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Ординатура / Хирургия / Библиотека им академика М.И. Перельмана / Книга_138_библиотеки_им_акад_М_И_Перельмана

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Screening for Psychosocial Factors
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Clinicians should be continually vigilant in screening patients for yellow flags. Depression, anxiety, and other psychosocial factors like self-efficacy can dramatically influence prognostic trajectories. Providers should use patient interview and specific measurement tools to identify these yellow flags. e 2-item Patient Health Questionnaire (PHQ-2) has a high sensitivity for screening to rule-out the presence of major depression when negative, and when positive can serve as a tool to indicate the need for further exploration. e PHQ-2 consists of 2 questions: Over the last 2 weeks, how often have you had little interest or pleasure in doing things? And, over the last 2 weeks, how often have you felt down, depressed, or hopeless? Often clinicians will utilize positive answers to these questions as opportunities to begin a deeper conversation with patients about why they answered the way they did. In one notable clinical encounter, a patient responded positively to feeling down and depressed but negative to the second item. Upon further discussion, the family pet had recently passed away. In this case, the response from the patient was a completely normal emotional response and no other evidence of a major depressive episode was realized. However, if both questions are positive, collaboration with a mental health care professional may prove beneficial to the patient.
ere are a number of questionnaires that assist with the assessment of psychological risk factors that may affect outcomes. e Fear-Avoidance Beliefs Questionnaire (FABQ)
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is a 16-item measure that speaks to patient fear and can indicate when fear-avoidance may be a barrier to patient progress. ere is a maximum score of 96 with higher scores indicating more strongly held fear avoidance beliefs. e Pain Catastrophizing Scale (PCS)
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is a 13-item tool that measures a patient’s experience with subscales on rumination, magnification, and helplessness regarding pain with higher scores indicating a greater extent of pain catastrophizing. Uniquely, an individual does not have to be actively experiencing pain to complete this questionnaire. Lastly, the Impact of Event Scale-Revised (IES-R)
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is a 22-item measure assessing the distress caused by traumatic events with subscales on intrusion, avoidance, and hyperarousal. e original IES was a 15-item measure but excluded the hyperarousal items. A higher score on the IES-R, and subscales, indicates a greater psychological impact from a traumatic event. ese are just a few possible tools available to assess potential psychological risk factors in patients and are not exclusive to only those with neck pain.
Patient-reported Outcome Measures
Outcome tools are useful for identifying a patient’s baseline status relative to pain, function, and disability and for monitoring a change in a patient’s status throughout the course of treatment. e most extensively used and researched outcome measure for patients with neck pain is the NDI. e NDI also has the nice benefit of being translated and validated into many
different languages. Psychometric properties of the NDI are acceptable, and the minimum detectable change (MDC) score is around 5/50 for uncomplicated neck pain and up to 10/50 for cervical radiculopathy. e reported clinically important difference (CID) is inconsistent across different studies ranging from 5/50 to 19/50.
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Additional outcome tools that can be used for patients with neck pain include the Patient-Specific Functional Scale (PSFS), McGill Pain Questionnaire (MPQ), and the
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Oswestry Disability Index.
While the Oswestry Disability Index is most commonly associated with low back pain, its content can be informative for patients with any central spine pain. e PSFS is beneficial in many clinical settings as the physical therapist and patient can incorporate individualized measurements and ratings that span a variety of functional
71,72
and participatory restrictions succinctly and efficiently.
e MPQ exists in short and long form versions. e short form version can function as an efficient baseline pain assessment that can indicate the need for further pain assessment tools such as queries for neuropathic pain, etc. In addition, the MPQ can serve as an alternative to a simple numeric pain rating scale for tracking patient progress.
History and Interview
Taking a thorough patient history is the first critical step to effective patient management. Many clinical diagnoses, along with relevant risk factors, can be accurately identified through good history taking, which will help the clinician with the clinical reasoning processes that are important for each patient. History taking should be a primarily patient-led interview focusing on open-ended questions and can use any number of good communication strategies. In the author’s experience, it is often helpful for clinicians to start a history by allowing the patient to speak for 90 seconds uninterrupted. is may feel like an exceedingly long time for clinicians who are not accustomed to this technique. In fact, primary care providers typically
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interrupt patients after as little as 12 seconds.
It is suggested that allowing the patient to speak freely at the beginning of an interview can result in improved overall efficiency throughout the entire patient encounter. While detailed and comprehensive information on the history taking process is outside the scope of this monograph on the cervical spine, a brief overview of critical points for this region will be reviewed.
