TSAC-F program design, start from the job

Given the three-tier needs analysis table, which physical quality should be prioritized during the current training block?

1. Upper body hypertrophy focus
   Muscle size does not address patrol endurance, and added mass makes altitude work harder.
2. Anaerobic power maintenance
   Short power efforts are not what the patrols demand, and the gap is aerobic.
3. Maximal strength development
   Strength is already high; more of it does not close the aerobic gap.
4. Aerobic capacity development
   Prolonged dismounted patrols at altitude are aerobic tasks, and the aerobic base is this operator's weakest quality, so it is the largest gap to close.
5. Explosive power generation
   Power is not the limiting quality for long patrols at altitude.

An operator is six weeks post-injury, past the usual tissue-healing timeline, but keeps failing task-specific functional tests. Despite command pressure to return the operator to duty, what should the facilitator recommend?

1. Modify the tests so the operator can pass
   Changing the tests to produce a pass removes the safeguard they provide.
2. Full duty now to meet command's timeline
   Command pressure does not change the operator's capacity, and early return raises re-injury risk.
3. Max-load testing to force adaptation
   Maximal loading on a body that fails functional tests risks re-injury and does not 'force' adaptation.
4. Full duty because healing time has passed
   Elapsed time says tissue may have healed, not that function has returned.
5. No full duty until functional tests are passed
   Tissue healing time is a minimum, not proof of readiness; repeated failure on task-specific tests shows the operator cannot yet meet duty demands safely.

A unit transitions to a high-demand deployment. Which load carriage strategy best minimizes stress fracture risk?

1. Stage progressive gear loading
   Bone adapts to load over weeks, so building carried weight in planned steps lets tissue keep pace and lowers stress-fracture risk.
2. Begin maximum operational loadouts
   Starting at full combat load is the classic setup for overuse and stress injuries.
3. Incorporate daily heavy squats
   Daily heavy squatting adds recovery demand and does not progressively expose tissues to carrying load.
4. Perform unweighted endurance training
   Training without load never prepares bones and soft tissue for the weight they will carry.
5. Focus exclusively on plyometrics
   Plyometrics alone do not replicate sustained load carriage and add impact volume.

A tactical operator returning from joint rehabilitation displays movement deficits and reports averaging five hours of sleep. What should be prioritized to reduce injury recurrence?

1. Focus upon localized hypertrophy
   Local muscle size does not correct movement deficits or sleep loss.
2. Address sleep and movement deficits
   Short sleep and residual movement deficits are both modifiable risk factors for re-injury, so they are the priorities as the operator returns.
3. Isolate the injured articulation
   Isolation work ignores the whole-body movement deficits seen in the operator.
4. Prescribe pain medication
   Prescribing medication is outside a facilitator's scope and masks symptoms rather than reducing risk.
5. Incorporate intense aerobic conditioning
   Hard conditioning adds fatigue for someone already short on sleep.

Which exercise protocol offers the GREATEST biomechanical and bioenergetic transfer to dragging a casualty 50 meters while wearing heavy tactical body armor?

1. Continuous steady-state distance running
   Long steady runs train a different energy system and carry no resisted pulling.
2. High-volume barbell front squats
   Squats build relevant leg strength but not the pulling pattern or the metabolic demand of a 50 m drag.
3. Heavy sled drags over short distances
   A heavy sled dragged a short distance matches the casualty drag's resisted, ground-based pattern and its short, high-effort energy demand.
4. Maximum velocity unloaded sprints
   Sprinting without load misses the heavy resisted component of the drag.
5. Isolating seated machine leg extensions
   A seated single-joint exercise has almost no transfer to a whole-body drag.

Based on the time-motion analysis table, which work-to-rest ratio and duration accurately simulates the bioenergetic demand of this task?

1. 15 s work, 165 s rest (1:11)
   Only the breach is counted as work, ignoring 45 s of moderate clearance.
2. 180 s work, no rest (1:0)
   Counting the low-intensity holding phase as work erases the recovery the task actually contains.
3. 60 s work, 60 s rest (1:1)
   The work bout is right, but the recovery is half as long as the holding phase in the task.
4. 45 s work, 135 s rest (1:3)
   This drops the 15 s maximal breach, the most demanding part of the task.
5. 60 s work, 120 s rest (1:2)
   Breach and clearance together are 60 s of maximal-to-moderate work, and the 120 s holding phase is low intensity, so a 1:2 interval reproduces the task's demand.

A unit follows a fixed cycle: four months of home-station training, a six-month deployment with limited facilities, then reintegration. To deploy at peak readiness, when should the program emphasize building strength and work capacity?

1. In the home-station months before deploying
   Home station is when facilities, time and predictable schedules allow progressive overload, so capacity is built there and then maintained once deployed.
2. Only in the last week before departure
   A single week cannot build strength or work capacity, and heavy loading right before departure leaves personnel fatigued.
3. In the reintegration weeks after return
   Rebuilding after return comes too late to affect readiness for this deployment.
4. During the six-month deployment itself
   Limited facilities and operational demands make deployment a phase for maintaining qualities, not building them.
5. Evenly across all three phases of the cycle
   Spreading the emphasis ignores that each phase offers very different conditions for training.

Compare the four monitoring protocols in the feasibility matrix. Which protocol is MOST sustainable for a deployed tactical unit?

