Resistor and ceramic construction
Confirm ceramic grade and thickness, resistor and conductor systems, printed area, firing, protection, terminal metallurgy, edge condition, and material compatibility.
Compact printed power resistor element
Thick Film Power Resistor
Thick film power resistors place a broad printed resistive element on ceramic to dissipate drawing-defined electrical power through a controlled thermal path. Chipsimple reviews resistance, tolerance, TCR, continuous and pulse loading, voltage, geometry, terminals, protection, mounting pressure, interface material, heat sink, ambient, temperature rise, and lifecycle together.
- Resistance and heat path engineered together
- Continuous and pulse duty separated
- Terminals, mounting, and interface reviewed
- Temperature rise validated in assembly
- By geometry
- Power rating basis
- By thermal design
- Working-voltage basis
- 5
- Verified product views
- By test
- Pulse and lifecycle release
Product Categories
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Verified capability review
Quick Specifications
Thick Film Power Resistor is shown against approved company capability control sheets.
Capability source: approved company category control sheets. Final values remain drawing- and sample-controlled.
| Parameter | Standard capability | Engineering review range | Final release |
|---|---|---|---|
| Substrate / Thickness | 96% / 99% Alumina / AlN; 0.25–3.0 mm | 96%/99% alumina or AlN within 0.25–3.0 mm, selected for thermal path, voltage, flatness, assembly, and firing | Approved material specification, drawing, and incoming criteria |
| Resistor System | RuO₂ / Cermet | RuO₂ or cermet selected for value, sheet resistance, TCR, load, stability, conductor, and firing compatibility | Released drawing and approved sample |
| Sheet Resistance | 1 Ω/□–1 MΩ/□ paste-family reference | Select within the 1 Ω/□–1 MΩ/□ paste-family reference after value, geometry, aspect ratio, and trim review | Released electrical limits, measurement method, and approved sample |
| Conductor System | Ag / Ag-Pd / Au | Ag, Ag-Pd, or Au selected for termination, bonding, soldering, voltage, environment, and firing | Approved material stack, assembly interface, and sample |
| Resistor Film Thickness | 8–15 µm fired typical | Within 8–15 µm fired typical, print build, firing, geometry, value distribution, and trimming are controlled | Released drawing, DFM approval, and first-article inspection |
| Firing Temperature | Up to 850°C | Peak up to 850°C; the actual profile, atmosphere, dwell, and refire sequence follow the selected paste system | Approved material-process route and production traveler |
View 6 additional engineering review checks
| Parameter | Standard capability | Engineering review range | Final release |
|---|---|---|---|
| Resistance Value | 10 Ω–10 MΩ typical | Within 10 Ω–10 MΩ typical, nominal, ratio, reference temperature, voltage, and measurement method are defined | Released electrical limits, measurement method, and approved sample |
| Resistance Tolerance | ±1% standard | ±0.5% available after paste, geometry, trim allowance, TCR, stability, and measurement review | Released electrical limits, measurement method, and approved sample |
| TCR | ±100–200 ppm/°C typical | Within ±100–200 ppm/°C typical, define temperature interval, tracking, stabilization, and measurement method | Released electrical limits, measurement method, and approved sample |
| Laser Trimming | Passive / Active | Passive or active trimming with approved kerf, cut geometry, stopping rule, test condition, and post-trim protection | Released drawing and approved sample |
| Power / Working Voltage | By geometry and thermal design | Released from geometry, substrate, heat path, ambient, duty, pulse, clearance, field grading, and protection | Approved electrical-thermal design and instrumented prototype validation |
| Protection | Glass overglaze / Passivation | Glass overglaze or passivation selected for trim access, assembly, moisture, contamination, voltage, and temperature | Approved material stack, assembly interface, and sample |
Engineering Capabilities
Power-resistor design starts with the real heat path and load waveform. Engineering connects resistor area and paste family, current density, voltage gradient, conductor overlap, terminal heating, ceramic thickness, protection, contact area, mounting pressure, interface resistance, heat sink, airflow, ambient, overload, pulse energy, cycling, and derating.
Current and heat-spreading geometry
Release resistor shape, conductor overlap, current-entry regions, terminals, clearances, mounting contact area, trim margin if used, and dimensional tolerances.
Load and thermal interface
Define resistance, voltage, continuous power, overload or pulse waveform, duty, ambient, maximum temperature, mounting pressure, interface material, heat sink, and airflow.
Temperature-rise validation
Specify resistance, terminal integrity, power, surface temperature map, hot spots, overload or pulse test, cycling, mounting fixture, derating, sampling, and failure limits.