History of present illness
Determining the events leading to the present symptoms or functional limitation complaints is the first step in distilling all the patient information into a set of cogent, testable hypotheses. In the cervical region, it is particularly important to determine whether or not the onset was traumatic or non-traumatic. Traumatic onsets should trigger the clinician to consider if the patient meets requirements for fracture screening using the Canadian Cervical Spine rules or Nexus Criteria. A traumatic
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onset can also impact risk assessment for related conditions like
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vascular pathologies of the neck or ligamentous insufficiency. Based on a particular patient’s comorbidities, even mild trauma can be significant in the cervical spine. For example, a patient with low bone mineral density can experience a fracture from even a small fall. Likewise, patients with rheumatoid arthritis could present with ligamentous laxity at the craniovertebral junction and could have significant injuries from relatively mild
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trauma.
Symptom location
Determining the location of symptoms refers to not only listening to where the patient directs the provider to, but also paying attention to how patients report symptoms in related regions. Often, patients will fill out a symptom diagram prior
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to meeting the clinician.
e clinician should then confirm, using touch if possible, the locations of the symptoms indicated on the diagram. Additionally, paying careful attention to how a patient’s gestures to or around their symptom location can help the provider understand the patient’s experience. For example, a patient may point to a specific location of pinpoint tenderness with a single fingertip, or alternatively use a broad sweeping gesture to indicate more diffuse, widespread, or traveling pain.
In the cervical spine, pain can be referred from various structures, occasionally taking the form of headaches. When patients present with complaints of headache, follow-up questions about the type, nature, location, and frequency of headache are indicated. Headaches present in the forehead region can indicate myofascial dysfunction in the cranio­occipital region or sinusitis. Headaches in the occipital region can be caused by a variety of causes such as eye strain, hypertension, or craniomandibular dysfunction. Cervicogenic headaches often present with a classic ram’s horn presentation.
Symptom location can also inform about the presence of referred versus radicular pain. Referred pain can cross several dermatomes and tends to occur in predictable locations. For example, the upper cervical segments tend to refer pain upward to the cranium, while the lower cervical segments refer to the posterior shoulder girdle and less so down the arm. Contrastingly, radicular pain will follow specific spinal nerve root distributions and can extend distally into the hand and digits.
It can also be helpful for clinicians to distinguish between sensations of numbness and tingling and/or paresthesias with confirmed neurological deficits like reduced 2-point discrimination or muscle weakness, for example. Referred symptoms can sometimes result in paresthesias but only radicular symptoms will produce positive neurological findings. A patient with referred pain from the neck may indicate a tingling sensation in their shoulder or upper arm, but neurological testing can be negative. A patient with radicular symptoms, may in contrast, present with weakness in the C5 myotome in addition to experiencing paresthesias.
Likewise, progression of neurological findings can inform the clinician about the severity of the condition. It is most common for radiculopathy to present with minor sensory changes. In more severe cases, mild or severe weakness can also be present as can changes in deep tendon reflexes. Prognosis and management trajectories can vary widely depending on severity. For example, a patient with radiculopathy with mild sensory changes can be managed non-surgically while a patient with severe and progressing muscle weakness will need a surgical referral.
Behavior of symptoms
Understanding how severe symptoms are and how symptoms may change or be impacted by a patient’s functional requirements can help the provider appreciate how the pain is affecting the patient overall. A patient’s pain may change significantly over a 24-hour period. Perhaps work postures make the pain worse. Perhaps the pain is only present at night. Each of these scenarios might dictate a different line of inquiry for the clinician. Understanding if the problem is constant or intermittent, improving or worsening, or stable, can all impact how the provider understands the patient’s experience. Additionally, specific lines of questions should be incorporated that seek to understand those factors that aggravate the symptoms, and those that provide relief.
When asking about aggravating and easing factors, things like pain level, function, and irritability should be considered. When exploring symptom behaviors, clinicians should attempt to link aggravating and easing factors. For example, it might be more helpful to determine how long and what activity eases a patient’s pain that was aggravated by driving than just simply knowing that ROM exercises and lying down ease the pain. Time components to this consideration are important and can be the basis for starting to determine the effects of various intervention strategies (Table 8).
Determining the Nature of the Problem
When possible, seeking to understand the cause of a patient’s pain is important. However, for many types of musculoskeletal pain this is not possible, and the cervical spine is no exception to this, with many patients presenting with non-specific neck pain. Because a patient’s pain experience is multi-factorial,
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recent guidelines
have gone so far as to direct clinicians away from attempting to determine pathoanatomic causes for neck pain. is has subsequent impact on the use of imaging studies for understanding a patient’s condition. Walton and Elliott
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have proposed the use of a radar plot to help understand the multifaceted nature of a patient’s pain experience (Figure 3).
