TCD3000 SiA — H2 gas analyser
The compact and robust TCD3000 SiA for hydrogen detection is ideal for the precise, fast and sensitive measurement of quasi-binary gas mixtures. The measurement is based on the principle of thermal conductivity (TCD = Thermal Conductivity Detector). This technology is predestined for the measurement of gases with very different thermal conductivities, such as H2 and O2.
Advantages of the TCD3000 SiA
- Outstanding precision and speed in hydrogen concentration measurement: The TCD3000 SiA gas analyser features an industry-leading response time of < 30 ms and a measurement range from a few ppm to 100 vol.%, specially developed for the new requirements of hydrogen infrastructure in the energy and process industries.
- Unrivalled robustness for demanding environments: Optimised for use in humid environments, the device withstands condensate and water without damage and provides precise measurements up to a pressure of 200 bar – ideal for electrolysers, fuel cells and other hydrogen applications.
- Maximum safety, minimum maintenance: With fast and reliable explosion level monitoring, the TCD3000 SiA significantly increases occupational safety. The device is a long-term investment with an expected service life of up to 10 years.
- Adaptability meets economy: The extremely compact TCD3000 SiA saves space and costs. Thanks to it, a wide variety of gas mixtures can be measured without additional sample preparation – a highly efficient solution that outperforms the competition in terms of performance and price.
Available as
TCD3000 SiA – II 2 G Ex db IIC T4/T3 Gb, -40°C < Ta < +90°C / 125°C for ATEX ZONE 1
TCD3000 Si
TCD3000 SiA specifications
|
Dimensions with connectors; Weight |
H=80 mm, D=40 mm; G1/2″;
SW36; ~250g
|
|
Power Supply |
24 VDC ±25 %, 5 W |
|
Digital Output |
RS485, Baud rate 38400 /
Data 8bit
|
|
Analog Output |
4-20 mA, 3-wire connection |
|
Ambient temperature range |
-40°C – 90°C / 125°C
|
|
Warm-up Time |
< 1 min.
|
|
Flow Rate |
0 – 10 m/s |
|
Gas pressure (absolute) |
0.8 – 200 Bara |
|
T90-Time |
< 1 s |
|
Noise |
< 50 ppm |
|
Drift at zero point |
< 100 ppm per week |
|
Repeatability |
< 50 ppm |
|
Temperature influence |
< 50 ppm per 10°C |
|
Flow Influence |
< 50 ppm pro 1 m/s |
|
Pressure Dependency (above 800 hPa) |
< 50 ppm per 10hPa |
All data refer to the measuring range 0,5 vol.% H2 in N2
TCD3000 SiA downloads
TCD3000 SiA certificates
TCD3000 SiA options
|
Multiple calibrations possible for one sensor |
Several linearisation curves, different measuring ranges and other gas pairs can be stored on one device (manual switching) |
|
Pressure compensation |
Thermal conductivity is pressure-dependent, therefore a constant pressure must be present during the measurement. If the pressure is not constant, the error can be eliminated by an additional pressure measurement. We can provide a compensation curve on request |
|
Customised settings possible that go beyond the technical specifications |
Customised adjustment for e.g. higher gas temperatures, radioactive environments, particularly low flow rates |
|
Higher pressure ranges |
Settings for high pressure ranges >200 bar also available on request |
|
Express delivery possible |
Depending on capacity and agreement, short-term delivery also possible
|
|
Other connections e.g. NPT ½“ |
Standard G 1/2‘ – other connections such as NPT 1/2’ on request |
|
Can also be ordered as Si variant without ATEX |
For use outside the ATEX protection zone |
TCD3000 SiA Zubehör
TCD3000 transmitter
The more cost-effective and ATEX-free TCD3000 transmitter is particularly suitable for bypass measurements, when detection in the process is not possible or desired, and for lower flow rates. This particularly compact and robust option for hydrogen detection is also ideal for the precise, fast and sensitive measurement of quasi-binary gas mixtures. It is also based on the principle of thermal conductivity (TCD – Thermal Conductivity Detector), i.e. the technology that is predestined for measuring gases with very different thermal conductivities such as H2 and O2.
