2.3.4
Temperature simulation (RTD)
•
Display the
TRANSMISSION CONFIGURATION
dialogue box.
•
Select the
Rt
"transmission function", then the ap-
propriate "type of probe" and range using the func-
tion and navigation keys.
•
Select the measurement current.
•
Select the display unit.
•
Confirm with ENTER.
Connection is made between the two Ω terminals
.
The following probes are available:
The resolution is 0.01 °C for all the available re-
sistive probes.
The "resistive temperature probe simulation"
function can be used with either 2, 3 or 4 wire
connection.
As for the "resistance simulation" function, if a
polling acquisition system is used, ensure that
the current is maintained for more than 1 ms to
avoid errors in consecutive measurements due
to the response time of the resistance simula-
tion function.
2.3.5
Temperature simulation (Thermocouple)
•
Display the
TRANSMISSION CONFIGURATION
dialogue box.
•
Select the
Tc
transmission function, then the appro-
priate "type of thermocouple" using the function and
navigation keys.
•
Select the display unit.
•
Select the type of cold junction compensation (CSF)
used. Enter the temperature of the CSF in the case of
a programmed CSF.
•
Confirm with ENTER.
The thermocouples available are: K, T, J, E, N, U, L, S, R, B, C, PL, Mo and NiMo/NiCo.
IMPORTANT!
After a significant thermal shock, it is recommended that the unit is left for the tempera-
ture to stabilise in order to use the internal cold junction (CSF) with maximum accuracy.
Sensor
Pt 50(
α
= 3851)
Ni 100 (
α
= 618)
Pt 100 (
α
= 3851)
Ni 120 (
α
= 672)
JPt 100 (
α
= 3916)
Ni 1 000 (
α
= 618)
Pt 100 (
α
= 3926)
Cu 10 (
α
= 427)
Pt 200 (
α
= 3851)
Cu 50 (
α
= 428)
Pt 500 (
α
= 3851)
Pt 1 000 (
α
= 3851)
