How can a physical therapist use video analysis to improve patient outcomes?

Physical therapists (PTs) use video analysis as a powerful clinical tool to bridge the gap between subjective observation and objective data.

By recording a patient's movement, a therapist can break down complex biomechanics frame-by-frame.

Here is how physical therapists leverage video analysis to elevate patient care and improve recovery outcomes:

• Visual Feedback and Biofeedback : Showing patients their own movement in real-time or via slow-motion playback helps bridge the "sensorimotor gap." When patients visually see their knee valgus (caving inward) during a squat or an asymmetric gait pattern, they can connect that visual cue with the muscle activation their therapist is asking for, accelerating motor learning.
• Objective Baseline Assessment and Progress Tracking : Initial recordings establish a hard, quantifiable baseline before treatment begins. Follow-up videos captured at mid-treatment or discharge milestones provide undeniable, side-by-side evidence of progress, boosting patient confidence and compliance with home exercise programs.
• Enhanced Biomechanical Precision : The human eye operates at roughly 24 to 30 frames per second, which is often too slow to catch micro-deviations during rapid movements like running, jumping, or throwing. High-speed video capture allows therapists to isolate specific phases of a movement cycle (e.g., initial foot strike during a run) to spot subtle compensatory patterns or joint malalignments.
• Data-Driven Injury Prevention and Return-to-Sport : For athletes or active individuals, video analysis is crucial for clearing them safely back to high-impact activities. By analyzing landing mechanics, cutting angles, or running symmetry, therapists can ensure movement quality meets the precise demands of the sport, reducing the risk of re-injury.
• Patient Education and Buy-In : Explaining why a hip drop during walking is causing lower back pain can be abstract for a patient. Pulling up a side-by-side video on a tablet makes the pathology tangible, fostering a collaborative rehabilitation environment where the patient fully understands the "why" behind their prescribed exercises.

Would you like to explore:

• Specific software or tools PTs use for clinical video analysis?
• How it applies to a particular injury or joint (like ACL recovery or running gait)?

Video analysis can turn a physical therapist’s observations into something the patient can see, measure, and use to guide practice. A practical approach is to use it as a supplement to—not a replacement for—clinical examination.

1. Make movement problems visible

Record movements such as:

• Squats, lunges, step-downs, or sit-to-stand
• Walking and running
• Reaching or lifting
• Balance tasks
• Sport-specific movements
• Posture and functional activities

The therapist can then slow the recording, replay it, or compare different repetitions. This can reveal movement patterns that are difficult to appreciate in real time.

Low-cost 2D video can provide useful measurements, although its accuracy varies considerably by movement and variable; gait-related measures have generally shown better agreement with reference systems than some planar joint-angle measurements.

2. Give patients visual feedback

Instead of saying “your knee moves inward when you land,” the therapist can show the patient the recording and ask them to identify what they notice.

That can make instructions more concrete:

“Watch this repetition. Now compare it with the next one while you focus on keeping your knee aligned over your foot.” This approach can improve the patient's understanding of the movement goal and give them an immediate way to judge their own performance. Surveys of orthopedic PTs report that patient education and movement analysis are among the most common reasons clinicians use video analysis.

3. Track change objectively

A therapist can record the same task at:

• Initial evaluation
• Midpoint
• Discharge
• Return-to-sport testing

For example, video might document changes in walking speed, step symmetry, squat depth, trunk position, or a patient's ability to perform a movement consistently.

This creates a visual before-and-after record, which can complement standardized clinical outcome measures.

4. Improve home exercise performance

A therapist can record a patient performing an exercise correctly and provide that recording as a reference for home practice.

For example:

1. Demonstrate a hip-strengthening exercise.
2. Record the patient's correct technique.
3. Highlight one or two key cues.
4. Have the patient use the video during home sessions.
5. Reassess technique at the next visit.

Research on personalized exercise-video interventions has found small-to-moderate improvements in physical function and confidence in exercise performance, although the evidence quality was low and effects on adherence remain uncertain.

5. Use side-by-side comparisons

One particularly useful technique is comparing:

Patient's current movement → desired movement → patient's corrected attempt

For example, during a single-leg squat:

Initial attempt → therapist cue → corrected attempt

The patient can immediately see whether the cue actually changed the movement.

6. Use video during telehealth

With real-time video, a PT can observe exercises and functional movements remotely and provide corrections. A 2024 systematic review found that video-based telerehabilitation produced similar satisfaction and somewhat higher exercise adherence compared with in-person physiotherapy, although results varied among studies.

