TEXAS FALL PROTECTION SPECIALIST
CERTIFICATION EXAM WITH ACTUAL
QUESTIONS AND VERIFIED ANSWERS,
PLUS EXPLAINED RATIONALES/EXPERT
VERIFIED FOR GUARANTEED 100% PASS
2026/LATEST UPDATE/INSTANT
DOWNLOAD PDF
1. A Texas Fall Protection Specialist is assigned to oversee steel
erection activities where employees are connecting structural
members at heights exceeding 30 feet. Which OSHA requirement
best determines when fall protection becomes mandatory during
steel erection?
A. Fall protection is required at 4 feet for every steel erection activity.
B. Fall protection is required at 6 feet regardless of the operation.
C. Fall protection is required at 15 feet for connectors unless another
standard applies.
D. Fall protection is never required for connectors.
Answer: C. Fall protection is required at 15 feet for connectors
unless another standard applies.
Rationale: OSHA Subpart R provides specific requirements for steel
erection. Connectors generally require fall protection at 15 feet or
more, although other work activities may require protection under
different provisions. A specialist must recognize exceptions and
activity-specific requirements rather than applying a single height
threshold universally.
2. Which OSHA Subpart primarily governs fall protection
requirements for general construction activities?
1
,A. Subpart D
B. Subpart M
C. Subpart K
D. Subpart P
Answer: B. Subpart M
Rationale: OSHA 29 CFR 1926 Subpart M establishes fall protection
requirements for construction including guardrails, personal fall
arrest systems, safety nets, controlled access zones, and training.
Mastery of Subpart M is fundamental for any Fall Protection
Specialist.
3. A personal fall arrest system is considered effective only if it limits
the maximum arresting force on an employee wearing a full-body
harness to:
A. 900 pounds
B. 1,200 pounds
C. 1,800 pounds
D. 2,400 pounds
Answer: C. 1,800 pounds
Rationale: OSHA specifies that personal fall arrest systems must limit
maximum arresting force on an employee wearing a full-body harness
to 1,800 pounds when properly used. Shock-absorbing lanyards and
energy absorbers help achieve this limitation.
4. Which component of a Personal Fall Arrest System (PFAS) is
specifically designed to dissipate fall energy?
A. D-ring
B. Lifeline
2
,C. Shock absorber
D. Anchorage plate
Answer: C. Shock absorber
Rationale: Shock absorbers elongate during fall arrest, reducing
arrest forces transmitted to the worker and anchor. They significantly
decrease the likelihood of serious injury caused by abrupt
deceleration.
5. The minimum anchorage strength required for each employee
attached to a personal fall arrest system is:
A. 2,000 pounds
B. 3,000 pounds
C. 5,000 pounds
D. 10,000 pounds
Answer: C. 5,000 pounds
Rationale: OSHA requires independent anchorages capable of
supporting at least 5,000 pounds per attached employee unless
designed, installed, and used as part of a complete engineered system
with a safety factor of at least two.
6. Which factor has the greatest influence on total fall clearance
calculations?
A. Worker's age
B. Arrest distance
C. Color of lanyard
D. Weather temperature
Answer: B. Arrest distance
3
, Rationale: Total fall clearance includes free-fall distance, deceleration
distance, harness stretch, D-ring shift, worker height, and safety
margin. Arrest distance is one of the largest contributors to required
clearance.
7. The preferred hierarchy of fall protection begins with:
A. Warning lines
B. Administrative controls
C. Elimination of fall hazards
D. Personal fall arrest systems
Answer: C. Elimination of fall hazards
Rationale: The hierarchy of controls places elimination at the top
because removing the hazard entirely provides the highest level of
protection before engineering controls, administrative controls, and
PPE are considered.
8. Which fall protection system prevents a worker from reaching the
edge rather than arresting a fall?
A. Positioning system
B. Restraint system
C. Personal fall arrest system
D. Safety monitoring system
Answer: B. Restraint system
Rationale: A travel restraint system prevents exposure by restricting
movement before the worker reaches the fall hazard. Since no fall
occurs, arrest forces are eliminated.
