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Slot resistance thermometer

Type: TOPE601

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Specify the various parameters of the product for enquiry
Product's properties:
Sensor type
Dimension S [mm]
Dimension L [mm]
Dimension G [mm]
Cable length Lp [mm]
Tolerance class
Connection line
Cable insulation
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Application

 

  • Electric motors
  • Generators

 

Features

 

  • Single and double design
  • Measuring circuit 2-, 3-, 4-wire
  • Sensing element:
    Pt100 (IEC 751)
    Ni100 (DIN 43760)
    Cu50 (GOST 6651-2009)
  • Design of the sensing element:
    Bifilar winded
  • A wide range of designs
  • Temperature class F (+155°C), H (+180°C)
  • Non-standard parameters available upon request:
    - non-standard size
    - cables according to customer's specifications
  • Dielectrical strength 2.5 kVAC/60 sec.,
    optionally 5.0 kVAC/60 sec.

 

 

Description

 

Insert these thin, laminated RTDs in winding slots to detect high temperatures before insulation damage occurs. Six sensors are recommended for each motor, two per phase. Locate sensors near the hottest point of the windings for best performance.

 

Temperature sensors are bifilary wound, they allow measuring temperature on almost entire length of the housing. This eliminates the danger of missing hot (or overheated) part of insulation by the point sensor (CHIP).

 

Stator Slot RTD, serie TOPE601

 

Platinum wire bifilary wound is placed inside the laminated epoxy glass sheet. Connecting cables are connected with bifilar wiring, they are typically delivered in teflon insulation. The sensor has a high mechanical stability and does not require additional insulation for high-voltage of 2.5 kV-– and optionally 5.0 kV.

 

Dimensions of the laminated sheet, length and insulation of the connecting cable, may be selected depending on the application needs/requirements

 

 

Unique design of a core with wound wire

 

 

 

 

In our sensors, we use a unique method of bifilar winding, so that wire does not “break” on the edges of specially prepared core. It makes out thermometers almost completely resistant to corona discharge or other sudden transients of power.

 

 

ATEX, IECEx, EAC Ex versions  Certyfikaty ATEX, IECEx, EAC Ex

 

For application in explosion-hazardous areas intrinsically safe Exi models are available. These designs have CE test certificates according to the 2014/34/EU (ATEX) Directive, Scheme IECEx and EACEx.

 

 

Other versions

 

Above mentioned data presents only small part of our supplies program of stator temperature sensors. Upon the customer's request, other versions can also be delivered.

  • Description
  • Application

     

    • Electric motors
    • Generators

     

    Features

     

    • Single and double design
    • Measuring circuit 2-, 3-, 4-wire
    • Sensing element:
      Pt100 (IEC 751)
      Ni100 (DIN 43760)
      Cu50 (GOST 6651-2009)
    • Design of the sensing element:
      Bifilar winded
    • A wide range of designs
    • Temperature class F (+155°C), H (+180°C)
    • Non-standard parameters available upon request:
      - non-standard size
      - cables according to customer's specifications
    • Dielectrical strength 2.5 kVAC/60 sec.,
      optionally 5.0 kVAC/60 sec.

     

     

    Description

     

    Insert these thin, laminated RTDs in winding slots to detect high temperatures before insulation damage occurs. Six sensors are recommended for each motor, two per phase. Locate sensors near the hottest point of the windings for best performance.

     

    Temperature sensors are bifilary wound, they allow measuring temperature on almost entire length of the housing. This eliminates the danger of missing hot (or overheated) part of insulation by the point sensor (CHIP).

     

    Stator Slot RTD, serie TOPE601

     

    Platinum wire bifilary wound is placed inside the laminated epoxy glass sheet. Connecting cables are connected with bifilar wiring, they are typically delivered in teflon insulation. The sensor has a high mechanical stability and does not require additional insulation for high-voltage of 2.5 kV-– and optionally 5.0 kV.

