ウォークイン温度試験室

• Energy-Saving Environmental Test Chamber: Safeguard Your Long-Term Product Costs

  Dec 01, 2025

  For enterprises in manufacturing, electronic technology, and related industries, product reliability testing is a critical quality assurance link. However, the operational costs of environmental test chambers—core testing equipment—are often overlooked. Many businesses focus solely on testing precision during procurement, only to be troubled by high energy bills in long-term use. Our energy-saving environmental test chamber effectively resolves the conflict between "accurate testing" and "cost control," providing comprehensive support for product lifecycle cost management. Core Energy-Saving Feature: Intelligent Refrigeration System Regulation As the primary energy-consuming component of environmental test chambers, the energy regulation technology of the refrigeration system directly determines the equipment’s energy efficiency. On the premise of meeting core technical indicators, this test chamber innovatively integrates multiple energy adjustment measures to achieve intelligent dynamic control of refrigeration capacity. The system precisely regulates evaporation temperature via the controller and links it with a hot gas bypass energy adjustment mechanism, matching refrigeration demand in real time based on the required cooling rate and target temperature range. When approaching the set low temperature, the system automatically reduces refrigeration capacity to avoid temperature overshoot—a common issue in traditional models—ensuring test stability. During the constant temperature phase, it abandons the energy-intensive "hot-cold balance" mode, optimizing energy utilization at the source. Verified in real operating conditions, the energy-saving effect reaches up to 30%, significantly reducing long-term operational costs, especially for enterprises requiring 24/7 continuous operation. Precision & Energy Efficiency: Optimized Heating System Power Control Refined control of the heating system further enhances the equipment’s energy-saving advantages and temperature control precision. The system adopts a synergistic control scheme of temperature controllers and thyristors: the temperature controller collects real-time temperature signals and issues control commands, while thyristors precisely adjust the heater’s power output. When the temperature is far below the set value, thyristors deliver full power for rapid heating. As the temperature gradually approaches the set value, the output power decreases incrementally; once the target temperature is reached, power output stops immediately. This on-demand power distribution mode eliminates energy waste and ensures precise temperature control, providing a stable and reliable temperature environment for tests. For example: When the internal temperature is significantly lower than the set value, thyristors operate at full power, and the heater runs at maximum load to ensure rapid temperature rise. As the temperature nears the target, the thyristor’s output power gradually decreases. Once the target temperature is achieved, the thyristor stops power output immediately, and the heater enters standby mode. This "on-demand power supply" mode eliminates the drawback of "frequent start-stop" in traditional heating systems—avoiding ineffective energy consumption while greatly improving temperature control precision, making it particularly suitable for test scenarios requiring high temperature stability. Dual-System Synergy: Safeguard Enterprise Costs From the refrigeration system’s intelligent energy adjustment to the heating system’s precision power control, our environmental test chamber centers on dual-system collaborative energy-saving technology. While ensuring accurate test data, it maximizes energy cost reduction. Choosing our test chamber not only guarantees product testing quality but also enables scientific management of enterprise operational costs, providing peace of mind throughout your product R&D and production processes. In addition, if your enterprise is seeking a cost-effective environmental test chamber or struggling with high energy consumption from existing equipment, we recommend focusing on our energy-saving model. Let professional equipment protect your product quality while reducing costs and enhancing efficiency for your business.

  ホットタグ : 高温・低温試験室 高温・低温湿度試験室 環境試験室 ウォークイン温度試験室 環境試験室メーカー 環境シミュレーション室

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• Got Your Temperature Test Chamber? Here’s What You Must Do Next!