4
CERTIFICATION EXAM WITH ACTUAL
QUESTIONS AND VERIFIED ANSWERS,
PLUS EXPLAINED RATIONALES/EXPERT
VERIFIED FOR GUARANTEED 100% PASS
2026/LATEST UPDATE/INSTANT
DOWNLOAD PDF
1. A Texas Fall Protection Specialist is assigned to oversee steel
erection activities where employees are connecting structural
members at heights exceeding 30 feet. Which OSHA requirement
best determines when fall protection becomes mandatory during
steel erection?
A. Fall protection is required at 4 feet for every steel erection activity.
B. Fall protection is required at 6 feet regardless of the operation.
C. Fall protection is required at 15 feet for connectors unless another
standard applies.
D. Fall protection is never required for connectors.
Answer: C. Fall protection is required at 15 feet for connectors
unless another standard applies.
Rationale: OSHA Subpart R provides specific requirements for steel
erection. Connectors generally require fall protection at 15 feet or
more, although other work activities may require protection under
different provisions. A specialist must recognize exceptions and
activity-specific requirements rather than applying a single height
threshold universally.
2. Which OSHA Subpart primarily governs fall protection
requirements for general construction activities?
1
,A. Subpart D
B. Subpart M
C. Subpart K
D. Subpart P
Answer: B. Subpart M
Rationale: OSHA 29 CFR 1926 Subpart M establishes fall protection
requirements for construction including guardrails, personal fall
arrest systems, safety nets, controlled access zones, and training.
Mastery of Subpart M is fundamental for any Fall Protection
Specialist.
3. A personal fall arrest system is considered effective only if it limits
the maximum arresting force on an employee wearing a full-body
harness to:
A. 900 pounds
B. 1,200 pounds
C. 1,800 pounds
D. 2,400 pounds
Answer: C. 1,800 pounds
Rationale: OSHA specifies that personal fall arrest systems must limit
maximum arresting force on an employee wearing a full-body harness
to 1,800 pounds when properly used. Shock-absorbing lanyards and
energy absorbers help achieve this limitation.
4. Which component of a Personal Fall Arrest System (PFAS) is
specifically designed to dissipate fall energy?
A. D-ring
B. Lifeline
2
,C. Shock absorber
D. Anchorage plate
Answer: C. Shock absorber
Rationale: Shock absorbers elongate during fall arrest, reducing
arrest forces transmitted to the worker and anchor. They significantly
decrease the likelihood of serious injury caused by abrupt
deceleration.
5. The minimum anchorage strength required for each employee
attached to a personal fall arrest system is:
A. 2,000 pounds
B. 3,000 pounds
C. 5,000 pounds
D. 10,000 pounds
Answer: C. 5,000 pounds
Rationale: OSHA requires independent anchorages capable of
supporting at least 5,000 pounds per attached employee unless
designed, installed, and used as part of a complete engineered system
with a safety factor of at least two.
6. Which factor has the greatest influence on total fall clearance
calculations?
A. Worker's age
B. Arrest distance
C. Color of lanyard
D. Weather temperature
Answer: B. Arrest distance
3
, Rationale: Total fall clearance includes free-fall distance, deceleration
distance, harness stretch, D-ring shift, worker height, and safety
margin. Arrest distance is one of the largest contributors to required
clearance.
7. The preferred hierarchy of fall protection begins with:
A. Warning lines
B. Administrative controls
C. Elimination of fall hazards
D. Personal fall arrest systems
Answer: C. Elimination of fall hazards
Rationale: The hierarchy of controls places elimination at the top
because removing the hazard entirely provides the highest level of
protection before engineering controls, administrative controls, and
PPE are considered.
8. Which fall protection system prevents a worker from reaching the
edge rather than arresting a fall?
A. Positioning system
B. Restraint system
C. Personal fall arrest system
D. Safety monitoring system
Answer: B. Restraint system
Rationale: A travel restraint system prevents exposure by restricting
movement before the worker reaches the fall hazard. Since no fall
occurs, arrest forces are eliminated.
4