What is the UGSSO2 charging capacity?

The IAF-UGSSO2 delivers approximately 150–200 LPM using an air-driven oxygen booster and compresses gaseous oxygen up to 350 kg/cm² (5000 PSI), ensuring rapid and safe aircraft cylinder charging without electrical components.

What certifications does it hold?

The system complies with ASME Section VIII, MIL-SPECS, ASTM G93, and ISO 15001 standards. It is certified for oxygen service cleanliness and aviation breathing oxygen purity requirements.

What is the cycle turnaround time?

Typical aircraft cylinders (5–10 liters) can be charged to 150 kg/cm² within 5–8 minutes using dual boosters and pressure equalization, reducing cycle time by up to 30%.

Is it compatible with IAF infrastructure?

Yes, it integrates seamlessly with Indian Air Force infrastructure and supports multiple aircraft types including Su-30MKI, MiG-29, Rafale, Mirage 2000, and C-17 using universal adapters.

What maintenance protocols are required?

Maintenance includes daily leak checks and inspections, bi-annual seal replacement and calibration, and 5-year hydrostatic testing of cylinders as per PESO regulations.

What are the pressure distribution ranges?

The system provides four pressure ranges: 1–5.5 kg/cm² (low), 150–230 kg/cm² (medium), 230–350 kg/cm² (high), and up to 350 kg/cm² maximum flow.

How is oxygen purity monitored?

An inline analyzer monitors moisture, particulates, and hydrocarbons in real time. If purity drops below 99.5%, safety interlocks shut down the system automatically.

How does internal boosting work?

The system uses cascading to recover low-pressure oxygen from storage banks and recompress it, achieving up to 95% utilization efficiency.

What are the primary safety features?

Safety features include CO2 flooding system, pressure relief valves, burst discs, blast shielding, and air-driven boosters eliminating electrical ignition risks.

Why use an air-driven booster?

Air-driven boosters eliminate electrical spark risks and use compressed air to safely achieve pressures up to 350 kg/cm² in hazardous oxygen environments.

What is the dual-booster advantage?

Dual boosters provide redundancy and parallel operation, doubling charging capacity and ensuring uninterrupted operations during high-demand scenarios.

Can it support LOX and OBOGS?

Yes, it supports GOX requirements for aircraft using LOX or OBOGS systems, including emergency cylinder charging and system purging.

How is the system transported?

It is mounted on a rugged vehicle chassis, allowing mobility across airbases and rough terrain with integrated storage, boosters, and distribution systems.

Is the platform customizable?

Yes, it is modular and customizable, with scalable storage banks, adjustable pressure ranges, and adaptable connectors for various aircraft systems.

Oxygen Charging & Distribution Vehicle UGSSO2

Name: UGSSO2 Oxygen Charging & Distribution Vehicle
Brand: Neometrix Engineering Pvt Ltd

About

UGSSO₂ is a process-engineered Oxygen Charging & Distribution Vehicle developed to deliver safe, controlled, and high-efficiency aviation oxygen servicing in demanding defence environments. Designed as a fully mobile ground support solution, it integrates high-pressure oxygen storage, dual air-driven boosters, and a multi-pressure distribution system within a protected canopy—enabling precise and repeatable charging of aircraft oxygen systems directly on the flight line. The unit ensures that oxygen, a critical life-support resource at high altitudes, is handled with strict adherence to pressure control, cleanliness, and purity requirements.

Deployed extensively at Indian Air Force hangars and airfields, UGSSO₂ supports rapid aircraft oxygen replenishment, minimizing turnaround time between sorties. Its onboard regulation and multi-outlet distribution architecture eliminate the need for multiple standalone cylinders and regulators, reducing operational complexity while ensuring accurate pressure delivery for different aircraft configurations. Integrated oxygen purity monitoring further guarantees compliance with aviation-grade standards, making gas quality a controlled and verifiable parameter.

