NSCA CPSS® Exam Prep
Practice Questions for the Certified Performance and Sport
Scientist® Exam
Individual Domains
1.Training Theory and Process
2.Needs Analysis
3.Acute and Chronic Monitoring
4.Communication and Education
1
,Disclaimer: NSCA®, CPSS®, and Certified Performance and Sport Scientist® are registered
trademarks of the National Strength and Conditioning Association (NSCA). This publication is
an independent educational resource for test preparation. It is not affiliated with, endorsed,
sponsored, or recognized by the NSCA. For complete and authoritative exam preparation,
candidates are strongly encouraged to consult the official NSCA CPSS® Study Guide,
reference texts, and position statements.
2
,Exam Preparation Tips
● Know the Domains: Focus your study on the official NSCA CPSS® exam content areas
(e.g.. Training Theory and Process, Needs Analysis, Acute and Chronic Monitoring,
Communication and Education)
● Practice with Purpose: Use practice questions to identify weak areas, not just to
memorize answers.
● Simulate Exam Conditions: Time yourself when completing practice sets to mirror the
test environment.
● Think Application, Not Memorization: The CPSS® exam emphasizes applied knowledge
in real sport and performance settings.
● Stay Current: Scientific literature and NSCA publications evolve; keep up with the
latest position statements and research.
Exam Strategy & Tips
How to Approach Multiple-Choice Questions
● Read Carefully: Identify exactly what the question is asking before looking at the
options.
● First Pass: If you know the answer → mark it and move on.
● Process of Elimination: Remove distractors (clearly wrong options). Each eliminated
choice increases your odds.
Probability Example (3 options per question):
● If you know the answer → 100%
● If you eliminate 1 option → 50% chance between 2
● If you eliminate 2 options → you’re left with the correct one → 100%
3
, Example Question – HSR Intensity
Q. What is a potential issue when using straight-line HIIT to compensate match HSR
demands?
a) It may underload the athlete compared to match demands.
b) It may excessively overload HSR intensity beyond match levels.
c) It reduces the cardio-respiratory response compared to match play.
Elimination Process
● (a) ❌ Wrong → HIIT actually covers match HSR faster (not underload).
● (c) ❌ Wrong → cardio-respiratory response is often higher, not reduced.
● (b) ✅ Correct → straight-line HIIT can overload HSR (e.g., 100 vs. 15 m/min).
Probability Demo
● Start = 33% (guess among 3).
● Eliminate (a) = 50%.
● Eliminate (c) = 100% → correct is (b).
General Tips
● Time Management: Don’t spend too long on one question; return later if unsure.
● Applied Thinking: Many CPSS® questions are scenario-based. Think like a practitioner,
not like a textbook.
● Key Words: Watch for absolutes (“always,” “never”) — often they’re traps.
● Double-Check: If time remains, revisit flagged questions with fresh eyes.
4
,Training Theory and Process
5
,Training Theory – Questions
Q1. In the context of team sport periodization, during the General Preparation Phase, what
approximate proportion of the total training volume should be devoted to high-intensity work
(e.g., near-maximal strength, explosive power, or maximal speed), considering that the main
emphasis of this phase is the development of general physical qualities and work capacity?
a) 10–20%
b) 25–40%
c) 50–60%
Q2. In the Specific Preparation Phase of a team sport annual plan, which programming
approach is most appropriate?
a) 70–80% sport-specific training with progressively greater intensity
b) 50% general training and 50% sport-specific training
c) Exclusive focus on general physical conditioning before competition
Q3. Which periodization strategy involves 2–4 week mesocycles emphasizing concentrated
loading of compatible biomotor abilities across accumulation, transmutation, and realization
stages?
a) Traditional periodization
b) Block periodization
c) Conjugated sequencing
Q4. What is the primary goal of the Transition Phase in team sports according to the Traditional
Periodization?
a) Begin high-intensity training to prepare for the next season
b) Allow for complete physical inactivity to ensure recovery
c) Facilitate recovery from accumulated fatigue and rehabilitate injuries while maintaining basic
fitness
Q5.According to Selye’s general adaptation syndrome, what occurs after a training-induced
disturbance to homeostasis if adequate recovery is provided?
a) Chronic performance decline
b) Supercompensation leading to improved performance
c) Immediate restoration of baseline performance
6
,Q6. Which statement best describes the fitness–fatigue model in the context of athlete
performance?
a) Fatigue decays at approximately the same rate as fitness
b) Fatigue decays at roughly twice the rate of fitness
c) Fitness decays faster than fatigue after training
Q7. In sport science, what is the key distinction between external load and internal load?
