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Cooling Method | Single-stage compression,Second-stage Compression | Humidity range | 20%~98%RH | Internal dimension | 400*500*500mm |
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Humidity Chamber Specifications:
Model | DR-H201-100 | DR-H201-150 | DR-H201-225 | DR-H201-408 | DR-H201-1000 |
Internal dimension | 400*500*500mm | 500*500*600mm | 500*600*750mm | 600*800*850mm | 1000*1000*1000mm |
External dimension | 900*1070*1400mm | 1000*1070*1500mm | 1000*1170*1650mm | 1100*1370*1750mm | 1500*1380*1900mm |
Voltage(V) | Sigle Phase 220V | Sigle Phase 220V | Sigle Phase 220V | Three Phase 380V | Three Phase 380V |
Temperature range | -20℃,-40℃,-70℃~150℃ | ||||
Temp.& Humi.Adjust Way | Balanced Temperature Humidity Control System(BTHC),Intelligent PID Regulation | ||||
Temperature fluctuations | ≤±0.7℃ (without load and temperature stable) | ||||
Internal Chamber Material | Stainless Steel 304 | ||||
External Chamber Material | Stainless steel or paint spray | ||||
Temperature uniformity | ≤±0.7℃ (without load and temperature stable) | ||||
Temperature deviation | ≤±1.0℃/ ±2.0℃ (without load and temperature stable) | ||||
Heating rate | 3℃/min in average | ||||
Cooling rate | 1℃/min in average | ||||
Humidity range | 20%~98%RH | ||||
Humidity deviation | 1 、≥75%RH:≤±3%RH ;2 、≤75%RH :≤±7%RH | ||||
Cooling Method | Single-stage compression,Second-stage Compression; | ||||
Refrigerator | Hermertically Sealed France Tecumseh Compressor or Semi-hermetic BOCK Compressor | ||||
Cooling Method | Air-cooled |
Humidity Chamber - Essential for Material Aging Studies
Material aging studies are critical for industries ranging from automotive to aerospace. Understanding how materials degrade over time under environmental stress ensures product durability and safety. A humidity chamber is an indispensable tool in these studies, simulating real-world conditions to accelerate aging processes. This article explores why humidity chambers are vital for material aging studies, their applications, and best practices for optimizing their use.
A humidity chamber is a controlled environment system designed to test material behavior under specific temperature and humidity conditions. These chambers replicate extreme climates—from tropical humidity to arid deserts—to observe how materials react over time. For material aging studies, this tool provides data on corrosion, expansion, cracking, and other degradation patterns.
Modern humidity chambers offer precise control, enabling researchers to adjust parameters like relative humidity (RH), temperature, and exposure duration. This precision ensures repeatable experiments, a cornerstone of reliable material aging studies.
1. Accelerated Aging Testing
Time is a limiting factor in material aging studies. Natural degradation can take years, but a humidity chamber compresses this timeline. By exposing materials to high humidity, extreme temperatures, or cyclic conditions, researchers simulate decades of aging in weeks. This acceleration helps industries launch products faster without compromising quality.
2. Data Accuracy and Consistency
Manual environmental testing introduces variables that skew results. A humidity chamber eliminates inconsistencies by maintaining strict control over test conditions. For material aging studies, this ensures data accuracy, which is vital for compliance with international standards like ASTM or ISO.
3. Cost-Effective Quality Assurance
Product recalls due to material failure are costly. Humidity chambers help identify weaknesses early, reducing the risk of defects. For example, automotive manufacturers use these chambers to test rubber seals or electronic components, ensuring they withstand humid climates.
1. Automotive Industry
Cars endure diverse climates, from snowy mountains to humid coasts. Humidity chambers test components like batteries, coatings, and polymers to ensure they resist swelling, rust, or electrical failures. These tests align with material aging studies focused on longevity and safety.
2. Electronics Manufacturing
Moisture is a leading cause of electronic failure. In material aging studies, humidity chambers evaluate circuit boards, semiconductors, and displays. Tests may involve thermal cycling (alternating hot/cold) with high humidity to mimic real-world stress.
3. Construction Materials
Concrete, wood, and metals undergo material aging studies to assess durability. A humidity chamber can simulate rainwater absorption, freeze-thaw cycles, or prolonged humidity exposure, helping engineers design resilient infrastructure.
4. Pharmaceuticals and Packaging
Humidity chambers test pill coatings, blister packs, and labels to ensure they remain intact in humid environments. Such material aging studies are mandatory for regulatory approvals.
1. Define Testing Requirements
Identify the humidity range, temperature limits, and chamber size needed. For example, testing large aerospace components requires a walk-in humidity chamber, while small electronics need bench-top models.
2. Prioritize Precision and Control
Look for chambers with ±1% RH accuracy and uniform airflow. Advanced models offer programmable cycles for multi-stage material aging studies.
3. Consider Compliance Needs
Ensure the chamber meets industry-specific standards. Medical device testing, for instance, requires compliance with FDA or ISO 13485 guidelines.
4. Evaluate Maintenance and Support
Choose a supplier offering calibration services and technical support. Regular maintenance ensures your humidity chamber delivers consistent results for long-term material aging studies.
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Guangdong Derui Testing Equipment Co., Ltd.