7. Combine video with—not substitute for—clinical reasoning

This is important. Video can show what a patient is doing, but it doesn't necessarily establish why they're doing it or which impairment should be treated.

A good workflow is:

Clinical assessment → video capture → identify movement pattern → test a hypothesis/intervention → record again → compare → adjust treatment

And therapists should avoid treating a video measurement as inherently precise. Reviews have found substantial variation in validity among inexpensive video-analysis systems.

A simple example

Suppose a patient has knee pain going downstairs.

The PT could record five step-downs, identify excessive dynamic knee valgus, then give a specific cue or modify the exercise. The patient performs another five repetitions, and the therapist compares the recordings.

If the movement improves and pain/function measures improve over subsequent visits, the video becomes part of a larger evidence-based feedback loop rather than simply a visual demonstration.

One caveat: visual feedback itself isn't guaranteed to improve clinical outcomes. A 2026 randomized trial of multidimensional exercise-therapy feedback found no significant improvement in pain, impairment, or rehabilitation satisfaction despite patients and therapists viewing the feedback positively.

So the greatest value of video analysis is likely its ability to make movement observable, measurable, and easier to discuss, while the therapist still uses examination findings, patient-reported outcomes, and clinical reasoning to determine treatment.

Physical therapists use video analysis as a powerful clinical tool to bridge the gap between subjective observation and objective data. By capturing movement in real-time or high-speed slow-motion, practitioners can break down complex biomechanics and accelerate patient recovery.

• Enhanced Visual Feedback (Biofeedback): Showing patients a video of their own movement (e.g., a squat or a gait cycle) bridges the gap between what they feel they are doing and what they are actually doing, significantly accelerating neuromuscular re-education.
• Objective Baseline and Progress Tracking: Recording initial assessments establishes a concrete quantitative and qualitative baseline. Follow-up videos allow therapists to measure subtle improvements in joint angles, symmetry, and dynamic stability over time.
• Biomechanical Breakdown: High-speed cameras capture rapid, micro-movements—like a knee valgus collapse during a landing or subtle asymmetry during running—that are virtually impossible for the naked eye to catch in real-time.
• Remote and Telehealth Integration: Video recordings allow asynchronous review, enabling patients to upload clips of their home exercise routines for remote feedback between clinical visits.
• Improved Patient Compliance and Motivation: Visual proof of progress is a massive psychological boost. Seeing a side-by-side comparison of a stiff, painful gait versus a fluid, corrected stride keeps patients motivated and compliant with their care plan.
• Accurate Joint Angle Measurement: Therapists can overlay digital goniometers and tracking software directly onto video frames to calculate precise kinematics (such as peak knee flexion or hip adduction angles).

Would you like to explore specific software/apps used in clinical practice, or how to apply this to a particular injury (like ACL rehab or running injuries)?

Video analysis can turn a physical therapist's observations into something the therapist and patient can see, measure, compare, and revisit. It is particularly useful as a supplement to—not a replacement for—clinical examination and reasoning.

Practical ways to use it

• Establish a baseline. Record tasks such as walking, squatting, stair climbing, reaching, running, or a sit-to-stand. Save standardized clips so the therapist can compare movement at later visits.
• Identify movement patterns. Slow motion, frame-by-frame review, and side-by-side comparison can reveal compensations that are difficult to see in real time—for example, trunk lean, altered knee mechanics, asymmetry, or timing differences. Low-cost video systems have shown potential for objectively supplementing qualitative movement assessment, although accuracy varies substantially by measurement and technology.
• Give immediate visual feedback. Instead of saying "keep your knee aligned," a therapist can show the patient what the movement actually looked like, then record another repetition after the correction. This can make an abstract instruction much more concrete.
• Track progress objectively. Repeating the same movement under similar camera conditions allows comparison of range of motion, movement symmetry, gait characteristics, repetition quality, or task performance over time. This can make progress easier for both therapist and patient to recognize.
• Improve home exercise performance. A therapist can record personalized demonstrations or review a patient's exercise performance remotely. Evidence from systematic reviews suggests personalized exercise-video interventions can improve physical function and confidence, although the evidence quality remains limited.
• Extend care between visits. With appropriate privacy safeguards, patients can send videos of difficult exercises or functional tasks. The therapist can identify technique problems and modify the program rather than waiting until the next appointment.
• Use video for tele-rehabilitation. Real-time video can allow therapists to observe movement in the patient's actual home environment. A 2024 systematic review found potentially favorable attendance and exercise-adherence outcomes with video-based telerehabilitation compared with in-person care, while satisfaction was similar; however, certainty of evidence ranged from very low to low.
• Improve patient education and motivation. Showing "week 1 vs. week 6" clips can provide tangible evidence of improvement, particularly when pain or function changes more gradually than the patient expects.