a) External load measures what the athlete has done, internal load measures how the athlete
has responded
b) External load measures intensity, internal load measures volume
c) External load is subjective, internal load is always objective
Q8. Why is it recommended to combine measures of external and internal load when
monitoring athletes?
a) Because they always produce identical results
b) To obtain a complete picture of the training process and adaptation
c) To avoid the need for sport-specific testing
Q9. In monitoring training adaptations, which heart rate change is generally considered a sign
of positive adaptation?
a) Decreased heart rate variability (HRV) at rest
b) Improved HRV and faster postexercise heart rate recovery
c) Slower heart rate recovery after exercise
Q10. When using the countermovement jump (CMJ) to monitor neuromuscular fatigue, which
approach is generally more sensitive?
a) Peak CMJ height from a single trial
b) Average CMJ height from multiple trials
c) Flight time to contraction time ratio only
Q11. An elite soccer player returning from injury has completed a gradual increase in weekly
training volume over four weeks. The coach suggests applying a sudden high load to
“fast-track” match fitness. Based on current evidence, what is the most appropriate
recommendation?
a) Maintain planned load progression to reduce reinjury risk while monitoring athlete response
b) Increase training load abruptly, as higher loads always improve performance
c) Use the acute:chronic workload ratio (ACWR) as the sole guide for determining safe load
7
,Q12. You are preparing an 8-week pre-season plan for a professional rugby team with
congested fixtures. The schedule is as follows:
Weeks Main Focus Maintenance
1–2 Strength + Aerobic Capacity Speed + Endurance
3–4 Speed + Power Strength + Endurance
5–6 Aerobic Capacity + Repeated Sprint Ability Strength + Speed
7–8 Speed + Strength Aerobic Capacity
Which periodization model does this plan best represent?
a) Parallel Training Model
b) Sequential Training Model
c) Emphasis Training Model
Q13. Which of the following best describes the multiyear training plan in the hierarchical
structure of periodization?
a) A medium-sized training cycle, usually 4 weeks, designed to target specific adaptations.
b) A long-term plan that spans 2–4 years, typically aligned with quadrennial goals.
c) A short-term plan lasting 1 year, containing 1–3 macrocycles.
Q14. During the off-season phase of the annual training plan, what is the primary emphasis for
athletes?
a) Higher training volume with lower intensity to build general fitness and preparedness.
b) Maximizing sport-specific intensity while maintaining minimal training volume.
c) Reducing training load significantly to allow for full psychological recovery.
Case Study – Programming HIIT Q15-19
Athlete Information:
● Sport: Soccer (Midfielder)
● Age: 22
● Level: First Division Club
● Monitoring: GPS (training) + semi-automatic (matches)
Situation: Over a congested 5-week period, the player had inconsistent match participation
(rested, benched, subbed, partial minutes). Without intervention, returning to a full match on
October 12th would have caused a load spike (ACWR > 2) due to reduced prior HSR (high-speed
running). To avoid this, the staff integrated compensatory HIIT sequences (Type 2 run-based)
8
, during non-match days. These maintained a stable HSR load and prevented injury risk. Table 4.1
provides examples of MD (midfielder) vs FB (fullback) HIIT sequences.
Goal: Maintain stable HSR exposure to reduce injury risk while matching typical match
demands.
Q15. What was the main purpose of adding compensatory HIIT sessions during the player’s
reduced match participation?
a) To increase anaerobic capacity and lactate tolerance.
b) To maintain high-speed running exposure and avoid load spikes.
c) To reduce overall training volume and enhance recovery.
Q16. According to the scenario, what would have happened on October 12th if no HIIT
supplementation had been added?
a) The player would have maintained stable training load.
b) A large spike in high-speed running load (ACWR > 2) would have occurred.
c) The player would have avoided any risk of hamstring injury.
Q17. Which type of HIIT sequence is most appropriate for maintaining HSR load in this context?
a) Type 1 HIIT (high aerobic, low neuromuscular/anaerobic contribution).
b) Type 2 HIIT (high aerobic + neuromuscular load, low anaerobic contribution).
c) Type 3 HIIT (high anaerobic contribution with minimal neuromuscular demand).
Q18. When compensatory HIIT sessions are performed the day after matches, which additional
training element can be integrated to maximize both conditioning and technical relevance?
a) Ball-integrated drills combined with type 2 or type 4 HIIT.
b) Strength training circuits with low-intensity aerobic conditioning.
c) Only static stretching and recovery modalities.
Q19. In the context of workload management, why is HSR considered a critical metric to
monitor and maintain in soccer players?
a) It is mainly associated with aerobic endurance adaptations.
b) It has a strong link to hamstring injury risk if overloaded.
c) It is irrelevant compared to total running distance covered.
