Course Description
ATR3132 is the biomechanics course written for athletic training. The Statewide Course Numbering System titles it Kinesiology & Pathomechanics and states its purpose narrowly: "to provide an understanding of biomechanical concepts and pathomechanics for athletic training majors." There is no statewide prerequisite.
Kinesiology is the study of human movement — how joints move, which muscles produce the motion, and what forces act. ⚠ Pathomechanics is the second half and the part that makes this an athletic-training course rather than a general movement-science course: it is the study of movement that has gone wrong. Altered mechanics after an injury, compensations that shift load onto the wrong tissue, and the mechanisms by which specific injuries occur — the valgus collapse that tears an ACL, the impingement arc in a throwing shoulder, the load pattern behind a tibial stress fracture.
⚠⚠ Three Florida public universities carry the number and only one keeps the pathomechanics half in the title. The University of South Florida matches the statewide title exactly; Florida State calls it "Kinesiology" and the University of West Florida calls it "Functional Kinesiology." All three run 3 credits. Dropping "pathomechanics" from a title is not by itself proof that the content is gone — but it is the difference between a course that teaches normal movement and a course that teaches how injury changes it, and that difference is the whole reason the number exists. Read the syllabus.
⚠⚠⚠ Before anything else, a fact about this course's field that a catalog will not tell you and that changes what the course is for. Athletic training's entry-level degree is now the master's. Accreditation requirements moved professional athletic training education to the graduate level, and undergraduate professional programmes stopped admitting students. ⚠ So an undergraduate `ATR`-prefix course today is preparation for a professional master's programme, not part of one — and completing it does not make anyone eligible to sit the Board of Certification examination. The statewide record shows the shift directly: most of the `ATR` family now reads "admission to MAT degree program" or "admission into the Doctor of Athletic Training program." See *Special Information*.
Learning Outcomes
Required Outcomes
- Use anatomical terminology precisely — planes, axes, positions, and the standard motion vocabulary.
- Describe the structure and function of the joints of the upper extremity, lower extremity, spine and pelvis, including the arthrokinematics of each.
- Identify the muscles producing each joint motion, their attachments, lines of pull, and their roles as agonist, antagonist, synergist and stabiliser.
- Apply the mechanics of levers, torque, moment arms and force couples to human joints, and explain why a small change in position changes the load substantially.
- Distinguish open- and closed-kinetic-chain motion and explain the consequences for loading and for rehabilitation.
- Analyse gait — the phases, the normal joint kinematics, and the common deviations.
- Analyse posture and postural deviation, and relate it to load distribution.
- ⚠ Explain tissue mechanics — stress, strain, viscoelasticity, and the load tolerance of bone, tendon, ligament, cartilage and muscle.
- ⚠⚠ Explain injury mechanisms mechanically: the position and force pattern that produces a named injury, and why.
- ⚠ Analyse pathomechanics: how injury, pain, weakness or restriction alters movement, and how compensation transfers load to other structures.
- Perform a qualitative movement analysis of a sport or functional task and identify mechanically implausible or high-risk patterns.
- Relate mechanical findings to clinical reasoning — what a movement observation implies for assessment and for intervention choice.
- Read and interpret basic biomechanics literature, including force, moment and angle data.
Optional Outcomes
- Use video analysis software or markerless motion capture for a quantitative movement assessment.
- Interpret force-plate, pressure-mat or electromyography output.
- Apply mechanics to orthotic, bracing and taping decisions.
- Analyse the mechanics of a specific sport skill — throwing, running, jumping, swimming.
- Address ACL injury-prevention programmes and the mechanics they target.
- Address ergonomics and occupational movement analysis.
- Address paediatric and older-adult movement differences.
Major Topics
Required Topics
- Foundations — terminology, planes and axes, kinematics versus kinetics, osteokinematics versus arthrokinematics.