Advantages of the TCD3000 transmitter
High precision and speed in hydrogen concentration measurement: The TCD3000 transmitter is characterised by an industry-leading response time of < 30 ms and a measuring range from a few ppm to 100 vol.%, specially developed for the new requirements of hydrogen infrastructure in the energy and process industries.
Particularly robust for demanding environments: Optimised for use in humid environments, the device withstands condensate and water without damage and provides precise measurements up to a pressure of 200 bar – ideal for electrolysers, fuel cells and other hydrogen applications.
- Maximum safety, minimum maintenance: With fast and reliable explosion level monitoring, the TCD3000 transmitter significantly increases occupational safety. The device is a long-term investment with an expected service life of up to 10 years.
Adaptability meets economy: The extremely compact TCD3000 transmitter saves space and costs. Thanks to it, a wide variety of gas mixtures can be measured without additional sample preparation – a highly efficient solution that outperforms the competition in terms of performance and price.
TCD3000 transmitter specifications
|
Dimensions with connectors; Weight |
B=54 mm, H=80 mm, D=34 mm; ~500g
|
|
Power Supply |
24 VDC ±25 %, 5 W |
|
Digital Output |
RS485, Baud rate 38400 / Data 8bit |
|
Analog Output |
4-20 mA, 3-wire connection |
|
Ambient temperature range |
-40°C – 90°C
|
|
Warm-up Time |
< 1 min.
|
|
Flow Rate |
30 – 120 l/h |
|
Gas pressure (absolute) |
0.8 – 200 Bara |
|
T90-Time |
< 1 s |
|
Noise |
< 50 ppm |
|
Drift at zero point |
< 100 ppm per week |
|
Repeatability |
< 50 ppm |
|
Temperature influence |
< 50 ppm per 10°C |
|
Flow influence |
< 50 ppm per 10l/h |
|
Pressure Dependency (above 800 hPa) |
< 50 ppm per 10hPa |
TCD3000 transmitter downloads
Certificates
TCD3000 transmitter options
|
Multiple adjustments possible for one sensor |
Several linearisation curves, different measuring ranges and other gas pairs can be stored on one device (manual switching) |
|
Pressure compensation |
Thermal conductivity is pressure-dependent, therefore a constant pressure must be present during the measurement. If the pressure is not constant, the error can be eliminated by an additional pressure measurement. We can provide a compensation curve on request |
|
Customised settings possible that go beyond the technical specifications |
Customised adjustment for e.g. higher gas temperatures, radioactive environments, particularly low flow rates |
|
Higher pressure ranges |
Settings for high pressure ranges >200 bar also available on request |
|
Express delivery possible |
Depending on capacity and agreement, delivery at short notice is also possible |
|
Other connections possible |
Other connection options are available on request |
Areas of application
Archigas’ advanced thermal conductivity meters offer precise solutions for safety and process applications. They measure hydrogen in electrolysis and fuel cell systems, monitor hydrogen concentrations in natural gas and are ideal for helium and hydrogen leak detection. The devices are predestined for monitoring and reducing emissions in decarbonisation projects and promote the highest product quality in various industries.
Areas of application
Archigas’ advanced thermal conductivity meters offer precise solutions for safety and process applications. They measure hydrogen in electrolysis and fuel cell systems, monitor hydrogen concentrations in natural gas and are ideal for helium and hydrogen leak detection. The devices are predestined for monitoring and reducing emissions in decarbonisation projects and promote the highest product quality in various industries.
Electrolysis
Monitoring of OEL / UEL and purity, e.g. for H2 electrolysis
Fuel cell
Monitoring the hydrogen concentration in the exhaust gas train
H2 in natural gas
Determination of the hydrogen content in natural gas networks up to 100%
Leak testing
Automated detection of leaks for monitoring
Further areas of application
Purity control, purge gas monitoring, measurement of other binary or quasi-binary gas mixtures