9
Practice Questions for the Certified Performance and Sport
Scientist® Exam
Individual Domains
1.Training Theory and Process
2.Needs Analysis
3.Acute and Chronic Monitoring
4.Communication and Education
1
,Disclaimer: NSCA®, CPSS®, and Certified Performance and Sport Scientist® are registered
trademarks of the National Strength and Conditioning Association (NSCA). This publication is
an independent educational resource for test preparation. It is not affiliated with, endorsed,
sponsored, or recognized by the NSCA. For complete and authoritative exam preparation,
candidates are strongly encouraged to consult the official NSCA CPSS® Study Guide,
reference texts, and position statements.
2
,Exam Preparation Tips
● Know the Domains: Focus your study on the official NSCA CPSS® exam content areas
(e.g.. Training Theory and Process, Needs Analysis, Acute and Chronic Monitoring,
Communication and Education)
● Practice with Purpose: Use practice questions to identify weak areas, not just to
memorize answers.
● Simulate Exam Conditions: Time yourself when completing practice sets to mirror the
test environment.
● Think Application, Not Memorization: The CPSS® exam emphasizes applied knowledge
in real sport and performance settings.
● Stay Current: Scientific literature and NSCA publications evolve; keep up with the
latest position statements and research.
Exam Strategy & Tips
How to Approach Multiple-Choice Questions
● Read Carefully: Identify exactly what the question is asking before looking at the
options.
● First Pass: If you know the answer → mark it and move on.
● Process of Elimination: Remove distractors (clearly wrong options). Each eliminated
choice increases your odds.
Probability Example (3 options per question):
● If you know the answer → 100%
● If you eliminate 1 option → 50% chance between 2
● If you eliminate 2 options → you’re left with the correct one → 100%
3
, Example Question – HSR Intensity
Q. What is a potential issue when using straight-line HIIT to compensate match HSR
demands?
a) It may underload the athlete compared to match demands.
b) It may excessively overload HSR intensity beyond match levels.
c) It reduces the cardio-respiratory response compared to match play.
Elimination Process
● (a) ❌ Wrong → HIIT actually covers match HSR faster (not underload).
● (c) ❌ Wrong → cardio-respiratory response is often higher, not reduced.
● (b) ✅ Correct → straight-line HIIT can overload HSR (e.g., 100 vs. 15 m/min).
Probability Demo
● Start = 33% (guess among 3).
● Eliminate (a) = 50%.
● Eliminate (c) = 100% → correct is (b).
General Tips
● Time Management: Don’t spend too long on one question; return later if unsure.
● Applied Thinking: Many CPSS® questions are scenario-based. Think like a practitioner,
not like a textbook.
● Key Words: Watch for absolutes (“always,” “never”) — often they’re traps.
● Double-Check: If time remains, revisit flagged questions with fresh eyes.
4
,Training Theory and Process
5
,Training Theory – Questions
Q1. In the context of team sport periodization, during the General Preparation Phase, what
approximate proportion of the total training volume should be devoted to high-intensity work
(e.g., near-maximal strength, explosive power, or maximal speed), considering that the main
emphasis of this phase is the development of general physical qualities and work capacity?
a) 10–20%
b) 25–40%
c) 50–60%
Q2. In the Specific Preparation Phase of a team sport annual plan, which programming
approach is most appropriate?
a) 70–80% sport-specific training with progressively greater intensity
b) 50% general training and 50% sport-specific training
c) Exclusive focus on general physical conditioning before competition
Q3. Which periodization strategy involves 2–4 week mesocycles emphasizing concentrated
loading of compatible biomotor abilities across accumulation, transmutation, and realization
stages?
a) Traditional periodization
b) Block periodization
c) Conjugated sequencing
Q4. What is the primary goal of the Transition Phase in team sports according to the Traditional
Periodization?
a) Begin high-intensity training to prepare for the next season
b) Allow for complete physical inactivity to ensure recovery
c) Facilitate recovery from accumulated fatigue and rehabilitate injuries while maintaining basic
fitness
Q5.According to Selye’s general adaptation syndrome, what occurs after a training-induced
disturbance to homeostasis if adequate recovery is provided?
a) Chronic performance decline
b) Supercompensation leading to improved performance
c) Immediate restoration of baseline performance
6
,Q6. Which statement best describes the fitness–fatigue model in the context of athlete
performance?
a) Fatigue decays at approximately the same rate as fitness
b) Fatigue decays at roughly twice the rate of fitness
c) Fitness decays faster than fatigue after training
Q7. In sport science, what is the key distinction between external load and internal load?
