NASM CES Final Exam Prep | Practice Questions with
Complete Answers | Corrective Exercise Specialist |
2025/2026 Edition | National Academy of Sports
Medicine Study Guide
NASM CES FINAL EXAM (2025/2026)
Practice Exam with Complete Study Questions and Answers | Corrective Exercise Specialist |
National Academy of Sports Medicine
Overview
This 2025/2026 study resource provides a comprehensive practice-style Corrective Exercise
Specialist exam modeled on NASM’s current standards. It supports learners in understanding the
principles of assessment, movement dysfunction analysis, program design, and corrective strategies
used within the NASM CES curriculum.
Key Features
✓ Practice-style questions aligned with NASM CES domains
✓ Updated corrective exercise strategies and movement science principles
✓ Step-by-step reasoning with correct answer explanations
✓ Aligned with 2025/2026 NASM performance and assessment standards
✓ Useful for learners preparing for college coursework or personal study
Content Domains
• Human Movement Science & Kinesiology
• Assessment & Dysfunction Identification
• Corrective Exercise Techniques
• Program Design & Implementation
• Client Interaction & Professional Practice
,Answer Format
Answers are provided with:
• Technique explanations
• Movement-compensation breakdowns
• Evidence-based exercise rationales
• Clear step-by-step reasoning
Critical Updates 2025/2026
◆ NEW – Expanded guidance on kinetic chain checkpoints
◆ UPDATED – Movement assessment models and evidence-based practice
◆ REVISED – Corrective flexibility, activation, and integration strategies
◆ MODERNIZED – Industry applications for corrective programming
Neuromuscular efficiency
The ability of the neuromuscular system to allow agonists, antagonists, synergists, and stablilzers
to work synergistically to produce, reduce, and dynamically stabilize the kinetic chain in all three
planes of motion.
Posture
The independent and interdependent alignment (static posture) and function (transitional and
dynamic posture) of all components of the human movement system at any given moment;
controlled by the central nervous system.
Structural efficiency
The alignment of each segment of the human movement system (HMS), which allows posture to
be balanced in relation to one's center of gravity.
Functional efficiency
The ability of the neuromuscular system to recruit correct muscle synergies, at the right time,
with the appropriate amount of force to perform functional tasks with the least amount of energy
and stress on the human movement system.
Cumulative injury cycle
A cycle in which an injury will induce inflammation, muscle spasm, adhesion, altered
neuromusclular control, and muscle imbalances.
Movement impairment syndrome
Refers to the state in which the structural integrity of the human movement system (HMS) is
compromised because the components are out of alignment.
,Altered reciprocal inhibition
The process whereby a tight muscle (short, overactive, myofascial adhesions) causes decreased
neural drive and therefore optimal recruitment of its functional antagonist.
Synergistic dominance
The process by which a synergist compenstates for a prime mover to maintain force production.
Lower extremity movement impairment syndrome
Usually characterized by excessive foot pronation (flat feet), increased knee valgus (tibia
externally rotated and femur internally rotated and adducted or knock-kneed), and increased
movement at the lumbo-pelvic-hip-complex (extension or flexion) during functional movements.
Upper extremity movement impairment syndrome
Usually characterized as having rounded shoulders and a forward head posture or improper
scapulothoracic or glenohumeral kinematics during functional movements.
Lengthening Techniques
2nd phase in the Corrective Exercise Continuum is to lengthen those overactive or tight
neuromyofascial tissues.
Lengthening
refers to the elongation of mechanically shortened muscle and connective tissuenecessary to
increase range of motion (ROM) at the tissue and joint.
2 most common methods of stretching:
Static stretching
Neuromuscular stretching
Static stretching
Combines low force with long duration using autogenic inhibition. This form of stretching
allows for relaxation and concomitant elongation of muscle. To perform static stretching, the
stretch is held at the first point of tension or resistance barrier for 30 seconds. Performed solo
Neuromuscular stretching
commonly called proprioceptive neuromuscular facilitation,or PNF involves taking the muscle to
its end ROM (point of joint compensation), actively contracting the muscle to be stretched for 7 -
15 seconds, then passively moving the joint to a new end ROM and holding this position for 20-
30 seconds.
Recurrent inhibition
A feedback circuit that can decrease the excitability of motor neurons via the interneuron called
the Renshaw cell.
, Stretch reflex
A muscle contraction in response to stretching within the muscle.
Static stretching is characterized by:
The elongation of neuromyofascial tissue to an end-range and statically holding that position fora
period of time.
Maximal control of structural alignment
Minimal acceleration into and out of the elongated (stretch) position.
Neuromuscular stretching is (NMS) characterized by:
Taking the muscle to its end ROM (point of joint compensation)
Active contraction of the muscle to be stretched
Passively (or actively) moving to a new end ROM
Statically holding new position for 20-30 seconds and repeating 3 times.
Neuromuscular stretching
Is a technique that involves a process of isometrically contracting a desired muscle in a
lengthened position to induce a relazation response on the tissue, allowing it to further elongate.
Requires the assistance of another person.
Autogenic inhibition
The process when neural impulses that sense tension are greater than the impulses that cause
muscles to contract, providing an inhibitory effect to the muscle spindles
What is the origin of the Anterior Tibialis?
The lateral condyle and proximal two thirds f the lateral surface of the tibia
What is the origin of the Posterior Tibilais ?
Proximal two thirds surface of the tibia and fibula
What is the origin of the Soleus?
Posterior surface of the fibular head and proximal one third of its shaft and the posterior side of
the tibia
What is the origin of the Gastrocnemius?
Posterior aspect of the lateral and medial femoral condyles
What is the origin of Peroneus Longus?
Lateral condyle of the tibia, head and proximal two thirds of the lateral surface of the fibula
What is the origin of the long head of Biceps Femoris?
Ischial tuberosity of the pelvis and part of the sacrotuberous ligament