Stiffness from screen work, headaches at the base of the skull, pain after a car accident, arms that go numb at your desk — these all trace back to the cervical spine. Dr. Nave identifies the specific structure driving your symptoms before building a plan to correct it.
Common presentations we evaluate at QLC
Reduced rotation when backing up the car or checking blind spots — often the first sign of joint restriction in the upper cervical spine.
Neck and upper trap tightness that is tolerable in the morning but becomes significant by the afternoon — a postural load pattern.
Occipital pain that spreads forward behind the eye — the hallmark of cervicogenic headache originating from upper cervical joints.
Cervical disc herniation or foraminal narrowing can compress a nerve root, producing numbness, tingling, or weakness into the shoulder, arm, or hand.
Whiplash-associated disorder often presents with delayed onset — symptoms can take 24–72 hours to fully develop after the injury event.
Sudden severe headache, bilateral arm weakness, balance changes, dysphagia, or neck pain following significant trauma require emergency evaluation.
Cervicogenic headache is one of the most under-recognized sources of chronic head pain. It originates from the upper cervical spine — specifically the C1, C2, and C3 joints — and refers pain into the head through a structure called the trigeminocervical nucleus (TCN).
The TCN is where pain signals from the upper three cervical nerve roots converge with fibers from the trigeminal nerve — the nerve responsible for facial and head sensation. When the C1-C3 joints are restricted or inflamed, they generate pain that the brain interprets as coming from the head. This is why patients describe occipital pain radiating to the forehead, behind the eye, or into the temple — with no pathology inside the skull.
The key distinguishing feature: cervicogenic headaches are reproducible and aggravated by neck movement or sustained postures. They often come with reduced cervical rotation on the affected side. And they respond predictably to cervical manipulation and suboccipital soft tissue release — because you're treating the actual source.
See our full headache treatment page →Atlas (C1) restriction
Produces occipital and deep suboccipital pain. The atlas carries 40–50% of cervical rotation — restriction here is almost always significant.
C2-C3 facet irritation
The C2-C3 facet is the most common pain generator in cervicogenic headache. Referral pattern commonly tracks to the forehead and behind the eye.
Suboccipital muscles
The rectus capitis posterior major and minor and obliquus capitis can harbor trigger points that refer directly into the head — especially with forward head posture.
Treatment Approach
Upper cervical manipulation (C1-C2 rotation or C2-C3 gapping technique), suboccipital inhibition and IASTM, deep neck flexor retraining, and postural correction. Most patients notice meaningful headache reduction within 4–6 visits — because the source is being addressed, not just the symptom.
A neutral head weighs 10–12 lbs. For every inch the head sits forward of the shoulders, the effective compressive load on the cervical spine increases by approximately 10 lbs. At two inches forward — where most desk workers sit — that's 30+ lbs pressing down on the lower cervical discs and facets, all day, every day.
The predictable muscular imbalance that develops with prolonged screen use: tight pectoralis minor, upper trapezius, and levator scapulae paired with weak deep neck flexors and mid-trapezius/rhomboids. The head migrates forward, thoracic kyphosis increases, and the entire cervical spine operates in a mechanically disadvantaged position.
Forward head posture doesn't just cause muscle tension. Over months and years, it accelerates disc degeneration at C5-C6 (the most mobile cervical segment), increases facet joint compression at C4-C5 and C5-C6, reduces cervical lordosis which decreases shock-absorbing capacity, and chronically loads the suboccipital muscles — producing the "tech neck" headache pattern most patients recognize.
Tech neck doesn't resolve with posture reminders alone. The joints need to be moving correctly again before the muscles can fire in the right pattern. That means T-spine mobilization first (to restore the thoracic extension that allows the head to sit back over the shoulders), then pec/upper trap release, then progressive deep neck flexor training.
Head in neutral
10–12 lbs
Normal resting load on the C7 segment
15° forward (phone glance)
~27 lbs
Equivalent to carrying a small child on your neck
30° forward (desk posture)
~40 lbs
Where most office workers spend their work day
60° forward (scrolling)
~60 lbs
The position most associated with accelerated disc degeneration
Reference: Hansraj KK. Assessment of stresses in the cervical spine caused by posture and position of the head. Surg Technol Int. 2014.
Neck pain and stiffness with no objective physical signs. No neurological findings. Often presents as general muscle soreness 24–72 hours post-accident. Most Grade I cases resolve in 4–8 weeks with conservative care.
Neck symptoms plus objective findings: reduced range of motion, point tenderness over cervical joints or muscles, and pain provocation with specific movements. The most common presentation seen in our office after auto accidents.
Neck symptoms with neurological signs: arm weakness, diminished reflexes, or sensory deficits corresponding to a nerve root level. Indicates disc herniation or foraminal compromise from the injury. Often requires imaging to confirm and may need co-management.
Confirmed structural instability or fracture on imaging. Requires emergency or surgical management. Identified during intake — not treated conservatively.
Whiplash-Associated Disorder (WAD) describes the cervical spine injuries that result from rapid acceleration-deceleration — most commonly rear-end collisions but also sports impacts, falls, and contact trauma. The mechanism forces the neck through a range of motion beyond its normal limits in milliseconds, injuring the facet joint capsules, ligaments, intervertebral discs, and surrounding musculature before the protective muscle reflex can engage.
