrence of ischemic stroke due to vertebral artery dissection. A large multinational case-referent study investigated the association between vascular risk factors (history of vascular disease, hypertension, smoking, hypercholesterolemia, diabetes mellitus, and obesity/overweight) for ischemic stroke and the occurrence of cervical artery dissection [41]. Only hypertension had a positive association (odds ratio 1.67; 95% confidence interval, 1.32 to 2.1; P <0.0001) with cervical artery dissection.
While the effect of other unmeasured confounders cannot be discounted, there is reason to suspect the absence of these data was not deleterious to the results. Cassidy, et al. found no significant differences in the results their case-crossover design, which affords better control of unknown confounding variables, and the findings of their case�control study [32].
Our results highlight just how unusual VBA stroke is in the MA cohort (prevalence = 0.021%) and � even more so � for the commercial population (prevalence = 0.0032%). As a result, some limitations of this study re- lated to the rarity of reporting VBA stroke events. Despite the larger number of cases, data were insufficient to calculate estimates and confidence intervals for seven measures of exposure (4 commercial and 3 MA) for chiropractic visits. Additionally, we were not able to compute estimates specifically for headache and neck pain diagnoses due to small numbers. Confidence intervals associated with estimates tended to be wide making the results imprecise [42].
There were limitations related to the use of administrative claims data. �Disadvantages of using secondary data for research purposes include: variations in coding from hospital to hospital or from department to department, errors in coding and incomplete coding, for example in the presence of comorbidities. Random errors in coding and registration of discharge diagnoses may dilute and attenuate estimates of statistical association� [43]. The recordings of unvalidated hospital discharge diagnostic codes for stroke have been shown to be less precise when compared to chart review [44,45] and validated patient registries�[43,46]. Cassidy, et al. [32] conducted a sensitivity analysis to determine the effect of diagnostic misclassification bias. Their conclusions did not change when the effects of misclassification were assumed to be similarly distributed between chiropractic and PCP cases.
A particular limitation in using administrative claims data is the paucity of contextual information surround- ing the clinical encounters between chiropractors/PCPs and their patients. Historical elements describing the occurrence/absence of recent trauma or activities reported in case studies [47-51] as potential risk factors for VBA stroke were not available in claims data. Confidence was low concerning the ability of claims data to provide accurate and complete reporting of other health disorders, which have been described in case�control designs as being associated with the occurrence of VBA stroke e.g., migraine [52] or recent infection [53]. Symptoms and physical examination findings that would have permitted further stratification of cases were not reported in the claims data.
The reporting of clinical procedures using current pro- cedural terminology (CPT) codes presented additional shortcomings concerning the accuracy and interpretation of administrative data. One inherent constraint was the lack of anatomic specificity associated with the use of standardized procedural codes in claims data. Chiropractic manipulative treatment codes (CPT 98940 � 98942) have been formatted to describe the number of spinal regions receiving manipulation. They do not identify the particular spinal regions manipulated.
Also, treatment information describing the type(s) of manipulation was not available. When SMT was re- ported, claims data could not discriminate among the range of techniques including thrust or rotational manipulation, various non-thrust interventions e.g., mechanical instruments, soft tissue mobilizations, muscle energy techniques, manual cervical traction, etc. Many of these techniques do not incorporate the same bio- mechanical stressors associated with the type of manipulation (high velocity low amplitude) that has been investigated as a putative risk factor for VBA stroke [54-56]. It seems plausible that the utility of future VBA stroke research would benefit from explicit descriptions of the particular type of manipulation performed.
Moreover, patient responses to care � including any adverse events suggestive of vertebral artery dissection or stroke-like symptoms � were not obtainable in the data set used for the current study.
In the absence of performing comprehensive clinical chart audits, it is not possible to know from claims data what actually transpired in the clinical encounter. Further, chart notes may themselves be incomplete or otherwise fail to precisely describe the nature of interventions [57]. Therefore, manipulation codes represent surrogate
measures, albeit more direct surrogate measures, than simply using the exposure to chiropractic visits.
Our study was also limited to replication of the case� control design described by Cassidy, et al. [32]. For pragmatic reasons, we did not attempt to conduct a case-crossover design. While the addition of a case- crossover design would have provided better control of confounding variables, Cassidy, et al. [32] showed the results were similar for both the case control and case crossover studies.
The findings of this case�control study and previous retrospective research underscore the need to rethink how to better conduct future investigations. Researchers should seek to avoid the use of surrogate measures or use the least indirect measures available. Instead, the focus should be on capturing data about the types of services and not the type of health care provider.
In alignment with this approach, it is also important for investigators to access contextual data (e.g., from electronic health records), which can be enabled by qualitative data analysis computer programs [58]. The acquisition of the elements of clinical encounters � including history, diagnosis, intervention, and adverse events � can provide the infrastructure for more action- able research. Because of the rarity of VBA stroke, large data sets (e.g., registries) containing these elements will be necessary to achieve adequate statistical power for making confident conclusions.
Until research efforts produce more definitive results, health care policy and clinical practice judgments are best informed by the evidence about the effectiveness of manipulation, plausible treatment options (including non-thrust manual techniques) and individual patient values [20].
Conclusions
Our findings should be viewed in the context of the body of knowledge concerning the risk of VBA stroke. In contrast to several other case�control studies, we found no significant association between exposure to chiropractic care and the risk of VBA stroke. Our secondary analysis clearly showed that manipulation may or may not have been reported at every chiropractic visit. Therefore, the use of chiropractic visits as a proxy for manipulation may not be reliable. Our results add weight to the view that chiropractic care is an unlikely cause of VBA strokes. However, the current study does not exclude cervical manipulation as a possible cause or contributory factor in the occurrence of VBA stroke.
Authors’ Contributions
DE conceived of the study, and participated in its design and coordination. JT participated in the design of the study, performed the statistical analysis and helped to draft the manuscript. TMK participated in the design and coordination of the study, and wrote the initial draft and revisions of the manuscript. WMB participated in the coordination of the study and the statistical analysis, and helped to draft the manuscript. All authors contributed to the interpretation of the data. All authors read and approved the final manuscript.
Author Details
1Optum Health � Clinical Programs at United Health Group, 11000 Optum Circle, Eden Prairie MN 55344, USA. 2Optum Health � Clinical Analytics at United Health Group, 11000 Optum Circle, Eden Prairie MN 55344, USA.
Received: 14 October 2014 Accepted: 28 April 2015
Published Online: 16 June 2015
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Case Report: The Assessment of Traumatic Cervical Spine Injury and Utilization of Advanced Imaging in a Chiropractic Office.
Abstract: the objective is to explore the standard of care regarding the assessment of cervical spine injuries in a setting of a chiropractic office. Diagnostic studies include physical examination, range of motion studies, orthopedic testing and cervical spine. MRI.
Introduction: On January 30, 2017 a 49 year old female presented in my office to a second opinion examination at the request of her attorney. She had been involved in a rear-end collision on 12/12/2015. (2) She was transported to a local hospital and arrived with complaints of headaches, disorientation, right-sided neck pain and right arm pain. At the hospital emergency department CAT scan was taken of her brain, which proved to be negative. She received prescriptions of muscle relaxers and pain relievers and instructed to visit her primary care physician if her symptoms persisted.
Initial Examination
She consulted a local Chiropractor on December 15, 2015. The initial examination included the following from my review of the doctor�s notes: Presenting complaints were right-sided neck pain that radiates to the right arm. The doctor�s records show a positive cervical compression test and a positive maximum cervical compression test. Both produced pain bilaterally worse on the right. Facet provocation tests were positive for facet disease. Right side radicular pain pattern includes the trapezius and deltoid. No x-ray studies were included in the doctor�s orders. The patient received 23 chiropractic treatments from 12/15/2015 through 4/5/2016 for a diagnosis of cervical sprain/strain. The treatments consisted of spinal manipulation and a variety of soft tissue therapies.
Around January 15, 2017 I received a phone call from a local attorney regarding this patient and asking if I would do a second opinion examination on her due to persistent neck pain and right upper extremity pain. The patient presented on January 30, 2017 for my evaluation. My clinical findings are as follows:
Vitals: Age 49, weight 170 lbs. height 5� 8�, B.P 126/82, pulse 64, Resp. 16/min.
Appearance: in pain
Orthopedic/Range of motion: All cervical compression tests produced pain with radiation bilaterally worse on the right. Range of motion studies revealed: 40 degrees of left rotation and 32 degrees of right rotation with radiating pain produced by both motions.
Palpation: cervical spine palpation produced centralized spine pain that radiates to the right shoulder with numbness in the right arm and hand.
The patient informed me during the examination that her pain made it difficult to sleep through the night. If she was on her right side her right arm and hand would go numb immediately. A big part of this patient�s life was riding and caring for her horse and she could not do either because it resulted in severe neck and arm pain.
My recommendation to her and her attorney was to obtain a cervical spine MRI with a 1.5 Tesla machine due to the high quality images it can produce. MRI is a highly sensitive tool to evaluation of neurologic tissue including the spinal cord and nerve roots. (1) I bypassed the x-ray at this time due to the clinical presentation and 12% of spinal cord with injuries having no radiographic abnormality. (3)
Imaging
Figure 1: T2 Sagittal Cervical Spine MRI
Fig 2: T2 Axial Cervical Spine with Scout line through C3/4.
