Solution Overview
Built on the Iveco NJ6556ECM National VI diesel chassis, this Iveco negative pressure ambulance is equipped with a complete negative pressure medical cabin, oxygen supply system, lighting & electrical facilities, intelligent communication devices and electric stretcher transportation system. Designed for emergency centers of hospitals, public health emergency medical teams and pre-hospital patient transfer scenarios, it integrates patient transport, infectious disease isolation, on-site first aid and remote information transmission functions. The vehicle significantly improves the efficiency of pre-hospital emergency treatment and avoids various safety and operational pain points in conventional emergency transfer, such as hospital-acquired infection risks, incomplete equipment, inconvenient operation and delayed communication.
I. Core Configurations · Efficiency Improvement & Risk Avoidance Analysis
1. Vehicle Chassis & Exterior Warning System
Configuration: Iveco 6-wheel chassis, full set of LED warning & strobe lights, privacy window film for medical cabin, standardized medical exterior markings
✅ Efficiency Improvement
The mature six-wheel chassis delivers strong load capacity and stable driving. Complete warning light sets enhance road recognition to clear emergency passage rapidly. Privacy film protects patient privacy, and exterior markings comply with medical emergency specifications.
⚠️ Risks Avoided
Ordinary chassis have insufficient load capacity and risk overloading after installing medical equipment. Single type warning lights offer poor identification, making it hard for other vehicles to yield. Standard windows fail to protect patient privacy; non-compliant exterior appearance cannot pass medical qualification acceptance.
2. Core Negative Pressure Isolation System (Suzhou Antai ANC-Ⅱ Negative Pressure Equipment)
✅ Efficiency Improvement
It supports real-time internal and external pressure difference monitoring, pressure difference alarm, high-efficiency filtration and automatic fan adjustment. A stable negative pressure environment is maintained inside the medical cabin to prevent aerosol leakage, meeting transfer standards for patients with respiratory infectious diseases.
⚠️ Risks Avoided
Conventional ambulances without negative pressure devices easily cause cross-infection among medical staff and surrounding environment when transporting infectious patients. Simple negative pressure equipment lacks pressure monitoring, so effective isolation cannot be verified, bringing severe hidden dangers of nosocomial infection.
3. Constant Temperature & Ventilation System for Medical Cabin (Independent Air Conditioner, Rear Heater, Ventilation Fan)
✅ Efficiency Improvement
The medical cabin is fitted with front-outlet independent air conditioning, separate heater and dedicated ventilation fan to independently regulate cabin temperature, create a stable and comfortable environment for critically ill patients and accelerate air circulation.
⚠️ Risks Avoided
Unified cooling and heating control aggravates the condition of critically ill patients under extreme high/low temperature. Shared air conditioning between the cab and medical cabin cannot adjust the cabin environment separately, which is unfavorable for patient monitoring.
4. Medical Cabin Interior Layout (ABS Integrated Interior, Antibacterial Medical Flooring, Partition with Observation Window, Multifunctional Medical Cabinets, Multiple Medical Seats)
✅ Efficiency Improvement
Antibacterial medical flooring resists disinfectant corrosion and enables easy cleaning. Integrated medical cabinets accommodate oxygen cylinder holders, medicine hanging cabinets and instrument storage zones. Reasonably arranged forward-facing and backward-facing seats allow multiple medical staff to perform rescue operations simultaneously. The observation window on the partition helps drivers monitor patient conditions in real time during driving.
⚠️ Risks Avoided
Ordinary interior materials cannot withstand disinfection and breed bacteria easily. Scattered storage of medicines and instruments wastes valuable time during emergency treatment. Improper seat layout results in narrow operation space for rescue. Without an observation partition, drivers cannot detect sudden patient conditions in a timely manner.