Key differentiators include its mobile design for on-site servicing, onboard boosting capability to maximize usable oxygen inventory, and compliance-driven engineering aligned with defence aviation protocols. The inclusion of safety features such as CO₂-based fire suppression within the canopy enhances operational reliability in high-risk environments.

Operationally, UGSSO₂ reduces aircraft ground time, minimizes oxygen loss and handling risks, and standardizes servicing procedures across bases. It is ideally suited for Indian Air Force, defence MRO facilities, and airbase logistics teams requiring dependable, high-throughput oxygen charging systems.

For integrated ground support ecosystems, it complements solutions like the Hydraulic Servicing Trolley, enabling comprehensive aircraft maintenance operations.

Oxygen charging system – high-pressure gas boosting and delivery setup

System Tour

Module Walkthrough

Automatic visual tour of the high-pressure oxygen system components.

UGSSO₂ Main Oxygen Charging Vehicle (Road-Ready Configuration)

Rugged, enclosed mobile aviation oxygen ground support equipment—integrating high-pressure oxygen storage, air-driven oxygen boosting, and multi-pressure distribution for base-wide deployment.

Complete UGSSO₂ Deployment (Charging Vehicle + Drive-Air Supply)

Full flight-line setup showing the oxygen charging vehicle operating with the towable compressor trolley—powering air-driven oxygen boosters for fast, controlled aircraft oxygen bottle charging.

Rear Oxygen Charging & Distribution Control Console

Centralized operator interface with pressure gauges, bank selection and isolation—engineered for repeatable high-pressure oxygen filling, correct outlet selection, and safe servicing workflow.

Towable Air Compressor Trolley (Drive-Air Supply for Boosters)

Dedicated high-flow compressor unit supplying stable drive air for the oxygen booster system—built to support consistent boosting performance in remote and flight-line conditions.

Canopy-Integrated Skids & Quick-Service Access Bays

Open-bay view of integrated subsystems—housing the oxygen booster modules, controls, and protected plumbing for higher uptime, easier maintenance, and disciplined aviation oxygen servicing.

Resources

Technical Downloads

Access detailed engineering drawings and pneumatic schematics for the UGSSO₂ Oxygen Ground Support System.

PDF • SCHEMATIC

Pneumatic Circuit Diagram

Complete circuit layout showing oxygen charging, internal boosting, distribution panels, and pressure regulation logic.

Download File

PDF • GA DRAWING

Vehicle Assembly Layout

General Arrangement of the Oxygen Charging Vehicle, detailing cylinder skid placement, booster location, and panel doors.

Download File

PDF • SYSTEMS GA

Vehicle Systems Layout

Detailed view of internal systems: CO₂ flooding system, booster assembly, fire alarm panel, and PLC control integration.

Download File

PDF • TROLLEY GA

Air Compressor Trolley

General Arrangement of the external towable compressor unit, showing dimensions, tank location, and tow bar setup.

Download File

Support

Frequently Asked Questions

Common queries regarding technical capabilities, safety features, and operational deployment of the UGSSO₂ system.

The IAF-UGSSO2 is designed for high-capacity operational demands, featuring an air-driven oxygen booster system capable of delivering significant charging capacities. Specifically, it achieves a standard output capacity of approximately 150 to 200 Liters Per Minute (LPM) under nominal operational conditions, scaling based on the input air drive pressure. The system compresses medical-grade or aviation-grade gaseous oxygen (GOX) to a maximum pressure of 350 kg/cm² (roughly 5000 PSI). This robust pneumatic boosting capability ensures rapid, reliable aircraft cylinder replenishment without the need for electrical power components near the highly reactive oxygen flow stream.

