Analizor multigaz PHOTON echipat cu 6 senzori de NDIR si 3 celule electrochimice
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⧉ Produsul poate fi achizitionat si prin SEAP
Echipat cu 9 senzori pentru gaze de ardere si combustie
Versatilitatea analizorului de gaze de ardere PHOTON este data de numarul mare de senzori si accesorii cu care acesta poate fi dotat; reprezinta solutia cea mai optima si profesionala pentru masuratori complexe atat ale componentelor din gazele arse cat si a presiunilor, temperaturilor, vitezelor si debitelor, precum si a altor marimi relevante.
Este dotat cu 6 senzori infrarosu si suplimentat cu alte 3 senzori electrochimice are Afisaj grafic color VGA pentru prezentare datelor.
Dotat cu hard-disk tip Compact-flash pentru stocare datelor si baze de date.
Sistemul de operare si computerul intern de clasa industriala PC-104 opereaza cu platforma de operare Windows CE.
Analizorul Photon este echipat cu dispozitive puternice pentru conditionarea gazului ce creaza conditii optime pentru analiza gazului sub orice conditii
Construit conform norme europene in domeniu EN50379
Pentru analiza, detectia, masurarea, inregistrarea performantelor, verificarea sigurantei si punerea in functiune a centralelor termice, instalatii termice, cuptoare industriale cu convectie fortata si normala, boilere, aragaze, gazele cu efect de sera, emisiilor de poluanti, emisiilor de gaze cu efect de sera, instalatii termice, sisteme solare, cazane lemne, aer conditionat, generatoare de abur, Cazane ulei,..etc.
Table below shows the combination of all sensors/ranges. Please mind that the maximum possible gas sensors number in a device is 6 NDIR and 3 EC – see ordering guide.
Component | Method | Range | resolution | Accuracy | Time (T90) | Conformity |
---|---|---|---|---|---|
O2 – Oxygen | Electrochemical sensor | 20.95% | 0.01% | ± 0.1% abs. or 5% rel. | 45 sec | ISO 12039, CTM-030 |
O2 – Oxygen | Electrochemical, partial pressure | 20.95% | 0.01% | ± 0.1% abs. or 5% rel. | 45 sec | ISO 12039, CTM-030 |
O2 – Oxygen | Electrochemical,partial pressure | 25% | 0.01% | ± 0.1% abs. or 5% rel. | 45 sec | ISO 12039, CTM-030 |
O2 – Oxygen | Electrochemical,partial pressure | 100% | 0.1% | ± 0.1% abs. or 5% rel. | 45 sec | ISO 12039,CTM-030 |
O2 – Oxygen | Paramagnetic sensor | 25% | 0.01% | ± 0.1% abs. or 5% rel. | 45 sec | EN 14789, OTM-13 |
O2 – Oxygen | Paramagnetic sensor | 100% | 0.1% | ± 0.1% abs. or 5% rel. | 45 sec | EN 14789, OTM-13 |
CO – Carbon monoxide | NDIR | 20000ppm | 1ppm | ± 3ppm abs. or 3% rel. | 45 sec | EN 15058, Method 10 |
CO – Carbon monoxide | NDIR | 10% | 0.01% | ± 0.3% abs. or 3% rel. | 45 sec | EN 15058, Method 10 |
CO – Carbon monoxide | NDIR | 100% | 0.1% | ± 0.3% abs. or 3% rel. | 45 sec | EN 15058, Method 10 |
CO2 – Carbon dioxide | NDIR | 5% | 0.01% | ± 0.3% abs. or 3% rel. | 45 sec | ISO 12039, OTM-13 |
CO2 – Carbon dioxide | NDIR | 25% | 0.01% | ± 0.3% abs. or 3% rel. | 45 sec | ISO 12039, OTM-13 |
CO2 – Carbon dioxide | NDIR | 100% | 0.1% | ± 0.3% abs. or 3% rel. | 45 sec | ISO 12039, OTM-13 |
CH4 – Methane | NDIR | 5% | 0.01% | ± 0.3% abs. or 3% rel. | 45 sec | x |
CH4 – Methane | NDIR | 25% | 0.01% | ± 0.3% abs. or 3% rel. | 45 sec | x |
CH4 – Methane | NDIR | 100% | 0.1% | ± 0.3% abs. or 3% rel. | 45 sec | x |