Typical Applications
Compact power resistors support braking, discharge, balancing, limiting, and load functions when the waveform, mounting, heat sink, derating, and fault conditions are defined.
Application images are engineering illustrations, not customer projects, production records, or evidence of a released design. Suitability is confirmed only after the drawing, interfaces, operating conditions, risks, and validation plan are reviewed.
Application illustrationPower conversion equipment
Power converters require released continuous and pulse loading, heat sink, interface pressure, airflow, voltage, derating, protection, and fault validation.
Review application inputs
Application illustrationEV power electronics
Vehicle power modules need application-specific transient waveforms, thermal cycling, vibration, mounting, cooling, traceability, and qualification evidence.
Review application inputs
Application illustrationIndustrial drives and controls
Industrial assemblies require controlled load cycles, enclosure temperature, cooling, mounting, contamination, overload behavior, service life, and field safety.
Review application inputsVerified Product Views
The verified photographs show real compact rectangular ceramic resistors with broad dark printed films and metal-colored terminal regions in single and grouped arrangements. The clean pink work surface is part of the original photography. Appearance does not establish resistance, power, pulse energy, voltage, TCR, protection, mounting, temperature rise, or lifetime.
- Visible construction
- Rectangular ceramic bodies, broad dark resistor films, and opposing terminal regions are visible.
- Power boundary
- Continuous power, overload, pulse energy, and derating require the released load and thermal assembly.
View 2 additional evidence boundaries
- Thermal boundary
- Temperature rise and hot spots depend on contact area, pressure, interface, heat sink, airflow, and ambient.
- Electrical boundary
- Resistance, tolerance, TCR, voltage, and terminal current require controlled measurement and design data.
Manufacturing & Quality
Chipsimple supports resistor printing, controlled firing, laser trimming, and laboratory inspection in Dongguan.
Read the shared manufacturing-control scope
Power-resistor projects release the material stack, artwork, terminals, load waveform, mounting fixture, thermal test, protection, sampling, traceability, and acceptance records together; final ratings require validated assembly and derating conditions.
Technical FAQ
Short answers for quotation planning; released drawings and validation requirements remain controlling.
What should be defined first for a custom Thick Film Power Resistor?
Define resistance, tolerance, TCR, working voltage, continuous power, overload and pulse waveform, energy, repetition, duty, ambient, maximum temperature, terminals, protection, mounting surface, contact area, pressure, interface material, heat sink, airflow or cooling, derating, fault conditions, and target life.
Are the quick specification values guaranteed for every design?
No. They are practical category-level selection values, not a released product specification. Material compatibility, geometry, print build, electrical loading, assembly, environment, inspection method, and expected volume can narrow the usable window. Final values are confirmed against the controlled drawing and approved project conditions.
How should Thick Film Power Resistor performance be validated?
Measure resistance and terminal integrity, then power, surface temperature map, hot spots, terminal temperature, overload or pulse response, thermal cycling, mounting sensitivity, environmental exposure, and drift in the production-intent heat sink and interface. Control waveform, fixture, sensors, sampling, derating, and failure limits.
What should be included with an RFQ?
Send the controlled drawing or artwork, dimensions and tolerances, material preference, electrical targets, assembly interface, operating environment, validation requirements, prototype quantity, annual volume, and schedule. Include continuous and pulse load waveforms, derating, mounting pressure and contact area, interface material, heat sink, cooling, and maximum temperature.
Request a Thick Film Power Resistor Quote
Send the load waveform and production-intent thermal stack with the resistor drawing. Continuous and pulse power, mounting pressure, interface, heat sink, cooling, ambient, terminals, protection, maximum temperature, derating, and lifecycle determine the practical route; wattage cannot be released from package size alone.
RFQ inputs and review sequence
- Drawing-led DFM and material-route feedback
- Prototype and repeat-production route review
- Confidential handling of customer files
- Project-specific inspection and validation planning
- Ceramic, outline, thickness, terminals, and tolerances
- Resistor artwork, conductor overlap, protection, and trim margin
- Resistance, tolerance, TCR, voltage, and continuous power
- Overload or pulse waveform, energy, repetition, and duty
- Mounting area, pressure, interface, heat sink, and cooling
- Temperature map, cycling, derating, drift, and reliability tests
- Quantity, schedule, sampling, traceability, and packing
- 1We review the drawing, application, material route, and missing acceptance inputs.
- 2You receive DFM questions and a prototype route for approval.
- 3Repeat production follows the released revision, inspection plan, and packing requirement.
Submit RFQ and upload files
PDF, DWG, DXF, STEP, Gerber, ZIP, Excel, Word, or sample photos are accepted.
The drawing-upload form loads as you reach this section.