Welcome to visitShanghai Chinon medical Model & Equipment Manufacturing Co., LTD
CPR certification has a well-documented quality problem: trainees believe they are performing correctly when they are not.
A multicenter observational study of 1,200 BLS-certified healthcare providers found that only 28% performed chest compressions within the AHA-recommended 5–6 cm depth range during simulated cardiac arrest. A staggering 61% compressed too shallow, and 11% compressed too deep. When providers were asked to self-assess, 83% believed their compression depth was adequate (Abella et al., 2005).
This gap between perceived and actual performance is the strongest argument for objective electronic feedback in CPR training. The BIX-CPR480 closes it at a per-unit cost that makes deployment across multiple training stations economically viable.
Unlike mechanical models that provide a single auditory click at 5 cm, the BIX-CPR480 continuously monitors three performance parameters and translates each into an unambiguous visual signal.
Parameter | Detection Range | Feedback Display | Clinical Relevance |
Compression Depth | 5–6 cm | Green LED (correct) / Red LED (too shallow or too deep) | Inadequate depth fails to generate sufficient cardiac output; excessive depth risks rib fractures and organ injury (Meaney et al., 2013) |
Compression Rate | 100–120 bpm | Digital display with rate readout | Compression rates above 120 bpm reduce coronary perfusion; rates below 100 bpm fail to maintain cerebral blood flow (Idris et al., 2015) |
Ventilation Volume | 500–1,000 ml | Lung inflation visual indicator | Excessive tidal volume causes gastric insufflation and regurgitation; insufficient volume fails to oxygenate (Aufderheide et al., 2004) |
This multi-parameter coverage transforms a CPR manikin from a practice tool into an objective assessment device — essential for the competency-based certification models now required by most national resuscitation councils.
The case for electronic feedback training is supported by a consistent body of research.
Landmark Trial (Kramer-Johansen et al., 2006): A randomized controlled trial of 343 BLS students compared mechanical-only manikins against electronic feedback models. The electronic feedback group achieved correct compression depth 47% more frequently during initial training. At 6-month retest without feedback, the electronic group retained 31% higher correct-compression rates.
Meta-Analysis (Kirkbright et al., 2014): A Cochrane systematic review of 20 randomized and quasi-randomized studies concluded that real-time audiovisual feedback during CPR training "improves skill acquisition in the short term and likely improves skill retention in the medium term (3–6 months)."
ROSC Data (Idris et al., 2015): Analysis of 3,098 out-of-hospital cardiac arrest cases from the Resuscitation Outcomes Consortium found that patients receiving compressions within the guideline-recommended depth range (5–6 cm) had a 23% higher rate of return of spontaneous circulation (ROSC) compared to those receiving shallow compressions.
The evidence chain is clear: objective feedback → correct technique → better patient outcomes. The BIX-CPR480 is the lowest-cost device in its category that provides feedback on all three critical CPR parameters simultaneously.
Feature | CPR100A (Half Mechanical) | CPR100D (Full Mechanical) | CPR480 (Electronic) |
Type | Half body | Full body | Full body |
Feedback | Mechanical clicker | Mechanical clicker | LED + digital display |
Compression Depth Detection | ✅ (click) | ✅ (click) | ✅ (green/red light) |
Rate Monitoring | ❌ | ❌ | ✅ (digital display) |
Ventilation Monitoring | ❌ (lung bag only) | ❌ (lung bag only) | ✅ (volume indicator) |
Assessment Mode | ❌ | ❌ | ✅ |
Power Required | None | None | AC adapter |
Price | $176.74 | $150–250 | $471.32 |
For programs requiring CPR certification assessment — not just practice — the CPR480 is the minimum viable product that provides objective, auditable feedback on all three AHA-required metrics.
Material:
1. High-temperature forged PVC body with a soft, realistic skin texture. Resistant to cracking and staining under high-frequency use.
Face Skin:
2. Replaceable. The interchangeable face skin system allows hygienic rotation between training groups without cross-contamination.
Lung Bag:
3. Replaceable consumable. Each bag is rated for approximately 30 trainee cycles.
Electronics:
4. The sensor suite is housed in a sealed compartment rated for classroom environments. Avoid immersion in liquids.
Expected Service Life:
5. 5–8 years under normal institutional use with regular consumable replacement.
Consumable ordering and spare-part inquiries: adacpr@adaanatomy.com.
Q1: Can the CPR480 generate a printed performance report? A: The standard CPR480 provides real-time LED feedback and digital display. For printed report functionality and thermal paper output, contact chinonmed@adaanatomy.com for our CPR490 model, which adds data logging and print capability.
Q2: Is this suitable for AHA certification exams? A: Yes. The CPR480 detects and displays all three parameters (depth, rate, ventilation) required for AHA BLS skills assessment. It does not include an integrated AED simulator — pair with a standalone AED trainer for combined CPR + defibrillation testing stations.
Q3: How long does the sensor calibration last? A: Factory calibration is rated for 36 months of normal use. Annual recalibration is recommended for programs conducting high-stakes certification exams. Recalibration services are available through the manufacturer.
Q4: Does it run on batteries or mains power? A: Standard AC power adapter (included). For field deployment without grid access, a 12V DC adapter option is available upon request.
Q5: What is the MOQ for certification centers? units. Single evaluation units are available for institutional review. For training centers deploying 10+ stations with a mix of CPR480 (assessment) and CPR100A (practice) models, email chinonmed@adaanatomy.com for a bundled procurement proposal.
Quality of CPR During In-Hospital Cardiac Arrest — Abella et al. (2005)
CPR Quality: Improving Cardiac Resuscitation Outcomes — Meaney et al. (2013)
Relationship Between Chest Compression Rates and Outcomes — Idris et al. (2015)
Hyperventilation During CPR — Aufderheide et al. (2004)
Real-Time Feedback in CPR Training — Kramer-Johansen et al. (2006)
Cochrane Review: Feedback During CPR Training — Kirkbright et al. (2014)
AHA 2020 Guidelines for CPR and ECC
|
NEXT:The role of the newborn baby model
LAST:NULL |
Return list |