Applications

Breathing Air Quality Testing

Breathing Air Quality Testing

Ensuring Safety and Compliance with Advanced Breathing Air Quality Testing Solutions

Compressed breathing air quality testing is essential to ensuring the safety of individuals relying on such air for breathing. Especially in environments like scuba diving, firefighting, and industrial settings, where breathing air quality standards need to be ensured.

The breathing air quality analyzers from SUTO iTEC are engineered to provide outstanding precision and dependability when assessing the compressed breathing air quality. By using cutting-edge sensor technology, these devices can identify and measure contaminants in the breathing air. Thanks to this precise measurement, the breathing air analyzers make sure that the breathing air either exceeds or meets the strict requirements established by industry guidelines and regulatory organizations.

The following are some important questions and answers about checking compressed breathing air quality:

Breathing Air Quality Testing: Frequently Asked Questions

Why is Compressed Breathing Air Quality Testing Important?
  • Ensuring safety: Immediately identify and address air quality issues to ensure occupant safety.
  • Compliance confidence: Meet and exceed regulatory requirements with real-time monitoring data.
  • Preventive Action: Promptly address potential hazards and prevent health risks before they escalate.
What Contaminants Are Typically Tested in Compressed Breathing Air?

In response, typical contaminants include particulate parts, water vapor, oil, carbon monoxide (CO), and carbon dioxide (CO2). The health risks associated with each contaminant are unique, and their concentrations need to stay below reasonable bounds.

O2 Measurement
Co2 Measurement
Co Measurement
Oil Measurement
Particles
Which Standards Apply to the Quality of Compressed Breathing Air?

Depending on the use, different international norms and laws are applicable. OSHA requirements for industrial breathing air, NFPA 1989 for firefighter breathing air, and CGA Grade E for compressed breathing air used in scuba diving are examples of common regulations.

 

StandardEN 12021 (Europe)GB/T 31975-2015 (China)CFR (USA)CSA (Canada)
O220-22 %19.5 - 23.5 %19.5 - 23.5%20 – 22 %
CO2500 ppm≤ 1000 mL/m³1,000 ppm500 ml/m3
CO5 ppm≤ 10 mL/m³10 ppm5 ml/m3
H2OPDP: < -11 °C
1) H2O: <35 mg/m3
2) H2O: <25 mg/m3
ADP: ≤ -45.6 °C-----
VOC (Oil Vapor)0.5 mg/m3≤ 5.0 mg/m³
(Oil mist and particle)
5 mg/m31 mg/m3
Odornononono
What Steps Should Be Taken if Contaminants Exceed Acceptable Levels?

When the breathing air quality testing indicates that the levels of contaminants are higher than acceptable, corrective actions are required. This could entail changing filters, performing routine maintenance on the compressor system, and retesting the air until it satisfies the requirements. Affected people should also get medical help if they have come into contact with contaminated air.

Are There Portable Tools for Compressed Breathing Air Testing on-Site?
In order to test compressed breathing air quality in real time on-site, portable breathing air analyzers are available. With their ability to provide quick feedback on air quality, these devices are especially helpful in field applications.

Critical Applications Where Breathing Air Quality Testing Is Required

In environments where compressed air is used for respiratory protection, compressed air quality testing is critical. Key applications include:

Fire Station

Fire Departments and Rescue Services

Ensure SCBA air meets firefighter safety standards.

Icons8 Scuba Diving 100

Diving operations

Testing scuba tank air for diver safety.

Icons8 Factory 96

Industrial environments

Testing air quality for workers in confined spaces and welding operations.

Airport

Aviation industry

Ensuring air quality for emergency oxygen systems on aircraft.

Long Term Care

Healthcare facilities

Checking the purity of compressed air in hyperbaric chambers and respiratory

Army

Military and defense

Testing compressed air in ejection seats and personal protective equipment.

