Key Advantages:
Capacity : 300 to 1000L(Customizable)
Instant thermal transition for extreme stress testing
High-precision temperature control (±0.5°C)
Two-zone or three-zone configuration options
Wide temperature range: -70°C to +200°C
Compliant with MIL-STD-810, IEC 60068, JESD22
Durable, high-reliability design for long-term testing
Customizable sizes and configurations for specific electronic components
Key Specifications:
| Serial number | Capacity ( m3 ) | 0.30 | 0.50 | 1.00 | |
| 1 | Model | Horizontal Thermal test chamber (2-Zone) | ETS300-40W-D | ETS500-40W-D | ETS1000-40W-D |
| 2 | ETS500-55W-D | ETS1000-55W-D | |||
| 3 | ETS300-65W-D | ||||
| 4 | Internal Dimension WxHxD (mm) | 800x620x600 | 1000x800x620 | 1200x1000x800 | |
| 5 | External Dimension WxHxD (mm) | 2150x1980x1700 | 2550x2140x1980 | 2950x2400x2250 | |
| 6 | Thermal Shock Temperature Range of Testing zone | Standard Thermal shock range: -40W(-D): (+60℃ to +150℃) - (0℃ to -40℃) -55W(-D): (+60℃ to +150℃) - (0℃ to -55℃)-65W(-D): (+60℃ to +150℃) - (0℃ to -65℃) Optional: -70W(-D): (+60℃ to +200℃) - (0℃ to -70℃) - for smaller capacity under 100L | |||
| 7 | Exposure Time of High/Low Temperature | Preheating Temperature Range: +60°C to +210°C Heating Rate: +60°C to +200°C ≤ 20min Precooling Temperature Range: -75°C to +20°C | |||
| 8 | Cooling Rate: From +20°C to -70°C ≤ 30min | Cooling Rate: From +20°C to -65°C ≤ 30min | Cooling Rate: From +20°C to -65°C ≤ 30min | ||
| 9 | Temperature of Heat-storing Slot/ Heating Time | RT~200°C / About 15mins | |||
| 10 | Temperature of Cool-storing Slot/ Cooling Time | RT~ -70°C / About 15mins | |||
| 11 | Temperature Recovery Time/Conversion Time | ≤0.5 to 3min/≤3sec | |||
| 12 | Precision Temp Control/ Distribution Accuracy | ±0.5℃/±2℃ | |||
| 13 | Cooling System | Semi-hermetic double-stage compreor(Water-cooled type) Hermetic double-stage compressor (Air-cooled type) | |||
| 14 | Accessories | Viewing window(special opfional) | |||
| 15 | Performance Example( Satisfy test standard IEC60068-2-14) | ||||
| 16 | Rated power | 35kw | 50kw | 80kw | |
| 17 | 55kw | 85kw | |||
| 18 | 48kw | ||||
| 19 | Power | AC380V: 3phase 5 lines : 50/60HZ | |||
| 20 | Approx. Weight (Kg) | 1650 | 2250 | 3250 | |
| 21 | ※1: Both the rate of temperature rising and reduction are the performance while high temperature chamber and low temperature chamber is running ※2: In center point ※3: Recovery condition:ambient temperature:+25℃, cooling water temperature:+25℃,power voltage:380VAC(1±10%) | ||||
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Thermal Shock Testing for Electronics
Electronic components can experience thermal expansion and contraction during operation, transportation and environmental exposure. Repeated temperature changes may create mechanical stress between materials with different coefficients of thermal expansion.
TestEQ thermal shock chambers are designed for reliability testing of electronic components and assemblies, including semiconductor packages, PCB assemblies, connectors, sensors and automotive electronic modules.
The chamber configuration can be selected according to the component size, thermal mass, required temperature profile and applicable reliability test standard.
What Is a Thermal Shock Test Chamber for Electronics?
A thermal shock test chamber for electronics is a reliability testing system designed to evaluate electronic components under sudden temperature changes between extreme hot and cold conditions.
Unlike conventional temperature cycling chambers, thermal shock chambers rapidly transfer samples between high-temperature and low-temperature zones to create severe thermal stress.
This testing method helps identify:
Solder joint cracking
PCB delamination
Component fatigue
Material expansion mismatch
Packaging defects
Thermal shock testing is widely used for semiconductor devices, automotive electronics, aerospace components and high-reliability electronic assemblies.