Radiology Report: The report and the images demonstrated a right paracentral disc extrusion measuring 9 mm and extending 8 mm cranial/caudal causing abutment of the spinal cord. (Fig 1)(2) Additionally the diameter of the central canal was reduced to 8.1mm and projected into the right lateral recess resulting in severe stenosis of the right neural canal. (Fig 2) Additional findings not pictured: C4/5 demonstrated a 2.5 mm bulging disc with facet hypertrophy with moderate stenosis of the left neural canal and severe stenosis of the right neural canal. C5/6 demonstrated a 1.5 mm posterior subluxation narrowing the central canal to 9.1 mm with unconvertebral joint hypertrophy resulting in moderate right and severe left neural canal stenosis. C6/7 revealed a broad based disc herniation worse on the left measuring 3.6 mm resulting in severe neural canal stenosis bilaterally complicated by unconvertebral joint hypertrophy. The MRI findings correlate with the patient�s clinical presentation. (4)
Discussion: When the patient returned to a consultation on the MRI findings my recommendation was to consult a neurosurgeon. (3) Her attorney asked me if the treating doctor acted incompetently. My only response was that I would have ordered the MRI immediately before treating the patient with manual manipulation. The case is likely to go to trial and there is a good chance that I will be called in as an expert witness. It is almost a guarantee that the defense attorney will ask me if I would have treated the patient for such a long period of time without an MRI or whether the treating doctor could have made the problem worse. The failure to accurately determine a diagnosis may result in malpractice action or a board hearing or both for this treating doctor and I would have ordered the MRI immediately considering the radicular findings and symptoms. After any myelopathic or significant radiculopathic symptoms a referral of advanced imaging needs to be performed in order to conclude and accurate diagnosis, prognosis and treatment plan prior to rendering care. Diagnostic appropriateness in the case of traumatic injury or with any etiology with neurologic symptoms or findings necessitates following triage protocols. In this case, an immediate 2-3mm MRI of the cervical spine is clinically indicated and proved integral to the safe care of this patient.
The scope of our information is limited to chiropractic and spinal injuries and conditions. To discuss options on the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .
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Additional Topics: Recovering from Auto Injuries
After being involved in an automobile accident, many victims frequently report neck or back pain due to damage, injury or aggravated conditions resulting from the incident. There’s a variety of treatments available to treat some of the most common auto injuries, including alternative treatment options. Conservative care, for instance, is a treatment approach which doesn’t involve surgical interventions. Chiropractic care is a safe and effective treatment options which focuses on naturally restoring the original dignity of the spine after an individual suffered an automobile accident injury.
Title: Conservative care and axial distraction therapy for the management of cervical and lumbar disc herniations and ligament laxity post motor vehicle collision.
Dr. Alex Jimenez, doctor of chiropractic, focuses on the diagnosis, treatment and prevention of a variety of injuries and conditions associated with the musculoskeletal and nervous systems, utilizing several chiropractic methods and techniques. The following procedures may be similar to his own but can differ according to the specific issue and complications by which the individual is diagnosed.
Abstract: This middle-aged female was injured in a vehicle collision causing her to sustain disc and additional ligament injuries in the cervical and lumbar spine. Diagnostic studies included physical examination, orthopedic and neurological testing, lumbar MRI, multiple cervical MRI�s, CRMA with motion cervical radiographs and EMG studies. Typically, conservative care is initiated prior to interventional procedures, and this case study seeks to explore the usage of passive therapy for mechanical spine pain and noted anatomic disc lesions after failure of interventional procedures. She reported both short term and long term success regarding pain reduction along with improvement in her activities of daily living after initiating conservative care, and continued to report further reductions in pain with periodic pain management using conservative care.
Introduction: The 49-year-old married female (Spanish speaking patient) reported that on March 4th, 2014 she was the seat-belted driver of a truck that was struck by a much larger fuel truck changing lines, hitting her vehicle at the front passenger side (far side, side impact). The force of the impact caused her truck to be lifted up and the right wheel popped off. Her head hit the window after impact and the spinal pain and complaints started approximately 24 hours later. Two days after the crash she went to the emergency department. Occupant pictures were taken describing an out of position occupant injury. She did not report any additional significant trauma after the collision.
Initial Diagnosis and Treatment for Disc Herniations
Prior to her evaluation at our clinic, she utilized multiple providers for diagnosis and treatment over the course of 11 months. She went to the emergency department, utilized 3 pain management medical doctors, neuropsychologist and a cognitive rehabilitation therapist. Imaging included radiographs and MRI of the right shoulder revealing rotator cuff tear; radiographs of the lumbar and thoracic spine, and left hand; CT of the head and cervical spine were performed; MRI cervical (3) and lumbar spine. Medications prescribed included Fentanyl, Percocet, Naprosyn, Cyclobenzaprine, Norco, Hydrocodone-acetaminophen, Soma, and Carisoprodol. Physical therapy was provided for spinal injuries and she did not respond to treatment. The neurosurgeon recommended epidural steroid injections and facet blocks. Cervical nerve blocks and cervical trigger point injections, cervical and lumbar epidural steroid injections (ESI), lateral epicondyle steroid injections were performed, none of which were palliative. Post-concussion disorder and PTSD with major depressive disorder were diagnosed.
On February 12th, 2015, she presented to our office with neck pain (average 6/10 VAS) that affected her vision, with paresthesia�s in both upper extremities radiating to the hands with numbness. She had low back pain (average 6/10 VAS), and she additionally reported paresthesia at the plantar surface of feet bilaterally. She had left elbow pain, right shoulder pain, knee pain, headaches and �anxiety� along with anterior sternal pain.
Her injuries were causing significant problems with her activities of daily living. Summarily she had increased pain with lifting, increased pain and restricted movement with bending, walking and carrying. She had been unable to perform any significant physical activity from the time of the crash in March 2014 until March 2015. Her right hand was always hurting and her forearms. She was not able to clean windows or do laundry, difficulty using stairs, problems with mopping, ironing and cleaning. She had to limit her walking and jogging primarily due to neck pain and right arm pain. She was not able to sit for long periods of time and sleeping was disrupted due to numbness in her hands. She was only able to walk on a treadmill for 10 minutes before having to stop due to pain, prior to the crash she would exercise for an hour.
Prior History: No significant prior musculoskeletal or contributory medical history was reported.
Research Study Conclusions
Clinical Findings (2/12/15): She had a height of 5�2�, measured weight of 127 lbs.
Visual analysis of the cervical spine revealed pain in multiple ranges of motion including flexion, extension, bilateral rotation and bilateral side bending. On extension pain was noted in the upper back, on rotation pain was noted in the posterior neck, and on lateral flexion pain was noted contralaterally.
Visual analysis of the lumbar spine revealed pain in the low back on all active ranges of motion, including flexion, extension and side bending, pain primarily at L5/S1.
Dual inclinometer testing was ordered based on visual active range of motion limitations with pain.
Sensory testing was performed of the extremities, C5-T1 and L4-S1. No neurological deficits other than right sided C5 hypoesthesia.
Foraminal compression test produced pain in the cervical spine. Foraminal distraction test caused an increase in pain in the neck. Jackson�s test on the right produced pain bilaterally in the neck. Straight leg raise bilaterally produced low back pain, double Straight leg raise produce pain at L5/S1 at 30 degrees.
Muscle testing of the upper extremities was tested at a 5/5 with the exception of deltoid bilaterally tested at a 4/5. The patient�s deep tendon reflexes of the upper and lower extremities were tested including Triceps, Biceps, Brachioradialis, Patella, Achilles: all were tested at 2+ bilaterally, equal and reactive. No evidence of clonus of the feet and Hoffman�s test was unremarkable.
C3-C5 right sided segmental dysfunction was noted on palpation. T5-T12 spinous process tenderness on palpation. Low back pain on palpation, particularly L5/S1.
Imaging Results
MRI Studies:
I reviewed the cervical MRI images taken May 2014 with the following conclusions (images attached):
Dramatic reversal of the normal cervical curvature, apex C5/6.
C5/6 herniation, indentation of the spinal cord anteriorly. High signal posterior on STIR.
Due to the angular kyphosis of the cervical spine and axial slices performed, C6/7 slices did not render a pure diagnostic image for disc disruption.
Fig. 1 (A) T2 Axial C5/6, 2 months post injury Fig. 1 (B) Sag T2 C5/6
I reviewed cervical MRI images taken September 17th, 2014 approximately 6-months post injury, and rendered the following conclusions:
Reversal of the normal cervical lordosis.
C5/C6 herniation (extrusion type) with indentation of spinal cord, appropriate CSF noted posteriorly.
I reviewed the cervical MRI dated October 24th, 2015 (images attached):
C4/5 herniation, extrusion type, left oriented into the lateral recess and neural canal causing moderate neural canal stenosis
Fig. 2 (A) 3D Axial C4/5, 19 months post injury Fig. 2 (B) Sag T2 C4/5
IMPRESSIONS: C4/5 herniation noted on 10/24/15 was not noted on prior images. The patient reported no additional injury or symptoms between MRI studies, so it is postulated that initial slices revealed a false negative; or due to the severity of abnormal cervical biomechanics, it is possible that the C4/5 disc herniated between the pre/post MRI�s with no significant increase in symptomatology. There was improvement at C5/6 related to disc abnormality and cord involvement (see below).
Fig. 3 (A) 3D Axial C5/6, 19 months post injuryFig. 3 (B) Sag T2 C5/6, 19 months post injury
The cervical flexion/extension images were digitized February 2016 and interpreted by myself and Robert Peyster MD, CAQ Neuroradiology, revealing a loss of Angular Motion Segment Integrity at intersegment C6/C7 measured at 19.7 degrees (maximum allowed 11 degrees), indicating a 25% whole person impairment according to the AMA Evaluation of Permanent Impairment Guidelines 5th edition1. CRMA provided from Spine Metrics, independent analysis.
Evidence of significant ligament injury causing functional subfailure was measured at C3/4 at 10.4 degrees and at C4/5 measuring 10.9 degrees regarding angular motion. Abnormal paradoxical translation motion measured at C6/7 and C7/T1.
Functional Testing:
EMG of the upper extremity revealed bilateral C6 radiculopathy, December 16th, 2015.
Range of Motion Cervical Dual Inclinometry:
Initial Max 4 months later % Improvement
Cervical Extension 44 42 -5%
Flexion 40 62 55%
Cervical Left 25 41 64%
Lateral flexion Right 12 26 117%
Cervical Left 46 59 28%
Rotation Right 43 73 70%
Conservative treatment rendered: A neurosurgical referral was made for assessment and surgical options. Conservative care was initiated despite failure of other medical procedures since there is �further evidence that chiropractic is an effective treatment for chronic whiplash symptoms�2-3. The patient was placed on an initial care plan of 2-3x/week for 5 months, with a gap in passive care for 1 month.