Cleaning Services

Laboratories and clean rooms

Maintaining the integrity of experiments with tested compressed air.

Chemicals (1)

Manufacturing and chemical industries

Testing compressed air in clean room environments and chemical processing.

SUTO iTEC’s Breating Air Quality Testing Solutions

With the powerful combination of several sensor technologies, SUTO iTEC’s Breathing Air Quality Analyzers and testing equipment are capable of monitoring all relevant breathing air quality contaminants.

S605 Portable Breathing Air Quality Analyzer

for Point of use Quality Monitoring Checks

 

  • Real-time data: Get instant readings for key parameters.
  • Portable: Carry the analyzer with you wherever you need on-site monitoring.
  • User-friendly: Easy-to-use interface for hassle-free operation.
S605 Portable Breathing Air Analyzer Monitoring Cylinders 11zon

S606 Stationary Breathing Air Quality Monitor

for 24/7 Quality Measurement

 

  • Continuous monitoring: 24/7 monitoring for uninterrupted security.
  • Customizable alerts: Set alerts for specific thresholds to ensure immediate response.
  • Integration capabilities: Seamlessly integrate with your existing systems for comprehensive monitoring
S606 Stationary Breathing Air Analyzer Application 4

Success Stories

Ensuring Reliable Breathing Air Quality

In Fire Equipment Maintenance

 

At a fire equipment maintenance center, routine filter changes we- ren’t enough. Hidden contaminants posed a risk to firefighter safety. That changed with the introduction of SUTO ITEC’S S605 Portable Bre- athing Air Analyzer and S520 Dew Point Meter.

With real-time data and instant alerts, the team now ensures full com- pliance with air quality standards-every single time.

Maintaining High Compressed Breathing Air Quality Standards for “Life Support System”

In the Institute of Medical Biology”

 

THE RESEARCH INSTITUTE OF MEDICAL BIOLOGY (RIMB), A PIONEERING INSTITU- TION IN MEDICAL RESEARCH AND HEALTHCARE INNOVATION IN SOUTHWEST CHI- NA, FACED A CRITICAL CHALLENGE IN MAINTAINING COMPLIANCE WITH THE STRIN- GENT GB/T31975 STANDARD FOR BREATHING AIR QUALITY.

State-of-the-art Measurement Technology

With the powerful combination of several sensor technologies, SUTO iTEC’s Breathing Air Quality Analyzers and testing equipment are capable of monitoring all relevant breathing air quality contaminants.

Thomas Fischer

1. Oxygen Measurement (O2)

For safety reasons, it is recommended to measure the oxygen level in the breathing air. The optical oxygen sensor monitors the Ocontent and indicates deviations from the standard concentration.

Thomas Fischer

2. Carbon Dioxide Measurement (CO2)

The intake air may also be exposed to an increased concentration of carbon dioxide. Filter material used in compressed air can adsorb, but also release CO2. The gas is measured by the NDIR sensor to avoid extreme concentrations above 1000 ppm.

Thomas Fischer

3. Carbon Monoxide Measurement (CO)

The compressor intake air may be contaminated with CO due to nearby combustion engines or heating systems. Carbon monoxide is a toxic and life-threatening gas that will be monitored accurately by an electrochemical sensor.

Thomas Fischer

4. Humidity Measurement (H2O)

High humidity can cause corrosion and, in severe cases, lead to bursting air containers. In a cold environment, it can freeze and block the air supply. The integrated dew point sensor is crucial to checking the proper water removal of the dryers and filters.

Thomas Fischer

5. Oil Vapor Measurement

Atmospheric oil vapor contained in industrial air environments can get into the system through the compressor or intake. Compressed into the breathing air, the oil contaminants can cause health issues. The state-of-the-art sensor technology detects the oil contaminants immediately.

Thomas Fischer

6. Pressure Measurement

The pressure sensor provides additional pressure data about the compressed air system using state of the art sensor technology.

