Compressible Flow of Fluids Apparatus Manufacturer,Supplier and Exporter in India
Product Code : SCL-CELE-14183
Overview
The Compressible Flow of Fluids Apparatus
is designed to study the principles of airflow in compressible regimes,
covering both subsonic and transonic velocity ranges. The setup
allows users to observe and measure how pressure, velocity, and density
interrelate when the air velocity approaches or exceeds the speed of sound
(Mach 1).
This trainer provides an in-depth
understanding of flow phenomena critical to the design of jet engines,
turbines, compressors, and supersonic aircraft. A de Laval nozzle
within the system enables the generation of transonic flow conditions, while
transparent measuring sections allow direct visualization of airflow behavior
and pressure distribution.
All test sections and components are arranged
to minimize turbulence, ensuring high-quality data and accurate analysis. The
apparatus includes digital instrumentation and optional data
acquisition software for real-time monitoring and recording of flow
parameters. A comprehensive Operation & Maintenance Manual is
provided.
Key
Features
- Investigation of compressible airflow across subsonic and transonic velocity ranges.
- de Laval nozzle for
generating and studying flow up to Mach 1.
- Infinitely variable radial fan to
control airflow velocity and mass flow rate.
- Transparent measuring objects
(pipes, elbows, and nozzles) for clear visualization of internal flow
conditions.
- Minimized turbulence by
optimized air intake and test section arrangement.
- Measurement of pressure losses in
various pipe configurations.
- Observation of pressure and velocity profiles through subsonic and transonic nozzles.
- Orifice system for
volumetric flow measurement via differential pressure.
- Throttle valve to
record fan characteristic curves under variable load.
- Digital displays for
pressure, velocity, and fan speed.
- Optional data logging with
educational software and temperature sensors for advanced analysis.
Technical
Specifications
|
Component |
Specification |
|
Radial Fan |
Variable speed up to 34,000 rpm; Max. volumetric flow: 206 m³/h; Max.
head: 271 mbar; Power: 1.6 kW |
|
Measuring Objects |
Transparent acrylic |
|
Pipe Sections |
Length: 1 m; Diameters: 16, 24, and 34 mm |
|
Pipe Elbow |
90° configuration |
|
Nozzles |
Two interchangeable: sudden enlargement (Ø12–34 mm) and gradual
enlargement (de Laval nozzle) |
|
Orifice Assembly |
Four orifice disks (Ø12, 19, 25, 32 mm) |
|
Throttle Valve |
Ø34 mm |
|
Measurement Ranges |
Speed: 0–99,999 rpm; Pressure: 0–25 mbar, 0–200 mbar, 0–1000 mbar;
Velocity: 0–65 m/s |
|
Instrumentation |
Digital displays for pressure, velocity, and rotational speed |
|
Data Acquisition (Optional) |
Electronic temperature sensors and educational software |
|
Construction |
Transparent flow sections on a robust bench-mounted steel frame |
Experimental
Capabilities
- Study of compressible flow behavior and comparison with incompressible
flow models.
- Determination of pressure losses in pipes and elbows under
subsonic flow conditions.
- Investigation of flow through convergent and divergent nozzles.
- Observation of transonic and supersonic flow behavior in the
de Laval nozzle.
- Measurement of pressure and velocity profiles within
different nozzle geometries.
- Determination of the speed of sound in air.
- Calculation of mass flow using nozzle characteristics and volumetric
flow using orifice measurements.
- Development of a calibration curve for the orifice plate.
- Recording and plotting the fan characteristic curve under
different mass flows and rotational speeds.
Educational
Objectives
- Understand the principles of compressible flow and density
variation with pressure.
- Explore the relationship between Mach number, pressure
ratio, and temperature in airflow.
- Apply the continuity and energy equations to compressible
systems.
- Observe choked flow and shock wave formation within
the de Laval nozzle.
- Analyze flow losses and determine performance
characteristics of flow components.
Required
Services
- Electrical Supply: 230V
AC, Single Phase, 50Hz, Earthed.
- Ambient Air Supply: Drawn
from the surrounding environment (no additional air source required).
Applications
- Aerodynamics and propulsion studies
- Turbo-machinery design and analysis
- Jet and rocket nozzle flow investigations
- Advanced fluid mechanics and thermodynamics experiments
- Engineering education and research in compressible flow dynamics