A simple clinical workflow

1. Measure → 2. Record → 3. Analyze → 4. Explain → 5. Correct → 6. Re-record → 7. Reassess later

For example, with a patient recovering from knee injury:

Record a squat → identify excessive trunk compensation → show the patient the clip → modify the exercise/cue → record another squat → compare the two → repeat at subsequent visits. The important point is to connect the video observation to a functional outcome that matters to the patient, rather than collecting video data simply because it is available.

Important limitations

Video isn't automatically an accurate measurement tool. Research on digital physiotherapy assessment shows that validity and reliability depend on the particular test, population, setup, and technology.

For clinical use, therapists should therefore:

• Standardize camera position, distance, lighting, footwear, and task instructions when comparing videos.
• Avoid treating a 2-D video measurement as equivalent to laboratory-grade 3-D motion capture.
• Combine video findings with history, physical examination, patient-reported outcomes, strength/ROM testing, and functional measures.
• Obtain appropriate consent and protect recordings because they contain identifiable health information.
• Use video to support clinical reasoning, rather than allowing an algorithm or visual metric to determine the diagnosis by itself.

Overall, the strongest use case is visual feedback + standardized progress monitoring + remote observation, with the therapist interpreting the video within the broader clinical picture.

The important point is to connect the video observation to a functional outcome that matters to the patient, rather than collecting video data simply because it is available.

Important limitations

Video isn't automatically an accurate measurement tool. Research on digital physiotherapy assessment shows that validity and reliability depend on the particular test, population, setup, and technology.

Physical therapists use video analysis as a powerful clinical tool to break down movement, track progress, and educate patients . By capturing high-definition or high-speed footage, clinicians can move beyond subjective real-time observation to objective, data-driven interventions.

• Objective biomechanical assessment allows physical therapists to slow down fast, complex movements (like running gait, cutting, or pitching) to frame-by-frame precision, identifying subtle compensatory patterns or joint malalignments that the naked eye might miss during a live session.
• Enhanced patient biofeedback and education gives visual learners concrete proof of their movement patterns. Showing patients side-by-side or split-screen comparisons of their current form versus an optimal movement pattern dramatically accelerates motor learning and buy-in.
• Longitudinal progress tracking creates an indisputable digital archive of a patient's journey from initial injury assessment through mid-rehab and final discharge, quantifying improvements in metrics like knee valgus angle, stride length, or spinal flexion over time.
• Data-driven clinical documentation and communication provides objective visual assets that can be securely shared with referring physicians, surgeons, or strength coaches to justify continued care, surgical recovery milestones, or readiness-for-discharge criteria.
• Remote and hybrid care optimization empowers patients to record their exercises at home and upload the footage for asynchronous review, ensuring home exercise program (HEP) compliance and correct form between in-clinic visits.

Would you like to explore:

• Specific software or apps used for clinical video analysis?
• How to integrate video analysis into a specific condition (like ACL rehab or running injuries)?
• Tips for patient consent and privacy compliance when recording video?

Video analysis can be a powerful low-cost extension of a physical therapist’s clinical observation, especially when it is used to make movement changes visible, measurable, and actionable rather than as a diagnostic tool by itself. Research suggests that video-based motion analysis can supplement qualitative assessment with objective measures, although accuracy varies by the movement and technology used.