  Nov 28, 2025

  I. Receipt Inspection  1. Physical Verification Confirm equipment model, specifications, and serial number match the contract/packing list to avoid wrong delivery. Inspect the cabinet, door, and control panel for transportation damage (dents, deformation) and ensure pipelines/wiring are intact without loosening. 2. Accessory & Document Check Required accessories: Power cord, sample shelves, sealing rings, wrenches, and other tools (verify against the packing list). Technical documents: Operation/maintenance manual, calibration certificate, warranty card, and qualification certificate (all mandatory for after-sales service). 3. Abnormal Handling In case of damage or missing items: Immediately take photos (overall equipment, damaged details, packing list), notify the supplier within 24 hours to submit a claim, and sign the "Acceptance Objection Form" for documentation. II. Installation & Deployment (Compliant Installation Ensures Performance) 1. Environment Requirements (Must Meet the Following) Floor: Flat and sturdy, with load-bearing capacity ≥1.2 times the equipment weight (to avoid test errors caused by vibration). Space: ≥30cm ventilation gap around the cabinet; keep away from heat sources, water sources, dust, and strong electromagnetic interference. Power supply: Match the rated voltage (e.g., 380V three-phase five-wire/220V single-phase), grounding resistance ≤4Ω, and equip an independent air switch (power ≥1.2 times the equipment's rated power). Environment: Room temperature 15-35℃, humidity ≤85%RH (no condensation); water-cooled models require pre-connected cooling water circuits meeting specifications. 2. Basic Installation Steps Level the equipment: Adjust anchor bolts and use a level to confirm horizontal alignment (to prevent uneven stress on the refrigeration system). Wiring inspection: Connect the power supply per the manual and ensure correct neutral/grounding connections (a common cause of electrical failures). Consumable check: Confirm refrigerant and lubricating oil (if applicable) are properly filled with no leakage. III. Commissioning (Core: Verify Performance Compliance) 1. First Startup Procedure （1） Recheck power/pipeline connections before power-on; switch on after confirmation. （2）Panel self-test: Ensure the display shows no error codes and buttons/indicators function normally. （3）No-load operation (2-4 hours): Set a common temperature range (e.g., -40℃~85℃) and monitor temperature fluctuation ≤±0.5℃ (meets industrial standards). Check door sealing (no obvious air leakage), operating noise ≤75dB, and normal start/stop of refrigeration/heating systems. 2. Load Verification (Simulate Actual Usage) Place a load equivalent to the test sample (weight/volume ≤80% of the equipment's rated load) without blocking air ducts. Set the target temperature and holding time; record if the heating/cooling rate meets technical parameters (e.g., -40℃~85℃ heating time ≤60 minutes). Alarm test: Simulate power failure, over-temperature, or door-open timeout to confirm timely alarm response (audio-visual alarm + shutdown protection). IV. Emergency Handling & After-Sales Coordination 1. Common Fault Resolution Error codes: Refer to the "Troubleshooting" section in the manual (e.g., E1=Over-temperature, E2=Power abnormality). Sudden failures: (e.g., electric leakage, abnormal noise, refrigeration failure) Immediately cut off power, stop use, and contact the supplier's technical support (do not disassemble independently). 2. After-Sales Support Retain the supplier's after-sales contact (phone + email) and confirm the warranty period (usually 1 year for the whole machine). Maintenance records: Request a "Maintenance Report" after each service and file it for future tracing.

  ホットタグ : 高温・低温試験室 高温・低温湿度試験室 ウォークイン温度試験室 環境試験室メーカー 環境シミュレーション室 温度衝撃試験室

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• ウォークイン温度試験室の導入

  Feb 24, 2025

  ウォークイン温度試験室 は、作業者が中を歩いて入ることができる大型実験室で、主に環境試験に使用されます。大型部品、半製品、完成品の試験によく使用され、実際の環境温度をシミュレートします。電気工学、電化製品、計器、電子工学、セキュリティ、通信、センサー、自動化、工業用制御、精密機械などの業界で広く使用されています。ウォークイン温度試験室には、ボックスの側面にプラグ付きのφ50mm試験穴が装備されています。プラグの材質は低発泡シリコンゴムで、高温と低温に耐え、断熱効果があります。ヒーターは磁器フレームニッケルクロム線電気ヒーターを採用しており、熱慣性が低く、耐用年数が長いです。機器は制御可能なパルスデューティサイクルPID信号を出力し、ソリッドステートリレーによって制御されるため、制御がよりスムーズで信頼性が高くなります。 ウォークイン温度試験室の性能と特徴: 1. 温度と湿度の制御範囲が非常に広く、ユーザーのさまざまなニーズを満たすことができます。独自のバランスのとれた温度と湿度の制御方法を採用することで、安全で正確な温度と湿度の環境を実現できます。安定したバランスのとれた加熱と加湿の性能を備えており、高精度の温度と湿度の制御を実現できます。 2.インテリジェント温度調節器を搭載し、温度と湿度はLEDデジタルディスプレイで表示されます。高温・低温湿熱試験室には、オプションで温度・湿度記録計を装備できます。 3. 冷凍回路の自動選択、自動制御装置は設定温度に応じて冷凍回路を自動的に選択して操作する性能を持ち、冷凍機の直接起動と高温条件下での直接冷却を実現します。 4. 内扉には大きな観察窓が装備されており、試験サンプルの実験状態を容易に観察できます。 5. 残留電流遮断器、過熱保護装置、欠相保護装置、断水保護装置など、高度な安全保護装置を装備しています。 当社は、高温および低温試験室、低温試験室、恒温恒湿試験室、高温および低温湿熱試験室、高温および低温交互湿熱試験室、塩水噴霧腐食試験室をお客様に提供できます。上記の試験室は、お客様の要件に応じてカスタマイズできます。 したがって、ウォークイン温度テストチャンバーは、環境テストと運用スペースに対する要求が高い企業に適しています。

  ホットタグ : ウォークイン温度試験室 ウォークイン環境チャンバー 大型実験装置

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