Three Slot Cold And Heat Shock Test Chambers 80L For Electronics Industry

The Customization Three-slot 80L Cold and Heat Shock Test Chambers are designed to meet the specific needs of industries where durability and reliability under fluctuating thermal conditions are crucial. These chambers, with a compact yet efficient 80-liter capacity and unique three-slot design, serve a wide range of industries including electronics, automotive, aerospace, and materials research.

• High-strength framework made of corrosion-resistant steel
• Space-efficient design suitable for laboratory or production line setups
• Three-slot configuration for simultaneous testing of multiple samples
• Interior lined with non-reactive, smooth surface materials
• Doors with tight seals featuring:
  • Reliable locking mechanisms
  • Heavy-duty gaskets
  • Tempered glass viewing windows with anti-fog properties

• Cold Shock: Capable of reaching -60°C or lower with ±0.5°C accuracy
• Heat Shock: Capable of reaching +150°C or higher with ±0.5°C accuracy
• Rapid temperature transitions (5°C to 15°C per minute)
• Programmable temperature profiles for customized testing
• Built-in safety features to prevent overcooling/overheating

• Comprehensive temperature sensors in each slot
• State-of-the-art data acquisition system
• Real-time monitoring and data recording
• Integration capability with external software
• Built-in alarms for abnormal conditions

• Volume: 80 liters total capacity
• Dimensions: Approximately 80-100cm (W) × 60-80cm (D) × 120-150cm (H)
• Temperature Uniformity: ±1°C during operation
• Temperature Stability: Minimal fluctuations over time
• Temperature Change Rate: 5°C to 15°C per minute

These chambers provide highly accurate simulation of cold and heat shock conditions to evaluate product behavior under thermal stress. Applications include testing solder joints in electronics, engine components in automotive, and materials in aerospace applications.

Enables manufacturers to identify potential weaknesses, optimize designs, and improve manufacturing processes. Researchers can explore new materials and understand their properties under extreme thermal cycling.

Helps manufacturers ensure their products meet industry standards and regulations for temperature shock performance, facilitating market access and enhancing consumer confidence.