Thomas Fischer

1. Oxygen Measurement (O2)

For safety reasons, it is recommended to measure the oxygen level in the breathing air. The optical oxygen sensor monitors the Ocontent and indicates deviations from the standard concentration.

Thomas Fischer

2. Carbon Dioxide Measurement (CO2)

The intake air may also be exposed to an increased concentration of carbon dioxide. Filter material used in compressed air can adsorb, but also release CO2. The gas is measured by the NDIR sensor to avoid extreme concentrations above 1000 ppm.

Thomas Fischer

3. Carbon Monoxide Measurement (CO)

The compressor intake air may be contaminated with CO due to nearby combustion engines or heating systems. Carbon monoxide is a toxic and life-threatening gas that will be monitored accurately by an electrochemical sensor.

Thomas Fischer

4. Humidity Measurement (H2O)

High humidity can cause corrosion and, in severe cases, lead to bursting air containers. In a cold environment, it can freeze and block the air supply. The integrated dew point sensor is crucial to checking the proper water removal of the dryers and filters.

Thomas Fischer

5. Oil Vapor Measurement

Atmospheric oil vapor contained in industrial air environments can get into the system through the compressor or intake. Compressed into the breathing air, the oil contaminants can cause health issues. The state-of-the-art sensor technology detects the oil contaminants immediately.

Thomas Fischer

6. Pressure Measurement

The pressure sensor provides additional pressure data about the compressed air system using state of the art sensor technology.

Operators of breathing air systems are required to fill respiratory air in line with international standards such as EN 12021 or CFSR 1910.134(d). Potential hazards due to impurities in the breathing air can have consequences which endanger health or which are even life-threatening.

Regular checks with the Breathing Air Analyzer S605 is an indispensable part for a safe operation.

Thomas Fischer

The measurement technology used at a glance

Contaminant / ParameterAccuracyMeasuring rangeResolutionSensor
Oxygen O2± 1 % of reading ± 0.05 %0 … 25%0.1 %Optical oxygen senor
Carbon Dioxide CO2± 1 % of reading ± 25 ppm0 … 1000 ppm1ppmNDIR sensor
Carbon Monoxide CO± 5 % of reading ± 1 ppm0 … 20 ppm0.1 ppmElectrochemical sensor
Humidity H2O±1 °C Td (0… 20 °C Td) / ±2 °C Td (-70... 0 °C Td) / ±3 °C Td (-100… -70 °C Td)-100 ... +20 °C Td / 0 ... 17458.6 mg/m³0.1 mg/m3QCM + Polymer
Oil Vapor5% of reading ± 0.003 mg/m³0.001 ... 5.000 mg/m³
(Based on 1000 hPa(a), 20 °C,0% relative humidity)
0.001 mg/m³Photo ionization detector
Oil Mist and Particle15% of reading ± 0.1 mg/m³0.001 ... 5.000 mg/m³
(Based on 1000 hPa(a), 20 °C,0% relative humidity)
0.1 mg/m³Oil mist and particle sensor
Pressure0.5% FS0... 16 bar(g)0.01 barPiezzo resistive pressure sensor

Take Control of Your Breathing Air Quality!

When it comes to the air you breathe, don’t compromise. Choose SUTO iTEC’s on-site air quality monitoring instruments and raise your safety standards. Experience the difference of real-time monitoring—breathe safely with SUTO iTEC.

  • Real-time monitoring solutions: We offer real-time monitoring solutions with the S600 Portable Breathing Air Analyzer and the S601 Stationary Breathing Air Quality Monitor. Get instant, accurate insight into your breathing air quality.

  • Unmatched accuracy: Our instruments have industry-leading accuracy, precisely detecting pollutants, contaminants and oxygen levels to ensure your breathing air meets the highest standards.

  • On-site assurance: Our on-site instruments give you the ability to monitor air quality where it matters. No delays, no guessing—just real-time data for instant action.

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