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Walton and Elliott
describe the purpose of their radar plot model as a way to improve the development of pattern recognition skills. e radar plots can allow clinicians to make judgements about the relative contribution of various aspects of a patient presentation without requiring a label or diagnosis,
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Table 8.
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Examples of Symptom Irritability Assessment
Irritability Aggravating Factor Easing Factor
High Driving 5 minutes increased pain from
0/10 to 8/10 on NPRS
30 minutes rest returns pain to 0/10 on NPRS
Moderate Driving 30 minutes increased pain from
0/10 to 5/10 on NPRS
30 minutes rest returns pain to 0/10 NPRS
Low Driving 30 minutes increased pain from
0/10 to 1/10 on NPRS
Looking over shoulder increased pain from 0/10 to 2/10 on NPRS
5-minute rest returns pain to
0/10 on NPRS
Coming out of position returns pain to 0/10 on NPRS
Abbreviation: NPRS, Numeric Pain Rating Scale
thus providing an important contextual layer to how a clinician understands the patient in front of them. is tool is meant to be used after a patient has passed through screening for red flags and is considered appropriate for care. e radar plot provides a visual tool to explore the patient’s pain experience. e domains in the radar plot are as follows:
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Nociceptive (physiologic) input: is refers to pain produced primarily by nociceptive afferents. It could be thought of as acute mechanical or inflammatory pain.
Figure 3.
Illustration by Kinstler Design.
Radar Plot Tool
Impact on Examination
and Intervention
Low vigor examination, be cautious of reproducing symptoms
Normal vigor, cautious of reproducing symptoms
Normal to high vigor, little chance of reproducing symptoms
Peripheral neuropathic: Although this category sounds similar to a diagnostic label, it refers to neuropathic pain, or pain derived from disease of the somatosensory system as described by the International Association for the Study of Pain.
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Central nociplastic: is describes pain that is not the result of peripheral input and could be considered similar to the term “central sensitization.”
Emotional/affective dysregulation or pathology: is would be those conditions described in the American Psychiatric Associations Diagnostics and Statistical Manual–V (DSM-V)
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and includes mood disorders, anxiety, and depression.
Maladaptive cognitions: is category includes illogical or incorrect beliefs related to pain, such as pain catastrophizing, or altered beliefs as to the nature of or solution to the problem. e beliefs or states of mind in this category do not have diagnostic labels in the DSM-V.
Socioenvironmental context: is is a broad category that describes various contextual factors such as access to care, cultural elements, ethnicity, willingness to report, socio­economic considerations, and access to care.
Sensorimotor dysintegration: is describes altered input or disagreement between 2 different sensory inputs, such as disagreement between the visual and vestibular systems as to the position of the head for example.
Two examples are provided to help elucidate the use of the radar plot for pattern recognition. Clinicians are not rating the items in the plots against any standard, but in terms of their own perception of the extent of contribution of each of the listed categories. It is helpful that the categories defined in the radar plot generally align with various interventions strategies
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on which to take action, though some of these actions might be
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outside the scope of physical therapist practice.
Example 1: A 22-year-old heiress of a major hotel chain presents to a physical therapist after twisting her ankle running on the beach as a thunderstorm approached. e patient did not require radiographs and presents with mild loss of motion, mild pain, minimal edema, and no ligamentous laxity consistent with a Grade I lateral ankle sprain. e patient has a medical history significant for anxiety and depression and one previous ankle sprain several years earlier. e radar plot interpretation of this patient is presented in Figure 4.
Example 1 Interpretation: is is an acute injury and from the information given, not complicated by central processes or neuropathic pain. We can assume access to care is not a problem for this wealthy individual. e pain experience is likely confined to nociceptive input from the local tissue around the lateral ankle. Her history of anxiety and depression could influence her experience in care and should be noted.
Example 2: A 47-year-old landscape worker presents to physical therapy with neck pain following a day of shoveling gravel for a backyard renovation. e patient reports they have experienced some amount of neck and back pain constantly for the past 4 years, and that bedrest always helps them feel better. e patient is fearful of losing their employment position if they have to be in bed for a prolonged period of time, although feels unable to complete the tasks their job requires at this point in time. Pain is described as 10/10 on a numeric pain scale. e patient presents with reduced sensory and motor function consistent with impairment of the C7 nerve root. e patient’s medical history is significant for hypertension, Type II Diabetes Mellitus, and asthma for which they are taking medication regularly. e author’s radar plot interpretation of this patient is presented in Figure 5.
Figure 4.