5. Complete Stretcher Transportation System (Electric Loading Stretcher + Carbon Fiber Scoop Stretcher, Multiple Supporting Stretchers)
✅ Efficiency Improvement
The WSX electric stretcher enables electric loading and unloading, allowing a single operator to complete patient transfer. Supporting scoop stretchers, soft stretchers and stair stretchers adapt to various transfer scenarios including flat ground, stairwells and narrow spaces.
⚠️ Risks Avoided
Fully manual stretchers require massive manpower and easily cause lumbar strain for paramedics. A single type of stretcher cannot handle stair and narrow-space transfer, delaying rescue of critically ill patients.
6. On-Board Centralized Oxygen Supply System (10L Medical Oxygen Cylinders, Oxygen Pipeline, Humidifier, Pressure Regulator Assembly)
✅ Efficiency Improvement
Built-in fixed oxygen pipelines with reasonably arranged oxygen terminals allow quick connection of oxygen equipment upon boarding, delivering continuous oxygen supply for critically ill patients.
⚠️ Risks Avoided
Loose portable oxygen cylinders are prone to collision and tipping during transit. Temporary pipeline connection consumes precious time, leading to delayed oxygen supply in emergency rescue.
7. Lighting & Integrated Electrical System (Multiple Groups of LED Medical Lamps, UV Disinfection Lamps, AC & DC Sockets, 4000W Inverter Charger, Shore Power Interface, Backup Storage Battery)
✅ Efficiency Improvement
Dual power supply mode works under driving and parking conditions. UV lamps support delayed and timing disinfection. Sufficient AC and DC sockets allow simultaneous operation of monitors, ventilators and other medical equipment. Shore power connection supports long-term parking operation of medical devices.
⚠️ Risks Avoided
Insufficient cabin lighting leads to poor vision during night emergency treatment. Lack of disinfection facilities leaves bacteria residue after patient transfer. Insufficient power capacity cannot support multiple emergency devices; no backup power creates risks of equipment shutdown after engine off.
8. Communication & Remote Dispatching System (Front-rear Intercom, GPS & Rearview Camera, 5G Network System, Reserved Monitoring Interface)
✅ Efficiency Improvement
Intercom enables real-time communication between medical staff and drivers. 5G network supports remote transmission of vital signs data. Rearview camera ensures safe driving in narrow sections, and reserved interfaces facilitate later expansion of remote command.
⚠️ Risks Avoided
No real-time communication channel between cab and medical cabin. On-site emergency data cannot be synchronized to hospital emergency departments, preventing advance preparation. Blind zones during reversing easily trigger safety accidents.
9. Auxiliary Medical Accessories (Infusion Hooks, Safety Hammers, Fire Extinguishers, Sharps Containers, Medical Waste Bins)
✅ Efficiency Improvement
Dedicated storage positions for emergency accessories. Medical waste and sharps are stored separately. Foldable infusion hooks facilitate infusion treatment and fix pipelines stably during transfer.
⚠️ Risks Avoided
Random placement of medical sharps and waste causes occupational exposure and cross infection. Without fixed infusion points, pipelines are hard to secure during patient transportation.
II. Overall Value Summary
This Iveco negative pressure ambulance integrates negative pressure isolation for epidemic prevention, critical patient transfer, on-site first aid, constant temperature monitoring, electric stretcher transportation, remote medical communication and continuous power supply.
- The negative pressure system fundamentally reduces nosocomial infection risks caused by transporting infectious patients;
- Integrated medical cabin layout and complete stretcher equipment greatly shorten emergency preparation and patient transfer time, boosting pre-hospital rescue efficiency;
- Complete oxygen supply, constant temperature ventilation and multi-channel power supply system guarantee stable operation of life support equipment during long-distance transport of critically ill patients;
- The 5G communication system connects pre-hospital and in-hospital information channels to realize pre-admission and shorten hospital response time;
- Full sets of standardized medical configurations adapt to multiple missions including conventional first aid and infectious disease transfer, avoiding common pain points such as insufficient epidemic prevention capacity, unreasonable spatial layout and power shortage.
