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Gardner Denver Temperature Sensor 100010275 for Screw Air Compressors

Gardner Denver Temperature Sensor 100010275 for Screw Air Compressors

MOQ: 1
Price: $18/pieces
Standard Packaging: Carton
Delivery Period: 15-20work days
Payment Method: T/T
Supply Capacity: 100-1000
Detail Information
Place of Origin
China
Brand Name
Gardner Denver
Model Number
100010275
Highlight:

Gardner Denver air compressor temperature sensor

,

screw air compressor temperature sensor

,

Gardner Denver 100010275 sensor

Product Description

Temperature Sensor Product Overview

temperature sensor is a device that measures thermal energy in a system, converting it into an electrical signal (e.g., voltage, resistance) for monitoring, control, or safety. These sensors ensure precise temperature management in industrial, automotive, medical, and consumer applications.


Key Functions

  1. Accurate Measurement

    • Tracks real-time temperature with high precision.

  2. Process Control

    • Maintains optimal conditions (e.g., HVAC, manufacturing).

  3. Safety Shutdown

    • Triggers alarms or halts systems during overheating/freezing.

  4. Energy Efficiency

    • Optimizes heating/cooling cycles to reduce waste.


Common Sensor Types

Type Principle & Use Case Pros & Cons
Thermocouple (T/C) Two dissimilar metals generate voltage proportional to ΔT. Wide range, rugged. ✅ Fast, high-temp (up to 2300°C)
❌ Lower accuracy
RTD (Pt100/Pt1000) Platinum wire’s resistance changes with T. Linear, stable. ✅ High accuracy (±0.1°C)
❌ Slower, costly
Thermistor Ceramic/polymer resistance varies exponentially with T. High sensitivity. ✅ Precise in narrow ranges
❌ Fragile, self-heating
Semiconductor (IC) Silicon-based (e.g., LM35, DS18B20). Digital/analog output. ✅ Easy integration, low-cost
❌ Limited range (-55°C to 150°C)
Infrared (IR) Detects thermal radiation from surfaces. Non-contact. ✅ Fast, remote sensing
❌ Affected by emissivity

Parameters Table

Standard specifications for industrial temperature sensors:

Parameter Description Common Values/Options
Measurement Range Operational temperature limits. -200°C to +2300°C (T/C Type B)
-50°C to +150°C (IC)
Accuracy Max. deviation from true value. ±0.1°C (RTD), ±1°C (T/C), ±0.5°C (IC)
Response Time Time to reach 63% of final reading (τ). 0.1–10s (fast IR), 1–50s (RTD/T/C)
Output Signal Electrical interface. mV (T/C), Ω (RTD), 0–10V, 4–20mA, I²C, SPI
Probe Material Sensing tip/jacket construction. Stainless steel 316, Inconel, ceramic, PFA
Stability/Drift Long-term accuracy change per year. ±0.05°C/yr (RTD), ±0.2°C/yr (T/C)
Self-Heating Error Heat generated by sensor affecting readings (esp. RTDs/thermistors). <0.1°C (low-power IC), 0.5–2°C (RTD at 1mA)
Immersion Depth Minimum probe insertion for accurate readings. 10–15x probe diameter (general rule)
IP Rating Ingress protection (dust/water resistance). IP65 (water-resistant), IP67 (submersion)
Certifications Compliance standards. IEC 60751 (RTD), ASTM E230 (T/C), RoHS, ATEX

Applications

  • Industrial: Furnace control, chemical reactors, machinery health.

  • Automotive: Engine/cabin temp, battery thermal management (EVs).

  • Medical: Patient monitors, sterilizers, lab equipment.

  • HVAC: Air/water temp regulation.

  • Food Safety: Cold chain monitoring, cooking processes.

  • Consumer Electronics: Smartphones, appliances, wearables.


Selection Guidelines

  1. Range & Accuracy:

    • Use T/Cs for extreme heat (>400°C); RTDs for precision (±0.1°C); ICs for cost-sensitive apps.

  2. Environment:

    • Choose corrosion-resistant probes (e.g., Inconel) for chemicals; IP67 for moisture.

  3. Response Needs:

    • Opt for thin-film RTDs/IR for rapid changes; avoid thermistors in dynamic systems.

  4. Output Compatibility:

    • 4–20mA for noisy industrial settings; digital (I²C) for embedded systems.

  5. Calibration:

    • Prioritize sensors with low drift for critical processes (e.g., pharma).

⚠️ Critical Notes:

  • Grounding/Noise: Shield T/C wires to prevent EMI interference.

  • Thermal Contact: Ensure proper probe adhesion to surfaces.

  • Calibration: Recalibrate annually per ASTM E2847 or OEM guidelines.


Specialized Sensors:

  • Fiber Optic: Immune to EMI (e.g., power plants).

  • Wireless IoT: For remote monitoring (LoRaWAN/NB-IoT).

  • Surface-Mount: PCBs/microelectronics.

