I. GICE (Nanjing) Technology Co., Ltd. Precision Water-cooled Chilled Water Units: Technical Principles Build Temperature Control Barriers

(I) High-Precision Temperature Control Technology: The "Nerve Center" of Dynamic Balance

(II) Refrigeration Cycle: Industrial-Grade Innovative Practice of the Reverse Carnot Principle

• Adiabatic Compression : Low-temperature, low-pressure refrigerant vapor is converted into high-temperature, high-pressure gas by the compressor;
• Isothermal Condensation : High-temperature, high-pressure gas releases heat to the cooling water in the condenser, condensing into liquid;
• Adiabatic Expansion : High-pressure liquid is throttled through the expansion valve, becoming a low-temperature, low-pressure gas-liquid mixture;
• Isothermal Evaporation : The mixture absorbs heat from the chilled water in the evaporator, completing the refrigeration cycle.
  This process, by precisely controlling the refrigerant flow and pressure, lays the physical foundation for Precision Water-cooled Chilled Water Units 's ultra-precision temperature control.

(III) Intelligent Control Algorithms: The "Digital Engine" for Precision Upgrades

• PT100 temperature sensor and PID control algorithm form the basic temperature control link, with control precision reaching ±0.1℃~±0.01℃;
• high-precision staged temperature control patented design (such as tiered refrigeration circuits) further refines control levels, with some models incorporating adaptive fuzzy control algorithm which in complex scenarios like laser processing and medical equipment, elevates Precision Water-cooled Chilled Water Units 's temperature control precision to ±0.001℃ (milli-Kelvin level) 。

(IV) Heat Exchanger Technology: The "Hardware Foundation" for Efficiency and Reliability

II. GICE (Nanjing) Technology Co., Ltd. Precision Water-cooled Chilled Water Units: Three Core Characteristics Define Industry Benchmarks

(I) Milli-Kelvin Level Temperature Control Accuracy: Reshaping Temperature Control Limits

(II) Full Life Cycle Stability: The "Stress Resistance Expert" in Complex Working Conditions

1. Hardware Redundancy and Anti-Interference Design
   • Core components like compressors and water pumps adopt a dual-unit parallel redundant design ; in case of a single component failure, the backup module automatically switches in, ensuring 24-hour continuous operation;
   • The unit's base is equipped with shock-absorbing springs/rubber pads, and the electrical system uses shielded cables and anti-interference filtering devices, allowing stable operation in high-vibration, strong electromagnetic environments of industrial production lines.
2. Intelligent Monitoring and Dynamic Adjustment
   • Through the PLC control system, parameters such as temperature, pressure, and flow are collected in real-time, forming a closed-loop data feedback, with automatic adjustment in case of abnormalities (e.g., adjusting expansion valve opening, increasing cooling water flow);
   • Inverter technology (compressor/fan frequency conversion) achieves dynamic matching of cooling capacity with load, maintaining a high COP value (partial load COP > 5.0) in the 20%~100% load range, preventing energy waste.
3. Long-term Anti-attenuation and Safety Protection
   • The heat exchanger adopts a stainless steel nano-coating and water softening system, with a heat transfer efficiency decrease of <5% after 5 years of operation (compared to 10%~20% decrease for ordinary units).
   • Equipped with 6 safety devices including high-pressure protection and flow interruption protection, it supports wide temperature operation from -10℃ to 45℃ and adapts to ±10% power voltage fluctuations, ensuring system safety through anti-freezing protection and other mechanisms even under extreme conditions.

(III) Energy Efficiency & Flexible Customization: "Dual Optimization" of Performance and Adaptability

• Energy-Saving Design : The permanent magnet synchronous variable frequency compressor improves energy efficiency by 30% compared to fixed-frequency units, and power consumption is as low as 5% of rated power in dynamic sleep mode.
• Customization Capability : Provides single/dual channel cooling solutions, with cooling capacity covering 1.5kW~50kW (H series models), supports customization of size, interfaces (DN20~DN50) and multi-circuit control, capable of meeting the demands from small laboratory devices to industrial-scale production lines for Precision Water-cooled Chilled Water Units differentiated needs.

III. G-Test (Nanjing) Technology Co., Ltd. Precision Water-Cooled Chiller Units: Unlocking Application Value in Four Major Fields

(I) Semiconductor and Electronics Manufacturing: The "Temperature Guardian" of Precision Processes

• Lithography / Etching Scenarios : For EUV lithography machines and plasma etchers Precision Water-cooled Chilled Water Units :, providing ±0.001℃ temperature control to ensure nano-scale pattern transfer accuracy.
• Wafer Growth / Testing Scenarios : Controls the temperature stability of epitaxial furnaces and probe stations, preventing thermal deformation from interfering with chip performance testing.
• Customer Cases : Has served companies such as BOE, Huawei, and China Electronics Panda, ensuring temperature reliability in panel manufacturing and chip packaging processes.

(II) Medical and Life Sciences: The "Research Assistant" for Precision Temperature Control

• Magnetic Resonance Imaging (MRI) Scenarios : Provides stable cooling for superconducting magnets, by Precision Water-cooled Chilled Water Units preventing equipment shutdown due to liquid helium quench.
• Cryo-Electron Microscopy (Cryo-EM) Scenarios : Controls sample stage temperature fluctuation to <±0.1℃, providing a stable environment for protein structure analysis.
• Pharmaceutical Production Scenarios : Achieves ±0.5℃ temperature control in bioreactors and lyophilizers, ensuring the activity and quality of biological drugs such as vaccines and monoclonal antibodies.

(III) High-Precision Optics and Laser: The "Temperature Reference Source" for Optical Instruments

• Astronomical Observation Scenarios : Provides ±0.02℃ constant temperature cooling for large telescope mirrors, reducing the impact of thermal deformation on observation data.
• Laser Processing Scenarios : By Precision Water-cooled Chilled Water Units stabilizing the laser cavity temperature, ensuring laser power fluctuation <1%, and improving the consistency of precision welding and cutting.
• Optical Coating Scenarios : Controls substrate temperature in vacuum coating machines to prevent transmittance deviation caused by film stress.

(IV) New Energy and Materials Research: The "Temperature Control Engine" for Frontier Exploration

• Battery R&D Scenarios : Controls the temperature of the electrolyte temperature control box, optimizing the charge-discharge cycle life of lithium-ion batteries.
• Material Synthesis Scenarios : Achieves ±0.1℃ temperature control in graphene preparation and nanoparticle synthesis, ensuring consistency of material composition and structure.
• Coating Process Scenarios : Provides ±0.05℃ cooling water temperature control for lithium battery coating machine ovens, preventing uneven coating thickness from affecting battery performance.

IV. Technical Strength: Patent Matrix Building a Competitive Barrier