Symptoms are frequently delayed 24–72 hours. The initial adrenaline response suppresses pain signaling, and the inflammatory cascade takes time to develop fully. This is why patients who feel fine at the scene often wake the next morning barely able to move. The delay is not evidence of a minor injury — the C2-C5 facet joints are particularly vulnerable and often the primary pain generator in persistent whiplash.
Early structured care — within the first 4 weeks — produces significantly better outcomes than rest and medication alone. Movement that is guided by the exam, not avoided out of fear, is the treatment.
Personal Injury Documentation
If your whiplash resulted from an auto accident, objective clinical documentation matters — for insurance, for attorneys, and for your long-term health. At QLC, every PI case receives a thorough exam with quantified range of motion, orthopedic test findings, and a written report of findings. We work directly with personal injury attorneys when needed. See our auto injury page for more information.
Arm numbness, tingling, or weakness that accompanies neck pain usually indicates nerve root compression from a cervical disc or foraminal narrowing. The specific pattern tells us which level.
C5-C6 and C6-C7 are the two most commonly herniated cervical levels. The exam — not the symptom description alone — localizes the compression.
Most patients with chronic neck pain have received some form of prior care — massage, anti-inflammatories, or brief chiropractic adjustments without a clear plan. What's almost always missing is a thorough structural examination that differentiates the pain sources and maps out the specific tissue involved.
The cervical exam at Quality Life covers range of motion quantification, cervical orthopedic testing (Spurling's, distraction, upper limb tension), neurological screening for radiculopathy, postural analysis, and soft tissue assessment of the suboccipital, upper cervical, and thoracic regions. Together, these findings produce a clinical picture — not a guess.
On Day 2, you get the full report: what's driving the pain, what the care plan looks like, how many visits Phase 1 requires, and when the goal is discharge. The plan is written. The timeline is specific.
History — mechanism, timeline, aggravating factors
When it started, whether there was a trauma, what makes it worse, what has and hasn't helped. Mechanism of onset often points directly to the tissue involved before the exam begins.
Range of motion — quantified in all planes
Flexion, extension, lateral flexion, and rotation — each measured and compared to normative values. Restriction pattern helps localize the involved segments before hands touch the spine.
Orthopedic + neurological exam
Spurling's compression test, cervical distraction, upper limb tension tests, Valsalva maneuver, deep tendon reflexes (biceps / brachioradialis / triceps), and myotomal strength testing for C5–C8.
Postural analysis + soft tissue assessment
Forward head distance, thoracic kyphosis, shoulder height, and scapular position. Manual assessment of suboccipital tightness, upper trap trigger points, and thoracic mobility — the entire kinetic chain above the symptomatic area.
Day 2: diagnosis + written care plan
45-minute report of findings. What the exam showed, what's causing the problem, the specific treatment protocol, expected visit frequency, phase benchmarks, and a graduation date.
Technique selection follows the diagnosis. Not every approach is appropriate for every presentation — the exam determines the plan.
High-velocity, low-amplitude adjustment to restore joint mobility and interrupt pain-spasm cycles. Rotational or lateral flexion technique selected based on the restriction pattern found during motion palpation.
Low-force, instrument-assisted adjustment. Preferred for acute whiplash presentations, patients who prefer no cervical rotation, and precise upper cervical work at C1-C2.
Instrument-assisted soft tissue mobilization targeting suboccipital restrictions, upper trap trigger points, levator scapulae, and the fascial restrictions that develop in the cervicothoracic junction with prolonged FHP.
Progressive activation of the longus colli and longus capitis — the stabilizing muscles of the anterior cervical spine that are almost universally inhibited in FHP and tech neck presentations. Chin tuck progressions form the foundation.
Cervical range of motion and loading depend on thoracic mobility. T-spine manipulation and extension mobilization are often a prerequisite for lasting cervical improvement — especially in desk workers with thoracic kyphosis.
Upper limb neural flossing to restore normal sliding motion of the brachial plexus and cervical nerve roots when radicular symptoms are present. Reduces intraneural tension alongside disc decompression.
An anonymized case study showing the full arc of cervical care — evaluation findings, source identification, phased treatment, and discharge outcomes.
Neck Pain Case Study
C5-C6 disc involvement + FHP → 10-week phased plan → discharge
Neck pain rarely exists in isolation. Many patients also present with headaches with a cervical component, upper back and thoracic restriction, or referred arm symptoms. To understand the full approach at QLC, visit our Overland Park chiropractic clinic page or explore the complete conditions we treat.
Your Provider
Dr. Nave is a Doctor of Chiropractic practicing in Overland Park, KS. He focuses on identifying the structural source of pain and building evidence-informed, time-bound care plans — not open-ended adjustments.
View Dr. Nave's background →If you're dealing with neck pain and want a clear plan, the next step is a proper evaluation. At Quality Life Chiropractic in Overland Park, we identify the structural source — and build a plan to fix it.
Quality Life Chiropractic · 7102 College Blvd, Overland Park, KS 66210 · (913) 488-3233