Always verify specifications against application requirements. Consult datasheets for derating at extreme conditions.











































































































































































































































































































































































































































































































































Recommended Products
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PRODUCTS DETAILS
Gardner Denver Temperature Sensor 100010275 for Screw Air Compressors
MOQ: 1
Price: $18/pieces
Standard Packaging: Carton
Delivery Period: 15-20work days
Payment Method: T/T
Supply Capacity: 100-1000
Detail Information
Place of Origin
China
Brand Name
Gardner Denver
Model Number
100010275
Minimum Order Quantity:
1
Price:
$18/pieces
Packaging Details:
Carton
Delivery Time:
15-20work days
Payment Terms:
T/T
Supply Ability:
100-1000
Highlight

Gardner Denver air compressor temperature sensor

,

screw air compressor temperature sensor

,

Gardner Denver 100010275 sensor

Product Description

Temperature Sensor Product Overview

temperature sensor is a device that measures thermal energy in a system, converting it into an electrical signal (e.g., voltage, resistance) for monitoring, control, or safety. These sensors ensure precise temperature management in industrial, automotive, medical, and consumer applications.


Key Functions

  1. Accurate Measurement

    • Tracks real-time temperature with high precision.

  2. Process Control

    • Maintains optimal conditions (e.g., HVAC, manufacturing).

  3. Safety Shutdown

    • Triggers alarms or halts systems during overheating/freezing.

  4. Energy Efficiency

    • Optimizes heating/cooling cycles to reduce waste.


Common Sensor Types

Type Principle & Use Case Pros & Cons
Thermocouple (T/C) Two dissimilar metals generate voltage proportional to ΔT. Wide range, rugged. ✅ Fast, high-temp (up to 2300°C)
❌ Lower accuracy
RTD (Pt100/Pt1000) Platinum wire’s resistance changes with T. Linear, stable. ✅ High accuracy (±0.1°C)
❌ Slower, costly
Thermistor Ceramic/polymer resistance varies exponentially with T. High sensitivity. ✅ Precise in narrow ranges
❌ Fragile, self-heating
Semiconductor (IC) Silicon-based (e.g., LM35, DS18B20). Digital/analog output. ✅ Easy integration, low-cost
❌ Limited range (-55°C to 150°C)
Infrared (IR) Detects thermal radiation from surfaces. Non-contact. ✅ Fast, remote sensing
❌ Affected by emissivity

Parameters Table

Standard specifications for industrial temperature sensors:

Parameter Description Common Values/Options
Measurement Range Operational temperature limits. -200°C to +2300°C (T/C Type B)
-50°C to +150°C (IC)
Accuracy Max. deviation from true value. ±0.1°C (RTD), ±1°C (T/C), ±0.5°C (IC)
Response Time Time to reach 63% of final reading (τ). 0.1–10s (fast IR), 1–50s (RTD/T/C)
Output Signal Electrical interface. mV (T/C), Ω (RTD), 0–10V, 4–20mA, I²C, SPI
Probe Material Sensing tip/jacket construction. Stainless steel 316, Inconel, ceramic, PFA
Stability/Drift Long-term accuracy change per year. ±0.05°C/yr (RTD), ±0.2°C/yr (T/C)
Self-Heating Error Heat generated by sensor affecting readings (esp. RTDs/thermistors). <0.1°C (low-power IC), 0.5–2°C (RTD at 1mA)
Immersion Depth Minimum probe insertion for accurate readings. 10–15x probe diameter (general rule)
IP Rating Ingress protection (dust/water resistance). IP65 (water-resistant), IP67 (submersion)
Certifications Compliance standards. IEC 60751 (RTD), ASTM E230 (T/C), RoHS, ATEX

Applications

  • Industrial: Furnace control, chemical reactors, machinery health.

  • Automotive: Engine/cabin temp, battery thermal management (EVs).

  • Medical: Patient monitors, sterilizers, lab equipment.

  • HVAC: Air/water temp regulation.

  • Food Safety: Cold chain monitoring, cooking processes.

  • Consumer Electronics: Smartphones, appliances, wearables.


Selection Guidelines

  1. Range & Accuracy:

    • Use T/Cs for extreme heat (>400°C); RTDs for precision (±0.1°C); ICs for cost-sensitive apps.

  2. Environment:

    • Choose corrosion-resistant probes (e.g., Inconel) for chemicals; IP67 for moisture.

  3. Response Needs:

    • Opt for thin-film RTDs/IR for rapid changes; avoid thermistors in dynamic systems.

  4. Output Compatibility:

    • 4–20mA for noisy industrial settings; digital (I²C) for embedded systems.

  5. Calibration:

    • Prioritize sensors with low drift for critical processes (e.g., pharma).

⚠️ Critical Notes:

  • Grounding/Noise: Shield T/C wires to prevent EMI interference.

  • Thermal Contact: Ensure proper probe adhesion to surfaces.

  • Calibration: Recalibrate annually per ASTM E2847 or OEM guidelines.


Specialized Sensors:

  • Fiber Optic: Immune to EMI (e.g., power plants).

  • Wireless IoT: For remote monitoring (LoRaWAN/NB-IoT).

  • Surface-Mount: PCBs/microelectronics.

Always verify specifications against application requirements. Consult datasheets for derating at extreme conditions.