Radar Plot Example 1
Figure 5.
Illustration by Kinstler Design.
Radar Plot Example 2
Example 2 Interpretation: is landscape worker presents with a more complex situation than the previous example. It seems persistent pain has been a problem for some years, although neurologic findings hint at a radiculopathy, therefore both central nociplastic changes and neuropathic pain are strong contributors. e reliance on bedrest and complications with the employment situation, as well as uncertain access to care, add contributing factors to socioeconomic factors and maladaptive cognition. Because this patient’s pain complaint is more severe, the extent of contributing factors is shaped quite differently than in example 1.
Together, these 2 examples serve as illustrations for how a simple and complex patient presentation can be appreciated using the radar plots. Over time, an inherent understanding, or pattern recognition, develops and clinicians can obtain a more nuanced view of the nature of a patient’s problem than simply relying on a diagnostic label to communicate information beyond the scope of that label. e authors recommend frequent practice and calibration with other professionals as the radar plot models are considered for inclusion in practice. Additionally, these models can serve as helpful additions to reflection forms used by students from entry-level through fellowship education.
Illustration by Kinstler Design.
Tests and Measures
Observation
Observation of patient posture and the relative alignment of their head and neck is a common starting point when conducting a physical examination. e extent of forward head posture and protraction of the scapulae should be noted. Importantly, patients can present with guarding or in postures due to pain or trauma, and this can begin to inform the physical therapist about severity and irritability of the condition.
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Although posture has not shown strong associations with pain
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or function, instances of extreme postural abnormality should be noted. For example, a patient may present to the clinic with one shoulder held in an extreme elevated position after a motor vehicle collision. e clinician can take clues from this about the level of irritability and possible involvement of the upper trapezius muscle.
Patients with chronic degenerative conditions, like spinal stenosis or cervical myelopathy may have adopted marked abnormal postures over time. Careful movement testing can help determine if these postures are related to the patient’s pain and if addressing the postural abnormality can provide improvement for the patient. Posture may also be considered relative to the functional tasks a patient performs. For example, a patient with complaints of pain at work could be evaluated in a seated position at their workstation for a valid assessment of the posture that may be problematic for that patient.
Active movement assessment
Assessing active ROM is the typical start for many assessments and that is not different for the cervical spine. Motion assessment can provide critical information broadly about irritability, fear of motion, and how vigorous an examination should be conducted. Patterns of motion limitations, or correlations between motion limitation and symptoms, can all inform clinical reasoning. Changes in motion, and particularly changes in motion that reproduces pain, can serve as short-term guides for treatment progression.
Neck ROM measurements can be conducted with both a goniometer and inclinometer and can be an important reference point for demonstrating and tracking treatment progression as well as assisting in clinical reasoning. Cervical ROM is an important physical examination marker in particular for ruling in or out patients who present with neck pain with mobility deficits and cervicogenic headaches.
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In addition to assessing for cervical motion, clinicians should screen for thoracic spine mobility. While the exact amount of motion availability (in degrees) is not required, general assessments categorizing motion as painful or not painful and normal, hypermobile, or hypomobile can assist with clinical reasoning and directing treatment. Because the thoracic spine shares so many anatomical relationships with the cervical spine, it is common to find impairments in both regions. When screening for thoracic spine motion, the patient should be positioned so that their feet are flat on the floor and the head is in an upright position. Likewise, when assessing cervical ROM, the physical therapist should ensure an upright thoracic position to standardize the assessment. Following is a description of assessing cervical and thoracic ROM.
Cervical Flexion, Extension, Side Flexion: e patient is seated with feet flat on the floor and thoracic spine in an upright, yet comfortable position. e patient is cued to first move their head through the range. Cuing is best with patient friendly
language like: “look up,” “look down,” and “bring your ear to your shoulder.” is cuing can be adjusted based on patient irritability and our willingness to provoke symptoms. For example, in assessing cervical flexion for a patient with higher irritability, they might be cued to “look down as far as you can comfortably” with the goal to minimize symptom provocation, and for a patient with lower irritability the cuing can be to “look down as far as you can.” An inclinometer can be used to quantify the available motion. e physical therapist should also note the quality and response to motion. Overpressure can be applied to further elucidate components of motion quality and irritability. Any substitutions of motion and specific regions of limitation should be noted and further confirmed with segmental motion testing and or flexibility assessment.
Cervical Rotation: Again, the patient is seated with feet flat on the floor and thoracic spine in an upright, yet comfortable position, then cued to look over their shoulder. e physical therapist can use a traditional goniometer place at the center of rotation on the top of the head to assess for this motion. To accomplish this vantage point the therapist may need a step stool while the patient is sitting in a shorter chair to look down over the patient and goniometer. During this assessment, the relative contributions of cervical rotation from the upper versus lower cervical spine regions should be kept in mind.