The IAF-UGSSO2 strictly adheres to both military and international aviation ground support equipment (GSE) standards. It holds compliance certifications for explosive atmosphere safety and high-pressure gas handling (such as ASME Section VIII for pressure vessels and relevant MIL-SPECS for ruggedized military deployment). Furthermore, all oxygen-wetted components are rigorously cleaned and certified for oxygen service in accordance with ASTM G93 and ISO 15001 standards to prevent hydrocarbon contamination. The integrated purity monitoring system is also factory-calibrated to meet strict aviation breathing oxygen (ABO) purity specifications, guaranteeing safe life-support gas delivery.

Turnaround time for oxygen charging cycles is heavily optimized through the system's dual-booster configuration and integrated multi-pressure distribution panel. For a standard fighter aircraft equipped with a typical 5-liter to 10-liter onboard oxygen cylinder, a complete charging cycle from a depleted state to 150 kg/cm² takes approximately 5 to 8 minutes. This rapid replenishment is achieved by utilizing the parallel running mode of the boosters. Additionally, the internal scavenging feature equalizes pressure between the main storage banks and the target cylinder before active boosting begins, cutting overall cycle time by up to 30%.

Yes, the UGSSO2 is specifically engineered for seamless integration with existing Indian Air Force (IAF) ground support infrastructure and protocols. The vehicle features universal charging adapters and multi-pressure distribution ports (ranging from 1 kg/cm² to 350 kg/cm²) that interface flawlessly with both Russian-origin (e.g., Su-30MKI, MiG-29) and Western-origin (e.g., Rafale, Mirage 2000, C-17) aircraft fleets. Its standardized pneumatic drive requires only standard compressed air (typically 7 to 10 bar) commonly available on airbases via mobile compressors or standard shop air, making it highly versatile for immediate deployment across diverse flight lines.

Maintenance for the UGSSO2 is structured around preventative and predictive schedules to ensure maximum flight-line availability. Daily protocols involve visual inspections of high-pressure hoses, leak checks using oxygen-safe leak detection compounds, and verification of the CO2 total flooding fire suppression system. Bi-annual maintenance requires the replacement of specific dynamic seals within the air-driven boosters and recalibration of the inline oxygen purity monitors. Every five years, the high-pressure storage cylinders (banked GOX) must undergo statutory hydrostatic stretch testing in accordance with PESO (Petroleum and Explosives Safety Organization) regulations to ensure vessel integrity under maximum stress.

The distribution panel provides four distinct, regulated pressure ranges to safely service various aircraft systems without over-pressurization risks. Port I delivers low pressure between 1 to 5.5 kg/cm² for specific medical or low-demand applications. Port II provides medium pressure from 150 to 230 kg/cm², standard for many legacy aircraft. Port III handles high pressure from 230 to 350 kg/cm², suitable for modern high-altitude fighters. Finally, Port IV allows for maximum unrestricted flow up to the peak 350 kg/cm² threshold. High-precision pressure regulators and calibrated gauges govern each dedicated outlet.

Maintaining Aviation Breathing Oxygen (ABO) standards is critical to prevent pilot hypoxia. The UGSSO2 integrates a sophisticated inline purity monitoring system that continuously samples the gas stream during distribution. This digital analyzer checks for moisture content (dew point), particulate matter, and hydrocarbon presence down to parts-per-million (ppm) levels. If the system detects that the oxygen purity drops below the mandated 99.5% threshold, automated safety interlocks instantly shut down the boosting process and isolate the distribution valves, preventing contaminated gas from ever reaching the aircraft's critical life-support cylinders.

Internal oxygen boosting, or cascading, is an efficiency mechanism designed to maximize the utilization of stored oxygen. The vehicle features multiple interconnected high-pressure storage banks. Instead of venting residual gas when a bank's pressure drops below the target charging pressure, the UGSSO2 routes this low-pressure gas into the air-driven booster. The booster then compresses it and transfers it to another bank or directly to the aircraft. This scavenging capability ensures that nearly 95% of the stored oxygen is utilized, dramatically reducing logistical resupply frequency and overall operational costs for the airbase.

