Fluid Machines Equipments

Flow Meter Demonstration Unit

Flow Meter Demonstration Unit: MTFM-09 The Flow Meter Demonstration Unit is a self-contained facility to demonstrate the important characteristics of flow meters. The main elements are a service module and flow meter support stand. A self-priming centrifugal pump draws water from the sump tank in the service module and delivers it to a flow meter test pipe. Industrial type flow meters mounted in test sections can be fitted into the test pipe quickly and easily. These meters have been chosen to give a variety of different metering principles and degrees of sophistication and accuracy. Some of the meters are calibrated directly in units of flow, whilst others involve the use of calibration charts. The pressure drop across each of the flow meters can be measured by using either the one meter pressurized water manometer or the 0.5 meter mercury manometer supplied. Ported manometer connection valves ensure rapid bleeding of all manometer pipe work. A facility exists to admit air into the hydraulic stream to demonstrate the effect on the meter„s accuracy. The discharge from the test section is controllable and is fed through a diffuser into the channel of the service module. DEMONSTRATION CAPABILITIES Comparing the use application and limitations of various types of flow meter Considering the implications of flow meter selection on performance, accuracy, convenience, cost and head loss Understanding the principles on which different types of flow meter are based Relating pressure drop across a flow meter to flow rate Using manometers to measure pressure drop Investigating the effect of air in the hydraulic stream on flow meter performance Understanding the application of Bernoulli„s Theorem TECHNICAL SPECIFICATIONS Maximum flow rate: 2.3 liters/s Reservoir capacity: 140 liters Volumetric tank capacity: 40 liters Nominal bore of pipe work: 38mm Length of removable test pipe: 750mm Pump motor rating: 0.55kW A self-contained apparatus to demonstrate the characteristics of flow meters used in measurement of water flow through pipes or open channels Service module with reservoir, volumetric measuring tank and pump Reference turbine flow meter permanently fitted Metering devices available in various combinations to suit coursework

Compressible Flow Unit

Compressible Flow Unit MTFM-14 The single-stage compressor is driven by an integral three-phase AC motor. The compressor speed can be varied using an advanced torque-vector frequency inverter which gives stable and accurate speed control plus direct electronic read-out of the torque produced by the motor. The compressor is fitted with an outlet duct incorporating a throttling valve which allows the flow to be varied independent from compressor speed. The equipment is supplied with a convergent-divergent test section fitted at the compressor inlet designed to produce Mach-1 velocity at the throat. The duct is fabricated from clear acrylic enabling the student to see the construction and the profiles. A pressure-sensing ring tapping is provided at the inlet, at the throat and at the discharge end of the diffuser. This duct allows all the major concepts of compressible flow to be demonstrated. The electronics console includes two high-range and two low-range differential pressure sensors plus a control for motor speed and displays for the compressor speed, the pressures and the motor torque. FEATURES Variable-speed air compressor with accurate electronic speed control Electronic pressure sensors Standard unit includes convergent-divergent duct designed to produce Mach 1 velocity at the throat Data logging option available Lower speed operation Integral motor with direct drive Reduced operating noise Reduced vibration levels TECHNICAL SPECIFICATIONS A bench top unit designed to demonstrate and teach the fundamentals of compressible flow to engineering students Fitted with a single-stage, side-channel blower Complete with convergent-divergent duct capable of achieving Mach 1 velocity at the throat Advanced torque-vector speed control of blower motor with electronic torque measurement Four electronic pressure sensors Test section made from clear acrylic Additional test sections available (6 off) complete with bench top stand Compressor test accessory available Data logging accessory available, complete with educational software and electronic temperature sensors Compressor speed : 3,300 rpm (max) Stages : 1 Motor Power : 55 kW Sensors: +/- 103.4 kPa 1 off