- Mechanical principles — force, vectors, torque, moment arms, levers, equilibrium, stability, friction; ⚠ Newton's laws applied to a joint.
- Tissue mechanics — the stress-strain curve, elastic and plastic behaviour, creep, fatigue failure, healing and its mechanical consequences.
- Muscle mechanics — length-tension, force-velocity, concentric/eccentric/isometric action, ⚠ why eccentric loading produces both the adaptation and much of the injury.
- Shoulder complex — scapulohumeral rhythm, rotator-cuff force couples, impingement and instability mechanics, the throwing shoulder.
- Elbow, wrist and hand — valgus load in throwing, UCL mechanics, grip and wrist mechanics.
- Spine and pelvis — segmental mechanics, lumbopelvic control, disc loading, lifting mechanics.
- Hip — stability, gluteal function, femoroacetabular mechanics, the hip's influence on the knee.
- ⚠⚠ Knee — tibiofemoral and patellofemoral mechanics, the Q angle, the dynamic valgus mechanism of non-contact ACL injury, meniscal loading.
- Ankle and foot — subtalar mechanics, pronation and supination through the gait cycle, inversion injury mechanics, the windlass mechanism.
- Gait and running mechanics — phases, joint angles, ground reaction forces, common deviations.
- Posture and alignment — assessment and mechanical interpretation.
- ⚠ Pathomechanics — compensation patterns, the kinetic-chain consequences of a single restriction, and mechanically driven re-injury.
- Movement analysis in practice — observation protocol, what the eye can and cannot resolve, and the limits of qualitative assessment.
Optional Topics
- Instrumented analysis — motion capture, force plates, EMG, wearable sensors.
- Sport-specific skill mechanics.
- Orthotics, footwear, bracing and taping mechanics.
- Injury-prevention programme design.
- Prosthetic and adaptive movement.
- Ergonomics and workplace analysis.
- Developmental and age-related movement change.
Resources & Tools
- Brunnstrom's Clinical Kinesiology (Houglum and Bertoti) and Kinesiology of the Musculoskeletal System by Donald Neumann — ⚠ Neumann is the standard reference in this field and the one students keep after the course. Its illustrations of joint mechanics are the reason.
- Joint Structure and Function (Levangie and Norkin) — the structural approach, strong on arthrokinematics.
- Basic Biomechanics by Susan Hall — the better choice where the course is more quantitative.
- Kendall's Muscles: Testing and Function with Posture and Pain — the posture and manual-testing reference, useful well beyond this course.
- ⚠ Free and genuinely good: Physiopedia for joint and pathology mechanics, the NATA position statements (free PDFs, and the profession's own consensus documents), and Anatomy & Physiology from OpenStax. Kenhub and Complete Anatomy are paid but widely used for 3D joint work.
- ⚠⚠ The best study tool in this course is a partner and your own body. Palpate the landmarks, move the joint through its range, feel where the motion stops and what stops it, watch a classmate squat and describe what each joint does. Students who learn this course from diagrams alone struggle in the practical assessment, because the eye has to be trained on real movement.
- ⚠ A phone camera in slow motion is a real analysis tool. Modern phones record at high frame rates; free apps such as Kinovea allow angle measurement. That is enough to do genuine qualitative and semi-quantitative movement analysis at no cost.
Career Pathways
- ⚠⚠ Athletic Trainer (SOC 29-9091) — the field this course was written for. Entry now requires a professional master's degree from an accredited programme, passing the Board of Certification examination, and licensure by the Florida Board of Athletic Training. This course is preparation for that route, not a step within it.
- Physical Therapist (SOC 29-1123) — the DPT is a doctoral programme; ⚠ this course is one of the most directly useful undergraduate preparations for it, and PT programmes teach kinesiology again at a deeper level.
- Occupational Therapist (SOC 29-1122), Physician Assistant (SOC 29-1071), Chiropractor (SOC 29-1011) — all graduate routes for which musculoskeletal mechanics is foundational.