23 chiropractic visits. Instrument adjusting cervical spine was utilized with Arthrostim. Non-rotatory HVLA (high velocity low amplitude) spinal adjustments were performed thoracic and lumbar spine, applied A-P. No HVLA spinal adjustments to the cervical spine.
Prior to being placed at maximum medical improvement she had persistent low back symptoms, continued tingling in the fingertips and occasional neck pain at a 4/10, with her upper extremity paresthesia�s improved 50%. She continued with pain management chiropractic care after MMI, approximately 1 visit every 3-4 weeks with axial distraction to the cervical and lumbar spine, chiropractic adjustments as needed (PRN). 2 years/9 months post collision, and 1 year/9 months after initiating conservative care at our clinic, she reports only slight (1-2/10 VAS) spinal complaints with her primary concern being a torn rotator cuff injury from the crash that still requires surgical intervention. After initiating care at our clinic, no other interventional procedures were performed, although medication usage persisted. Due to improvement in symptoms and functional status, spinal surgery was not considered. She still utilizes Aleve PRN, 1-2 tablets. No significant active spinal rehabilitation was utilized. The patient was given at home active care consisting only of cervical and lumbar stretches, walking, and ice to affected areas.
Conclusion:While chiropractic care is safe even in the presence of herniations and radicular symptoms, �the likelihood of injury due to manipulation may be elevated in pathologically weakened tissues�4. Due to cord involvement, the provider decided to utilize low force procedures although HVLA spinal adjustments to the cervical spine could be considered safe due to lack of cord compression. HVLA spinal adjustments A-P were utilized in the lumbar and thoracic spine not only for short term pain relief but also as part of managing the chronic low back pain secondary to ligament/disc damage. While previously theorized to be only episodic, low back pain can be a lifelong condition requiring patients to seek ongoing care5. This care can be active, passive, pharmaceutical, interventional, or conservative in nature, but ongoing pain management therapy is often required for permanent ligament conditions. There is clear benefit to the patient population to be able to avoid surgical intervention due to risks, costs, ongoing prescription medication usage and adjacent level degeneration in the future6. Avoiding opioid usage is also a high priority in today�s environment.
Long term conservative care utilizing instrument spinal adjusting and targeted axial distraction therapy significantly reduced subjective reporting of pain, increased activities of daily living, and allowed the patient to avoid further spinal injections or surgical intervention. Considering that various interventional procedures failed prior to conservative care, it is important that providers work in an interdisciplinary environment such that the safest, and in this case the most effective, therapies are utilized first to reduce risk to the patient and maximize benefit and reduce costs.
In this case study, the patient utilized multiple pain management physicians, cervical nerve blocks and epidural steroid injections, and was not directed to conservative care for 11 months post injury. Utilizing chiropractic as conservative care would have enabled this patient to regain function and decrease pain while reducing costs and risks that are associated with medications and interventional procedures.
Competing Interest: There are no competing interests in the writing of this case report.
De-Identification: All of the patient�s data has been removed from this case.
The scope of our information is limited to chiropractic and spinal injuries and conditions. To discuss options on the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .
Cocchiarella L., Anderson G. Guides to the Evaluation of Permanent Impairment, 5th Edition, Chicago IL, 2001 AMA Press.
Khan S, Cook J, Gargan M, Bannister G. A symptomatic classification of whiplash injury and the implications for treatment. Journal of Orthopaedic Medicine 1999; 21(1):22-25.
Whedon J, Mackenzie T, Phillips R, Lurie J. Risk of traumatic injury associated with chiropractic spinal manipulation in Medicare Part B beneficiaries aged 66-99 years. Spine, 2015; 40:264�270.
Hestbaek L, Munck A, Hartvigsen L, Jarbol DE, Sondergaard J, Kongsted A: Low back pain in primary care: a description of 1250 patients with low back pain in Danish general and chiropractic practices. Int J Family Med, 2014.
Faldini C., Leonetti D., Nanni M. et al: Cervical disc herniation and cervical spondylosis surgically treated by Cloward procedure: a 10-year-minimum follow-up study. Journal of Orthopaedics and Traumatology, June 2010.Volume 11, Issue 2,pp 99-103.
Additional Topics: Recovering from Auto Injuries
After being involved in an automobile accident, many victims frequently report neck or back pain due to damage, injury or aggravated conditions resulting from the incident. There’s a variety of treatments available to treat some of the most common auto injuries, including alternative treatment options. Conservative care, for instance, is a treatment approach which doesn’t involve surgical interventions. Chiropractic care is a safe and effective treatment options which focuses on naturally restoring the original dignity of the spine after an individual suffered an automobile accident injury.
The purpose of this article is to provide an update of a previously published evidence-based practice guideline on chiropractic management of low back pain.
Methods
This project updated and combined 3 previous guidelines. A systematic review of articles published between October 2009 through February 2014 was conducted to update the literature published since the previous Council on Chiropractic Guidelines and Practice Parameters (CCGPP) guideline was developed. Articles with new relevant information were summarized and provided to the Delphi panel as background information along with the previous CCGPP guidelines. Delphi panelists who served on previous consensus projects and represented a broad sampling of jurisdictions and practice experience related to low back pain management were invited to participate. Thirty-seven panelists participated; 33 were doctors of chiropractic (DCs). In addition, public comment was sought by posting the consensus statements on the CCGPP Web site. The RAND-UCLA methodology was used to reach formal consensus.
Results
Consensus was reached after 1 round of revisions, with an additional round conducted to reach consensus on the changes that resulted from the public comment period. Most recommendations made in the original guidelines were unchanged after going through the consensus process.
Conclusions
The evidence supports that doctors of chiropractic are well suited to diagnose, treat, co-manage, and manage the treatment of patients with low back pain disorders.
Key Indexing Terms:
Chiropractic, Low Back Pain, Manipulation, Spinal, Guidelines
Early development of the chiropractic profession in the 1900s represented the application of accumulated wisdom and traditional practices.1, 2 As was the practice of medicine, philosophy and practice of chiropractic were informed to a large extent by an apprenticeship and clinical experiential model in a time predominantly absent of clinical trials and observational research.
The traditional chiropractic approach, in which a trial of natural and less invasive methods precedes aggressive therapies, has gained credibility. However, the chiropractic profession can gain wider acceptance in the role as the first point of contact health care provider to patients with low back disorders, particularly within integrated health care delivery systems, by embracing the scientific approach integral to evidence-based health care.3, 4, 5,6, 7 It is in this context that these guidelines were developed and are updated and revised.8, 9, 10, 11, 12
By today’s standards, it is the responsibility of a health profession to use scientific methods to conduct research and critically evaluate the evidence base for clinical methods used.13, 14 This scientific approach helps to ensure that best practices are emphasized.15 With respect to low back disorders, clinical experience suggests that some patients respond to different treatments. The availability of other clinical methods for conditions that are unresponsive to more evidence-informed approaches (primary nonresponders) introduces the opportunity for patients to achieve improved outcomes by alternative and personalized approaches that may be more attuned to individual differences that cannot be informed by typical clinical trials.16, 17, 18 To a large degree, variability in the selection of treatment methods among doctors of chiropractic (DCs) continues to exist, even though the large body of research on low back pain (LBP) has focused on the most commonly used manipulative methods.17, 19, 20
Although the weight of the evidence may favor the evidence referenced in a guideline for particular clinical methods, an individual patient may be best served in subsequent trials of care by treatment that is highly personalized to their own mechanical disorder, experience of pain and disability, as well as preference for a specific treatment approach. This is consistent with the 3 components of evidence-based practice: clinician experience and judgment, patient preferences and values, and the best available scientific evidence.3, 13
Doctors of chiropractic use methods that assist patients in self-management such as exercise, diet, and lifestyle modification to improve outcomes and their stabilization to avoid dependency on health care system resources.19, 21 They also recognize that a variety of health care providers play a critical role in the treatment and recovery process of patients at various stages, and that DCs should consult, refer patients, and co-manage patients with them when in the patient’s best interest.19
To facilitate best practices specific to the chiropractic management of patients with common, primarily musculoskeletal disorders, the profession established the Council on Chiropractic Guidelines and Practice Parameters (CCGPP) in 1995.6 The organization sponsored and/or participated in the development of a number of “best practices” recommendations on various conditions.21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32 With respect to chiropractic management of LBP, a CCGPP team produced a literature synthesis8 which formed the basis of the first iteration of this guideline in 2008.9 In 2010, a new guideline focused on chronic spine-related pain was published,12 with a companion publication to both the 2008 and 2010 guidelines published in 2012, providing algorithms for chiropractic management of both acute and chronic pain.10 Guidelines should be updated regularly.33, 34 Therefore, this article provides the clinical practice guideline (CPG) based on an updated systematic literature review and extensive and robust consensus process.9, 10, 11, 12
Methods
This project was a guideline update based on current evidence and consensus of a multidisciplinary panel of experts in the conservative management of LBP. It has been recommended that, although periodic updates of guidelines are necessary, “partial updating often makes more sense than updating the whole CPG because topics and recommendations differ in terms of the need for updating.”33 Logan University Institutional Review Board determined that the project was exempt. We used Appraisal of Guidelines for Research & Evaluation (AGREE) in developing the guideline methodology.
Systematic Review
Between March 2014 through July 2014, we conducted a systematic review to update the literature published since the previous CCGPP guideline was developed. The search included articles that were published between October 2009 through February 2014. Our question was, “What is the effectiveness of chiropractic care including spinal manipulation for nonspecific low back pain?” Table 1 summarizes the eligibility criteria for the search.
Table 1
Eligibility Criteria for the Literature Search
Inclusion
Exclusion
Published between October 2009-February 2014
Case reports and case series
English language
Commentaries
Human participants
Conference proceedings
Age >17 y
In-patients
Manipulation
Letters
LBP
Narrative and qualitative reviews
Duration chronic (>3 mo)
Non–peer-reviewed publications
Patient outcomes reported
Pilot studies
Non-manipulation comparison group
Pregnancy-related LBP
RCTs, cohort studies, systematic reviews, and meta-analyses
Secondary analyses and descriptive studies
LBP, low back pain; RCT, randomized controlled trial.
