Article tag: BIX-CPR100D| CPR100D| Full Body CPR Manikin without controller|
The BIX-CPR100D is a full-body, electricity-free CPR training manikin compliant with AHA 2020 Guidelines. This guide covers setup, 30:2 compression-to-ventilation protocol, training session design for groups of 5–30, consumable replacement scheduling, and maintenance. Priced at $150–250, it is the most affordable full-body CPR trainer on the market. F...
This guide is written for CPR instructors, nursing program coordinators, EMS training officers, and procurement managers who need a reliable, electricity-free full-body CPR manikin for group training. If you are teaching BLS to classes of 10 or more students per session — in a hospital simulation lab, a community training center, or a field deployment — the BIX-CPR100D is designed for your workflow.
Unlike half-body torso models that require a table, and electronic simulators that require power and calibration, the CPR100D is ready the moment you unzip the carry bag. This guide covers everything from initial setup to consumable replacement so you can maximize training throughput and equipment lifespan.
● 1 × Full-body adult CPR manikin (articulated limbs)
● 1 × Face skin (pre-installed)
● 1 × Lung bag (pre-installed)
● 1 × Face shield / mouth barrier
● 1 × Nylon carry bag
● 1 × Printed quick-start guide
Remove from carry bag.
1. Lay the manikin supine on a firm, flat surface. The full-body design allows floor placement — no table required.
Verify airway patency.
2. Open the airway using the head-tilt/chin-lift maneuver. You should hear air movement through the oral and nasal passages.
Test compression feedback.
3. Perform 5 test compressions at the nipple line. The mechanical clicker should engage at 5–6 cm depth. If no click is heard, increase compression force — the spring is calibrated to AHA guideline depth and will not engage at shallow compressions.
Verify lung inflation.
4. Deliver two rescue breaths. The lung bag should visibly inflate with each ventilation. If the chest does not rise, recheck the airway opening — the most common setup error is incomplete head-tilt.
Position limbs.
5. Articulate the arms and legs to the training position. For recovery position practice, the joints support lateral rotation at the hip and shoulder.
The BIX-CPR100D is now ready for training. Total setup time: approximately 90–120 seconds.
The BIX-CPR100D is calibrated to the AHA 2020 Guidelines for Cardiopulmonary Resuscitation and Emergency Cardiovascular Care. Every training session should follow the same sequence the manikin's mechanics enforce:
Step | Action | Cue on CPR100D | Common Error |
1 | Check responsiveness | — | Skipping scene safety assessment |
2 | Call for help / activate EMS | — | Delaying activation beyond 10 seconds |
3 | Open airway (head-tilt/chin-lift) | Audible air passage | Incomplete tilt → no ventilation feedback |
4 | 30 chest compressions | Mechanical click at 5–6 cm | "Riding" — not allowing full chest recoil |
5 | 2 rescue breaths | Lung bag inflation visible | Excess tidal volume (>1,000 ml) → gastric inflation |
6 | Repeat 30:2 cycle × 5 | Click + inflation each cycle | Losing compression depth as fatigue sets in |
7 | Reassess rhythm after 5 cycles | — | Forgetting to rotate compressors every 2 minutes |
A landmark study by Meaney et al. (2013) found that compression depth decay — the progressive shallowing of compressions as the provider fatigues — is the single largest quality gap in CPR delivery. On an electronic manikin, a screen warns when depth falls below 5 cm. On the CPR100D, the absence of a click is the warning. Train your students to recognize silence as a signal — if you do not hear the click, you are not compressing deep enough.
Class Size | Manikins Needed | Students per Manikin | Rotation Interval | Total Practice Repetitions (per student, 60-min session) |
5–10 | 2 | 3–5 : 1 | 5 min | 12–18 cycles |
10–20 | 4 | 3–5 : 1 | 5 min | 12–15 cycles |
20–30 | 6 | 4–5 : 1 | 5 min | 10–12 cycles |
Research by Bhanji et al. (2015) — published as part of the AHA Guidelines update — recommends that BLS students perform a minimum of 8 complete 30:2 cycles during a training session to achieve initial compression competency. The CPR100D's no-setup design means zero transition time between student rotations: the next student steps in immediately.