Operating with high-pressure oxygen requires extraordinary safety measures. The UGSSO2 is equipped with a comprehensive CO2 total flooding system inside the enclosed canopy, capable of rapidly suppressing any localized fire. All pneumatic lines feature burst discs and pressure relief valves (PRVs) calibrated precisely to prevent catastrophic over-pressurization. The physical design incorporates an armored blast shield separating the operator console from the high-pressure storage banks. Furthermore, the system uses entirely air-driven pneumatics for the boosting process, completely eliminating electrical spark hazards from the oxygen handling zone to ensure absolute explosive atmosphere safety.

The deployment of an air-driven oxygen booster is a deliberate engineering choice prioritizing safety and reliability in hazardous environments. Unlike electromechanical compressors, air-driven pumps do not require electrical power near the pure oxygen stream, eliminating the risk of electrical arcs causing ignition. They utilize standard compressed shop air (7-10 bar) to drive a large-area piston, which in turn compresses the oxygen in a smaller-area high-pressure chamber. This pneumatic intensification allows the system to reach pressures up to 350 kg/cm² safely, while remaining highly robust against the dust, heat, and vibration typical of military flight lines.

The UGSSO2 incorporates a dual air-driven oxygen booster configuration to provide unmatched operational redundancy and speed. Operators can select between a Duty/Standby mode, where one booster remains in reserve to guarantee zero downtime during scheduled maintenance or unexpected seal failures. Alternatively, during high-tempo scramble scenarios or large fleet deployments, both boosters can be engaged in Parallel mode. Running simultaneously, they effectively double the volumetric charging capacity (LPM), significantly cutting down the total turnaround time required to service multiple aircraft, ensuring the squadron remains combat-ready without logistical bottlenecks.

While the primary function of the UGSSO2 is to charge Gaseous Oxygen (GOX) systems directly, it plays a vital support role for fleets utilizing Liquid Oxygen (LOX) or On-Board Oxygen Generating Systems (OBOGS). Aircraft with OBOGS frequently carry high-pressure emergency bailout GOX cylinders that require periodic ground replenishment. Similarly, LOX handling facilities rely on high-pressure GOX for purging lines, testing, and backup supplies. The UGSSO2 acts as the central mobile hub for these tasks, ensuring that regardless of the primary breathing system, all secondary and emergency high-pressure gaseous requirements are fully met.

The entire UGSSO2 system is engineered as a highly mobile, self-contained unit mounted on a ruggedized commercial or military-spec truck chassis, depending on the procurement requirement. This vehicular integration allows it to traverse unprepared tarmac, taxiways, and rough terrain surrounding forward operating bases. It features a weather-proof, structurally reinforced canopy with roll-up shutter doors for rapid access to the control panels. Because the high-pressure gas banks, boosters, and distribution systems are permanently integrated into the vehicle's subframe, it eliminates the need for forklifts, trailers, or stationary gas houses, offering true "drive-up" servicing.

Yes, the UGSSO2 is fundamentally a modular platform designed to be customized to specific end-user requirements. The high-pressure storage bank configuration can be scaled up or down based on the expected sortie generation rate and base logistics. The multi-pressure distribution panel can be recalibrated with specific pressure regulators to match the exact requirements of a unique aircraft fleet. Furthermore, Neometrix can provide customized charging hose interfaces, adapters, and coupling mechanisms to ensure perfect compatibility with both legacy Eastern-bloc pneumatic fittings and modern NATO-standard aviation quick-disconnect charging ports.