Search Strategy
The following databases were included in the search: PubMed, Index to Chiropractic Literature, CINAHL, and MANTIS. Details of the strategy for each database are provided in Figure 1. Articles and abstracts were screened independently by 2 reviewers. Data were not further extracted.
Fig 1
Search strategies used in the literature search.
Evaluation of Articles
We evaluated articles using the Scottish Intercollegiate Guideline Network checklists (www.sign.ac.uk/methodology/checklists.html) for randomized controlled trials (RCTs) and systematic reviews/meta-analyses. For guidelines, the AGREE 2013 instrument35 was used. At least 2 of the 3 investigators conducting the review (CH, SW, MK) reviewed each article. If both reviewers rated the study as either high quality or acceptable, it was included for consideration; if both reviewers rated it as unacceptable, it was removed. For AGREE, we considered “unacceptable” to be a sum of <4. If there was disagreement between reviewers, a third also reviewed the article, and the majority rating was used.
Results of Literature Review
This search yielded 270 articles. Screening the articles for eligibility resulted in 18 articles included for evaluation, as detailed in Figure 2, using the Preferred Reporting Items for Systematic Reviews and Meta-Analyses flowchart.36
Fig 2
Flow diagram for literature search. LBP, low back pain; RCT, randomized controlled trial; SR, systematic reviews.
Of the 18 articles included after screening, 16 were retained as acceptable/high quality12, 17, 37, 38, 39, 40, 41, 42,43, 44, 45, 46, 47, 48, 49, 50 and 251, 52 (both systematic reviews) were excluded as being of unacceptable quality according to the Scottish Intercollegiate Guideline Network checklist. Those with new relevant information were summarized and provided to the Delphi panel as background information. Table 2 lists the articles by lead author and date, and the topic addressed, if new findings were present.
Table 2
Articles Evaluated
Lead Author
Year
Relevant New Findings
Guidelines and systematic reviews
Clar17
2014
None
Dagenais38
2010
Standards for assessment of LBP
Dagenais37
2010
Standards for assessment of LBP
Farabaugh12
2010
Basis for current update
Furlan39
2010
None
Goertz40
2012
None
Hidalgo41
2014
None
Koes42
2010
None
McIntosh43
2011
None
Posadzki44
2011
None
Rubinstein45
2013
None
Rubinstein46
2011
Excluded as unacceptable quality
Ernst51
2012
Menke52
2014
RCTs
Haas47
2013
Dosage information
Senna48
2011
Dosage information
Von Heymann49
2013
None
Walker50
2013
None
LBP, low back pain; RCT, randomized controlled trial.
Seed Documents & Seed Statements
Along with the literature summary, seed documents were comprised of the 3 previous CCGPP guidelines9, 10, 12; links were provided to full text versions. The original guidelines had been developed based on the evidence, including guidelines and research available at the time.16, 53, 54, 55, 56, 57, 58, 59, 60, 61, 62, 63 The steering committee, composed of authors on these previous guidelines, developed 51 seed statements based on the background documents, revising the previous statements if it seemed advisable based on the literature. The steering committee did not conduct a formal consensus process; however, the seed statement development was a team effort, with changes only made if all members of the steering committee were in agreement. Before conducting this project, these seed statements had gone through a local Delphi process among clinical and academic faculty at Logan University as part of their development of care pathways for their clinical faculty. This was done to assess the readability of the seed statements to a group of practicing clinicians. In the Delphi process, 7 statements were slightly modified from the original, and none of those changes were substantive, but rather for purposes of clarification. Consensus was reached for the seed document, which was then adopted by that institution for use in its teaching clinics. That document formed the seed document for the current project. For the Delphi rounds, the 51 statements were divided into 3 sections to be less onerous for the panelists to rate in a timely manner.
Delphi Panel
Panelists who served on the 3 previous consensus projects10, 11, 12 related to LBP management were invited to participate. Steering committee members made additional recommendations for experts in management of LBP who were not DCs to increase multidisciplinary input. There were 37 panelists; 33 were DCs, one of whom had dual licensure—DC and massage therapist. The 4 non-DC panelists consisted of an acupuncturist who is also a medical doctor, a medical doctor (orthopedic surgeon), a massage therapist, and a physical therapist. Thirty-three of the 37 panelists were in practice (89%); the mean number of years in practice was 27. Seventeen were also affiliated with a chiropractic institution (46%), with 2 of these associated with Logan University; 3 were affiliated with a different health care professional institution (8%); and 1 was employed with a government agency. Because this guideline focuses primarily on chiropractic practice in the United States, geographically, all panelists were from the United States, with 19 states represented. These were Arizona (1), California (4), Florida (3), Georgia (3), Hawaii (2), Iowa (2), Illinois (3), Kansas (1), Michigan (1), Minnesota (1), Missouri (3), North Carolina (1), New Jersey (2), New York (5), South Carolina (1), South Dakota (1), Texas (1), Virginia (1), and Vermont (1). Of the 33 DCs, 21 (64%) were members of the American Chiropractic Association, 2 (6%) were members of the International Chiropractors Association, and 10 (30%) did not belong to any national chiropractic professional organization.
Delphi Rounds and Rating System
The consensus process was conducted by e-mail. For purposes of analyzing the ratings and comments, panelists were identified by an ID number only. The Delphi panelists were not aware of other panelists’ identity during the duration of the study. As in our previous projects, we used the RAND-UCLA methodology for formal consensus.64
This methodology uses an ordinal scale of 1-9 (highly inappropriate to highly appropriate) to rate each seed statement. RAND/UCLA defines appropriateness to mean that expected patient health benefits are greater than expected negative effects by a large enough margin that the action is worthwhile, without considering costs.64
After scoring each Delphi round, the project coordinator provided the medians, percentages, and comments (as a Word table) to the steering committee. They reviewed all comments and revised any statements not reaching consensus as per these comments. The project coordinator circulated the revised statements, accompanied by the deidentified comments, to the Delphi panel for the next round.
We considered consensus on a statement’s appropriateness to have been reached if both the median rating was 7 or higher and at least 80% of panelists’ ratings for that statement were 7 or higher. Panelists were provided with space to make unlimited comments on each statement. If consensus could not be reached, it was planned that minority reports would be included.
Public Comments
As per recommendations for guideline development such as AGREE, we invited public comment on the draft CPG. This was accomplished by posting the consensus statement on the CCGPP Web site. Press releases and direct e-mail contacts announced a 2-week public comment period, with comments collected via an online Web survey application. Organizations and institutions who were contacted included the following: all US chiropractic colleges; members of all chiropractic state organizations; state boards of chiropractic examiners; chiropractic practice consultants; chiropractic attorneys; chiropractic media (including 1 publication sent to all US-licensed DCs); and chiropractic vendors, whose contacts also included interested laypersons. The steering committee then crafted additional or revised statements as per the comments collected through this method, and these statements were then recirculated through the Delphi panel until consensus was reached.
Data Analysis
For scoring purposes, ratings of 1-3 were collapsed as “inappropriate,” 4-6 as “uncertain,” and 7-9 as “appropriate.” If a panelist rated a statement as “inappropriate,” he or she was instructed to articulate a specific reason and provide a citation from the peer-reviewed literature to support it, if possible. The project coordinator entered ratings into a database (SPSS v. 22.0, Armonk, NY: IBM Corp, 2013).
Results
The verbatim evidence-informed consensus-based seed statements, as approved by the Delphi panel, are presented below. Consensus was reached after 1 round of revisions, with an additional round conducted to reach consensus on the changes that resulted from the public comment period. No minority reports are included because consensus was reached on all statements. There were 7 comments received, 6 from DCs and 1 from a layperson. Three did not require a response; statements were added or modified in response to the other 4 comments.
General Considerations
Most acute pain, typically the result of injury (micro- or macrotrauma), responds to a short course of conservative treatment (Table 3). If effectively treated at this stage, patients often recover with full resolution of pain and function, although recurrences are common. Delayed or inadequate early clinical management may result in increased risk of chronicity and disability. Furthermore, those responding poorly in the acute stage and those with increased risk factors for chronicity must also be identified as early as possible.
Table 3
Frequency and Duration for Trial(s) of Chiropractic Treatment
Scheduled ongoing care for management of chronic painb
1-4 visits per month
At minimum every 6 visits, or as necessary to document condition changes.
aFor acute and subacute stages; up to 12 visits per trial of care. If additional trials of care are indicated, supporting documentation should be available for review, including, but not necessarily limited to, documentation of complicating factors and/or comorbidities coupled with evidence of functional gains from earlier trial(s). Efforts toward self-care recommendations should be documented.
bFor chronic presentations, exacerbations, and scheduled ongoing care for management of chronic pain, additional care must be supported with evidence of either functional improvement or functional optimization. Such presentations may include, but are not limited to, the following: (1) substantial symptom recurrences following treatment withdrawal, (2) minimization/control of pain, (3) maintenance of function and ability to perform common ADLs, (4) minimization of dependence on therapeutic interventions with greater risk(s) of adverse events, and (5) care which maintains or improves capacity to perform work. Efforts toward self-care recommendations should be documented.
Clinicians must continually be vigilant for the appearance of clinical red flags that may arise at any point during patient care. In addition, biopsychosocial factors (also known as clinical yellow flags) should be identified and addressed as early as possible as part of a comprehensive approach to clinical management.
Chiropractic doctors are skilled in multiple approaches of functional assessment and treatment. Depending on the clinical complexity, DCs can work independently or as part of a multidisciplinary team approach to functional restoration of patients with acute and chronic LBP.
It is the ultimate goal of chiropractic care to improve patients’ functional capacity and educate them to accept independently the responsibility for their own health.
Informed Consent
Informed consent is the process of proactive communication between a patient and physician that results in the patient’s authorization or agreement to undergo a specific medical intervention. Informed consent should be obtained from the patient and performed within the local and/or regional standards of practice. The DC should explain the diagnosis, examination, and proposed procedures clearly and simply and answer patients’ questions to ensure that they can make an informed decision about their health care choices. He or she should explain material risks* of care along with other reasonable treatment options, including the risks of no treatment. (*Note: The legal definition of material risk may vary state by state.)
