Leveraging a sophisticated working principle with chemical etching , our PCHEs excel in extreme conditions. As a leading manufacturer, we deliver robust solutions for critical applications, ensuring optimal performance where it matters most.
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Designed to withstand extreme operating conditions, our high pressure heat exchanger (PCHE) offers robust high pressure resistance up to 100 MPa and beyond. The diffusion-bonded construction ensures structural integrity under demanding pressures, providing reliable performance in supercritical CO₂ cycles, oil & gas processing, and high-pressure hydrogen applications where safety and durability are critical.
Shenshi Printed Circuit Heat Exchanger (PCHE) features an ultra-compact structure and exceptionally small size, delivering high-efficiency heat transfer in a minimal footprint. This compact heat exchanger design reduces installation space by up to 80% compared to traditional shell-and-tube units while maintaining superior thermal performance, making it ideal for offshore platforms, hydrogen refueling stations, and space-constrained industrial applications.
Shenshi Printed Circuit Heat Exchanger (PCHE) is widely used across multiple industries, including automotive, offshore, power generation, LNG, and hydrogen. With certifications spanning pressure vessels to marine applications and deep industry-university R&D cooperation, this compact heat exchanger solution offers proven track records, customization flexibility, and strategic innovation partnerships for optimized thermal management.
Shenshi Printed Circuit Heat Exchanger (PCHE) demonstrates excellent high and low temperature resistant capabilities, operating reliably from cryogenic -253°C to over 1000°C. This high temperature heat exchanger also provides superior resistance to thermal shock, enabling stable performance during rapid temperature fluctuations in power generation, aerospace, and advanced nuclear systems.
Engineered with microchannel diffusion-bonded cores, our Printed Circuit Heat Exchanger (PCHE) achieves unmatched efficient heat transfer rates. As a leading compact heat exchanger solution, it optimizes thermal energy recovery across a wide range of flow conditions, delivering higher effectiveness and lower pressure drops than conventional plate-fin alternatives for maximum system efficiency.
Backed by 58+ invention patents and state-of-the-art diffusion welding processes, our diffusion bonded heat exchanger guarantees strong reliability, structural integrity, and an exceptionally low leak rate of 1×10⁻⁹ Pa·m³/s. Combined with rigorous quality inspection and 20,000+ field-deployed units, it delivers uncompromising quality and long-term durability in the harshest environments.
We specialize in designing and manufacturing high-performance printed circuit heat exchangers (PCHE), offering fully customized PCHE solutions and one-stop services for industrial clients worldwide.
Our expertise lies in delivering tailor-made printed circuit heat exchangers that precisely match your operating conditions, fluids, pressure, and temperature requirements. Using advanced chemical etching technology, we produce microchannel cores with channel widths as fine as 0.2 mm and depths of 0.05 mm from premium materials including stainless steel, titanium, duplex steel, high-nickel alloys, and copper.
We provide comprehensive strength performance research (ASME/JB4732 compliant), flow properties study with ANSYS Fluent CFD, and full experimental verification to ensure maximum reliability and efficiency. Whether you need a diffusion bonded heat exchanger for supercritical CO₂, hydrogen, or high-pressure gas applications, our custom heat exchanger designs deliver superior compactness, safety, and energy efficiency.
Our printed circuit heat exchangers (PCHE) achieve exceptional thermal performance through precise countercurrent, multiple countercurrents on both sides, and single/multiple cross flow fluid path designs.
Hot and cold fluids flow in optimized microchannels etched via chemical process and diffusion bonded into a solid core, enabling highly efficient countercurrent heat exchanger heat transfer in an ultra-compact volume.
We validate every custom PCHE design through detailed flow properties study (theoretical calculation + ANSYS Fluent numerical simulation showing velocity and temperature fields) and rigorous strength analysis to guarantee safe operation under extreme pressures and temperatures.
Operating at high pressure and temperature, it can be used in a variety of industrial processes and power generation applications
It is used to reheat carbon dioxide after expansion, raising its temperature before entering the next stage of the cycle.
Reduce the temperature of CO₂ to its required operating range.
It is used to capture and utilize excess heat generated during the operation of nuclear power plants, helping to improve the overall efficiency of nuclear power plants.
The natural gas and refrigerant heat exchange, cooling, to ensure the safety of the transportation process.
Cooling system for natural gas compressors to control the temperature of compressed natural gas
BOG processing systems used in LNG ships and LNG receiving stations can reliquify LNG that is volatilized due to rising temperatures during transmission and reduce natural gas losses
It is used in the cooling system to achieve the cooling of natural gas through the heat exchange of water or seawater with natural gas.
Used in FGSS high-pressure systems, the general pressure is 300Bar, to gasify natural gas.
The air heater heats the air entering the hydrogen production system to the reaction temperature.
The steam generator vaporizes the feed water into gas, which enters the SOEC reactor to produce hydrogen.
The hydrogen reformer reforms and exchanges heat with fuels such as methanol and water to produce hydrogen.
The hydrogen liquefaction plate-fin heat exchanger exchanges heat between hydrogen and gases such as nitrogen, cooling it to a liquid state.
The hydrogen heater preheats the hydrogen entering the stack, accelerating stack startup and enabling rapid start of hydrogen fuel cell vehicles.