Details

UGSSO₂ – Oxygen Charging & Distribution Vehicle
Mobile High-Pressure Aviation Oxygen Ground Support System (Storage + Boosting + Multi-Pressure Distribution)

Designed in compliance with IAF Ground Support Equipment Standards
Introduction — why aircraft need oxygen, and why oxygen ground support must be engineered like a process system

Product overview
UGSSO₂ is a mobile, canopy-integrated oxygen ground support system designed to:
• Build a high-pressure onboard oxygen reserve via controlled boosting
• Provide multi-pressure aircraft servicing outlets through a Distribution Manifold
• Maintain high availability with dual-booster redundancy
• Improve oxygen logistics efficiency through internal boosting (better utilization of residual pressure)
• Strengthen operational governance using Oxygen Purity Standards monitoring and protective logic
• Protect the enclosed equipment environment using fire detection + CO₂ total flooding suppression

UGSSO₂ is part of Neometrix’s broader portfolio of advanced aerospace systems. 
Explore all Neometrix ground support systems to understand the complete ecosystem of hydraulic, pneumatic, and oxygen handling technologies.

What UGSSO₂ is built to do
1) Create an onboard high-pressure oxygen reserve
UGSSO₂ receives oxygen from external supply cylinders and boosts it into onboard storage banks using a controlled Oxygen Charging Rate.

2) Service aircraft oxygen units through defined outlet pressure regimes
UGSSO₂ provides dedicated distribution outlets across multiple pressure windows through a Distribution Manifold.

System architecture (two-unit solution)

A) Main oxygen charging vehicle
• Banked high-pressure oxygen storage skid including Cryogenic Storage compatibility  
• Oxygen boosting skid with two independent air-driven boosters supported by  PSA (Pressure Swing Adsorption)systems  
• Rear operator station  
Right section – Distribution & aircraft servicing:
• Controlled charging via Regulator Assembly  
• Venting and shutdown practice  

For continuous oxygen supply in large-scale aviation environments, these systems can be complemented with gas generation systems for aviation, ensuring uninterrupted oxygen availability across airbases.

5) Oxygen purity monitoring — quality treated as a controlled parameter
UGSSO₂ incorporates  Oxygen Purity Standards monitoring/control logic so oxygen quality is not assumed.

Safety engineering — oxygen reality, not brochure safety
The system architecture supports controlled operation by preventing unsafe states such as:
• exceeding storage pressure limits using Pressure Relief Valve systems  

These safety-critical mechanisms are aligned with Neometrix’s broader expertise in precision pressure regulation technology, ensuring stable and controlled operation under extreme pressure conditions.

Technical Specifications
A) Vehicle & platform

  
    Parameter
    Specification
  
  
    Deployment
    Mobile, truck-mounted oxygen charging & distribution vehicle
  
  
    Operating environment
    Outdoor / airbase operations
  
  
    Fuel tank capacity (vehicle)
    60 L
  
  
    Tyre pressure (vehicle)
    115 PSI
  
  
    Measured axle loads
    Front: 1925 kg / Rear: 3025 kg
  
  
    Gross vehicle weight (GVW)
    4995 kg
  


B) Onboard oxygen storage (high-pressure bank system)

  
    Parameter
    Specification
  
  
    Storage working pressure
    350 kg/cm² class
  
  
    Cylinder water capacity
    40 L
  
  
    Total cylinders
    12
  
  
    Bank arrangement
    4 banks × 3 cylinders per bank
  
  
    Cylinder height
    1135 mm
  
  
    Cylinder diameter
    Ø232 mm
  
  
    Approx. cylinder weight
    90 kg each
  
  
    Cylinder color
    Black
  


C) Oxygen boosting (dual booster skid)

  
    Parameter
    Specification
  
  
    Booster configuration
    2 × air-driven oxygen boosters
  
  
    Operating modes
    Duty/standby or parallel boosting
  
  
    Drive air source
    Towable compressor trolley (external)
  


D) Oxygen distribution (multi-pressure outlets)

  
    Port
    Outlet Pressure Range
  
  
    Port I
    1 to 5.5 kg/cm²
  
  
    Port II
    150 to 230 kg/cm²
  
  
    Port III
    230 to 350 kg/cm²
  
  
    Port IV
    350 kg/cm²
  


E) Compressor trolley (drive-air supply)