Examination Procedures
Thorough history and evidence-informed examination procedures are critical components of chiropractic clinical management. These procedures provide the clinical rationale for appropriate diagnosis and subsequent treatment planning.
Assessment should include but is not limited to the following38:
Health history (eg, pain characteristics, red flags, review of systems, risk factors for chronicity)
Specific causes of LBP (eg, aortic aneurysm, inflammatory disorders)
Diagnostic testing (indications) for red flags (eg, imaging and laboratory tests)
Routine imaging or other diagnostic tests are not recommended for patients with nonspecific LBP.55
Imaging and other diagnostic tests are indicated in the presence of severe and/or progressive neurologic deficits or if the history and physical examination cause suspicion of serious underlying pathology.55
Patients with persistent LBP accompanied by signs or symptoms of radiculopathy or spinal stenosis should be evaluated, preferably, with magnetic resonance imaging or computed tomography.55
Imaging studies should be considered when patients fail to improve following a reasonable course of conservative care or when there is suspicion of an underlying anatomical anomaly, such as spondylolisthesis, moderate to severe spondylosis, posttrauma with worsening symptomatogy (consider imaging, referral, or co-management) with evidence of persistent or increasing neurological (ie, reflex, motor, and/or sensory) compromise, or other factors which might alter the treatment approach. Lateral view flexion/extension studies may be warranted to assess for mechanical instability due to excessive intervertebral translation and/or wedging. Imaging studies should be considered only after careful review and correlation of the history and examination.65
Severity and Duration of Conditions
Conditions of illness and injury are typically classified by severity and/or duration. Common descriptions of the stages of illness and injuries are acute, subacute, chronic, and recurrent, and further subdivided into mild, moderate, and severe.
Acute—symptoms persisting for less than 6 weeks.
Subacute—symptoms persisting between 6 and 12 weeks.
Chronic—symptoms persisting for at least 12 weeks’ duration.
Recurrent/flare-up—return of symptoms perceived to be similar to those of the original injury at sporadic intervals or as a result of exacerbating factors.
Treatment Frequency and Duration
Although most patients respond within anticipated time frames, frequency and duration of treatment may be influenced by individual patient factors or characteristics that present as barriers to recovery (eg, comorbidities, clinical yellow flags). Depending on these individualized factors, additional time and treatment may be required to observe a therapeutic response. The therapeutic effects of chiropractic care/treatment should be evaluated by subjective and/or objective assessments after each course of treatment (see “Outcome Measurement”).
Recommended therapeutic trial ranges are representative of typical care parameters. A typical initial therapeutic trial of chiropractic care consists of 6 to 12 visits over a 2- to 4-week period, with the doctor monitoring the patient’s progress with each visit to ensure that acceptable clinical gains are realized (Table 3).
For acute conditions, fewer treatments may be necessary to observe a therapeutic effect and to obtain complete recovery. Chiropractic management is also recommended for various chronic low back conditions where repeated episodes (or acute exacerbations) are experienced by the patient, particularly when a previous course of care has demonstrated clinical effectiveness and reduced the long-term use of medications.
Initial Course of Treatments for Low Back Disorders
To be consistent with an evidence-based approach, DCs should use clinical methods that generally reflect the best available evidence, combined with clinical judgment, experience, and patient preference. For example, currently, the most robust literature regarding manual therapy for LBP is based primarily on high-velocity, low-amplitude (HVLA) techniques, and mobilization (such as flexion-distraction).17, 20, 66 Therefore, in the absence of contraindications, these methods are generally recommended. However, best practices for individualized patient care, based on clinical judgment and patient preference, may require alternative clinical strategies for which the evidence of effectiveness may be less robust.
The treatment recommendations that follow, based on clinical experience combined with the best available evidence, are posited for the “typical” patient and do not include risk stratification for complicating factors. Complicating factors are discussed elsewhere in this document.
An initial course of chiropractic treatment typically includes 1 or more “passive” (ie, nonexercise) manual therapeutic procedures (ie, spinal manipulation or mobilization) and physiotherapeutic modalities for pain reduction, in addition to patient education designed to reassure and instill optimal strategies for independent management.
Although the evidence reviewed does not generally support the use of therapeutic modalities (ie, ultrasonography, electrical stimulation, etc) in isolation,67 their use as part of a passive-to-active care multimodal approach to LBP management may be warranted based on clinician judgment and patient preferences. Because of the scarcity of definitive evidence,68 lumbar supports (bracing/taping/orthoses) are not recommended for routine use, but there may be some utility in both acute and chronic conditions based upon clinician judgment, patient presentation, and preferences. Caution should be exercised as these orthopedic devices may interfere with conditioning and return to regular activities of daily living (ADLs).
The initial visits allow the doctor to explain that the clinician and the patient must work as a proactive team and to outline the patient’s responsibilities. Although passive care methods for pain or discomfort may be initially emphasized, “active” (ie, exercise) care should be increasingly integrated to increase function and return the patient to regular activities. Table 3 lists appropriate frequency and duration ranges for trials of chiropractic treatment for different stages of LBP.
Reevaluation & Reexamination
After an initial course of treatment has been concluded, a detailed or focused reevaluation should be performed. The purpose of this reevaluation is to determine whether the patient has made clinically meaningful improvement. A determination of the necessity for additional treatment should be based on the response to the initial trial of care and the likelihood that additional gains can be achieved.
As patients begin to plateau in their response to treatment, further care should be tapered or discontinued depending on the presentation. A reevaluation is recommended to confirm that the condition has reached a clinical plateau or has resolved. When a patient reaches complete or partial resolution of their condition and all reasonable treatment and diagnostic studies have been provided, then this should be considered a final plateau (maximum therapeutic benefit, MTB). The DC should perform a final examination, typically following a trial of therapeutic withdrawal, to verify that MTB has been achieved and provide any necessary patient education and instructions in effective future self-management and/or the possible need for future chiropractic care to retain the benefits achieved.
Continuing Course Of Treatment
If the criteria to support continuing chiropractic care (substantive, measurable functional gains with remaining functional deficits) have been achieved, a follow-up course of treatment may be indicated. However, one of the goals of any treatment plan should be to reduce the frequency of treatments to the point where MTB continues to be achieved while encouraging more active self-therapy, such as independent strengthening and range of motion exercises and rehabilitative exercises. Patients also need to be encouraged to return to usual activity levels as well as to avoid catastrophizing and overdependence on physicians, including DCs. The frequency of continued treatment generally depends on the severity and duration of the condition. Patients who are interested in wellness care (formerly called maintenance care11) should be given those options as well. (Wellness or maintenance care was defined by Dehen et al11 as “care to reduce the incidence or prevalence of illness, impairment, and risk factors and to promote optimal function.”)
When the patient’s condition reaches a plateau or no longer shows ongoing improvement from the therapy, a decision must be made on whether the patient will need to continue treatment. Generally, progressively longer trials of therapeutic withdrawal may be useful in ascertaining whether therapeutic gains can be maintained without treatment.
In a case where a patient reaches a clinical plateau in their recovery (MTB) and has been provided reasonable trials of interdisciplinary treatments, additional chiropractic care may be indicated in cases of exacerbation/flare-up or when withdrawal of care results in substantial, measurable decline in functional or work status. Additional chiropractic care may be indicated in cases of exacerbation/flare-up in patients who have previously reached MTB if criteria to support such care (substantive, measurable prior functional gains with recurrence of functional deficits) have been established.
Outcome Measurement
For a trial of care to be considered beneficial, it must be substantive, meaning that a definite improvement in the patient’s functional capacity has occurred. Examples of measurable outcomes and activities of daily living and employment include the following:
1.Pain scales such as the visual analog scale and the numeric rating scale.
2.Pain diagrams that allow the patient to demonstrate the location and character of their symptoms.
3.Validated ADL measures, such as the Revised Oswestry Back Disability Index, Roland Morris Back Disability Index, RAND 36, and Bournemouth Disability Questionnaire.
4.Increases in home and leisure activities, in addition to increases in exercise capacity.
5.Increases in work capacity or decreases in prior work restrictions.
6.Improvement in validated functional capacity testing, such as lifting capacity, strength, flexibility, and endurance.
Spinal Range Of Motion Assessment
Range of motion testing may be used as a part of the physical examination to assess for regional mobility, although evidence does not support its reliability in determining functional status.69
Benefit Vs Risk
Care rendered by DCs has been documented to be quite safe and effective compared with other common medical treatments and procedures. A 2010 systematic review concluded that serious adverse events were no more than 1 per million patient visits for lumbar spine manipulation.20 Another systematic review found that the risk of major adverse events with manual therapy is low, but many patients experience minor to moderate short-lived (<48 hours) adverse events after treatment.70
These are usually brief episodes of muscle stiffness or soreness.20 The relative risk (RR) of adverse events appears greater with drug therapy but less with usual medical care.70 Comparatively, an earlier study from 1995 related to cervical manipulation found that the RR for high-velocity manipulation causing minor/moderate adverse events was significantly less than the RR of the comparison medication (usually nonsteroidal anti-inflammatory drugs [NSAIDs]).71 The risk of death from NSAIDs for osteoarthritis was estimated to be 100-400 times the risk of death from cervical manipulation.71 Because lumbar spine manipulation is considered lower risk than cervical manipulation, it is reasonable to extrapolate that NSAIDs pose at least the same comparative risk when prescribed for the treatment of LBP. Special attention must be given to each patient’s individual history and presentation. In that context, it should be noted that for patients who are not good candidates for HVLA manipulation, DCs should modify their manual approach accordingly.
Cautions & Contraindications
Chiropractic-directed care, including patient education, and passive and active care therapy, is a safe and effective form of health care for low back disorders. As stated in the previous section, there are certain clinical situations where HVLA manipulation or other manual therapies may be contraindicated. It is incumbent upon the treating DC to evaluate the need for care and the risks associated with any treatment to be applied. Many contraindications are considered relative to the location and stage of severity of the morbidity, whether there is co-management with one or more specialists, and the therapeutic methods being used by the chiropractic physician. Figure 3 lists contraindications for high-velocity manipulation to the lumbar spine (red flags); however, these do not necessarily prohibit soft-tissue, low-velocity, low-amplitude procedures and mobilization.
