Website: Sanwood
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CSSD/ESSD Temperature Test Chamber

Neutralizing Extreme Cumulative Thermal Spikes During Massively Parallel Gen5 CSSD/ESSD Dynamic Data Profiling.

Validating next-generation Solid State Drives requires managing two distinctly brutal thermal profiles. Client SSDs (CSSD) demand massive, ultra-high-density slot configurations that choke normal airflow, while Enterprise SSDs (ESSD) pull up to 25W to 40W per drive. When hundreds of these enterprise drives execute continuous, full-stroke read/write loops concurrently, they generate a massive collective active thermal load exceeding 3 kW to 10 kW. Standard environmental test chambers lack the thermodynamic capacity to counteract this concentrated heat, causing rapid temperature overshoot, unprogrammed slope flattening, and false thermal throttling triggers.

Sanwood's CSSD/ESSD Temperature Test Chamber eliminates this testing bottleneck. Engineered as a heavy-duty, high-volume climatic test chamber, it couples advanced multi-stage refrigerant bypass loops with customized high-static pressure cross-flow ventilation. This allows testing teams to run relentless IOPS stress patterns at full capacity while ensuring the target hot/cold ramp profiles remain absolutely locked and uniform across every single testing slot.

CSSD/ESSD Temperature Test Chamber

High Live-Load Solid State Drive Reliability Environmental Chamber

CSSD/ESSD Temperature Test Chamber

Advanced Technical Advantages


  • High-Speed Interface Interconnect: Integrates custom high-frequency impedance-controlled backplanes supporting PCIe 4.0/5.0 and NVMe architectures, canceling data link jitter and trace signal loss during deep temperature cycles.
  • Algorithmic Power Cycling: Features milliseconds-level automated power interruption modules per drive slot, simulating severe cloud server and client brownout anomalies to test sudden power-loss data protection (PLP).
  • Active Heat Dissipation Control: Deploys high-volume localized air turbulence to neutralize active self-heating from dense enterprise SSDs, ensuring real chamber settings override device internal thermal throttling.

  • Combined BER & Current Telemetry: Interleaves slot-level voltage-current sampling with host host logging software, identifying micro-ampere standby leakage deviations alongside firmware bit-error rate (BER) growth.
CSSD/ESSD Temperature Test Chamber

Targeted Application Architecture


  • Hyperscale Cloud Data Centers & Enterprise Compute Infrastructure: Validates full-capacity ESSD U.2, U.3, E1.S, and E3.S form-factor drive lots under relentless thermal cycles to guarantee zero data loss and flawless MTBF at mission-critical node deployment. 

  • Client Notebook & Premium Smart Consumer Electronics OEMs: Runs high-throughput infant mortality screening on high-density M.2 NVMe CSSD drive arrays, isolating marginal NAND flash components and packaging vulnerabilities before assembly. 

  • PCIe Gen5/Gen6 Controller R&D & FTL Firmware Optimization: Tracks high-speed signal integrity and Flash Translation Layer telemetry mapping during sharp thermal ramp transitions, evaluating temperature throttling trigger accuracy. 

  • Automotive Telematics & Smart Mobility Edge Storage: Subjects automotive-grade eMMC/UFS/SSD storage units to rigorous AEC-Q100 aligned thermal limits to secure reliable black-box logging and ADAS map-loading under desert heat or arctic cold. 

  • OSAT Half-Conductor Memory Packaging & High-Volume QA: Scales parallel production-line thermal stress screening across thousands of memory modules simultaneously, minimizing overall manufacturing test cycles while keeping yield maps spotless. 

CSSD/ESSD Temperature Test Chamber

The Test Standards Of The Test Chamber


  • JEDEC JESD218 / JESD219: Solid-State Drive Requirements (Governs continuous operational retention under active thermal stress inside the environmental test chamber to map flash logic gate degradation boundaries).
  • IEC 60068-2-14 (Test Nb): Change of Temperature - Specified Rate (Mandates linear high-rate ramp tracking to quantify component thermomechanical degradation cycles within the climatic test chamber workspace).
  • JEDEC JESD22-A104: Temperature Cycling for IC Packaging (Specifies rapid thermal boundaries to evaluate thermal fatigue durability for high-density BGA solder spheres and package-level interconnect interfaces.).

  • MIL-STD-810H Method 503.7: Temperature Shock for Rugged Hardware (Validates tactical server memory arrays against fast air-to-air environmental transits inside the specialized climatic test chamber layout).
  • AEC-Q100 Test Group G: Semiconductor Cavity Leakage & Reliability (Evaluates long-term unpowered NAND flash data retention limits after undergoing continuous cycling exposure profiles within the environmental test chamber layout).
CSSD/ESSD Temperature Test Chamber

Control System Of The Test Chamber

The control system of the Sanwood test chamber adopts the world's leading software and hardware system to ensure that the test chamber operates under preset conditions, provide accurate and reliable experimental data, and help users achieve precise control and data collection of various experimental conditions.

  • Controller: It adopts the controller imported from South Korea Sanwon and the self-developed control system, which can be equipped with Siemens control system and equipped with RS232, RS485 and Ethernet communication ports.
  • Programmable control: It supports setting experimental programs, such as heating, cooling, constant temperature time, etc., and can execute multiple program settings, and supports advance reservation startup function.
  • Multiple languages optional: English, Korean, Russian and Japanese.
  • Remote monitoring: Using network remote technology to achieve remote control, the test chamber can be monitored at any time, and the current data can be viewed through the user's PC and mobile phone, which improves the convenience of testing.

The specific control system of the test chamber will vary depending on the model. Please read the "Sanwood Environmental Test Chamber Manual" carefully before use and comply with the safety operating procedures.

CSSD/ESSD Temperature Test Chamber

Refrigeration System Of The Test Chamber

The refrigeration system of the test chamber is a complex and important system. The stability of the refrigeration system is crucial to the accuracy and reliability of the test results.

  • Sanwood Technology has developed a refrigerant hot gas defrosting technology, which effectively melts the frost on the evaporator by injecting high-temperature and high-pressure refrigerant steam into the heat exchanger in the test chamber. This not only ensures that the evaporator does not frost, but also greatly reduces the energy consumption of the equipment.
  • The refrigeration unit adopts an internationally renowned brand.
  • Optimize the layout of the refrigeration system, and adopt VRF (refrigerant flow control) technology based on the PID cold end output principle to achieve low-temperature energy-saving operation, which can reduce energy consumption by 30% under low-temperature conditions.
  • The refrigeration system adopts a modular design, with low failure rate, few welding points, high refrigeration efficiency, good reliability, simple maintenance, and low maintenance cost.


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