  
    Parameter
    Specification
  
  
    Working pressure
    100 PSI / 7 kg/cm²
  
  
    Free air delivery (FAD)
    270 CFM (≈ 7.64 m³/min)
  
  
    Unloading pressure
    95 PSI / 6.5 kg/cm²
  
  
    Diesel tank capacity
    100 L
  
  
    Tyre pressure
    130 PSI / 8.9 kg/cm²
  
  
    Approx. trolley weight
    ~7800 kg
  
  
    Max towing speed
    20 km/h
  


Comparison: UGSSO2 vs Portable Oxygen Charging Alternatives

  
    
      Criteria
      UGSSO2 (Vehicle-Mounted)
      Portable Cylinders
      Trailer-Based System
      Fixed Facility
    
  
  
    
      Mobility
      High (Fully mobile, deployable on flight line)
      Very High (Manual transport)
      Moderate (Towable, requires setup)
      None (Fixed installation)
    
    
      Charging Speed (LPM)
      High (Dual booster system, rapid charging capability)
      Low (Manual, regulator-limited flow)
      Medium (Compressor dependent)
      Very High (Industrial-scale systems)
    
    
      Cost per Charge Cycle
      Optimized (Efficient boosting reduces wastage)
      High (Frequent cylinder logistics)
      Moderate (Fuel + maintenance)
      Low (Bulk production efficiency)
    
    
      Oxygen Purity
      Controlled (Monitoring with safety interlocks)
      Variable (Source dependent)
      Moderate (Limited inline monitoring)
      High (Centralized PSA/LOX systems)
    
    
      IAF Compliance
      Full compliance (Designed for aviation use)
      Limited (Manual process)
      Partial (Needs validation)
      High (Facility-grade compliance)
    
    
      Installation Time
      Immediate (Ready-to-operate vehicle)
      None (Plug-and-use)
      Moderate (Setup required)
      High (Infrastructure-heavy)
    
  

Specifications subject to customization and operational conditions.

How UGSSO₂ works (technical workflow)
The system follows engineering principles similar to high-performance testing platforms used across Neometrix solutions.  Explore all Neometrix ground support systems  to see how integrated testing, pressure control, and fluid systems work together across applications.

How UGSSO₂ works (technical workflow)
Mode 1 — Build onboard reserve (external boosting into banks)
1.  Position the vehicle, establish a controlled operating zone, confirm oxygen-clean readiness.
2.  Connect inlet oxygen supply cylinders through the inlet interface.
3.  Purge/vent the inlet hose and interface to remove air/moisture ensuring oxygen system cleanliness.
4.  Connect drive air from the compressor trolley.
5.  Start Booster-I or Booster-II (or both for higher throughput) while controlling adiabatic compression.
6.  Monitor inlet pressure, booster outlet pressure, and bank pressures using pressure instrumentation.
7.  Boost into selected bank(s) to the target storage pressure.
8.  Return the system to a safe baseline: close valves in defined sequence, depressurize where required, cap interfaces.

Mode 2 — Service aircraft oxygen units (distribution from onboard banks)
1.  Select the correct outlet port based on required pressure regime.
2.  Purge outlet hose and connect to aircraft charging interface.
3.  Select bank/cylinder supply by controlled opening of isolation and cylinder valves ensuring oxygen compatibility.
4.  Regulate charging pressure/flow using a regulator assembly and monitor continuously.
5.  Complete safe venting and shutdown; cap and stow hoses.

Mode 3 — Internal boosting (optimize onboard inventory)
1.  Select source bank/cylinder with usable residual pressure.
2.  Route flow through the internal boosting path to raise pressure in the target bank/cylinder while maintaining oxygen charging rate.
3.  Monitor pressures and complete controlled shutdown.