NO – Nitric oxide | NDIR | 1000ppm | 1ppm | ± 3ppm abs. or 3% rel. | 45 sec | ISO 10849, Method 7E |
NO – Nitric oxide | NDIR | 5000ppm | 1ppm | ± 3ppm abs. or 3% rel. | 45 sec | ISO 10849, Method 7E |
NO2 – Nitrogen dioxide | NDIR | 1000ppm | 1ppm | ± 3ppm abs. or 3% rel. | 45 sec | ISO 10849, Method 7E |
NO2 – Nitrogen dioxide | Electrochemical sensor | 1000ppm | 1ppm | ± 5ppm abs. or 5% rel. | 60 sec | CTM-022 |
SO2 – Sulphur dioxide | NDIR | 1000ppm | 1ppm | ± 3ppm abs. or 3% rel. | 45 sec | ISO 7935, Method 6C |
SO2 – Sulphur dioxide | NDIR | 5000ppm | 1ppm | ± 3ppm abs. or 3% rel. | 45 sec | ISO 7935, Method 6C |
H2S – Hydrogen sulfide | Electrochemical sensor | 1000ppm | 1ppm | ± 5ppm abs. or 5% rel. | 70 sec | x |
H2 – Hydrogen | Electrochemical sensor | 2000ppm | 1ppm | ± 10ppm abs. or 5% rel. | 50 sec | x |
H2 – Hydrogen | Electrochemical sensor | 20000ppm | 1ppm | ± 10ppm abs. or 5% rel. | 70 sec | x |
H2 – Hydrogen | Thermal Conductivity Detector | 10% | 0.1% | ± 0.5% abs. or 5% rel. | 45 sec | x |
H2 – Hydrogen | Thermal Conductivity Detector | 25% | 0.1% | ± 0.5% abs. or 5% rel. | 45 sec | x |
H2 – Hydrogen | Thermal Conductivity Detector | 50% | 0.1% | ± 0.5% abs. or 5% rel. | 45 sec | x |
H2 – Hydrogen | Thermal Conductivity Detector | 100% | 0.1% | ± 0.5% abs. or 5% rel. | 45 sec | x |
N2O – Nitrous oxide | NDIR | 2000ppm | 1ppm | ± 3ppm abs. or 3% rel. | 45 sec | ISO 21258 |
CHF3 – Fluoroform (Refrigerant R23) | NDIR | 2.5% | 0.01% | ± 0.3% abs. or 3% rel. | 45 sec | x |
VOC - Volatile Organic compounds | PID - Photo Ionization Detector | 100ppm | 1ppm | ± 5ppm abs. or 5% rel. | 120 sec | Method 21 |
VOC - Volatile Organic compounds | PID - Photo Ionization Detector | 1000ppm | 1ppm | ± 5ppm abs. or 5% rel. | 120 sec | Method 21 |
Variable | Method | Range | resolution | Accuracy | Time (T90) |
---|---|---|---|---|
Tgas – gas temperature | K-type thermocouple | -10 ÷ 1000°C | 0.1°C | ± 2°C | 10 s |
Tgas – gas temperature | S-type thermocouple | -10 ÷ 1500°C | 0.1°C | ± 2°C | 10 s |
Tamb – boiler intake air temperature | PT500 resistive sensor | -10 ÷ 100°C | 0.1°C | ± 2°C | 10 s |
Differential pressure | Silicon piezoresistive pressure sensor | -25hPa ÷ +25hPa | 1Pa (0.01hPa) | ± 2Pa abs. or 5% rel. | 10 s |
Gas flow velocity | Indirect, with Pitot tube & pressure sensor | 1 ÷ 50m/s | 0.1m/s | 0.3m/s abs. or 5% rel. | 10 s |
Lambda λ – excess air number | Calculated | 1 ÷ 10 | 0.01 | ± 5% rel. | 10 s |
qA – stack loss | Calculated | 0 ÷ 100% | 0.1% | ± 5% rel. | 10 s |
Eta η – combustion efficiency | Calculated | 0 ÷ 120% | 0.1% | ± 5% rel. | 10 s |
IL – incomplete combustion | Calculated | 0 ÷ 100% | 0.01% | ± 5% rel. | 10 s |
Analyser’s standard equipment supplied along with the device
3m mains cable (with selectable plug type)
Single gas filter with condensate trap and filter insert (pore size 5µm)
Ambient temperature sensor with 300mm cable
2.5m RS-232C communication cable with DB9 female connector
Software CD with programs and manuals
Quick coupling for the probe holder (3pc)
Photon ↔ PGD-100 electric communication cable
Photon ↔ PGD-100 gas hose connection
PGD 100 Gas conditioner
Photon analyser “cares” only for analysing the gas sample. Nevertheless, such sample must firstly be properly prepared. For this purpose, the Photon is always paired with powerful gas conditioner PGD-100.
