About Osborne Reynolds Experiment
OSBORNE REYNOLDS EXPERIMENT
The Osborne Reynolds experiment is used to display laminar and turbulent flows. During the experiment it is possible to observe the transition from laminar to turbulent flow after a limiting velocity. The Reynolds number is used to assess whether a flow is laminar or turbulent.
With the streamlines during laminar or turbulent flow are displayed in colour with the aid of an injected contrast medium (ink). The experimental results can be used to determine the critical Reynolds number.
The experimental unit consists of a transparent pipe section through which water flows, with flow-optimised inlet. A valve can be used to adjust the flow rate in the pipe section. Ink is injected into the flowing water. A layer of glass beads in the water tank ensures an even and low-turbulence flow.
The water is supplied and the flow rate measured the experimental unit can be operated by the laboratory supply.
The well-structured instructional material sets out the fundamentals and provides a step -by- step guide through the experiments.
Learning Objectives / Experiments
- Visualisation of laminar flow
- Visualisation of the transition zone
- Visualisation of turbulent flow
- Determination of the critical Reynolds number
Specification:
- Visualisation of laminar and turbulent flow in the Osborne Reynolds experiment
- Water as flowing medium and ink as contrast medium
- Vertical glass pipe section
- Water tank with glass beads to stabilise the flow
- Flow rate in the pipe section can be adjusted via a valve
- Flow rate determined by base module
- Water supply using base module or via laboratory supply
Technical Data:
Water tank
Pipe section:
- Length: 675 mm
- Inside diameter: 10 mm
Tank for ink:
Dimensions and Weight:
- LxWxH: 415x415x1250 mm
- Empty weight: approx. 22 kg
Exceptional Laboratory PrecisionBuilt for accuracy, the Osborne Reynolds Experiment ensures your laboratory analyses remain consistent and precise with 100% accuracy. Its manageable size and efficient design make it suitable for educational purposes, granting students and researchers hands-on experience in observing critical fluid dynamics phenomena safely and reliably.
Robust Construction for TrainingWith a sturdy 22 kg build and dimensions of 415x415x1250 mm, this equipment is engineered for frequent use in institutional settings. It is a training tool trusted by laboratories and educational establishments across India, supporting long-term use without compromising on performance or convenience.
FAQs of Osborne Reynolds Experiment:
Q: How is the Osborne Reynolds Experiment utilized in laboratory settings?
A: This apparatus is used in laboratories to visually and quantitatively observe the transition from laminar to turbulent flow in fluids, providing students and researchers with firsthand experience in fluid dynamics.
Q: What makes this equipment highly efficient for training purposes?
A: Its precise measurement features, 100% accuracy, and intuitive controls make it efficient for demonstrating complex fluid flow concepts, ensuring reliable results and effective hands-on learning.
Q: When is the Osborne Reynolds Experiment typically conducted within laboratory courses?
A: The experiment is usually conducted during fluid mechanics or hydrodynamics modules, when students need to understand and differentiate between laminar and turbulent flows as part of their coursework.
Q: Where is this equipment manufactured and supplied from?
A: This Osborne Reynolds Experiment setup is manufactured, supplied, and exported from India by reputable training equipment providers.
Q: What is the process of performing a Reynolds experiment using this apparatus?
A: Fluid is passed through the apparatus at controlled rates, and colored dye is introduced to visualize the flow patterns. Observations of the dye line allow users to identify the point at which laminar flow transitions to turbulence.
Q: Why is the 2200 ml capacity and 100% accuracy beneficial for laboratory experiments?
A: A 2200 milliliter (ml) capacity permits adequate fluid volume for varied flow experimentation, while 100% accuracy ensures that observations and data collected are trustworthy and valuable for academic and research purposes.