     

    Dimensions of the laminated sheet, length and insulation of the connecting cable, may be selected depending on the application needs/requirements

     

     

    Unique design of a core with wound wire

     

     

     

     

    In our sensors, we use a unique method of bifilar winding, so that wire does not “break” on the edges of specially prepared core. It makes out thermometers almost completely resistant to corona discharge or other sudden transients of power.

     

     

    ATEX, IECEx, EAC Ex versions  Certyfikaty ATEX, IECEx, EAC Ex

     

    For application in explosion-hazardous areas intrinsically safe Exi models are available. These designs have CE test certificates according to the 2014/34/EU (ATEX) Directive, Scheme IECEx and EACEx.

     

     

    Other versions

     

    Above mentioned data presents only small part of our supplies program of stator temperature sensors. Upon the customer's request, other versions can also be delivered.

  • Documents
Kalkulator
Unit converter

RTDs and TCs
characteristic calculator

Resistance thermometers

Thermocouples

Cold Junction Compensation = °C

Calculate value of resistance to temperature
(values according to ITS-90 scale)

R = Ω  T = 0 °C

Calculate value of temperature to resistance
(values according to ITS-90 scale)

T = °C R = 0 Ω

Limit values for the calculator

-200 °C - 850 °C

18,52 Ω - 390,48 Ω

Cold Junction Compensation = °C

Calculate value of resistance to temperature
(values according to ITS-90 scale)

R = Ω  T = 0 °C

Calculate value of temperature to resistance
(values according to ITS-90 scale)

T = °C R = 0 Ω

Limit values for the calculator

-60 °C - 250 °C

69,52 Ω - 289,16 Ω

Cold Junction Compensation = °C

Calculate value of thermoelectric emf to temperature

E = mV T = 0 °C

Calculate value of temperature to thermoelectric emf

T = °C  E = 0 mV

Limit values for the calculator

-210 °C - 1200 °C

-8,095 mV - 69,553 mV

Cold Junction Compensation = °C

Calculate value of thermoelectric emf to temperature

E = mV T = 0 °C

Calculate value of temperature to thermoelectric emf

T = °C  E = 0 mV

Limit values for the calculator

-270 °C - 1372 °C

-6,458 mV - 54,886 mV

Cold Junction Compensation = °C

Calculate value of thermoelectric emf to temperature

E = mV T = 0 °C

Calculate value of temperature to thermoelectric emf

T = °C  E = 0 mV

Limit values for the calculator

-270 °C - 1300 °C

-4,345 mV - 47,513 mV

Cold Junction Compensation = °C

Calculate value of thermoelectric emf to temperature

E = mV T = 0 °C

Calculate value of temperature to thermoelectric emf

T = °C  E = 0 mV

Limit values for the calculator

-270 °C - 1000 °C

-9,835 mV - 76,373 mV

Cold Junction Compensation = °C

Calculate value of thermoelectric emf to temperature

E = mV T = 0 °C

Calculate value of temperature to thermoelectric emf

T = °C  E = 0 mV

Limit values for the calculator

-270 °C - 400 °C

-6,258 mV - 20,872 mV

Cold Junction Compensation = °C

Calculate value of thermoelectric emf to temperature

E = mV T = 0 °C

Calculate value of temperature to thermoelectric emf

T = °C  E = 0 mV

Limit values for the calculator

-50 °C - 1768.1 °C

-0,226 mV - 21,103 mV

Cold Junction Compensation = °C

Calculate value of thermoelectric emf to temperature

E = mV T = 0 °C

Calculate value of temperature to thermoelectric emf

T = °C  E = 0 mV

Limit values for the calculator

-50 °C - 1768.1 °C

-0,236 mV - 18,694 mV

Cold Junction Compensation = °C

Calculate value of thermoelectric emf to temperature

E = mV T = 0 °C

Calculate value of temperature to thermoelectric emf

T = °C  E = 0 mV

Limit values for the calculator

0°C - 1820 °C

-0,003 mV - 13,820 mV

Pomoc. Instrukcja użytkownika.

Unit
converter
RTDs and TCs
characteristic calculator