Pipe Network Apparatus

Pipe Network Apparatus: MTFM-13 The permanent arrangement of PVC pipes and fittings is mounted on a free-standing support frame designed to stand alongside a Hydraulics Bench in use. Connection is via a reinforced flexible tube and threaded union with ËO„ ring seal, enabling connection to the without the use of tools. Valves enable a wide range of different series parallel and mixed pipe configurations to be created without draining the system. MEASUREMENT CAPABILITIES Measurement of head loss versus discharge for different sizes of pipes Characteristics of flow through interconnected pipes of different sizes Characteristics of flow through parallel pipe networks Characteristics of flow through series pipe networks Application of doubling pipes on existing networks to increase flow rate Characteristics of flow around a ring main and the effect of changes in supplies and off-takes TECHNICAL SPECIFICATIONS Specifically designed to allow the setting up of a wide range of different pipe arrays Pipe network mounted on free standing support frame for use alongside an Hydraulics Bench Clear acrylic test pipes are all 0.70m long with inside diameters of 1x 6mm, 2x 9mm, 1x 10mm, 1x 14mm Includes hand-held electronic pressure meter with self-sealing quick-release connections to the pipe network Flows into and out from the appropriate network can be varied individually Note: The content of the product and specification are subject to change without prior notice for continuous improvement. Images shown are for representation purpose only. “MICROTEKNIK keeps the right to modify the content in the product without prior notice.

Pitot Tube Demonstrator

Pitot Tube Demonstrator: MTFM-36 EXPERIMENTAL CAPABILITIES Operation of a piton static tube and pressurized water manometer Velocity flow profile in a pipe Demonstration that the fluid velocity is proportional to the square root of the head difference between the total head and the static head TECHNICAL SPECIFICATIONS Piton tube with scale to determine the position within the pipe diameter Includes pressurized water manometer with scale length 500 mm Approximate dimensions 1.0m x 0.55m x 0.23m Set of connecting tubes The piton tube can be moved across the cross-section of the pipe in order to measure the dynamic head profile. The position of the measuring tip relative to the wall of the pipe can be read on a scale. The piton tube is connected to a pressurized water manometer to measure the differential head across the piton static tube. It is designed for use with the Hydraulics Bench and includes compatible connecting tubes. ** Note: The content of the product and specification are subject to change without prior notice for continuous improvement. Images shown are for representation purpose only. “MICROTEKNIK keeps the right to modify the content in the product without prior notice.

Fluid Friction Measurements

Fluid Friction Measurements: MTFM-03 Pipe friction is one of the classic laboratory experiments and has always found a place in the practical teaching of fluid mechanics. With this unit friction head losses in straight pipes of very different sizes can be investigated over a range of Reynolds„ numbers from 103 to nearly 105. This covers the laminar transitional and turbulent flow regimes in smooth pipes. In addition an artificially roughened pipe is supplied, which at the higher Reynolds„ numbers shows a clear departure from the typical smooth bore pipe characteristics. In addition to the equipment for the study of losses in straight pipes a wide range of accessories are included such as pipe fittings and control valves, a Venturi tube, an orifice plate assembly and a Piton tube. TECHNICAL SPECIFICATIONS Distance between tapings : 1 m Number of tapping points : 38 A unit for the detailed study of fluid friction head losses, which occur when an in compressible fluid flows through pipes, fittings and flow metering devices Four smooth-bore pipes of different diameters ranging from 4.5 mm ID to 17.2 mm ID Artificially roughened pipe 90 bends (large & small radii) 90 elbow 90 miter 45 elbow, 45 Y, 90 T Sudden enlargement Sudden contraction Gate valve Globe valve Ball valve Inline strainer Perspex venturi Perspex orifice meter Perspex pipe section with a piton tube & static tapping 38 tapping points All fixed pipes fabricated in stainless steel Suitable for studying Reynolds„ numbers from 103 to nearly 105 A system of isolating valves, quick release manometer connection valves and self-sealing pressure tapings ensure fast accurate results Data logging accessory Computer-aided learning program A user instruction manual provides installation, commissioning and maintenance data, together with student exercises The unit is designed for use with a Hydraulics bench

Series Liquid Manometer

Series Liquid Manometer: MTFM-42 A range of manometers measuring differential water pressures up to approximately 12.5 m H2O. Scales are graduated in 1 mm divisions. DEMONSTRATION CAPABILITIES Low cost and easy to use instruments. Wide range of pressures accommodated using different manometer fluids. ** Note: The content of the product and specification are subject to change without prior notice for continuous improvement. Images shown are for representation purpose only. “MICROTEKNIK keeps the right to modify the content in the product without prior notice.