During cervical ROM assessment the patient’s eyes should be open and the examiner should observe the patient’s eyes and face for any signs of cranial nerve impairment during testing. Figure 6A-C demonstrates cervical ROM assessment with overpressure for flexion, extension, and rotation, respectively.
oracic Rotation: Exact measurement with an inclinometer is not needed for this assessment. e patient should be seated with their feet flat on the floor and head in a neutral position. e physical therapist should have the patient cross their arms over their chest. e physical therapist then provides cues for the patient to twist to one side while keeping their nose pointed at their elbows. is reduces the potential for cervical rotation. While the patient is rotating, the therapist positions their body to block lower extremity motion with their leg against the patient’s ipsilateral knee. e physical therapist can provide overpressure through the shoulder girdle from this position. Motion quality and quantity and pain response should be noted.
is is a gross motion assessment that also incorporates lumbar rotation. If the patient experiences symptoms with this motion, the therapist can localize the ROM assessment to the thoracic spine by having the patient heel-sit with their elbows on the ground to decrease lumbar motion. e bubble inclinometer is centered over the C7-T1 interspinous space, perpendicular to the spine. e patient is then cued to bring their hand to their ipsilateral shoulder (with the arm to the side of their body) and
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twist their shoulder to the ceiling.
If the patient is unable to achieve the position described, the therapist can further assess mobility with a segmental mobility assessment. Motion quality and quantity and pain response should be noted.
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Figure 6.
A B
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Active Range of Motion Assessment with Overpressure
A
B
A, Cervical flexion. B, Cervical extension. C, Cervical rotation.
Of course, passive cervical ROM can be performed in supine allowing the patient to better relax for movement to be assessed with less soft tissue tension and cervicoscapular musculature influence. As such, greater motion might be available, or information can be discerned about the nature of motion limitations, especially for patients with acute, severe, or high-level of irritability when performed in this unloaded position.
Likewise, patterns in motion loss or particular directions of motion limitations can be informative. Traditionally, loss of combined extension and rotation movements might hint to degenerative changes at a facet joint. Cervical radiculopathy is associated with loss of rotation motion from the lower cervical spine. Loss of motion in all directions and with an empty end-feel can indicate a highly irritable condition, perhaps as one could present following a motor vehicle collision. Motion loss in the cervical spine that also is associated with loss of shoulder girdle movement can indicate either a problem at both the shoulder and cervical spine, or direct clinicians to carefully evaluate the flexibility of cervical musculature that have attachments on the scapula or clavicle.
Segmental motion assessment
A useful examination technique employed by many physical therapists is segmental mobility assessment. e purpose of segmental mobility testing is to assess the amount of motion available and symptom modification at individual spinal segments in relation to the segment above or below the reference segment. is motion is also referred to as accessory
hypomobile (decreased), normal, or hypermobile (excessive).
C
When assessing the cervical spine below C2, the patient can be prone or supine. For the prone position, the patient’s head and neck are positioned in neutral rotation which usually requires the face-plate of a plinth to be angled down slightly. e plinth height should be adjusted so that the physical therapist is in a comfortable position with the elbows straight but not fully extended. e physical therapist stands at the end of the table that provides easy access to the head and neck of the patient, approximates the dorsal aspect of the thumbs, and contacts the spinous process of the intended cervical vertebrae (Figure 7A). For therapists with thumbs that hyperextend, placing the dorsum of the thumbs together can assist in providing support for their own joints. e physical therapist will use their remaining fingers to gently bring the lateral musculature posteriorly, creating some slack on the surrounding soft tissues, for the patient’s comfort. With elbows stable, in a relaxed extended position, the physical therapist uses their body to apply a gradual (beginning gentle, progressing to firm), posterior-to-anterior (PA) pressure on the spinous process to determine whether segmental mobility is hypomobile, normal, or hypermobile as well as if the segment is painful or not painful. A unilateral PA assessment is performed in the same position and manner but with the therapist’s thumbs contacting only 1 articular pillar. is unilateral PA is used to focus force at one side of the spine at a time. When performing these, the clinician should modulate force to not overpower the small cervical joints. Additionally, this technique provides an opportunity to explore various angles of force and different head positions to gather the maximum amount of information about any motion limitations (Figure 7B).
Physical therapists generally feel that central PAs are somewhat accurate or very accurate for estimating the quantity
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Figure 7.