- Exercise Physiologist (SOC 29-1128) and Strength and Conditioning — the CSCS through the NSCA is the recognised credential and is attainable with a bachelor's degree.
- Physical Therapist Assistant (SOC 31-2021) and Occupational Therapy Assistant (SOC 31-2011) — associate-level routes with strong Florida demand.
- Orthotist and Prosthetist (SOC 29-2091), Ergonomist, and biomechanics research roles.
- Florida context: ⚠ the demand side here is unusually deep. Large hospital systems with sports-medicine lines — AdventHealth, Orlando Health, BayCare, Baptist Health, Tampa General, UF Health; Andrews Institute in Gulf Breeze (which is in UWF's own market) and the IMG Academy in Bradenton; professional franchises across the state and the spring-training complexes; and a very large secondary-school athletics system. Florida's older population also drives outpatient orthopaedic and rehabilitation demand independent of sport.
Special Information
⚠⚠⚠ The degree requirement for athletic training changed, and this course sits on the wrong side of it
Athletic training moved to graduate-level professional entry. Accredited professional programmes are now master's programmes; bachelor's-level professional programmes closed to new admissions. ⚠⚠ An undergraduate `ATR` course is therefore pre-professional coursework. It does not accumulate toward certification eligibility, and no amount of undergraduate `ATR` credit substitutes for the accredited professional degree.
The statewide record makes the transition visible. Look at what the surrounding numbers now require:
| Number | Statewide title | Stated prerequisite |
ATR3132 | Kinesiology & Pathomechanics | none |
ATR4106 | Prevention of Injury and Illness in Athletic… | admission to MAT degree program |
ATR4117/4118 | Acute Care in Athletic Training Practice I & II | admission to MAT degree program; II names an ATR5xxxC course |
ATR4108 | Clinical Management in Athletic Training | admission into the Doctor of Athletic Training program |
ATR4128 | Advanced Cadaveric Dissection | admission into the Doctor of Athletic Training program |
⚠ Several of those are graduate-level courses still carrying 4000-level numbers — an artefact of a field that moved faster than its numbering. A 4000-level `ATR` number is not reliable evidence that a course is open to undergraduates.
⚠⚠ What a student should actually do: if athletic training is the goal, identify the accredited professional master's programmes you intend to apply to and work backwards from their prerequisite lists, which typically name anatomy and physiology with laboratory, biomechanics or kinesiology, exercise physiology, nutrition, psychology, statistics and chemistry or physics. This course commonly satisfies the biomechanics requirement, and that is its real value. ⚠ Confirm it against your target programmes rather than assuming — some require a course under a specific prefix.
⚠⚠ PREFIX divergence: biomechanics has at least four Florida numbers
This subject is taught across several prefixes, and credit articulates while requirement matching does not — receiving programmes name prerequisites by number.
| Prefix | Typical framing |
ATR | athletic training; pathomechanics and injury mechanism emphasised |
APK | applied kinesiology and exercise science; the most common Florida home for biomechanics |
PET | physical education and sport; teaching and coaching orientation |
BME / EML | biomedical and mechanical engineering; quantitative, calculus-based |
⚠ If a graduate programme's prerequisite list names a biomechanics course under a different prefix, ask the programme in writing whether `ATR3132` satisfies it — do not assume, and do not rely on a transfer evaluator to notice the equivalence.
Offering Notes — offerings and hours, school by school
| Institution | Its title | Credits | Contact hours |
| Florida State University | Kinesiology | 3 | not published |
| University of South Florida | Kinesiology & Pathomechanics | 3 | not published |
| University of West Florida | Functional Kinesiology | 3 | not published |
All three are State University System institutions at 3 credits — ✅ no credit divergence. The divergence is in the titles, and it runs in one direction.
