Resistors-Chassis Mount

Image Part Number Description / PDF Quantity Rfq
RER65F5001MCSL

RER65F5001MCSL

Vishay / Dale

RES CHAS MNT 5K OHM 1% 10W

0

RER65F1300RCSL

RER65F1300RCSL

Vishay / Dale

RES CHAS MNT 130 OHM 1% 10W

0

RER65FR200RC02

RER65FR200RC02

Vishay / Dale

RES CHAS MNT 0.2 OHM 1% 10W

0

RER65FR681RC02

RER65FR681RC02

Vishay / Dale

RES CHAS MNT 0.681 OHM 1% 10W

0

RH01035R00FE02

RH01035R00FE02

Vishay / Dale

RES CHAS MNT 35 OHM 1% 12.5W

93

RER65F13R0MCSL

RER65F13R0MCSL

Vishay / Dale

RES CHAS MNT 13 OHM 1% 10W

0

RER65F7R15RCSL

RER65F7R15RCSL

Vishay / Dale

RES CHAS MNT 7.15 OHM 1% 10W

0

RH005R1000FE02

RH005R1000FE02

Vishay / Dale

RES CHAS MNT 0.1 OHM 1% 7.5W

0

RER65F1471RC02

RER65F1471RC02

Vishay / Dale

RES CHAS MNT 1.47K OHM 1% 10W

0

RER55F12R4RC02

RER55F12R4RC02

Vishay / Dale

RES CHAS MNT 12.4 OHM 1% 30W

0

RER65F15R4RCSL

RER65F15R4RCSL

Vishay / Dale

RES CHAS MNT 15.4 OHM 1% 10W

0

RER65FR158MCSL

RER65FR158MCSL

Vishay / Dale

RES CHAS MNT 0.158 OHM 1% 10W

0

RER70F1002RC02

RER70F1002RC02

Vishay / Dale

RES CHAS MNT 10K OHM 1% 20W

0

RER65F2431RC02

RER65F2431RC02

Vishay / Dale

RES CHAS MNT 2.43K OHM 1% 10W

0

RER65F3010RC02

RER65F3010RC02

Vishay / Dale

RES CHAS MNT 301 OHM 1% 10W

0

RER65F6800MC02

RER65F6800MC02

Vishay / Dale

RES CHAS MNT 680 OHM 1% 10W

0

RER65FR475RC02

RER65FR475RC02

Vishay / Dale

RES CHAS MNT 0.475 OHM 1% 10W

0

RER65F1R62RC02

RER65F1R62RC02

Vishay / Dale

RES CHAS MNT 1.62 OHM 1% 10W

0

RER65F2320PCSL

RER65F2320PCSL

Vishay / Dale

RES CHAS MNT 232 OHM 1% 10W

0

RER65F16R2RC02

RER65F16R2RC02

Vishay / Dale

RES CHAS MNT 16.2 OHM 1% 10W

0

Resistors-Chassis Mount

1. Overview

Chassis Mount Resistors are specialized electronic components designed for direct mounting onto equipment chassis or heat sinks. They provide critical functions including current limiting, voltage division, and energy dissipation in high-power applications. Their importance in modern technology lies in enabling thermal management stability and electrical performance in industrial, automotive, and power electronics systems.

2. Major Types and Functional Classification

TypeFunctional FeaturesApplication Examples
Wirewound Chassis MountHigh precision, pulse stability, 10-100W power ratingIndustrial motor drives, test equipment
Film Type Chassis MountLow noise, fast response, 5-50W ratingCommunication infrastructure, medical devices
Ceramic Composite MountHigh-temperature resistance, 50-300W ratingEV charging systems, renewable energy inverters

3. Structure and Composition

Typical construction includes:

  • Aluminum alloy heat-dissipating housing (surface-anodized for insulation)
  • High-purity ceramic substrate with resistive element (NiCr or TaN)
  • Multi-layer silicone coating for vibration resistance
  • Brass/copper alloy mounting terminals (anti-corrosion plated)

Thermal interface materials (TIM) ensure efficient heat transfer to chassis.

4. Key Technical Specifications

ParameterImportanceTypical Range
Rated PowerDetermines thermal handling capacity5-500W
Resistance RangeAffects current regulation precision0.1 -100k
ToleranceImpacts circuit accuracy 0.5% to 5%
Temperature CoefficientStability over operating temperature50-200ppm/ C
Dielectric StrengthSafety insulation performance1.5-5kV

5. Application Fields

Primary industries include:

  • Industrial automation (variable frequency drives, PLCs)
  • Renewable energy (solar inverters, wind turbine converters)
  • Transportation (EV on-board chargers, railway traction systems)
  • Telecommunications (base station power amplifiers, data center PSUs)

Case Study: 300W ceramic composite resistors in EV fast chargers enable 15-minute battery charging cycles.

6. Leading Manufacturers and Products

ManufacturerRepresentative ProductKey Features
Vishay Precision GroupCPW-100100W wirewound, 0.1% tolerance
Ohmite Manufacturing270 series500W ceramic housing, IP65 rated
Panasonic ElectronicERJ-P11Thin-film technology, 100ppm/ C stability

7. Selection Guidelines

Key considerations:

  • Calculate required power derating (70% of max rating recommended)
  • Match resistance value with system voltage/current requirements
  • Evaluate thermal interface compatibility with chassis
  • Consider environmental factors (humidity, vibration, ambient temperature)
  • Budget allocation: High-reliability models may cost 2-3 standard versions

8. Industry Trends Analysis

Current development trends include:

  • Nano-ceramic materials enabling 40% smaller form factors
  • Integrated temperature sensing resistors for smart power systems
  • Graphene-enhanced thermal coatings improving heat dissipation by 25%
  • Automotive-grade models supporting 150 C operating temperatures
  • Industry 4.0 compatibility with IoT-enabled resistance monitoring

Market projections indicate 8.7% CAGR through 2030 driven by EV and 5G infrastructure demands.

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