Large Angle Stability System

Large Angle Stability System: MTFM-39 Large Angle Stability System is designed for the study of ship hydro statics and stability. A comprehensive manual provides hydro static stability and other data for ship models and includes a number of experiments which are useful to students. Exercises are conducted on a 1/70 scale model of a general cargo vessel of 28,000-tonne ship mass. Rolling, righting and the effects of flooding various compartments may be studied. DEMONSTRATION CAPABILITIES Inclining experiment Influence of a free surface Influence of a suspended mass Effect of flooding various compartments Rolling experiments TECHNICAL SPECIFICATIONS Apparatus designed to enable students to study ship hydrostatics and stability Supply includes a water tank, a floating ship model, a dynamo meter and a clinometers The model supplied is a 1/70 scale model of a 28,000-tonne general cargo vessel It includes a number of transverse watertight bulkheads in representative positions The compartments are fitted with individual flooding valves The model is constructed of glass reinforced plastic (GRP) Models of other ships are available as optional accessories The dynamo meter measures the righting moment of the model It holds the model at any angle of heel within the range, with the model either free to trim or with heeling axis kept horizontal It exerts no vertical force on the model It is floor standing, with castors and is supplied complete with counterweights Battery powered clinometers measures the inclination of the model, over the range of 0-45 degrees Note: The content of the product and specification are subject to change without prior notice for continuous improvement. Images shown are for representation purpose only. “MICROTEKNIK keeps the right to modify the content in the product without prior notice.

Vernier Hook and Point Gauge

Vernier Hook & Point Gauge: MTFM-41 A mounting frame is clamped to a suitable support structure and a gauging rod is free to slide up and down over the water surface. A stainless steel hook or point is attached to the bottom end of the rod and is used to locate the water surface. Gauging is carried out by means of a primary scale attached to the mounting frame and a vernier scale attached to the rod. The scales are in edge contact. The rod is held in a screwed collar for fine adjustment and can be released for large, rapid changes of position. Zero can be reset by a locking screw positioned on the vernier scale. DEMONSTRATION CAPABILITIES Location of air-water surface boundaries with high resolution Measurement of slowly changing water levels in flumes and hydraulic models Measurement of mechanical deformation TECHNICAL SPECIFICATIONS A rugged low cost gauge for measurement of water surface position to ±0.20mm Mounting frame in enameled cast aluminum Gauging rod and adjusting mechanism in bright plated brass Supplied complete with stainless steel hook and point Ranges: 1: 150 mm 2: 300 mm 3: 450 mm Resolution: ±0.10 mm Typical accuracy: ±0.20 mm Repeatability: ±0.10 mm ** Note: The content of the product and specification are subject to change without prior notice for continuous improvement. Images shown are for representation purpose only. “MICROTEKNIK keeps the right to modify the content in the product without prior notice.

Multi Pump Test Rig

Multi-Pump Test Rig: MTFM-11 The equipment comprises a water reservoir and five pump positions (four active). Each pump position uses pipe work and sensors optimized to the type of pumps it is intended for. Positions 1, 2a and 2b are optimized for high flows at low heads, such as the rot dynamic pumps, whereas positions 3 and 4 are suitable for lower flows but higher pressures as obtained from the positive displacement pumps. Positions 2a and 2b are mutually exclusive as they share the same motor drive. Switching between any of the four installed active pumps is simple requiring only isolating valve changes and control panel selection. DEMONSTRATION CAPABILITIES Determining the effect of speed on the performance of pumps. Understanding the difference between rot dynamic pumps and positive displacement pumps. Understanding the effect of system resistance. Investigating the effect of suction losses on a centrifugal pump. TECHNICAL SPECIFICATIONS For rot dynamic pumps: Pressure head vs. flow Power absorbed vs. flow Pump efficiency vs. flow For positive displacement pumps: Flow vs. pressure head Power absorbed vs. pressure head Volumetric efficiency vs. pressure head Contains five different pump positions (four active at the same time). Digital readout enables mounting of selected pump Centrifugal pump and gear pump supplied as standard Axial pump, flexible impeller pump, turbine pump, diaphragm pump, plunger pump and a second centrifugal pump are all available as accessories Series/parallel pump demonstrations can be performed with the second centrifugal pump option Control valve incorporated upstream of each pump to demonstrate the effect of suction loss on performance A PC is used to set the required speed of the pump(s) on test. A separate mimic diagram for the selected pump(s) on test displays the important measured and calculated variables Electronic measurement of flow, pressure head, suction head and motor torque Optional volumetric flow measurement system for reciprocating pumps Data logging and educational software included ** Note: The content of the product and specification are subject to change without prior notice for continuous improvement. Images shown are for representation purpose only. “MICROTEKNIK keeps the right to modify the content in the product without prior notice.