Working Principle:
The thermal shock chamber operates with a two-zone or three-zone system:
High-temperature zone
Low-temperature zone
Test zone (optional in 3-zone systems)
The electronic sample is transferred rapidly between zones, producing instant thermal stress without gradual transition. This is the key difference from standard thermal cycling chambers.
Thermal Shock Testing for Electronic Components
The actual failure mechanism depends on component construction, materials, temperature profile and number of cycles.
| Component | Typical Thermal Stress Concern |
|---|---|
| Semiconductor packages | Package cracking and material interface stress |
| PCB assemblies | Solder joint fatigue and interconnection stress |
| Connectors | Contact and sealing reliability |
| Sensors | Structural and performance degradation |
| Electronic modules | Housing, solder and interface reliability |
| Sealed components | Seal and material integrity |
Thermal Shock Testing for Semiconductor Packages
Semiconductor packages contain multiple materials with different thermal expansion characteristics. Rapid temperature transitions can create mechanical stress at interfaces between the package, substrate, die and interconnection structures.
Thermal shock testing can therefore be used as part of semiconductor reliability qualification and design verification programs.
For semiconductor applications, engineers should consider:
Package dimensions
Package material
Thermal mass
High/low temperature limits
Transition requirement
Cycle count
Applicable JEDEC test method
For related testing requirements, see JESD22-A104 Temperature Cycling.
Thermal Shock vs Thermal Cycling:
| Feature | Thermal Shock | Thermal Cycling |
|---|---|---|
| Temperature Transition | Instant | Gradual |
| Stress Type | Extreme | Controlled |
| Application | Military, electronics, materials | Electronics, PCBs |
| Standards | MIL-STD | JESD22, IEC 60068 |
Tip: For electronics, thermal shock testing ensures solder joints, PCB laminates, and sensitive components withstand rapid temperature changes
Thermal Shock Testing for PCB Assemblies
PCB assemblies can be evaluated under repeated temperature shock conditions to identify potential reliability issues in:
Solder joints
Components
Connectors
Coatings
PCB materials
Mechanical interfaces
For PCB testing, the chamber should be selected according to the assembled product size and actual thermal load.
Thermal Shock Testing for Automotive Electronics
Automotive electronic components can experience significant temperature variation during vehicle operation and environmental exposure.
Thermal shock testing may be applied to:
ECUs
Sensors
Electronic control modules
Automotive connectors
Power electronics
Battery-related electronic components
Automotive test requirements should be defined according to the applicable OEM or industry specification.
How to Choose a Thermal Shock Test Chamber for Electronics
For electronics testing, consider:
Component dimensions
Number of specimens
Specimen weight
Thermal mass
Required temperature range
Transition requirement
Number of cycles
Test standard
Two-zone or three-zone configuration
Data acquisition requirements
For sensitive components where mechanical movement should be minimized, a three-zone configuration may be considered.
Why Choose TestEQ:
Industry-leading expertise in environmental testing systems
Advanced thermal balance and airflow technology
Stable performance under extreme conditions
Custom engineering solutions for electronics applications
Energy-efficient operation for continuous testing
Recommended Thermal Shock Configurations
Two-Zone Thermal Shock Chamber
Suitable for general electronic component reliability testing where rapid basket transfer is acceptable.
Three-Zone Thermal Shock Chamber
Suitable for applications where the specimen should remain stationary during temperature transitions.
Customized Thermal Shock System
Suitable for large assemblies, special test loads or customer-specific test profiles.
Designed to Meet and Exceed Global Aerospace Benchmarks:
Standards Expertise: Fully compliant with GJB150.5, RTCA/DO-160, MIL-STD-810, MIL-STD-202, and other critical aerospace/defense protocols.
Data Integrity: Precise control and logging ensure your test data is audit-ready and defensible, supporting certification and qualification processes.
Custom Profiles: TestEQ engineers can help develop and validate custom test profiles tailored to your specific mission profile requirements.
Thermal Shock Test Standards for Electronics Applicable Standards
| Standard | Application |
|---|---|
| IEC 60068-2-14 | Temperature change testing |
| JESD22-A104 | Semiconductor temperature cycling |
| MIL-STD-810H Method 503 | Military thermal shock testing |
| MIL-STD-202 Method 107 | Electronic component thermal shock |
FAQ:
Q1: What is a thermal shock test chamber?