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Segmental Mobility Assessment
A
B
A, Central posterior-to-anterior mobility assessment and graded mobilization. B, Unilateral posterior-to-
anterior mobility assessment and graded mobilization.
of movement present in the cervical segments.82 Posterior­to-anterior pressures performed on either side of the spinous process, as described above, commonly called unilateral PAs, are intended to assess the mobility of the articular structures of a particular side (left versus right) of a segment. e physical therapist should keep in mind that applying a PA force to 1 segment will create movement of the entire cervical spine and thus is not an isolated assessment. Forces used for PAs whether central or unilateral have high inter-therapist variability, but the intra-therapist variability is low, irrespective of the grade being applied (I-IV). e diagnostic accuracy during segmental mobility testing associated with report of neck pain was: sensitivity = 0.82, negative likelihood ratio = 0.23, specificity =
0.79, and positive likelihood ratio = 3.9.
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Judgment on mobility is based on the examiner’s expectation of what normal is at that segment compared to the other cervical segments of that patient. Following the history and ROM assessment, the therapist should have a preliminary idea about the region (upper, middle, or lower cervical spine)
of likely involvement. It is best to begin testing segmental mobility away from the suspected area of concern so the patient and therapist better understand what the unaffected regions feel like for comparison. Additionally, previous experience of segmental mobility assessment will help the physical therapist make judgments regarding the mobility of the segment. Prior to the segmental mobility examination, the physical therapist should obtain a baseline of the patient’s status. en, during and after the segmental mobility examination, the relation between the PA pressures and the patient’s symptoms should be reassessed. Symptom reproduction with PA pressures increases the likelihood that the segment is related to the patient’s reported pain-related limitations.
An alternate method for assessing segmental mobility of
the neck is with the patient supine with a lateral glide (Figure
8). With this technique, the physical therapist will locate the spinous process of the desired segment to assess and then place their index and middle fingers of each hand contacting the articular pillar on both sides of a segment’s spinous process. At this point, the examiner uses their right hand to apply a passive right to left movement followed by using the left hand to apply a passive left to right movement. e examiner assesses the quantity of motion as hypermobile, hypomobile, or normal, whether the movement is painful or not painful, and the quality of the end-feel at each segment and with each direction. is segmental assessment can be modified to bias an extension or flexion movement by first positioning that segment into slight flexion or extension prior to performing the lateral glide.
Muscle length assessment for cervical related muscles
Tightness of the cervical musculature can affect a patient’s movement and contribute to symptoms. erefore, assessing the length of these and adjacent muscles will assist the physical therapist identify impairments and subsequently plan the
Figure 8.
Cervical Lateral Glide
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treatment program. All muscle length assessments should be
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done bilaterally.
To assess the pectoralis minor muscle, the patient is positioned supine with their arms by their side with elbows extended. e distance from the posterior angle of the acromion to the table is assessed. A positive finding would be associated with an increased distance on the affected side as compared to the unaffected side. Because there is no normative distance for this, the assessment should be considered in context to the patient’s global presentation. It is important to differentiate among structures that could also affect this passive positioning including the biceps brachii (shortened by elbow flexion) and coracobrachialis (shortened by slight shoulder flexion), in addition to the pectoralis minor. If the posterior angle of the acromion to the table distance does not change with elbow flexion and slight shoulder flexion, then the pectoralis minor muscle is the likely contributor.
To assess the pectoralis major muscle, the patient is lying supine with both knees flexed with their low back flat to the plinth. For the upper (clavicular) fibers of the pectoralis major, the arm is horizontally abducted with the palm up until a stretch is felt. e lower (sternal) fibers are assessed with the patient in the same position with the arms in 135° of abduction. If the patient is able to lay their arm flat on the table, then the muscle length is normal. is should be compared to the contralateral side and documented with distance measurement from the lateral epicondyle to the table.
To assess the anterior and middle scalene and SCM muscles, the patient is supine with the head and neck on the edge of the plinth (Figure 9). e occiput is supported by one of the physical therapist’s hands and secured by the physical therapist’s other hand on the forehead. e patient can hold the side of the plinth for scapular stabilization of the tested side. e therapist then retracts the cervical spine, paying attention
to not simply extend the neck, while also bringing the upper cervical spine in flexion. Finally, the cervical spine is taken into contralateral side flexion and ipsilateral rotation until a stretch is felt in the area of the scalene and SCM muscles.
To assess the levator scapulae muscle, the patient is supine on the plinth (Figure 10). e therapist stabilizes the superior angle of the scapula of the tested side with the ipsilateral hand. e therapist then depresses the scapula from this position using a stabilizing hand sinking into the plinth to help maintain the depression. e therapist’s other hand cradles the occiput and flexes the cervical spine with contralateral side flexion and rotation (nose towards opposite armpit). Assess the ROM and symptoms at end-range compared to the other side.
