Measurement Of Boundary Layer

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Measurement Of Boundary Layer Specification

Accuracy
100 %

Dimension (L*W*H)
815 x 160 x 280 Millimeter (mm)

Weight
6 Kilograms (kg)

Feature
Highly Efficient

Usage
Laboratory

About Measurement Of Boundary Layer

MEASUREMENT OF BOUNDARY LAYERS

The boundary layer is formed along a surface of a body in incident flow due to the adhesion of the flowing fluid, e.g. air. Internal friction in the fluid causes a change in the flow course and affects flow resistance and flow velocity. Investigations of the boundary layer provide insights that can be applied to aircraft construction or shipbuilding.
By using the experimental unit in the experimental plant it is possible to measure and study boundary layers in flows.
The flat plate is attached in the transparent pipe and subjected to longitudinal flow. In order to minimize turbulence, the leading edge of the plate is fitted with a chamber. A vertically sliding Pitot tube is used to measure the total pressure. The total pressures can be measured at different distances to the plate surface so that the development of the boundary layer in the flow direction can be detected. An additional measuring point measures the static pressure. Both measuring points are connected to the tube manometer. The Difference of total and static pressure results in the dynamic pressure from which the velocity is calculated.

Specification:

Investigation of the boundary layer on a flat plate.
Plate leading edge with chamber.
Pitot tube for measuring the total pressure.
Additional measuring point for measuring the static pressure.
Vertically sliding Pitot tube can be set to 3 positions along the plate in the measuring section.
Display of static and total pressure on the tube manometer from the Air Flow Experimental Plant.
Accessory for Air Experimental Flow Plant.

Technical Data :

Pitot tube.
Inner diameter: 0,6 mm.
Vertically sliding: 0...18 mm.
Measuring section with 3 positions along the Plate: 10mm, 210mm and 410mm from the leading edge.

Flat plate :

L x W x H: 420 x 80 x 8mm.
15° chamfer facing the incident flow.

Dimensions and Weight

L x W x H: 815 x 160 x 280 mm.
Weight: approx.6 kg.

Superior Laboratory Accuracy

Benefit from the devices impressive 100% measurement accuracy. It is meticulously engineered to deliver precise data for boundary layer analysis, making it invaluable for laboratory researchers and students.

Compact and Efficient Design

With a practical dimension of 815 x 160 x 280 mm and weighing only 6 kilograms, the equipment is easy to handle and install in any laboratory. Its highly efficient design ensures swift results without sacrificing reliability.

FAQs of Measurement Of Boundary Layer:

Q: How is the Measurement Of Boundary Layer device used in laboratory settings?

A: The device is employed to observe and analyze the development of the boundary layer over surfaces in controlled laboratory experiments, essential for fluid mechanics research.

Q: What makes this boundary layer measurement equipment highly efficient?

A: Its streamlined design, optimized for fast and accurate data collection, allows for efficient operation and reliable results in laboratory environments.

Q: When should this device be used in a research process?

A: This system is typically utilized during experimental phases where precise boundary layer measurements are critical, such as validating theoretical models or optimizing fluid dynamics experiments.

Q: Where can this measurement device be sourced from?

A: The product is available from trusted exporters, manufacturers, and suppliers in India, making it accessible for laboratories nationwide and internationally.

Q: What is the process of setting up the boundary layer measurement equipment?

A: Installation involves placing the device on a stable surface, connecting necessary sensors or monitoring tools, and calibrating it according to the experiments requirements for optimal accuracy.

Q: What are the main benefits of using this highly accurate measurement device?

A: Users gain confidence in their experimental results, thanks to its 100% accuracy, robust build, and efficient operation, which together ensure dependability for both teaching and research purposes.

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