Practical ways a PT can use it

• Establish a baseline. Record walking, squatting, stair climbing, running, reaching, sit-to-stand, or another relevant task during the initial evaluation. Save standardized views so the same movement can be compared later.
• Identify movement patterns. Slow-motion and frame-by-frame review can reveal things that are difficult to see in real time—for example, excessive trunk motion, altered knee alignment, asymmetrical loading, reduced step length, or timing problems.
• Give patients visual feedback. Showing a patient their own movement can make an abstract instruction much more concrete. In a survey of orthopedic PTs who use video analysis, 91.7% reported using it for patient education/visual feedback.
• Improve exercise technique. Record a movement, identify the specific component to change, then immediately re-record it after cueing. This creates a simple record → analyze → cue → re-test loop.
• Track progress objectively. Repeat the same task under similar conditions at regular intervals. Comparing videos can demonstrate changes in movement strategy even when pain or functional scores change only modestly. Video analysis is particularly promising for gait and spatiotemporal measures.
• Guide treatment decisions. If a patient's movement changes after a particular intervention—such as strengthening, mobility work, motor-control training, or an external cue—the video can help determine whether that intervention actually changes the targeted movement.
• Support home exercise adherence. With appropriate consent, a PT can use recordings to demonstrate the desired technique or, where clinically and legally appropriate, review patient-submitted videos of home exercises.
• Facilitate return-to-sport decisions. Videos of tasks such as landing, cutting, hopping, squatting, or running can provide another piece of evidence when assessing movement quality alongside strength, symptoms, functional testing, and sport-specific criteria.

A simple clinical workflow

1. Define the question: “What movement characteristic am I trying to understand?”

2. Standardize the recording: Same task, footwear, camera position, distance, and instructions whenever possible.

3. Capture multiple views: For example, anterior, lateral, and posterior views when appropriate.

4. Analyze only relevant variables: Don't measure everything just because the software allows it. Choose variables connected to the clinical question.

5. Show the patient: Use the video to facilitate education and self-correction.

6. Intervene and re-test: Apply a cue or intervention and immediately compare the movement.

7. Document the change: Combine the video findings with pain, strength, ROM, functional tests, patient-reported outcomes, and clinical reasoning.

Example

A runner reports anterior knee pain. The PT records a single-leg squat and running from the side and front. Video review shows excessive trunk motion and a particular lower-extremity movement pattern. The PT introduces a specific motor-control intervention, re-records the task, and compares the two videos with the patient. If the movement changes and symptoms/function improve over subsequent visits, the video becomes part of a larger evidence-based decision-making process.

Important limitation

Video should augment—not replace—clinical examination and reasoning. Low-cost video systems don't measure every biomechanical variable accurately, and research quality is variable. A systematic review found that reliability was generally stronger than validity, and gait/spatiotemporal measures tended to perform better than some planar joint-angle measurements.

There is also encouraging evidence from more sophisticated instrumented gait analysis that objective movement data can influence treatment decisions and, when recommendations are followed, potentially improve patient outcomes.

So the greatest value of video analysis isn't simply “seeing more.” It's creating a repeatable feedback loop: observe → measure → explain → intervene → re-test → adjust. That can make treatment more individualized and help both the therapist and patient see whether the intervention is actually producing the intended change.

Video analysis is a total game-changer in physical therapy. By turning abstract movement cues into concrete, visual data, PTs can accelerate recovery, boost patient compliance, and fine-tune biomechanics.

Here is how a physical therapist can leverage video analysis to elevate patient care:

• Objective Biomechanical Assessment: Slow-motion playback and frame-by-frame scrubbing reveal subtle dysfunctions—like a medial knee collapse during a squat or a pelvic drop during gait—that happen too fast for the naked eye to catch in real-time.
• Visual Biofeedback for Patients: Patients often feel like they are doing an exercise right when they aren't. Showing them side-by-side or contemporaneous video proof bridges the gap between perception and reality, speeding up motor learning and neuromuscular re-education.
• Quantifying Progress Over Time: Side-by-side comparisons of baseline videos from Week 1 versus Week 6 provide undeniable proof of progress (e.g., increased jump height, better knee flexion angles, or symmetrical stride length), which massively boosts patient motivation and morale.
• Remote Monitoring and Telehealth: Utilizing platforms or apps where patients can upload videos of their home exercise program (HEP) allows therapists to catch compensation patterns early and correct form between in-person clinic visits.
• Seamless Interprofessional Collaboration: Video files can be easily shared with referring orthopedic surgeons, sports coaches, or strength conditioners to ensure everyone is on the same page regarding the patient's movement milestones and clearance criteria.

If you're looking to implement this in a clinic, would you like recommendations on affordable video analysis software/apps or tips on how to integrate it efficiently into a standard 45-minute treatment session?

Physical therapists can use video analysis as a practical way to make movement assessment more objective, improve patient education, and track progress over time. Video-based motion analysis can supplement—not replace—clinical reasoning and hands-on assessment. Research suggests low-cost video tools can provide useful measurements for certain movement variables, especially gait-related measures, although accuracy varies by task and technology.