To assess the upper trapezius muscle, the patient is supine on the plinth (Figure 11). e therapist stabilizes the lateral spine of the scapula with the ipsilateral hand. e therapist then depresses and downwardly rotate the scapula from this position
Figure 10.
Levator Scapulae Muscle Length
Assessment and Stretch
Figure 9.
Anterior and Middle Scalene and Sternocleidomastoid Muscle Length Assessment and Stretch
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Figure 11.
Right Upper Trapezius Muscle Length
Assessment and Stretch
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using an inferiorly directed force. e therapist’s other hand
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cradles the occiput and flex the cervical spine with contralateral side flexion and ipsilateral rotation (ear towards opposite armpit). Take note of the resting position of the scapula prior to assessing the length of the upper trapezius. If the patient presents with a depressed or downwardly rotated scapula, they may develop symptom reproduction during the test. is is a false positive finding. e symptom reproduction is caused by stretching an already elongated muscle. Stretching the upper trapezius in this situation is not the treatment of choice. Normalizing scapular position should be the primary focus for this patient presentation.
Decision-making Algorithm for Patients with Neck Pain
Blanpied et al
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produced a CPG to assist clinicians in managing patients with neck pain. Subsequent to this guideline, a decision-making algorithm or flowsheet was developed to provide a concise, user-friendly summary of the document.
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e authors of the CPG advocate for classification of patients with neck pain into 4 broad categories based on history and examination findings. Like for many body regions, particularly the lumbar spine,
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grouping patients into categories can help providers make decisions in the face of uncertainty or when specific pathoanatomical structures are impossible to identify. For patients with neck pain, the categories of classification are: neck pain with mobility deficits, neck pain with movement coordination impairments (which includes patients with WAD), neck pain with headache, and neck pain with radiating pain. Inclusion of a patient in a category, based on common symptoms and clinical findings, then directs interventions based on the best evidence for each classification. Figure 12 details the initial part of this classification algorithm. One critical aspect to utilizing classification algorithms such as this one is the appreciation that most individuals will not fit exclusively into one category and patients might not be perfect fits for any category. It is up to the clinician to make decisions and prioritizations on patient care by translating the findings of the guidelines to their patient’s unique goals and circumstances.
Assessing Neck Pain with Mobility Deficits
Patients presenting with motion limitations as a primary finding can be easily identified and grouped into a diagnostic category that prioritizes treatment to those limitations. As the name implies, the neck pain with mobility deficits classification denotes those individuals with limited mobility of the cervicothoracic spine. While symptoms may be broad and variable in this group of patients, the primary finding is limited mobility with the absence of any radiating pain or trauma. Patients in this category likely have central or unilateral cervical pain that may or may not refer to the shoulder girdle and upper quarter. Notably, radiating pain into the distal upper extremity would exclude someone from this category. Symptoms are
typically impacted by cervical or segmental motions testing.
Careful exploration of all cervical active and passive physiologic motions as well as mobility of the thoracic spine is indicated. To this end, clinicians will find that patients in this category tend to present with few positive special tests and a negative neurological screen. e limitations in motion are primarily joint and capsular limitations, although individuals with general stiffness and lack of flexibility in the cervicothoracic musculature would also fit into this category. It is not uncommon for these patients to have segmental mobility deficits at several levels which may or may not be painful. Patients with osteoarthritic changes of the cervical spine without evidence of radiating pain would also likely fall within this category. erefore, older patients without radiating pain and a non-traumatic onset of symptoms will often fit into this classification.
Occasionally, patients in this category will also present with diminished strength of the muscles that support neck and scapular mobility and stability as previously described. is is more common in those patients with subacute and chronic symptoms.
Several specific examination items can be used to help identify and track the progress of impairments for patients who have neck pain with mobility deficits. First is the cervical rotation lateral flexion (CRLF) test (Figure 13) which can be used to assess first rib mobility and cervicothoacic junction mobility. e patient is seated towards the front of the plinth with their feet flat on the ground with the therapist kneeling behind the patient to control the trunk with the therapist’s hip. e therapist places their hand on the first rib that is being assessed to help stabilize the trunk. e other hand grasps the patient’s cranium and passively provides contralateral rotation. While maintaining full rotation the therapist then laterally flexes the patient’s head noting the ROM. A positive test is a notable discrepancy (limitation) in lateral flexion ROM with a hard end-feel. Hypomobility, symptom change, or change in a related symptom area could also be considered significant findings while performing this test.