The hydrogen compressor cooler primarily cools compressed hydrogen, preventing dangers caused by excessively high compression temperatures.
The hydrogen station cooler lowers the temperature of hydrogen during refueling, ensuring safe refueling.
Effectively regulates the temperature of the cabin and electronic equipment.
Ensures the temperature stability of fuel and oil, preventing the impact of overheating or overcooling on engine performance and longevity.
Responsible for the heat exchange between the coolant of the liquid cooling subsystem and the coolant of the various regional liquid cooling subsystems.
Conducts and dissipates the heat generated by electronic equipment, keeping the equipment temperature within an appropriate range.
The high temperature air temperature after pressurization is reduced to reduce the heat load of the gas turbine, increase the intake gas, and thus increase the power of the gas turbine.
When gas is needed, it is heated to vaporize, such as LNG carburetor, ammonia carburetor, etc.
Transfer heat between compressor terminal exhaust and refrigerant to liquefy the gas.
A miniaturized reaction device that integrates multiple microchannel reaction units in one body.
Efficient mixing and heat transfer are achieved by rotating flow in a spiral tube.
利用微通道内的流体力学效应实现快速均匀混合。
适用于实验室研究的微型化反应装置。
将微反应技术和连续流技术相结合的集成化反应装置。
Shenshi Printed Circuit Heat Exchangers (PCHEs) are pivotal for the efficiency and reliability of the Liquefied Natural Gas (LNG) industry. We provide specialized thermal solutions for critical processes, including FGSS gas supply systems, BOG (Boil-Off Gas) reliquefaction units, moisture cooling systems, and post-compressor cooling systems. Our advanced PCHE technology ensures optimal performance and safety across the entire LNG logistics and processing chain.
In the burgeoning hydrogen economy, Shenshi Printed Circuit Heat Exchangers (PCHEs) deliver precision temperature control essential for the entire value chain. From hydrogen production systems and hydrogenation machines to vehicle and fuel cell hydrogen supply systems, Shenshi technology ensures efficient and safe operations for production, storage, and distribution, accelerating the transition to clean hydrogen energy.
Shenshi Printed Circuit Heat Exchangers (PCHEs) are integral to advancing modern power generation. We provide critical thermal management solutions for high-performance systems, including Supercritical CO2 (sCO2) power generation, Solid Oxide Fuel Cell (SOFC) high-temperature systems, micro power generation units such as those in nuclear applications, and gas turbine power generation systems. Shenshi PCHEs ensure maximum thermal efficiency and unparalleled reliability for a sustainable energy future.
Shenshi Printed Circuit Heat Exchangers (PCHEs) enhance the performance and efficiency of advanced engine systems. We deliver optimized cooling solutions for a range of applications, including high-performance powertrains, advanced liquid cooling systems, and powerful gas turbine power systems. Trust Shenshi PCHEs for robust, reliable, and efficient thermal management in marine, industrial, and power generation engines.
For demanding aerospace and aviation applications, Shenshi compact and lightweight Printed Circuit Heat Exchangers (PCHEs) provide superior thermal management. They are essential for critical onboard systems, including environmental control systems (ECS) for cabin comfort, high-performance electronic (avionic) cooling systems, and robust oil cooling systems for engines, ensuring safety and reliability at any altitude.
Learn MoreHigh-pressure gas processing often struggles with excessive energy consumption and high carbon emissions. Shenshi supplied three ultra-large Printed Circuit Heat Exchangers (PCHEs) to Iraq's Atawi Natural Gas Processing Plant. Our innovative thermal management solution significantly enhances heat transfer efficiency, reduces energy consumption, and lowers carbon emissions, empowering this large-scale facility with green, low-carbon operations.
Learn MoreOffshore platforms face severe space constraints and corrosive environments, where conventional heat exchangers fail to meet wet natural gas cooling demands. Shenshi, in partnership with CNOOC Gas & Power Group, delivered China's first domestically produced, large-scale PCHE. Certified by CCS and deployed on an offshore platform, this technology provides a reliable and innovative solution for offshore gas exploration and production.
Learn MoreVery Large Ethane Carriers (VLECs) face significant challenges with cargo boil-off gas and maintaining cryogenic temperatures during long voyages. Shenshi provided critical PCHEs for the ecoETHN® reliquefaction systems on 15 ultra-large 98,000m³ VLECs. Our advanced thermal management technology boosts heat transfer efficiency, cuts energy use, and ensures reliable performance in demanding LNG transportation operations.
Gain complete peace of mind knowing your operations are safeguarded against unexpected downtime.
Shenshi creates a customized maintenance schedule tailored to your specific usage patterns, ensuring your heat exchanger remains reliable, efficient, and secure for the long haul.
Restore your equipment's peak performance with cleaning protocols designed specifically for your unique application.
Shenshi analyzes your system's condition to safely remove sediment and scale, giving you the confidence that your efficiency is maximized without compromising equipment integrity.
Experience the security of having a professional partner on standby, ready to protect your production continuity.
Shenshi's team doesn't just fix issues; we provide precise, personalized solutions that address the root cause, building a foundation of trust and long-term operational safety for your business.
Go beyond basic service with our precision testing and leakage risk assessments, designed to give you absolute certainty.
Shenshi provides data-driven advice and advanced inspections, ensuring you can resume production with full confidence in your equipment’s safety and reliability.
