NESTA Biomechanics Specialist study plan
NESTA Biomechanics Specialist · Give each week a clear focus.
8 weeks · About 6 hours per week
Anatomical and Biomechanical Foundations
Define and correctly use 40 core anatomical and biomechanical terms (planes, axes, levers, force vectors, torque, moment arm) in written definitions without notes
Label the major joint types and describe the osteokinematic and arthrokinematic motion available at each, citing the plane and axis for each motion
Calculate moment arm, torque, and mechanical advantage for at least 10 lever scenarios drawn from resistance-training positions
Explain how the length-tension relationship and force-velocity relationship constrain force output in three named lifts
Draw and annotate the sagittal, frontal, and transverse plane views of the squat, overhead press, and lunge from memory
Your checkpoint
A one-page annotated biomechanics reference sheet (planes, axes, lever classes, torque formula, length-tension and force-velocity summaries) self-quizzed to 90% accuracy on 30 recall items
Anatomical and Biomechanical Foundations & Kinesiology and Functional Anatomy
Trace the origin, insertion, and primary action of 25 major muscles across the hip, knee, ankle, shoulder, and scapula, and state the joint motion each produces
Classify each of those muscles by fiber arrangement (fusiform, pennate, parallel) and predict its force and velocity trade-off
Identify the agonist, antagonist, synergist, and stabilizer roles in the back squat, bench press, deadlift, and overhead press
Explain how muscle attachment distance from a joint axis changes torque production across a joint's range of motion
Describe the stretch-shortening cycle phases and the role of series elastic and contractile elements
Your checkpoint
A completed muscle-function matrix (25 muscles x origin/insertion/action/plane) plus a written analysis of torque changes through the full range of motion of one lift
Kinesiology and Functional Anatomy & Movement Screening and Postural Assessment
Perform and document a full-body postural assessment (anterior, posterior, lateral views) on a volunteer, recording plumb-line deviations in writing
Identify and name at least six common postural deviations and link each to a plausible short/tight and long/weak muscle pattern
Administer an overhead squat, single-leg squat, and push-up screen, and score each using a defined 0-3 or pass/fail rubric
Distinguish a mobility restriction from a stability or motor-control problem in three written screening case scenarios
Explain how to select a screening tool based on the demands of a specific lift or sport
Your checkpoint
Three completed movement-screen scorecards with written findings, ranked priorities, and a one-page rationale linking each finding to a corrective direction
Movement Screening and Postural Assessment & Biomechanics of Resistance Training
Analyze how bar position, stance width, grip width, and foot placement change joint torque and muscle demand in the squat, deadlift, and bench press
Compare free-weight and machine resistance profiles and describe how each matches or mismatches the human strength curve
Explain how cam, pulley, band, and chain resistance alter the external torque curve across a joint's range of motion
Calculate the effect of a 10 cm change in moment arm on required muscle force at a fixed load in two worked examples
Describe how center of mass and base of support interact to determine stability in standing and split-stance lifts
Your checkpoint
A comparative torque-and-resistance-profile analysis of three exercises (one barbell, one dumbbell, one machine) with worked numeric examples and practical coaching implications
Biomechanics of Resistance Training & Exercise Technique and Movement Analysis
Break down the squat, deadlift, bench press, overhead press, and a row into joint-by-joint phase descriptions (setup, execution, return) with the plane and prime movers named
Identify the five most common technique faults in each of those lifts and explain the biomechanical consequence of each fault
Write coaching cues that target the observed fault rather than the symptom, and justify each cue biomechanically
Explain how stance, grip, and torso angle shifts alter the muscle-length and moment-arm profile of a lift
Describe breathing and bracing mechanics and their effect on spinal stability under load
Your checkpoint
A five-lift technique analysis document with phase breakdowns, fault-to-consequence tables, and at least two justified cues per fault, self-checked against course material
Biomechanics of Speed, Agility, and Plyometrics & Injury Risk Reduction and Corrective Exercise
Explain ground reaction force, impulse, rate of force development, and the stretch-shortening cycle as they apply to sprinting and jumping
Apply the plyometric progression continuum (jump, hop, bound, depth jump) and justify intensity and volume choices using biomechanical principles
Describe the biomechanics of acceleration, max-velocity sprinting, and change of direction, including penultimate-step and cutting mechanics
Identify the highest-risk positions and loading errors in plyometric and agility drills, and prescribe safer regressions
Design a corrective-exercise progression for one identified fault using inhibit, lengthen, activate, integrate sequencing
Your checkpoint
A written 6-week plyometric and agility progression with intensity/volume rationale plus one full corrective-exercise program tied to a specific screening finding
Injury Risk Reduction and Corrective Exercise & Program Design and Periodization Using Biomechanical Principles
Map the most common injury mechanisms in strength training and sport to modifiable biomechanical risk factors
Apply the principles of specificity, overload, and variation to select exercises that match a stated performance goal
Manipulate acute variables (load, volume, tempo, rest, range of motion) and explain the biomechanical rationale for each change
Build a mesocycle that sequences phases using biomechanical priorities rather than arbitrary percentages
Explain how range of motion, tempo, and exercise order change the mechanical stimulus of a session
Your checkpoint
A 12-week periodized program with a written biomechanical justification for every exercise choice, acute-variable decision, and phase transition
Special Populations and Environmental Considerations & Anatomical and Biomechanical Foundations & Movement Screening and Postural Assessment
Adapt exercise selection and loading for older adults, youth, and pre/post-natal clients using biomechanical reasoning
Describe how heat, cold, altitude, and fatigue alter force production, joint loading, and movement quality, and adjust programming accordingly
Re-run 50 mixed-domain practice questions and score at least 80%
Review every missed item and write a corrected explanation for each
Consolidate a one-page summary of the highest-yield formulas, definitions, and decision rules across all nine domains
Your checkpoint
A timed 50-question mixed-domain practice exam scored at 80% or higher, with written corrections for every missed item and a final one-page high-yield summary sheet
Milestones
Week 2: Score 85% or higher on a self-made 30-item quiz covering planes, axes, levers, torque, length-tension, force-velocity, and the muscle-function matrix; explain any missed item aloud without notes
Week 4: Complete a full movement screen on a volunteer and submit the scorecards plus torque analysis; correctly classify at least 5 of 6 deviations to a short/tight versus long/weak pattern in a written check
Week 6: Score 80% or higher on a 40-item quiz covering resistance-training biomechanics, exercise technique, plyometrics, and corrective sequencing; produce a plyometric progression a reviewer judges mechanically sound
Week 8: Pass a timed 50-question mixed-domain mock exam at 80% or higher with every missed item corrected in writing, and submit the completed one-page high-yield summary sheet