1. Protocol D (20 minutes)
   Blood lactate sampling is invasive, and 31 % compliance makes it the least sustainable.
2. Protocol C (1 minute)
   One minute a day with 94 % compliance and no hardware is the protocol a deployed unit can sustain; data that are not collected cannot guide training.
3. Protocol B (10 minutes)
   Heart-rate strap data are useful, but 55 % compliance and 10 minutes a day undermine the protocol.
4. Protocol A (15 minutes)
   Force plates are heavy, costly hardware, and 42 % compliance leaves most of the data missing.

Review the proposed 6-week task simulation progression. Which progression stage introduces an unsafe stimulus by violating foundational capacity principles?

1. The changes in Week 2
   A 5 kg and 25 m increase with no cognitive load is a modest single step.
2. The changes in Week 5
   Only load rises, by 5 kg, with distance and cognitive demand unchanged.
3. The changes in Week 3
   Week 3 adds small increases and a simple memory task, a manageable combined step.
4. The changes in Week 4
   Load jumps from 30 to 50 kg, distance doubles to 200 m and complex dual-tasking starts, all at once; three large changes in one step violate gradual progression.
5. The changes in Week 6
   By week 6 the increases are small (5 kg, 50 m) on an established base.

When introducing cognitive stressors to a law enforcement tactical simulation, which scenario safely applies dual-tasking principles without creating unacceptable injury risk?

1. Solving arithmetic during a maximal 1RM back squat
   A maximal lift leaves no margin for distraction.
2. Reading dispatch notes while sprinting downhill on rough ground
   Sprinting downhill over uneven ground already carries high fall risk before any reading is added.
3. Interviewing a suspect while learning an Olympic lift
   A first exposure to a complex lift needs full attention; dividing it invites technique errors and injury.
4. Memorization drills on an unharnessed high-ropes course
   Working at height without a harness is unsafe even without a cognitive task.
5. Recalling a suspect description during a moderate sled push
   A moderate sled push is a stable, well-learned movement with little consequence if attention wavers, so cognitive load can be added safely.

When evaluating environmental and operational constraints for night-shift patrol officers experiencing severe sleep disruption, which administrative control should be implemented first?

1. Adjusting training times for recovery
   Moving sessions to times that protect sleep, for example not right before daytime sleep, eases the disruption instead of adding to it.
2. High-volume hypertrophy blocks
   High-volume blocks raise recovery demands without addressing sleep disruption.
3. Early-morning fasted cardio
   Fixed early-morning sessions can fall in the officers' sleep window, and fasting adds stress.
4. Mandatory twice-daily training sessions
   Two sessions a day cut into the sleep and recovery time these officers already lack.
5. More frequent high-intensity intervals
   More high-intensity work adds stress to an already sleep-deprived group.

A tactical program relies exclusively on daily high-repetition task simulations wearing full gear. Which foundational quality will most likely be compromised without separate, dedicated training blocks?

1. Heat tolerance capacity
   Training in full gear adds heat exposure rather than removing it.
2. Task-specific proficiency
   Daily task practice is exactly what develops task proficiency.
3. Maximal muscular strength
   Repeated high-repetition simulations are submaximal and fatiguing, so they never provide the heavy loading needed to maintain or build maximal strength.
4. Muscular endurance
   High-repetition work is a muscular-endurance stimulus.
5. Aerobic endurance
   Long, repeated simulations already tax aerobic endurance.

An operator rucks 5 km with a 20 kg pack. The next week the plan is 6 km with a 25 kg pack. Using pack mass x distance as the load metric, by what percentage does ruck load increase?

1. 25.0%
   This counts only the heavier pack and ignores the extra kilometer.
2. 150.0%
   Next week's load is 150 % of this week's, which is a 50 % increase, not 150 %.
3. 20.0%
   This counts only the added distance and ignores the heavier pack.
4. 50.0%
   Pack mass x distance goes from 100 to 150 kg-km, a 50 % increase.
5. 45.0%
   Adding the 25 % load increase to the 20 % distance increase ignores that the two multiply (1.25 x 1.20 = 1.50).

A unit wants to improve heavy-load road-march performance over a training cycle. Which training combination does the load-carriage literature support?

1. Upper-body hypertrophy blocks without marches
   Upper-body size does not address the leg, trunk and aerobic demands of rucking.
2. Distance running with no loaded marches
   Running builds aerobic fitness but leaves out the strength and load tolerance heavy marches need.
3. Aerobic and resistance work with road marches
   Programs that combine aerobic training, resistance training and progressive loaded marches improve load-carriage performance more than one fitness component alone.
4. Resistance training with no aerobic work
   Strength helps carry load, but without aerobic work and marching it does not cover the whole demand.

A unit's PT is dominated by long runs. According to FM 7-22, what happens to two- and three-mile run scores if running volume is cut?

1. They fall sharply within a few weeks
   The manual states the opposite: properly intense running preserves run scores.
2. They hold if running intensity is kept
   FM 7-22 notes that long runs correlate poorly with combat tasks and that reducing running volume does not hurt run-test results as long as proper intensity is used.
3. They improve only with more total mileage
   More mileage is not needed; intensity matters more than volume.
4. They hold only if long runs continue
   Long runs are exactly what the doctrine scales back.

A soldier's permanent profile prohibits only running. Under FM 7-22, how should the soldier train when the unit runs?

1. Skip PT on every running day
   Skipping PT loses training the profile still allows.
2. Run at a reduced pace with the unit
   Running in any form violates the profile; exercises not listed are not authorized.
3. Stay in unit PT and walk or use machines
   A soldier whose permanent profile bars only running stays in the unit program and walks or uses endurance machines during running sessions instead of joining reconditioning.
4. Move to the reconditioning program
   Reconditioning is for deconditioned or injured soldiers, not one with a running-only restriction.