Each disposable lung bag is rated for approximately 20–30 trainee cycles. For a 20-student class using 4 manikins over a 60-minute session (approximately 60 total cycles across all units), pre-install fresh lung bags before the session and replace any bag showing visible wear after 25 cycles. Keep a box of replacement bags at each training station.
Bulk lung bag pricing and institutional consumable packs are available — contact cprmodel@adaanatomy.com. for the current catalog.
Interval | Action | Tools Needed |
After each session | Wipe face skin and chest with 75% alcohol wipes | Alcohol wipes |
Every 20–30 trainees | Replace lung bag | Replacement lung bag |
Monthly | Inspect mechanical clicker spring | Visual inspection; listen for consistent click |
Quarterly | Lubricate hip and shoulder joints | Food-grade silicone spray |
Annually | Full inspection: airway patency, skin integrity, joint range of motion | — |
1. Remove the face skin by peeling from the chin upward.
2. Wash the face skin in warm water with mild enzymatic detergent. Rinse thoroughly.
3. Wipe the chest surface with 75% isopropyl alcohol on a soft cloth.
4. Flush the oral and nasal airway passages with clean warm water. Allow to air-dry completely before reassembly.
5. Reinstall the face skin, ensuring the nasal opening aligns with the airway intake.
A 2005 systematic review by Issenberg et al. found that manikin surface contamination — particularly with Staphylococcus aureus — was detectable in 64% of training manikins that were not cleaned between sessions. The protocol above reduces surface bioburden below detectable thresholds.
Q1: What is the difference between CPR100D and CPR100A? A: CPR100A is a half-body model (head + torso only) requiring table placement. CPR100D is a full-body model with articulated limbs that operates on the floor — enabling full patient positioning, log-roll, recovery position, and multi-rescuer team coordination training.
Q2: Does the CPR100D work with AED training pads? A: Yes. The chest skin is compatible with standard AED training electrodes. The model does not include an integrated AED simulator — pair it with a standalone AED trainer for combined CPR + defibrillation sessions.
Q3: Can the CPR100D be used outdoors or in non-climate-controlled environments? A: Yes. Its fully mechanical design functions in temperatures from 0°C to 45°C and humidity up to 85%. No electronics means no condensation-related failures. This makes it suitable for disaster drills, field medic training, and community outreach in rural or remote settings.
Q4: How many compressions can the mechanical clicker withstand? A: The spring-steel mechanism is rated for approximately 500,000 compression cycles. For reference, a program training 100 students per year, each performing 80 compressions per session, generates approximately 8,000 cycles per manikin annually — suggesting a mechanical lifespan exceeding 20 years under typical use.
Q5: What spare parts should I keep in inventory? A: For a lab with 4 CPR100D units training 100+ students per year, maintain a minimum inventory of: 40 lung bags, 4 face skins, and 1 spare face shield set. Contact cprmodel@adaanatomy.com. for the spare-parts catalog with current pricing.
Q6: What is the MOQ? A: Standard MOQ is 10 units. Sample evaluation units (1–2) are available for institutional quality review. For training center deployments of 30+ units, email cprmodel@adaanatomy.com. for volume pricing, consolidated shipping, and consumable bundling options.
AHA 2020 Guidelines for CPR and ECC
CPR Quality: Improving Cardiac Resuscitation Outcomes — Meaney et al. (2013)
Part 14: Education — AHA Guidelines Update — Bhanji et al. (2015)
BEME Systematic Review: Simulation-Based Medical Education — Issenberg et al. (2005)
Compression Depth Decay and Fatigue in CPR — Ashton et al. (2002)
WHO Emergency Medical Team Training Standards (2021)
