We are a leading Manufacturer of pressure drop through packed bed, flow through fluidized bed, ion exchange apparatus and cooling tower test rig from Ambala, India.
Pressure Drop Through Packed Bed
REQUEST CALLBACK
Get Best Quote
✓Thanks for Contacting Us.
Approx. Rs 45,000 / PieceGet Latest Price
Product BrochureProduct Details:
Brand
New advance technology
Usage/Application
Laboratory
Material
Stainless Steel
Phase
Single Phase
Country of Origin
Made in India
Pressure Drop Through Packed Bed Apparatus
This apparatus is designed to study the frictional pressure drop of fluid flowing through a packed column filled with packing material. It helps students understand flow behavior in packed beds used in industries such as chemical processing, filtration, adsorption, distillation, and wastewater treatment.
Yes! I am Interested
Flow Through Fluidized Bed
REQUEST CALLBACK
Get Best Quote
✓Thanks for Contacting Us.
Approx. Rs 40,000 / PieceGet Latest Price
Product BrochureProduct Details:
Brand
New Advance Technology
Usage/Application
Laboratory
Material
Stainless Steel
Phase
Single Phase
Country of Origin
Made in India
Yes! I am Interested
Ion Exchange Apparatus
REQUEST CALLBACK
Get Best Quote
✓Thanks for Contacting Us.
Approx. Rs 35,000 / PieceGet Latest Price
Product Details:
Brand
New Advance Technology
Usage/Application
Industry
Material
Stainless Steel
Model Name/Number
525YT
Phase
Single Phase
Country of Origin
Made in India
We are engaged in offering Ion Exchange Apparatus product to our clients. Our range of this products is widely appreciated by our clients
Yes! I am Interested
Cooling Tower Test Rig
REQUEST CALLBACK
Get Best Quote
✓Thanks for Contacting Us.
Approx. Rs 70,000 / PieceGet Latest Price
Product BrochureProduct Details:
Type
Centrifugal Pump Test Rigs
Usage/Application
Laboratory Equipment
Material
Stainless steel
Number Of Phases
Single
Country of Origin
Made in India
Manometer
U tube
Motor
1/2 HP
Cooling Tower Test Rig – Description A cooling tower test rig is a laboratory-scale setup designed to study the performance of a cooling tower, heat rejection process, and mass transfer between air and water. It helps students and researchers understand evaporative cooling principles, effectiveness of cooling towers, and key operating parameters. ⸻ Main Components: 1. Cooling Tower Unit • A vertical column (generally acrylic or glass for visibility) representing a miniature cooling tower. • Filled with packing material (plastic or wooden) to increase contact surface area between air and water. 2. Water Circulation System • Overhead water tank/reservoir to supply hot water. • Centrifugal pump for water circulation through the system. • Spray nozzles/distributors at the top to spray hot water over the packing. • Water sump or collection tank at the bottom. 3. Air Circulation System • Blower/fan to force air in counter-flow (bottom to top) or cross-flow with respect to water. • Air passes through the tower and facilitates evaporative cooling. 4. Heating Arrangement • Electrical heater provided in the sump to raise water temperature to the desired level before circulation. 5. Measuring Instruments • Thermometers/temperature sensors: • Hot water inlet temperature • Cold water outlet temperature • Dry bulb & wet bulb temperatures of inlet/outlet air • Rotameter/flow meter for measuring water flow rate. • Manometer/Anemometer for air velocity measurement. Working Principle: • Hot water is pumped to the top of the tower and sprayed over the packing. • Air is drawn in (usually by a blower) and flows upward in counter-current to water. • A small portion of water evaporates, removing latent heat, which reduces the temperature of the remaining water. • The cooled water collects in the sump and can be recirculated. • Performance is studied by comparing cooling range, approach, effectiveness, and evaporation loss. ⸻ Experimental Capabilities: • To study the cooling characteristics of a cooling tower. • To determine effectiveness of cooling tower. • To calculate range (difference between inlet and outlet water temp.). • To calculate approach (difference between outlet water temp. & WBT of air). • To measure evaporation losses and heat rejected. • To understand influence of water and air flow rates on cooling performance.