1. Improve movement assessment

A therapist can record a patient performing functional tasks such as:

• Walking
• Running
• Squatting
• Lunging
• Jumping
• Stair climbing
• Balance activities
• Lifting mechanics

The recording can then be reviewed in slow motion, frame-by-frame, or with measurement tools to identify details that may be difficult to see in real time, such as:

• Knee valgus during a squat
• Reduced hip extension during gait
• Asymmetrical step length
• Trunk compensation strategies
• Changes in joint angles or timing

For example, video-based gait analysis has been shown to measure clinically relevant gait parameters and track changes over rehabilitation in some patient populations.

2. Provide visual feedback to patients

Many patients understand movement problems better when they can see them.

A therapist might:

• Show a patient their movement before treatment
• Compare “before” and “after” videos
• Demonstrate how a correction changes mechanics
• Reinforce proper exercise technique

Visual feedback may improve understanding, engagement, and motor learning because patients can connect instructions with what their body is actually doing. Surveys of orthopedic physical therapists report that patient education and movement analysis are among the most common reasons clinicians use video-based motion analysis.

3. Track objective progress

Instead of relying only on subjective observations, therapists can compare recordings over time.

Examples:

• Week 1 vs. week 6 gait symmetry
• Initial squat mechanics vs. post-strengthening program
• Return-to-sport movement quality after injury
• Changes in balance or coordination

This can help demonstrate whether an intervention is producing meaningful movement changes.

4. Improve treatment decisions

Video analysis can help answer questions such as:

• Is weakness causing a compensation pattern?
• Is pain changing movement strategy?
• Does a patient need mobility work, strengthening, motor control training, or a different exercise progression?
• Is an athlete ready to return to higher-level activity?

For example, a therapist might notice that a runner’s knee pain is associated with excessive hip adduction and then target hip control exercises while monitoring changes through repeated video assessments.

5. Support remote care and home programs

Patients can record movements at home and share videos for review, allowing therapists to:

• Check exercise technique
• Modify home programs
• Monitor adherence
• Provide feedback between visits

Privacy, consent, secure storage, and appropriate handling of patient recordings are important considerations.

6. Use AI-assisted analysis when appropriate

Newer systems can automatically estimate body position from video (pose estimation) and calculate variables such as:

• Step length
• Step timing
• Joint motion patterns

These tools may make quantitative movement analysis more accessible because they can work with common devices like tablets or smartphones rather than expensive motion-capture laboratories.

Best practices for clinicians

To get reliable information, therapists should:

• Use consistent camera angles and distances
• Record the same task under similar conditions
• Combine video findings with strength, mobility, pain, and functional testing
• Avoid over-interpreting small visual differences
• Use validated measures when making clinical decisions

A simple workflow:

1. Record baseline movement.
2. Identify specific impairments or compensations.
3. Select an intervention.
4. Repeat the recording after a defined period.
5. Compare changes and adjust treatment.

Video analysis is most valuable when it turns movement observations into measurable feedback that helps the therapist and patient make better decisions together.

Best practices for clinicians

Video analysis can make physical therapy more objective, visual, and measurable. Instead of relying only on what the therapist sees during a brief movement, the therapist can record, review, slow down, compare, and quantify movement over time.

Practical ways a PT can use it

• Establish a baseline. Record gait, squatting, stair climbing, running, reaching, balance, or another functional task during the initial evaluation. This creates a visual baseline to compare against later sessions.
• Identify movement impairments. Slow-motion or frame-by-frame review can reveal things that are easy to miss in real time—for example, excessive knee valgus during a squat, asymmetrical loading during gait, or altered trunk mechanics.
• Give patients visual feedback. Showing a patient their own movement can make an abstract instruction more concrete: “Keep your knee aligned over your foot” becomes much easier to understand when they can actually see the deviation.
• Measure progress objectively. A therapist can compare videos from week 1 and week 6, looking at joint angles, step length, cadence, movement symmetry, or task performance. Low-cost video systems can supplement qualitative assessment, although their accuracy varies substantially by the variable being measured.
• Improve exercise technique. Recording an exercise and reviewing it immediately allows the PT and patient to identify compensations and make corrections. This is particularly useful for complex movements such as lifting, jumping, running, or balance exercises.
• Support motor learning. Immediate visual feedback can help patients understand whether they performed a movement as intended. Video or other forms of biofeedback have been investigated specifically for gait retraining.
• Improve home-exercise adherence. A PT can provide personalized exercise videos demonstrating the desired technique, or have patients submit videos of themselves exercising for review. Research on personalized exercise-video apps has found small-to-moderate improvements in physical function and confidence, although the evidence quality remains low.
• Extend care through telehealth. Patients can perform functional tasks or exercises on video while the PT observes technique remotely. A 2024 systematic review found video-based physiotherapy had similar satisfaction and, on average, somewhat better attendance and exercise adherence than in-person therapy.