A thermal shock chamber evaluates how electronic components react to rapid and extreme temperature changes, helping identify early failures.
Q2: What is the difference between thermal shock and thermal cycling?
Thermal shock involves instant temperature transitions, while thermal cycling uses gradual temperature changes.
Q3: Which electronics can be tested in this chamber?
PCBs, semiconductor devices, automotive modules, aerospace components, and consumer electronics.
Q4: What standards does this chamber meet?
MIL-STD-810, IEC 60068, JESD22, and other global testing standards.
Q5: How to choose the right chamber for electronics testing?
Consider temperature range, transition speed, chamber size, test standards, and component type.
Q6: How does a thermal shock test chamber detect electronic component failures?
A thermal shock test chamber detects potential failures by exposing components to repeated rapid temperature transitions that create thermal stress. This process helps identify issues such as solder joint fatigue, material expansion mismatch, package cracking, and connection reliability problems before products enter mass production.
Q7: What is the typical temperature range of an electronic thermal shock test chamber?
Thermal shock test chambers for electronics typically provide a wide temperature range, with high-temperature zones reaching +150°C to +200°C and low-temperature zones reaching -40°C to -75°C depending on the chamber configuration. The required range depends on the application, component specifications, and reliability testing requirements.
Q8: What is the difference between two-zone and three-zone thermal shock chambers?
A two-zone thermal shock chamber transfers specimens between a hot zone and a cold zone to achieve rapid temperature changes. A three-zone thermal shock chamber adds an ambient zone, allowing more stable specimen transfer and improved temperature control during testing. The choice depends on testing requirements, sample type, and required temperature transition performance.
Internal Linking Module
Recommended Equipment
General-purpose thermal shock testing for electronics, automotive components, aerospace equipment, semiconductor devices and other reliability applications.
Designed for gradual temperature cycling and ESS reliability testing, this chamber provides programmable ramp rates up to 25°C/min and is widely used for semiconductor, PCB, and automotive electronics qualification.
Suitable for long-term climatic testing under controlled temperature and humidity conditions. It is commonly used for electronic components, sensors, batteries, and reliability verification.
Related Standards
IEC 60068-2-14 specifies environmental test methods for rapid temperature changes and thermal shock testing, helping manufacturers evaluate material expansion and structural reliability.
JEDEC JESD22 defines reliability qualification methods for semiconductor devices, including thermal cycling, thermal shock, and accelerated stress testing.
MIL-STD-810H Method 503.7 addresses temperature shock testing involving rapid transitions between high and low temperature environments for applicable equipment and test programs.
Related Resources
Learn how thermal shock testing works, common failure mechanisms, and why rapid temperature transitions are essential for improving electronic product reliability.
Compare thermal shock and thermal cycling based on temperature transition, test configuration, failure mechanisms, cycle requirements and typical electronics reliability applications.
Discover how HAST testing accelerates moisture and temperature stress to evaluate semiconductor packages, IC devices, and electronic assemblies for long-term reliability.
Applications:
This chamber is widely used in electronics testing for:
Semiconductor devices (JEDEC JESD22)
Printed circuit boards (PCBs) and solder joint fatigue analysis
Automotive electronics (ECUs, sensors, ADAS modules)
Aerospace and avionics components
Consumer electronics (smart devices, communication modules)
Military and defense electronic systems
Call to Action:
Need a Reliable Thermal Shock Testing Solution for Electronics?
From semiconductor devices and PCBs to automotive electronic components, TestEQ provides high-performance thermal shock chambers designed to meet IEC 60068-2-14 and JEDEC reliability requirements.
Whether you need a standard system or a customized solution, our engineering team can help you select the right chamber size, temperature range, basket transfer mode, and automation options for your application.
Request Your Thermal Shock Chamber Solution
Tell us your testing requirements, including specimen size, temperature range, and applicable standards. Our engineers will recommend the most suitable thermal shock test chamber for your electronics reliability applications.
"Request a custom thermal shock testing solution for electronics today"
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We will contact you within 1 working day, please pay attention to the email with the suffix "@test-eq.com".
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