Compressible Flow Bench

Bernoulli Apparatus

Bernoulli Apparatus

Flow Over A Notch

Flow Over A Notch: Micro Teknik The unit consists of flow channel of proper length & width. The notch or weir is fitted, water supply is given at one end of channel. Water flow over notch or weir. Arrangement are made to measure the still level to determine the head.

Centrifugal Fan Demonstrator

Cavitation Demonstration Unit

Cavitation Demonstration Unit Microteknik are Best manufacturer and Supplier Company in India,engaged in manufacturing supplying and exporting the best quality of Cavitation Demonstration Unit. By using advanced Technology Being customer centric brand, we are manufacturing and supplying supreme quality Cavitation Demonstration Unit for our esteemed customers. This Cavitation Demonstration Unit is processed using high quality raw material which ensures its standard quality and long service life. Our presented product passes through diverse quality parameters for inspection. Moreover, it can be availed from us at reasonable costs. Features: High load bearing capacity Compact design High performance

Venturi Meter Apparatus

Venturi Meter:

Pipe Surge And Water Hammer

Aerodynamics Trainer

Aerodynamics Trainer

Francis Turbine Test Rig

Our company offers Francis Turbine Test Rig to our clients at reasonable price. This defect free Francis Turbine Test Rig, engineered with perfection gives exceptional performance, given to its good design and precise dimensions. Features of Turbine Test Rig Provided at market leading price Quality is recommendable Efficient functioning

Orifice Discharge Apparatus

Orifice Discharge Apparatus : MTFM-37 The Orifice Discharge accessory comprises a cylindrical clear acrylic tank with an orifice fitted in the base. A traverse assembly enables a piton tube to be positioned anywhere in the jet. A fine wire is attached to this piton tube, which can be traversed across the jet to accurately measure the jet diameter as well as the vena contract diameter. It is helpful in determining the contraction coefficient. DEMONSTRATION CAPABILITIES Determining the contraction as well as velocity coefficients Calculating the discharge coefficient TECHNICAL SPECIFICATIONS Piton tube and wire-on micrometer to measure jet velocity and diameter Quick-release fitting for convenient connection to Hydraulics Bench Cylindrical clear acrylic tank with orifice fitted in base 7 interchangeable orifices Educational software (optional) Traverse mechanism: Lead screw with adjusting nut calibrated 0.1mm per division Standard orifice: Sharp-edged 13mm diameter Max head: 365mm Note: The content and specification of the product are subject to change without any prior notice. Images shown are for only representation purpose. “MICROTEKNIK has the right to change the product content without any prior notice.

Series And Parallel Pump

Series/Parallel Pumps MTFM-30 This product includes a fixed-speed pump assembly and an independent discharge manifold interconnected by flexible tubing along with quick-release connectors. This auxiliary pump can be used along with the basic Hydraulics Bench. The auxiliary pump is mounted on a support plinth, which stands adjacent to the hydraulics bench primary pump. MEASUREMENT CAPABILITIES A single centrifugal pump at a single speed Two similar pumps operate in a series configuration at similar speed Two similar pumps operate in a parallel configuration at similar speed TECHNICAL SPECIFICATIONS Fixed-speed pump with same performance characteristics to pump in Hydraulics Bench All hoses and fittings for easy connection to Hydraulics Bench in either series or parallel configuration Mounted on floor-standing plinth with on/off switch Discharge manifold with flow control valve and pressure gauges Optional Educational software Pump : Centrifugal type Motor rating : 36 kW Max head : 21 m H2O Max flow : 35 l/s Compound gauge range : -10 to +32 m H2O Pressure gauge range : 0-60 m H2O ** Note: The product content and specification are subject to change without any prior notice for continuous improvement. Images shown are for only representation purpose. “MICROTEKNIK has the right to modify the product content and specifications without prior notice.

