TSCAC: Computer Controlled Air Duct Systems Unit
Brand: EDIBON | Category: Scientific & Laboratory Equipment
TSCAC is a computer controlled unit for studying air flow in duct systems. Fan output, air velocity and pressure drop across straight runs, bends, dampers and changes of section are logged so duct systems can be characterised.
Technical Specifications
| Parameter | Value |
|---|---|
| Dimensions | 9000 x 2000 x 2125 mm approx |
| Weight | 450 Kg approx |
| Three different heights to fix the air ducts | Height: 2100 mm |
| Specification | Speed = 0 to 2800 rpm |
| Maximum volumetric flow | 1800 m³/h |
| Ø 100 mm length | 1600 mm. Amount: 8 |
Get a Quote
Request an itemised quotation covering the proposed configuration, availability, lead time and agreed supply and support scope.
Useful details to share
- Intended application, process or teaching activity
- Required capability and equipment it must work with
Share what you know. You can start with your name and a phone number or email; final specifications can follow.
Not sure which configuration you need? Help me choose
Contact Vvon Technologies Limited about EDIBON equipment requirements in Bangladesh.
Phone: +8801805987890 | Email: info@vvon.com.bd
Back to Scientific & Laboratory Equipment
More from Fluid Mechanics Lab
- HECA: Air Flow Studies Unit
HECA is a bench for studying air flow. A fan drives air through ducts fitted with orifice plates, venturis, nozzles and Pitot tubes, so flow measurement methods can be compared and pressure losses along the duct measured.
- PDDRC: Computer Controlled Unit for Transient Drainage Processes in Storage Reservoirs
PDDRC is a computer controlled unit for studying the unsteady emptying of tanks. Level and flow are logged as a reservoir drains through orifices and pipes of different size, so the discharge time can be compared with theory.
- FME31: Horizontal Osborne Reynolds Demonstration
Designed by EDIBON, the "FME31" Osborne Reynolds Horizontal Demonstration unit supports the study of a liquid's characteristics as it flows through a pipe, and of the Reynolds number in each of the liquid states.