Photon communicates with, and controls PGD-100 dryer via 2.5m electric cable. Gas sample is delivered via 2.5m Tygon tube.
Heated hose
Heated hose with heated gas filter supplies gas sample to the the analyser’s conditioning module.
Hose has M30x1 threaded connection to fix gas probe pipe. The other end has magnetic quick-coupler and electric connector to connect it with analyser.
Standard length of hose is 3m, it is possible to order other lengths of hoses.
Hose is provided with a carrying bag.
Gas probe pipe
Exchangeable gas probe pipe mounted on the probe holder with M30x1 fastening.
It has thermocouple type K (in some configurations type S) for measurement of gas temperature and a threaded fixing cone. With the probe holder is a complete gas probe.
There are many probe pipes available. They differ in length and working temperature.
For work efficiency it is advised to own different probe pipes to be able to adjust to the measurement place.
Boiler’s inlet air temperature sensor
This PT500 temperature sensor on a 3m cable is used for measurement of the boiler’s inlet air. It is optional equipment. The sensor has to be connected to the Temp. Amb. socket. If this sensor is not connected Photon assumes the boiler’s inlet air temperature to be equal to the temperature measured with the NTC2k7 sensor installed in the device’s lid.
Temperature sensor for thermal stabilisation
This NTC2k7 temperature sensor with a 300mm cable is used for measurement of the surrounding air temperature. It helps to set the optimal target temperature for Photons thermal stabilisation. The sensor is connected to the Temp. Aux socket (in some units the socket is without label). The head of NTC2k7 sensor is installed in analyser's lid. For calculations, where ambient temperature is required, Photon uses readings from PT500 3m sensor (boiler's inlet air temperature sensor). In case of absence of this PT500 sensor, readings from NTC2k7 are being used.
Pitot tube
Pitot tube is used for indirect measurement of gas flow velocity (measurement with the analayser’s differential pressure sensor).
A few lengths of tubes are available. Pitot tube has 2m gas tubings to connect it with the analyser.
Ordering code:
Z00-PITOT-5002 – 500mm tube with connecting hoses
Z00-PITOT-8002 – 800mm tube with connecting hoses
Analogue outputs module
Optional module with 8 current and 8 voltage galvanically separated outputs.
Installed into the device’s lid.
Connected to the USB socked of Photon
Analogue inputs module
Optional module with 8 current and 8 voltage inputs.
Installed into the device’s lid.
Connected to the USB socked of Photon
Martel portable printer with USB cable
Small, portable, battery operated printer for work with Photon analyser. Must be connected to Photon USB socket
Ordering code:
MPH-PRINT1 – Martel MCP-8810, thermal printer with USB interface
ZPH2-PRINTER-USB-KAB – USB cable for connecting the printer to analyser
Photon ↔ PGD-100 electric communication cable
2.5m communication cable for connecting the PGD-100 gas dryer to the Photon analyser.
Photon ↔ PGD-100 gas tube
2.5m long gas hose for connecting the PGD-100 gas dryer to the Photon analyser. Quick couplers on both ends.
⧉ Intrucat atat domeniile cat si destinatiile in care pot fi folosite analizoarele si detectoarele de gaze sunt diverse, va stam la dispozitie pentru selectia variantei optime .. contactati-ne »
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