Clinically, the CRLF test may also identify patients who, in addition to limited first rib mobility, have general motion limitations in and around the cervicothoracic junction. Correlation with segmental assessment and muscle flexibility can be both helpful diagnostically and serve as an outcome assessment to track response to interventions. For example, if a patient presents with a positive CRLF test and limited flexibility of the levator scapulae muscle, it is not uncommon for both the CRLF and muscle flexibility to improve after interventions directed specifically at the first rib, even though the levator scapulae muscle has no connection to the first rib. erefore, while biomechanical assessments describe the CRLF as a first rib test, the clinical reality may be that the test can identify more diffuse hypomobility in the region. e CRLF is a convenient test to include while the patient is already in a seated position
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Figure 12.
Neck Pain: Clinical Practice Guidelines Revision 2017
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Classification Algorithm for Patients with Neck Pain Based on the Academy of Orthopaedic Physical erapy
Clinical Practice Guidelines
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Evaluation/Intervention Component 1: medical screening
Appropriate for physical therapy
evaluation and intervention
versus versus
Appropriate for physical therapy
evaluation and intervention along with consultation with another health care provider
Evaluation/Intervention Component 2: classify condition through evaluation of clinical
findings suggestive of musculoskeletal impairments of body functioning (ICF) and the associated tissue pathology/disease (ICD)
Neck Pain With
Mobility Deficits
Common symptoms
• Central and/or unilateral neck pain
• Limitation in neck motion that consistently reproduces symptoms
• Associated (referred) shoulder girdle or upper extremity pain may be present
Expected exam findings
• Limited cervical ROM
• Neck pain reproduced at end ranges of active and passive motions
• Restricted cervical and thoracic segmental mobility
• Intersegmental mobility testing reveals characteristic restriction
• Neck and referred pain reproduced with provocation of the involved cervical or upper thoracic segments or cervical musculature
• Deficits in cervicoscapulotho­racic strength and motor control may be present in individuals with subacute or chronic neck pain
Neck Pain With Movement
Coordination Impairments (WAD)
Common symptoms
• Mechanism of onset linked to trauma or whiplash
• Associated (referred) shoulder girdle or upper extremity pain
• Associated varied nonspecific concussive signs and symptoms
• Dizziness/nausea
• Headache, concentration, or memory diculties; confusion; hypersensitivity to mechanical, thermal, acoustic, odor, or light stimuli; heightened aective distress
Expected exam findings
• Positive cranial cervical flexion test
• Positive neck flexor muscle endurance test
• Positive pressure algometry
• Strength and endurance deficits of the neck muscles
• Neck pain with mid-range motion that worsens with end-range positions
• Point tenderness may include myofascial trigger points
• Sensorimotor impairment may include altered muscle activation patterns, propriocep­tive deficit, postural balance or control
• Neck and referred pain reproduced by provocation of the involved cervical segments
Neck Pain With Headache
(Cervicogenic)*
Common symptoms*
• Noncontinuous, unilateral neck pain and associated (referred) headache
• Headache is precipitated or aggravated by neck movements or sustained positions/postures
Expected exam findings
• Positive cervical flexion­rotation test
• Headache reproduced with provocation of the involved upper cervical segments
• Limited cervical ROM
• Restricted upper cervical segmental mobility
• Strength, endurance, and coordination deficits of the neck muscles
Not appropriate for physical therapy
evaluation and intervention
Consultation with appropriate health
care provider
Neck Pain With Radiating Pain
(Radicular)
Common symptoms
• Neck pain with radiating (narrow band of lancinating) pain in the involved extremity
• Upper extremity dermatomal paresthesia or numbness, and myotomal muscle weakness
Expected exam findings
• Neck and neck-related radiating pain reproduced or relieved with radiculopathy testing: positive test cluster includes upper-limb nerve mobility, Spurling’s test, cervical distraction, cervical ROM
• May have upper extremity sensory, strength, or reflex deficits associated with the involved nerve roots
FIGURE. Proposed model for examination, diagnosis, and treatment planning for patients with neck pain. *Clinicians are encouraged to refer to the International Classification of Headache Disorders Health and Care Excellence
Figure continues on page A23.
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for a more inclusive list of headache types/classifications (https://www.ichd-3.org/how-to-use-the-classification/), and to The National Institute for
149
for signs, symptoms, and conditions that should be considered in patients who present with a headache in addition to neck pain.
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© 2021 Academy of Orthopaedic Physical erapy, APTA, Inc. All rights reserved.
For personal use only. No other uses without permission.