Material : Stainless steel
Product Type : Wort Chillers
Material : 316L +99.9% Copper
Model : 60 Plates, 40 Plates, 30 Plates
Design Pressure(Max) : 3.0 Mpa
Test Pressure:(Min) : 4.5 Mpa
Type : Plates Heat Exchanger
Features & Details
【HIGH THERMAL EFFICIENCY】- Turbulent-flow design moves the two media in opposite directions and creates strong turbulence for superior heat transfer rates and efficiency. Our heat exchanger series have been certificated by CE.
【ENERGY OPTIMIZED】 - This heat exchanger stainless can heat water to the preset temperature, which is super energy-saving with no electricity consumption and no oxygen consumption.
【ROBUST CONSTRUCTION】- This 60 plate / 40 plate / 30 plate heat exchanger features 316L stainless steel sheets, which are brazed together at the edges and the matrix of contact points for a reliable and rugged part to form a durable, integral piece that can withstand high pressure and temperature. Four thickened BSP FPT / MNPT ports for your easier installation.
【COMPACT DESIGN】- Corrugated plate design of this plate chiller wort allows for substantially smaller build and footprint at an equivalent or better performance compared to other heat transfer devices – resulting in significant space savings.
【HIGHLY VERSATILE】- This heat exchanger beer offers the highest level of thermal efficiency and durability in a compact & lightweight unit, ideal for industrial oil cooling, refrigerant evaporators, and condensers, residential and light commercial HVAC hydronic systems.
Applications
•Domestic Hot Water Heating
• Central Heating
• Floor Heating
• Driveway Snow Melting
• Radiator Heating
• Heating and Cooling HVAC Installation
• Solar Heating
Friendly Note for Installation:
Vertical installation is recommended to minimize sediment build-up and reduce maintenance.
For any type of project, installing a Y-strainer at the heat exchanger inlet is recommended to reduce fouling and extend the unit's lifespan.
Connect the pipes in a manner where liquids move in a counter-flow direction, which will maximize the heat transfer.