Open Wind Tunnel

perform various experiments of aerodynamics and fluid flow. This is a open circuit Wind Tunnel provides a region of controlled air flow into which models can be fitted at downstream of working section. The Tunnel consists of bell mouth shaped entry to guide the air smoothly into settling chamber and stabilizes the air flow this follows working section for test section where various models can be tested. Test section with acrylic sheet, will be provided for visual observation. Working section is followed by diffuser section which reduces the dynamic pressure at the exit. A fan coupled with motor is used to produce desired wind velocity. Experimentation open Wind Tunnel Apparatus To plot speed curve for wind tunnel. T study pressure distribution around (A) aerofoil (B) Cylinder (C) Sphere. To measure lift and drag on aerofoil model. To study the development of boundary layer along a plate in Tunnel. Utilities Required : Electricity Supply : 3Phase, 440V AC, 3 KW Floor Area 10 x 3.5 m

Flow Measurement Apparatus

Flow Measurement: [1] different methods of flow rate measurement [2] measuring instruments: orifice plate flow meter/measuring nozzle, Venturi nozzle and rotameter [3] 6 tube manometers to determine the pressure distribution in Venturi nozzle, orifice plate flow meter and measuring nozzle [4] measurement of the total pressure with Pilot tube [5] flow rate determined by base module [6] water supply

Fluid Mechanics Lab Equipments

Micro Teknik is Manufacturer, Exporter & Supplier of Wholesale Fluid Mechanics Lab Equipments Suppliers Fluid Mechanics Models - Providing you the best range of Fluid Mechanics such as Computer Controlled Radial Flow Turbine, Hydrodynamics Trainer, Pipe Network Bench, Hydrodynamics Trainer / PC, Properties.

Losses In Piping Systems

Impact Of Jet Apparatus

Impact Of Jet Apparatus: Micro Teknik brings forward a unit that comprises a plexiglas tank, in which a water jet discharged from a nozzle hits a surface and is deflected. It includes four different test shapes with the deflection angles, such as plate 90, hemisphere 180, angled plate 45, cone 135. Scales loaded with weights measures the impact forces at the deflector. Learning Objectives / Experiments A hemisphere, an angled, a flat plate ans a cone are provided as deflector: Impulse-momentum; direct measurement of impact forces Flow rate and velocity effect Various deflection angles effect Specification Plexiglas made cylindrical operating area, diameter 200mm and height 340mm. Measurement of jet impact forces with weights. Four interchangeable deflectors. Unit mounted on base plate, 400x400x40mm (lxwxh) size and powder-coated steel plate.

Orifice And Jet Velocity Apparatus

Calibration Of A Pressure Gauge

Falling Ball Viscometer

Centrifugal Pump Unit

Centrifugal Pump Unit: MTFM-31 This accessory comprises a variable-speed pump assembly and independent discharge manifold interconnected by flexible tubing with quick release connectors. This auxiliary pump is intended to be used in conjunction with the basic Hydraulics Bench. The auxiliary pump is mounted on a support plinth which stands adjacent to the Hydraulics Bench„s primary pump with which it is intended to be used. The pump speed is varied by an inverter drive. The motor speed output voltage and motor current can be monitored on the inverter display. MEASUREMENT CAPABILITIES Determining the relationship between head, discharge, speed, power and efficiency for a centrifugal pump at various speeds Determining the head/flow rate characteristics of two similar pumps operating in either parallel or series configuration at the same speed TECHNICAL SPECIFICATIONS Variable-speed pump with similar performance characteristics to pump in Hydraulics Bench Mounted on floor-standing plinth with variable speed inverter drive Discharge manifold with flow control valve and pressure gauges All hoses and fittings supplied for easy connection to Hydraulics Bench in either series or parallel configuration Pump: Centrifugal type Max head: 21 m H2O Max flow: 1.35 l/s Motor rating: 0.36kW Speed controller: Frequency inverter Speed range: 0-1500 rpm Pressure gauge: 0-60 m H2O Compound gauge: -10 to +32 m H2O