Fig 3
Contraindications for high-velocity manipulation to the lumbar spine (red flags). aIn some cases, soft-tissue, low-velocity, low-amplitude mobilization procedures may still be clinically reasonable and safe.
Conditions Contraindicating Certain Chiropractic-Directed Treatments Such As Spinal Manipulation & Passive Therapy
In some complex cases where biomechanical, neurological, or vascular structure or integrity is compromised, the clinician may need to modify or omit the delivery of manipulative procedures. Chiropractic co-management may still be appropriate using a variety of treatments and therapies commonly used by DCs. It is prudent to document the steps taken to minimize the additional risk that these conditions may present. Figure 4 lists conditions which present contraindications to spinal manipulation and passive therapy, along with conditions requiring co-management and/or referral.
Fig 4
Conditions contraindicating certain chiropractic-directed treatments such as spinal manipulation and passive therapy.
During the course of ongoing chronic pain management of spine-related conditions, the provider must remain alert to the emergence of well-known and established “red flags” that could indicate the presence of serious pathology. Patients presenting with “red flag” signs and/or symptoms require prompt diagnostic workup which can include imaging, laboratory studies, and/or referral to another provider. Ignoring these “red flag” indicators increases the likelihood of patient harm. Figure 5 summarizes red flags that present contraindications to ongoing HVLA spinal manipulation.
Fig 5
Complicating factors that may document the necessity of ongoing care for chronic conditions.
Management of Chronic LBP
Definition of chronic pain patients. Note: MTB is defined as the point at which a patient’s condition has plateaued and is unlikely to improve further. Chronic pain patients are those for whom ongoing supervised treatment/care has demonstrated clinically meaningful improvement with a course of management and who have reached MTB, but in whom substantial residual deficits in activity performance remain or recur upon withdrawal of treatment. The management for chronic pain patients ranges from home-directed self-care to episodic care to scheduled ongoing care. Patients who require provider-assisted ongoing care are those for whom self-care measures, although necessary, are not sufficient to sustain previously achieved therapeutic gains; these patients may be expected to progressively deteriorate as demonstrated by previous treatment withdrawals.
Chronic Care Goals
Minimize lost time on the job
Support patient’s current level of function/ADL
Pain control/relief to tolerance
Minimize further disability
Minimize exacerbation frequency and severity
Maximize patient satisfaction
Reduce and/or minimize reliance on medication
Application of Chronic Pain Management
Chronic pain management occurs after the appropriate application of active and passive care including lifestyle modifications. It may be appropriate when rehabilitative and/or functional restorative and other care options, such as psychosocial issues, home-based self-care, and lifestyle modifications, have been considered and/or attempted, yet treatment fails to sustain prior therapeutic gains and withdrawal/reduction results in the exacerbation of the patient’s condition and/or adversely affects their ADLs.
Ongoing care may be inappropriate when it interferes with other appropriate care or when the risk of supportive care outweighs its benefits, that is, physician dependence, somatization, illness behavior, or secondary gain. However, when the benefits outweigh the risks, ongoing care may be both medically necessary and appropriate.
Appropriate chronic pain management of spine-related conditions includes addressing the issues of physician dependence, somatization, illness behavior, and secondary gain. Those conditions that require ongoing supervised treatment after having first achieved MTB should have appropriate documentation that clearly describes them as persistent or recurrent conditions. Once documented as persistent or recurrent, these chronic presentations should not be categorized as “acute” or uncomplicated.
Factors Affecting the Necessity for Chronic Pain Management of LBP
Prognostic factors that may provide a partial basis for the necessity for chronic pain management of LBP after MTB has been achieved include the following:
Older age (pain and disability)
History of prior episodes (pain, activity limitation, disability)
Duration of current episode >1 month (activity limitation, disability)
Leg pain (for patients having LBP) (pain, activity limitation, disability)
Psychosocial factors (depression [pain]; high fear-avoidance beliefs, poor coping skills [activity limitation]; expectations of recovery)
High pain intensity (activity limitation; disability)
Occupational factors (higher job physical or psychological demands [disability])
The list above is not all-inclusive and is provided to represent prognostic factors most commonly seen in the literature. Other factors or comorbidities not listed above may adversely affect a given patient’s prognosis and management. These should be documented in the clinical record and considered on a case-by-case basis.
Each of the following factors may complicate the patient’s condition, extend recovery time, and result in the necessity of ongoing care:
Nature of employment/work activities or ergonomics: The nature and psychosocial aspects of a patient’s employment must be considered when evaluating the need for ongoing care (eg, prolonged standing posture, high loads, and extended muscle activity)
Impairment/disability: The patient who has reached MTB but has failed to reach preinjury status has an impairment/disability even if the injured patient has not yet received a permanent impairment/disability award.
Medical history: Concurrent condition(s) and/or use of certain medications may affect outcomes.
History of prior treatment: Initial and subsequent care (type and duration), as well as patient compliance and response to care, can assist the physician in developing appropriate treatment planning. Delays in the initiation of appropriate care may complicate the patient’s condition and extend recovery time.
Lifestyle habits: Lifestyle habits may impact the magnitude of treatment response, including outcomes at MTB.
Psychological factors: A history of depression, anxiety, somatoform disorder, or other psychopathology may complicate treatment and/or recovery.
Treatment Withdrawal Fails to Sustain MTB
Documented flare-ups/exacerbations (ie, increased pain and/or associated symptoms, which may or may not be related to specific incidents), superimposed on a recurrent or chronic course, may be an indication of chronicity and/or need for ongoing care.
Complicating/Risk Factors for Failure to Sustain MTB
Figure 5 lists complicating factors that may document the necessity of ongoing care for chronic spine-related conditions. Such lists of complicating/risk factors are not all-inclusive. Individual factors from this list may adequately explain the condition chronicity, complexity, and instability in some cases. However, most chronic cases that require ongoing care are characterized by multiple complicating factors. These factors should be carefully identified and documented in the patient’s file to support the characterization of a condition as chronic.
Risk Factors for the Transition of Acute/Subacute Spine-Related Conditions to Chronicity (Yellow Flags)
A number of prognostic variables have been identified as increasing the risk of transition from acute/subacute to chronic nonspecific spine-related pain. However, their independent prognostic value is low. A multidimensional model, that is, a number of clinical, demographic, psychological, and social factors are considered simultaneously, has been recommended. This model emphasizes the interaction among these factors, as well as the possible overlap between variables such as pain beliefs and pain behaviors.
Chronicity may be described in terms of pain and/or activity limitation (function) and/or work disability. Risk factors for chronicity have been categorized by similar domains:
Symptoms
Psychosocial factors
Function
Occupational factors
Factors directly associated with the clinician/patient encounter may influence the transition to chronicity:
Treatment expectations: Patients with high expectations for a specific treatment may contribute to better functional outcomes if they receive that treatment.
Significant others’ support: Patients’ risk of chronicity may be reduced when family members encourage their participation in social and recreational activities.
Diagnosis Of Chronic LBP
The diagnosis should never be used exclusively to determine need for care (or lack thereof). The diagnosis must be considered with the remainder of case documentation to assist the physician or reviewer in developing a comprehensive clinical picture of the condition/patient under treatment.
Clinical Reevaluation Information
Clinical information obtained during reevaluation that may be used to document the necessity of chronic pain management for persistent or recurrent spine-related conditions includes, but is not limited to, the following:
Response to date of care management for the current and previous episodes.
Response to therapeutic withdrawal (either gradual or complete withdrawal) or absence of care.
MTB has been reached and documented.
Patient-centered outcome assessment instruments.
Analgesic use patterns.
Other health care services used.
Clinical Reevaluation Information to Document Necessity for Ongoing Care of Chronic LBP
In addition to standard documentation elements (ie, date, history, physical evaluation, diagnosis, and treatment plan), the clinical information typically relied upon to document the necessity of ongoing chronic pain management includes the following:
Documentation of having achieved a clinically meaningful favorable response to initial treatment or documentation that the plan of care is to be amended.
Documentation that the patient has reached MTB.
Substantial residual deficits in activity limitations are present at MTB.
Documented attempts of transition to primary self-care.
Documented attempts and/or consideration of alternative treatment approaches.
Documentation of those factors influencing the likelihood that self-care alone will be insufficient to sustain or restore MTB.
Once the need for additional care has been documented, findings of diagnostic/assessment procedures that may influence treatment selection include the following:
Biomechanical analysis (pain, asymmetry, range of motion, tissue tone changes);
Palpation (static, motion);
Nutritional/dietary assessment with respect to factors related to pain management (such as vitamin D intake).
This list is provided for guidance only and is not all-inclusive. All items are not required to justify the need for ongoing care. Each item of clinical information should be documented in the case file to describe the patient’s clinical status, present and past.
In the absence of documented flare-up/exacerbation, the ongoing treatment of persistent or recurrent spine-related disorders is not expected to result in any clinically meaningful change. In the event of a flare-up or exacerbation, a patient may require additional supervised treatment to facilitate return to MTB status. Individual circumstances including patient preferences and previous response to specific interventions guide the appropriate services to be used in each case.
Chronic Pain Management Components in Physician-Directed Case Management
Case management of patients with chronic LBP should be based upon an individualized approach to care that combines the best evidence with clinician judgment and patient preferences. In addition to spinal manipulation and/or mobilization, an active care plan for chronic pain management may include, but is not restricted to, the following:
Procedures
Massage therapy
Other manual therapeutic methods
Physical modalities
Acupunctur
Bracing/orthoses
Behavioral and exercise recommendations
Supervised rehabilitative/therapeutic exercise
General and/or specific exercise programs
Mind/body programs (eg, yoga, Tai Chi)
Multidisciplinary rehabilitation
Cognitive behavioral programs
Counseling recommendations
ADL recommendations
Co-management/coordination of care with other physicians/health care providers
Monitoring patient compliance with self-care recommendations
Chronic Pain Management Treatment Planning
A variety of functional and physiological changes may occur in chronic conditions. Therefore, a variety of treatment procedures, modalities, and recommendations may be applied to benefit the patient. The necessity for ongoing chronic pain management of spine-related conditions for individual patients is established when there is a return of pain and/or other symptoms and/or pain-related difficulty performing tasks and actions equivalent to the appropriate minimal clinically important change value for more than 24 hours, for example, change in numeric rating scale of more than 2 points for chronic LBP.