a) External load measures what the athlete has done, internal load measures how the athlete
has responded
b) External load measures intensity, internal load measures volume
c) External load is subjective, internal load is always objective
Q8. Why is it recommended to combine measures of external and internal load when
monitoring athletes?
a) Because they always produce identical results
b) To obtain a complete picture of the training process and adaptation
c) To avoid the need for sport-specific testing
Q9. In monitoring training adaptations, which heart rate change is generally considered a sign
of positive adaptation?
a) Decreased heart rate variability (HRV) at rest
b) Improved HRV and faster postexercise heart rate recovery
c) Slower heart rate recovery after exercise
Q10. When using the countermovement jump (CMJ) to monitor neuromuscular fatigue, which
approach is generally more sensitive?
a) Peak CMJ height from a single trial
b) Average CMJ height from multiple trials
c) Flight time to contraction time ratio only
Q11. An elite soccer player returning from injury has completed a gradual increase in weekly
training volume over four weeks. The coach suggests applying a sudden high load to
“fast-track” match fitness. Based on current evidence, what is the most appropriate
recommendation?
a) Maintain planned load progression to reduce reinjury risk while monitoring athlete response
b) Increase training load abruptly, as higher loads always improve performance
c) Use the acute:chronic workload ratio (ACWR) as the sole guide for determining safe load
7
,Q12. You are preparing an 8-week pre-season plan for a professional rugby team with
congested fixtures. The schedule is as follows:
Weeks Main Focus Maintenance
1–2 Strength + Aerobic Capacity Speed + Endurance
3–4 Speed + Power Strength + Endurance
5–6 Aerobic Capacity + Repeated Sprint Ability Strength + Speed
7–8 Speed + Strength Aerobic Capacity
Which periodization model does this plan best represent?
a) Parallel Training Model
b) Sequential Training Model
c) Emphasis Training Model
Q13. Which of the following best describes the multiyear training plan in the hierarchical
structure of periodization?
a) A medium-sized training cycle, usually 4 weeks, designed to target specific adaptations.
b) A long-term plan that spans 2–4 years, typically aligned with quadrennial goals.
c) A short-term plan lasting 1 year, containing 1–3 macrocycles.
Q14. During the off-season phase of the annual training plan, what is the primary emphasis for
athletes?
a) Higher training volume with lower intensity to build general fitness and preparedness.
b) Maximizing sport-specific intensity while maintaining minimal training volume.
c) Reducing training load significantly to allow for full psychological recovery.
Case Study – Programming HIIT Q15-19
Athlete Information:
● Sport: Soccer (Midfielder)
● Age: 22
● Level: First Division Club
● Monitoring: GPS (training) + semi-automatic (matches)
Situation: Over a congested 5-week period, the player had inconsistent match participation
(rested, benched, subbed, partial minutes). Without intervention, returning to a full match on
October 12th would have caused a load spike (ACWR > 2) due to reduced prior HSR (high-speed
running). To avoid this, the staff integrated compensatory HIIT sequences (Type 2 run-based)
8
, during non-match days. These maintained a stable HSR load and prevented injury risk. Table 4.1
provides examples of MD (midfielder) vs FB (fullback) HIIT sequences.
Goal: Maintain stable HSR exposure to reduce injury risk while matching typical match
demands.
Q15. What was the main purpose of adding compensatory HIIT sessions during the player’s
reduced match participation?
a) To increase anaerobic capacity and lactate tolerance.
b) To maintain high-speed running exposure and avoid load spikes.
c) To reduce overall training volume and enhance recovery.
Q16. According to the scenario, what would have happened on October 12th if no HIIT
supplementation had been added?
a) The player would have maintained stable training load.
b) A large spike in high-speed running load (ACWR > 2) would have occurred.
c) The player would have avoided any risk of hamstring injury.
Q17. Which type of HIIT sequence is most appropriate for maintaining HSR load in this context?
a) Type 1 HIIT (high aerobic, low neuromuscular/anaerobic contribution).
b) Type 2 HIIT (high aerobic + neuromuscular load, low anaerobic contribution).
c) Type 3 HIIT (high anaerobic contribution with minimal neuromuscular demand).
Q18. When compensatory HIIT sessions are performed the day after matches, which additional
training element can be integrated to maximize both conditioning and technical relevance?
a) Ball-integrated drills combined with type 2 or type 4 HIIT.
b) Strength training circuits with low-intensity aerobic conditioning.
c) Only static stretching and recovery modalities.
Q19. In the context of workload management, why is HSR considered a critical metric to
monitor and maintain in soccer players?
a) It is mainly associated with aerobic endurance adaptations.
b) It has a strong link to hamstring injury risk if overloaded.
c) It is irrelevant compared to total running distance covered.
9