Scope of supply (typical)
A typical UGSSO₂ package includes:
• Truck-mounted oxygen charging & distribution vehicle with protected canopy module
• Banked high-pressure oxygen storage skid
• Dual air-driven oxygen booster skid
• Rear operator station (boosting/storage + distribution)
• Oxygen purity monitoring/controller
• Fire detection and CO₂ total flooding suppression system
• Towable compressor trolley for booster drive air
• Standard hoses/adapters and basic tool/accessory kit (as configured)

Customization for international buyers
UGSSO₂ can be configured to suit regional standards and fleet requirements. Typical customization areas include:
• Aircraft charging interfaces/adapters and hose standards
• Outlet port strategy (pressure regime tuning and regulation philosophy)
• Storage capacity and bank configuration within vehicle constraints
• Labelling, language, and operator workflow preference
• Training, spares provisioning, and documentation package strategy

Ideal buyers and applications
• Air forces and naval aviation bases
• Aircraft MRO / overhaul facilities
• Training bases seeking standardization across crews
• Remote or expeditionary operations requiring mobile servicing
• Multi-base operators seeking a unified oxygen servicing platform

Oxygen charging and distribution vehicle UGSSO2

About

Module Walkthrough

UGSSO₂ Key Capabilities

Technical Downloads

Virtual Test Run & Control Panel

HMI Simulation

Real-Time Reports

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Frequently Asked Questions

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Parameter	Specification
Deployment	Mobile, truck-mounted oxygen charging & distribution vehicle
Operating environment	Outdoor / airbase operations
Fuel tank capacity (vehicle)	60 L
Tyre pressure (vehicle)	115 PSI
Measured axle loads	Front: 1925 kg / Rear: 3025 kg
Gross vehicle weight (GVW)	4995 kg

Parameter	Specification
Storage working pressure	350 kg/cm² class
Cylinder water capacity	40 L
Total cylinders	12
Bank arrangement	4 banks × 3 cylinders per bank
Cylinder height	1135 mm
Cylinder diameter	Ø232 mm
Approx. cylinder weight	90 kg each
Cylinder color	Black

Parameter	Specification
Booster configuration	2 × air-driven oxygen boosters
Operating modes	Duty/standby or parallel boosting
Drive air source	Towable compressor trolley (external)

Port	Outlet Pressure Range
Port I	1 to 5.5 kg/cm²
Port II	150 to 230 kg/cm²
Port III	230 to 350 kg/cm²
Port IV	350 kg/cm²

Parameter	Specification
Working pressure	100 PSI / 7 kg/cm²
Free air delivery (FAD)	270 CFM (≈ 7.64 m³/min)
Unloading pressure	95 PSI / 6.5 kg/cm²
Diesel tank capacity	100 L
Tyre pressure	130 PSI / 8.9 kg/cm²
Approx. trolley weight	~7800 kg
Max towing speed	20 km/h

Criteria	UGSSO2 (Vehicle-Mounted)	Portable Cylinders	Trailer-Based System	Fixed Facility
Mobility	High (Fully mobile, deployable on flight line)	Very High (Manual transport)	Moderate (Towable, requires setup)	None (Fixed installation)
Charging Speed (LPM)	High (Dual booster system, rapid charging capability)	Low (Manual, regulator-limited flow)	Medium (Compressor dependent)	Very High (Industrial-scale systems)
Cost per Charge Cycle	Optimized (Efficient boosting reduces wastage)	High (Frequent cylinder logistics)	Moderate (Fuel + maintenance)	Low (Bulk production efficiency)
Oxygen Purity	Controlled (Monitoring with safety interlocks)	Variable (Source dependent)	Moderate (Limited inline monitoring)	High (Centralized PSA/LOX systems)
IAF Compliance	Full compliance (Designed for aviation use)	Limited (Manual process)	Partial (Needs validation)	High (Facility-grade compliance)
Installation Time	Immediate (Ready-to-operate vehicle)	None (Plug-and-use)	Moderate (Setup required)	High (Infrastructure-heavy)