Although the visit frequency and duration of supervised treatment vary and are influenced by the rate of recovery toward MTB values and the individual’s ability to self-manage the recurrence of complaints, a reasonable therapeutic trial for managing patients requiring ongoing care is up to 4 visits after a therapeutic withdrawal. If reevaluation indicates further care, this may be delivered at up to 4 visits per month. (Caution: The majority of chronic pain patients can self/home-manage, be managed in short episodic bursts of care, or require ongoing care at 1-2 visits per month, to be reevaluated at a minimum of every 12 visits. It is rare that a patient would require 4 visits per month to manage even advanced or complicated chronic pain.) Clinicians should routinely monitor a patient’s change in pain/function to determine appropriateness of continued care. An appropriate reevaluation should be completed at minimum every 12 visits. Reevaluation may be indicated more frequently in the event a patient reports a substantial or unanticipated change in symptoms and/or there is a basis for determining the need for change in the treatment plan/goals.
When pain and/or ADL dysfunction exceeds the patient’s ability to self-manage, the medical necessity of care should be documented and the chronic care treatment plan altered appropriately.
Patient recovery patterns vary depending on degrees of exacerbations. Mild exacerbation episodes may be manageable with 1-6 office visits within a chronic care treatment plan. There is not a linear effect between the intensity of exacerbation and time to recovery.
Moderate and severe exacerbation episodes within a chronic care treatment plan require acute care recommendations and case management.12
Algorithms
Figure 6 summarizes the pathways for the chiropractic management of LBP.
Fig 6
Algorithms for chiropractic management of LBP.
Discussion
With the chiropractic profession’s establishment of the CCGPP to facilitate the development of best practices, 3 guidelines addressing the management of low back disorders were ultimately published.9, 10, 12 This set in motion an effort to improve clinical methods by reducing variation in chiropractic treatment patterns that has long been unaddressed by any other evidence-informed and consensus-driven official guideline.16, 54, 55, 62, 63,72 The approach to the development of these recommendations has been evolutionary so as to guide the profession toward the utilization of more evidence-informed clinical methods intended to improve patient outcomes. Historically, this also explains why the initial low back guideline, published in 2008, required 2 subsequent additional guidelines to expand on acute and chronic conditions. This was practical to introduce additional guidance in a stepwise fashion.
The focus of these recommendations has been patient centered and not practitioner centered. Practices and techniques that have not demonstrated superior efficacy in published studies may be used as alternative approaches to those methods that have more robust evidence. No other guidelines have been specific to this purpose within the chiropractic profession and endorsed as broadly, making this guideline unique. It is also important to consider that guidelines specific to other professions may or may not include clinical approaches that do not best inform chiropractic management of low back disorders. Although evidence produced under the auspices of other professions is important to consider, it is also important to consider whether this evidence informs a conservative care approach. For example, from a chiropractic viewpoint, drug and surgical treatment approaches are generally regarded as more invasive and should be considered as second- and third-line approaches to the treatment of low back disorders. That is why we believe that professional guidelines specific to a profession’s scope and approach to intervening in the natural course of disease are important.
It is the responsibility of a profession to periodically update guidelines to ensure consistency with new research findings and subsequent clinical experience. As such, an updated literature review was conducted, and the previous best practice guidelines were revised. The evidence reviewed has informed several important new recommendations to this updated guideline. For example, the evidence informs us that the routine use of radiographic imaging studies is not in the best interest of most patients with nonspecific LBP.53, 55 However, there may be exceptions to this based upon history and clinical examination characteristics. Doctors of chiropractic are advised that it is frequently in the best interest of patients to select manual method approaches that do not rely on radiographs to determine the method of manipulation or adjustment.69 In addition, it is not in the patient’s best interest for the DC to use the least evidence-informed chiropractic techniques as their first-line approach over those where the evidence is more robust.
While adding important new recommendations, it is useful to note that the updated literature synthesis did not ultimately require many other changes from the original guideline recommendations. The changes reflected in this current update were as follows: (1) a brief description of key elements that should standardly be included during an informed consent discussion; (2) the recommendation that routine radiographs, other imaging, and other diagnostic tests are not recommended for patients with nonspecific LBP (along with recommendations for when these studies should be considered); (3) recommendation that the hierarchy of clinical methods used in patient care should generally correspond to the supporting level of existing evidence; (4) additional clarification about the limited use of therapeutic modalities and lumbar supports that reflects patient preferences with the intention to best facilitate the shift from passive-to-active care and not dependency on passive modalities with limited evidence of efficacy; (5) recognition that although range of motion testing may be clinically useful as a part of the physical examination to assess for regional mobility, the evidence does not support its reliability in determining functional status; and (6) inclusion of a brief summary of the evidence informing manipulation risk vs benefit assessment.
Although this revision contemplates new guidance on key practice areas, it is not expected that these new recommendations will necessarily apply to every patient seen by a DC.
Similarly, with respect to the dosage recommendations (ie, treatment frequency and duration) within this guideline, dosage should be modified to fit the individual patient’s needs. For example, the majority of chronic pain patients can self-manage, can be managed in short episodic bursts of care, or require ongoing care at 1-2 visits per month, to be reevaluated at a minimum of every 12 visits. It is rare that a patient would require 4 visits per month to manage advanced or complicated chronic pain. Thus, it is important to consider this guideline’s recommendations for visit frequency as ranges rather than specific numbers. In addition, with regard to continuing assessments to evaluate the effectiveness of treatment, after the initial round of up to 6 visits, a brief evaluation should be performed to evaluate the progress of care. Such reevaluations at a minimum should include assessment of subjective and/or objective factors. These might include using pain scales such as the visual analog scale, the numeric rating scale, pain diagrams, and/or validated ADL measures, such as the Revised Oswestry Back Disability Index, Roland Morris Back Disability Index, RAND 36, or the Bournemouth Disability Questionnaire. Additional orthopedic/neurological tests may be considered on a case-by-case basis.
Nothing in this guideline should be interpreted as saying that patients should never have imaging ordered based upon examination and clinical judgment. Similarly, the conclusion should not be that every patient should only receive treatment methods with the highest level of evidence. It is the recommendation of this guideline that imaging and clinical methods have evidence to inform their use. In addition, patients should be informed when their care appears to require a trial of an alternate, less evidence-informed strategy.
Regarding the evidence used to support these guidelines, most clinical trials are limited in duration and usually reflect a target patient population that is not necessarily representative of all patients encountered in standard practice. Patients possess characteristics that include risk factors (ie, age, history of previous episodes of LBP, etc) and other clinical characteristics that were not specifically assessed in clinical trials. Therefore, it is important to view practice guidelines in this context and that a 1-size-fits-all approach will not fit all patients. It is the collective judgment of CCGPP, the Delphi panelists, and the authors that unexplainable and unnecessary variation in treatment patterns for standard presentations of nonspecific LBP, without considering or using the best evidence, will not necessarily lead to improvements in clinical methods and improved patient outcomes.
Future Studies
The work of developing and improving guidelines is a never-ending and time-consuming task. Therefore, the authors have suggested areas of patient management that should be considered during future revisions. Three areas suggested during the manuscript review process were (1) guidance on the evidence of the value of limited rest at various phases of recovery across the range of low back disorders, (2) more detailed guidance as to what history findings would/should lead to imaging, and (3) review of the literature describing efforts to develop assessment methods and tools to characterize the predictors of outcomes and inform selection and greater standardization of clinical methods.73, 74 Two areas of focus for future updates are also strongly recommended by the coauthors as well. The first concerns attempting to achieve a more detailed understanding of the hierarchy of chiropractic techniques that should be used based upon various archetypal patient presentations across the range of low back disorders. This would require reviewing head-to-head comparative research to determine relative efficacy of clinical methods using specific chiropractic techniques.
The authors recognize that some legacy outcome measures used in clinical practice and in clinical trials were not developed specifically with patients who may be interested in prioritizing conservative care approaches first. Also, because a measure’s ability to detect change and clinically minimal important difference (CMID) is linked directly to the target population and contextual characteristics, it is unlikely that there is a monolithic CMID value for a clinical outcomes assessment tool (including patient rated outcome measures) across all contexts of use and patient cohorts. More likely, there would be a range in CMID estimates that differs across varying patient cohorts and clinical trial contexts.75 The chiropractic profession has relied upon instruments that are less sensitive to changes in the types of risks, adverse effects, symptoms, and impacts that chiropractic patients might consider most important. This includes the benefits of avoidance of risks and adverse events associated with medication use and surgical interventions. As such, a comprehensive review is recommended to determine the evidence for the use of these legacy instruments in practice as well as, most critically, clinical trials that include the evaluation of the outcomes of the treatment of low back disorders that include chiropractic subjects. This type of review should include members who have a background in outcomes measurement and the development of de novo patient-reported outcomes instruments. Finally, an ever-broadening horizon of new and ongoing areas of related research constantly needs to be scanned for updated and applicable learnings, such as improved understanding of the interplay between functional anatomy (eg, muscular and fascial) and the generation of LBP.76, 77
Limitations
This guideline did not address several important issues that future efforts should focus on, including the following: the important issues of appropriate recommendations on limited rest; guidance on how DCs should assess history findings that might require imaging; expanded review and assessment of comparative efficacy of chiropractic manipulative techniques; and a full-scale review of outcome measures used by chiropractors and chiropractic researchers to evaluate the suitability of legacy measures as well as the robustness of their reported CMID in the context of populations frequently treated by chiropractors.78, 79, 80
Our Delphi panel may not have represented the broadest spectrum of DCs in terms of philosophy and approach to practice. In addition, this guideline is most applicable to chiropractic practice in the United States. Input from other professions was present but also limited to 4 members from other professions (acupuncture, massage therapy, medicine, and physical therapy). However, the panel had geographic diversity and was clearly based upon practice expertise with 33 of 37 panelists being in practice an average 27 years.