A simple clinical workflow

Record → Analyze → Explain → Correct → Re-record → Compare

For example, with a patient recovering from knee surgery:

1. Record a sit-to-stand and squat.
2. Review the video in slow motion.
3. Identify excessive trunk shift and uneven loading.
4. Show the patient the relevant portion.
5. Cue a specific correction and practice it.
6. Record again.
7. Compare the two attempts.
8. Repeat the assessment at subsequent visits.

This turns video from simply a documentation tool into a feedback and outcome-measurement tool.

The important caveat

Video analysis should supplement—not replace—clinical reasoning and standardized outcome measures. Two-dimensional video measurements can have highly variable reliability and validity depending on camera position, frame rate, software, movement, and the specific measurement being made.

The strongest approach is therefore to combine video + physical examination + validated functional measures + patient-reported outcomes. Evidence from more sophisticated gait analysis also suggests that objective movement data are most useful when they actually influence treatment decisions.

If you're interested, I can also give you a step-by-step video-analysis protocol for a PT clinic, including camera placement, what movements to record, measurements to track, and inexpensive software options.

Physical therapists (PTs) use video analysis as a powerful clinical tool to bridge the gap between subjective observation and objective data . Because the human eye operates at roughly 24 to 30 frames per second, subtle movement dysfunctions, compensatory patterns, and kinetic chain breakdowns often go unnoticed during a live evaluation.

High-speed video capture (ranging from 60 to 240+ frames per second) allows PTs to slow down, freeze, and dissect human movement.

Key Benefits of Video Analysis in Physical Therapy

• Objective Biomechanical Assessment: Allows therapists to measure joint angles (e.g., knee valgus during a squat, hip drop during running, or scapular dyskinesis) rather than relying on visual estimation.
• Enhanced Visual Biofeedback: Showing patients their own movement in real-time or slow motion helps them internalize proprioceptive cues. Seeing is believing—patients can immediately grasp why a movement feels awkward or how a compensation is occurring.
• Longitudinal Progress Tracking: Standardized video recordings captured at baseline, mid-treatment, and discharge provide a concrete, visual timeline of functional improvements (or lingering deficits) that numbers on a chart might miss.
• Improved Patient Compliance: When patients visually witness their progress or see the mechanical flaws driving their pain, their buy-in and motivation for their home exercise program (HEP) significantly increase.
• Remote and Hybrid Care Integration: Fits seamlessly into telehealth or hybrid care models, allowing patients to upload videos of daily activities, lifting mechanics, or gait patterns between in-clinic sessions.

Common Clinical Applications

• Gait and Running Analysis: Identifying excessive contralateral pelvic drop (Trendelenburg sign), rearfoot striking patterns, or over-striding in distance runners recovering from shin splints or patellofemoral pain syndrome.
• Return-to-Sport Testing: Evaluating jump-landing mechanics (looking for dynamic knee valgus and stiff landings) to clear an athlete safely after an ACL reconstruction.
• Ergonomic and Lifting Re-education: Assessing deadlift, squat, or work-related lifting mechanics in patients with chronic low back pain.
• Postural and Upper Extremity Control: Analyzing overhead throwing mechanics in baseball pitchers or ergonomic posture in desk workers with chronic cervicalgia.

How to Implement It Effectively

1. Standardize the Setup: Ensure consistent camera angles (sagittal and frontal planes), adequate lighting, and identical clothing/footwear across sessions to ensure accurate comparisons.
2. Use Specialized Software: Tools like Hudl Technique (formerly Coach's Eye), PhysiApp , or dedicated kinematic analysis software allow for frame-by-frame scrubbing, angle measurements, and side-by-side comparisons.
3. Keep Feedback Positive and Actionable: Avoid overwhelming the patient with too many corrections at once. Focus on one major kinetic link deviation per review session.

If you're looking to integrate this into a clinical practice, would you like recommendations on:

• Affordable or free software tools for mobile and desktop?
• Specific protocols for running or post-op ACL video assessments?