A two-column test for which version you are in:
| Kinesiology / functional kinesiology reading | Kinesiology & pathomechanics reading |
| joint-by-joint normal structure and function; muscle actions; movement analysis of normal tasks; posture and gait | all of that, plus injury mechanism by joint, tissue failure, compensation patterns, and the mechanical basis of rehabilitation choices |
| assessment: identify muscles and motions, analyse a normal movement | assessment: explain how a named injury occurs mechanically, and what altered mechanics follow |
⚠ "Functional" in UWF's title points a third way — toward whole-task movement and functional assessment rather than joint-by-joint anatomy. That is a legitimate and arguably more clinically useful emphasis, but it is a different course from a systematic joint survey, and a student who needs the joint-by-joint material for a graduate prerequisite should confirm it is there.
⚠ The 45 contact hours at the top of this guide are derived — the Florida convention for a 3-credit lecture course. No institution publishes an hour figure. Note that no institution carries a laboratory suffix on this number, so ⚠ the practical, hands-on movement-analysis work happens inside the lecture hours or not at all — worth asking about, because this subject is learned by looking at moving people.
Position in the curriculum, and workload
A 3000-level course with no statewide prerequisite, but ⚠ anatomy and physiology with laboratory is functionally required and institutions generally enforce it. Do not take this course before anatomy. It assumes you can already name the bones, the landmarks and the muscles; the course's work is what those structures do under load. A student learning the anatomy for the first time here will be overwhelmed.
Budget eight to ten hours a week. ⚠ It is one of the harder courses in a movement-science curriculum, for a specific reason: it is a mechanics course wearing anatomical vocabulary. Students arrive expecting more anatomy and meet vectors, moment arms and torque in the second week.
⚠⚠ Name what is actually needed, since the prerequisite does not: trigonometry and algebra — resolving a force into components, computing a moment as force times distance, reading angles off a diagram. Not calculus. If your route here required no physics, spend a weekend on vectors and free-body diagrams before the term starts; that single gap is what makes students conclude the course is impossible when it is not.
AI Integration
Genuinely useful: explaining a mechanical concept a second way — moment arms and force couples especially, which are the usual sticking points; generating practice questions on joint actions and injury mechanisms; drilling anatomical terminology; summarising a research paper's methods; explaining statistical or biomechanical notation; and helping structure a movement-analysis write-up.
⚠⚠ Where it fails, and the second item is specific to this subject:
- ⚠⚠ It gets muscle actions, attachments and joint mechanics wrong at a rate that matters. Anatomical detail looks like exactly the kind of fact a model should hold, which is what makes the errors dangerous — they are confident, specific and occasionally reversed. Verify every action, attachment and arthrokinematic against an anatomy reference.
- ⚠⚠⚠ The failure mode and the course's subject coincide, and it is worth understanding. Pathomechanics exists to explain an individual's altered movement — this person's compensation, this knee's loading. A model asked why someone's knee hurts produces the textbook average: the typical mechanism for the typical presentation. ⚠ That is precisely the category-based reasoning the discipline teaches you to replace with observation and assessment. The generated answer is a fluent statement of the error the course is trying to correct.
- ⚠ It cannot see movement. The central skill here is watching a person move and describing what each joint does. A model has watched nothing, and a description of a movement pattern assembled from text about that pattern is not an observation.
- It invents citations, effect sizes and injury-incidence statistics — and this literature has real numbers that matter.
- ⚠⚠ It will give clinical-sounding advice. Asked about an injury it will suggest what to do about it. Neither a student nor a model is the person who makes that call, and in a field heading toward licensure that boundary is worth establishing early.
⚠ The professional framing: a certified athletic trainer works under a physician's direction and carries personal responsibility for clinical judgements. Tooling that produced a mechanical explanation does not share that responsibility. Use these tools to understand mechanics faster; build the observational skill on real people, because that is what the profession is.
Academic integrity: read your syllabus. Where the assessment includes a practical examination or a live movement analysis, ⚠ the skill is individually observable and the question settles itself.