Another limitation relates to the literature included in the systematic review, which extended through February 2014 to provide time for project implementation. It is possible that articles were inadvertently excluded. An important issue related to the literature is that issues of great practical importance, such as the determination of optimal procedures and protocols for specific patients, do not yet have enough high-quality evidence to make detailed recommendations. An example of this is the use of a wide variety of manipulative techniques by DCs,19even though most randomized trials use only HVLA manipulation, due to the requirements of the study design for uniformity of the intervention. As the evidence base for manipulative techniques grows and expands its scope, it is essential that CPGs continue to be updated in response to new evidence. Although the authors did not task themselves with the responsibility of developing a formal dissemination plan, CCGPP is currently developing one to coordinate with the timing of the publication of this guideline.
Finally, any guideline recommendations are limited by those who would use partial statements, out of context, to justify a treatment, utilization, and/or reimbursement decision. It is critical to the appropriate use of this CPG that recommendations are not misconstrued by being taken out of context by the use of partial statements. To avoid such practice, we strongly recommend that when a quote from this guideline is to be used, an entire paragraph be included to contextualize the recommendation being cited.
Conclusion
This publication is an update of the best practice recommendations for chiropractic management of LBP.9, 10, 12This guide summarizes recommendations throughout the continuum of care from acute to chronic and offers the chiropractic profession and other key stakeholders an up-to-date evidence- and clinical practice experience–informed resource outlining best practice approaches for the treatment of patients with LBP.
Funding Sources & Conflicts of Interest
All authors and panelists participated without compensation from any organization. Logan University made an in-kind contribution to the project by allowing Drs. Hawk and Kaeser and Ms. Anderson and Walters to devote a portion of their work time to this project. The University of Western States also provided in-kind support for a portion of Dr. Hawk’s time. Dr. Farabaugh currently holds the position of the National Physical Medicine Director of Advanced Medical Integration Group, LP. Dr. Morris is a post-graduate faculty member of the National University of Health Sciences and receives access to library resources. There were no conflicts of interest were reported for this study.
Contributorship Information
Concept development (provided idea for the research): C.H., G.G., C.M., W.W., G.B.
Design (planned the methods to generate the results): C.H., G.G.
Supervision (provided oversight, responsible for organization and implementation, writing of the manuscript): C.H., G.G., C.M.
Data collection/processing (responsible for experiments, patient management, organization, or reporting data): C.H.
Analysis/interpretation (responsible for statistical analysis, evaluation, and presentation of the results): C.H., G.G., C.M., G.B.
Literature search (performed the literature search): C.H., M.K., S.W., R.F., G.G., C.M.
Writing (responsible for writing a substantive part of the manuscript): C.H., R.F., G.G., C.M., W.W., G.B.
Critical review (revised manuscript for intellectual content; this does not relate to spelling and grammar checking): C.H., M.K., S.W., R.F., M.D., G.G., C.M., W.W., M.D., G.B., T.A.
Acknowledgment
The authors thank Michelle Anderson, project coordinator, who ensured that all communications were completed smoothly and in a timely manner. The experts, listed below, who served on the Delphi panel made this project possible by generously donating their expertise and clinical judgment.
Logan University panelists who developed the seed document that served as the basis for the consensus process: Robin McCauley Bozark, DC; Karen Dishauzi, DC, MEd; Krista Gerau, DC; Edward Johnnie, DC; Aimee Jokerst, DC; Jeffrey Kamper, DC; Norman Kettner, DC; Janine Ludwinski, DC; Donna Mannello, DC; Anthony Miller, DC; Patrick Montgomery, DC; Michael J. Wittmer, DC. Muriel Perillat, DC, MS, Logan Dean of Clinics, also provided an independent review of the document.
Delphi panelists for the consensus process: Charles Blum, DC; Bryan Bond, DC; Jeff Bonsell, DC; Jerrilyn Cambron, LMT, DC, MPH, PhD; Joseph Cipriano, DC; Mark Cotney, DC; Edward Cremata, DC; Don Cross, DC; Donald Dishman, DC; Gregory Doerr, DC; Paul Dougherty, DC; Joseph Ferstl, DC; Anthony Q. Hall, DC; Michael W. Hall, DC; Robert Hayden, DC, PhD; Kathryn Hoiriis, DC; Lawrence Humberstone, DC; Norman Kettner, DC; Robert Klein, DC; Kurt Kuhn, DC, PhD; William Lauretti, DC; Gene Lewis, DC, MPH; John Lockenour, DC; James McDaniel, DC; Martha Menard, PhD, LMT; Angela Nicholas, DC; Mariangela Penna, DC; Dan Spencer, DC; Albert Stabile, DC; John S. Stites, DC; Kasey Sudkamp, DPT; Leonard Suiter, DC; John Ventura, DC; Sivarama Vinjamury, MD, MAOM, MPH, LAc; Jeffrey Weber, MA, DC; Gregory Yoshida, MD.
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Whiplash is an injury to the neck muscles from rapid forward and backward movement of the neck caused by a trauma (eg, an automobile accident). It can cause acute (short term) neck pain together with restricted movement in your neck.
Diagnosing a Whiplash Injury
Your spine is evaluated by the chiropractor as a whole� even if you proceed to the chiropractor complaining of neck pain following an injury. She or he will examine the complete spine because other areas of the spine could be affected (not only your neck).
The chiropractor identifies any areas of intervertebral disc injury, restricted joint movement, muscle spasm, and ligament injury. She or he may use a technique called movement and static palpation�diagnostic techniques that involve contact. Your chiropractor may also feel for tenderness, tightness, and just how well your spinal joints move.
She or he will even examine the way you walk, and take note of your posture and spinal alignment. These details will assist your back works, helping with the diagnosis process and the chiropractor understand the body’s mechanisms.
Along with the chiropractor�s assessment of your spine, he/she may order an x-ray or an MRI of your spine to evaluate any degenerative changes that may have existed before your whiplash injury. The diagnostic images and results of your neurological and physical assessment are compared to develop the best treatment plan.
Stages of Whiplash Treatment
Shortly after whiplash occurs�in the acute phase�the chiropractor will work on reducing neck inflammation using various therapy modalities (eg, ultrasound). He/she might also use gentle stretching and manual treatment techniques (eg, muscle energy therapy, a kind of extending).
The chiropractor may also recommend you apply an ice pack on your neck and/or a light neck support to make use of for a short span of time. The pain falls and also as your neck becomes inflamed, your chiropractor will perform gentle spinal manipulation or other methods to restore normal movement to the your neck’s spinal joints.
Chiropractic Care for Whiplash
Your treatment plan rides on the severity of your whiplash injury. The chiropractic technique that is most common is spinal manipulation. Some spinal manipulation techniques normally used are:
Flexion-distraction technique: This hands-on technique is a mild, non-thrusting type of spinal manipulation to help treat herniated discs with or without. Your whiplash injury may have aggravated a bulging or herniated disc. The chiropractor runs on the slow pumping action on the disk in place of direct force to the back.
Instrument-assisted manipulation: This technique is another non-throwing technique chiropractors often use. Using a specialized handheld instrument, force is applied by the chiropractor without thrusting into the backbone. This type of exploitation is useful for older patients that have a degenerative joint syndrome.
Unique spinal manipulation: The chiropractor identifies spinal joints which can be restricted or show unusual movement (called subluxations). Applying this technique, he or she will help restore movement to the joint using a gentle technique that is thrusting. This thrusting that is mild stretches soft tissue and stimulates the nervous system to restore normal movement to the spinal column.
In addition to spinal manipulation, the chiropractor could also use manual treatment to treat injured soft tissues (eg, ligaments and muscles). Some instances of manual therapies your chiropractor may use are:
Instrument-assisted soft tissue therapy: Your chiropractor may use the Graston technique, which is an instrument-assisted technique used to treat soft tissues that are injured. She or he will perform gentle continued blows utilizing the instrument over the injured area.
Manual joint stretching and resistance techniques: A good example of a manual therapy that is joint is muscle energy therapy.
Therapeutic massage: The chiropractor may perform remedial massage to relieve muscle tension.
Trigger point therapy: Your chiropractor will identify particular hypertonic (tight), agonizing points of a muscle by getting direct pressure (using her or his fingers) on these specific points to relieve muscle tension.
Your chiropractor may also use other treatments to reduce neck inflammation caused by whiplash. Examples of other treatments your chiropractor may use are:
Interferential electrical stimulation: This technique uses a low frequency electric current to simply help stimulate muscles, which may finally reduce inflammation.
Ultrasound: By raising blood circulation, ultrasound can help decrease muscle spasms, stiffness, and pain in your neck. Ultrasound does this by sending sound waves deep into muscle tissues. This creates a mild heat that increases circulation.
Treating Whiplash with Chiropractic Care
Chiropractors look at the full individual�not just the distressing difficulty. They view neck pain as unique to every patient, so they really don�t just focus on your neck pain. They highlight prevention as the key to long term health. In addition to these treatments, your chiropractor might also prescribe healing exercises to greatly help restore normal motion in your spine and reduce whiplash symptoms.
Using these chiropractic techniques, a chiropractor will help you increase your daily activities. She or he will work challenging to address any mechanical (how the back moves) or neurological (nerve-related) causes of your whiplash.
The scope of our information is limited to chiropractic and spinal injuries and conditions. To discuss options on the subject matter, please feel free to ask Dr. Jimenez or contact us at 915-850-0900 .
By Dr. Alex Jimenez
Additional Topics: Neck Pain and Auto Injury
After being involved in an automobile accident, the sheer force of the impact can often cause whiplash, a common type of neck injury resulting from the sudden, back-and-forth motion of the head against the body due to a car wreck, or other incident. Because of this, many of the complex structures found within the neck, including the spine, ligaments and muscles, can be stretched beyond their normal range, causing injury and painful symptoms.
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