Equilibrium Of Floating Bodies

Fluid Mechanics Lab Equipments

Flow Channel of Fluid Mechanics Lab Equipments

Open Channel and Closed Channel Flow

Rotating Tank Vortex Apparatus

Pelton Turbine

Centrifugal Pump

Hydrostatic Pressure Apparatus

Description: The weight of fluids at rest causes a pressure that is known as hydrostatic pressure or gravitational pressure. This pressure acts on any area that is in communication with the fluid, exerting a force that is proportional to the size of the area. The effect of hydrostatic pressure is highly important in many fields of engineering: in shipbuilding, in hydraulic engineering when designing locks and weirs, in sanitation and building services. The experimental unit offers typical experiments to study hydrostatic pressure in liquids at rest. The effect of the hydrostatic pressure of water can be clearly shown at different water levels and angles of inclination. The experimental unit consists of a transparent, tilting water tank with a scale for measuring volumes. Another scale is used to adjust the angle of inclination of the water tank. The device is balanced by a lever arm using different weights and the compressive force measured. The well-structured instructional material sets out the fundamentals and provides a step-by-step guide through the experiments. FEATURES Determination of forces on surfaces under hydrostatic pressure. SPECIFICATION Investigation of the hydrostatic pressure in fluids at rest. Tiltable water tank with fill level scale. Lever arm with different weights. TECHNICAL DATA Water tank inclination angle: 0- 90 content: 0...1,8L scale: 0...250mm effective area, max. 75x100mm Lever arm - max. length 250mm Weights - 1x 2,5N - 1x 2N - 2x 1N - 1x 0,5N

Air Flow Studies Apparatus

Air Flow Studies: MTFM-06 The equipment comprises a long smooth walled pipe connected to the suction side of an electrically driven centrifugal fan. The fan discharge pipe terminates in a flow-control damper for closed-conduit work or a plate containing a small aperture for jet dispersion measurements. Air enters the smooth walled pipe through one of the two flow-measurement nozzles provided. Pressure tapings along the length of the pipe permit the pressure gradient to be determined. A bend or mitered cascade elbow may be fitted midway along the smooth wall pipe for comparison of pressure losses. Boundary layer growth is determined by the measurement of the velocity profile at five stations along the pipe using a traversing Piton tube. A conventional flow-measuring orifice plate is supplied for installing in the pipe upstream of the fan for additional demonstrations of pressure loss and recovery. Air-jet studies are carried out on the discharge side of the fan. A Piton tube is traversed vertically and horizontally at different distances from the discharge orifice to investigate the dispersion properties. The equipment is mounted on a floor-standing steel frame with an adjacent support for the extended suction pipe. Pressure measurements are made on a multi-tube inclinable manometer mounted on the support frame. FEATURES Alternative bends and bell mouth Orifice plate Piton traverse Jet Jet traverse Piton assembly DEMONSTRATION CAPABILITIES Practical demonstration of the quantitative flows in geometry described in the laws of conservation of mass and momentum Using manometers to measure pressure drop Using a Piton-static tube to measure flow Employing nozzles and orifices to measure flow Understanding and measuring velocity profiles Relating pressure loss in a duct to flow rate Measuring the flow resistance of duct fittings Understanding the use of Reynolds„ numbers Measuring the dispersion of a jet TECHNICAL SPECIFICATIONS Centrifugal fan capacity: 218 l/s at STP Pipe velocity range: 0-35 m/s Inlet pipe: dia. 80 mm length: 2.75 m Interchangeable nozzles: dia. 50 mm and 80 mm Internal pipe orifice: dia. 50 mm Jet discharge pipe orifice: dia. 30 mm Manometer range: 0-283 mm H2O Manometer fluid: Kerosene (s.g. 0.78)

Energy Losses in Pipes Apparatus

Energy Losses in Pipes Apparatus Specification of Energy losses in pipe: Investigation of pressure losses in piping elements and shut-off devices. Different measuring objects for determining flow rate according to the differential pressure method. Six pipe sections capable of being individually shutoff, with different piping elements: sudden contraction, sudden enlargement, Y-pieces, T-pieces, corners and bends. One pipe section to hold interchangeable shutoff/measuring objects. Measuring objects made of transparent material: Venturi nozzle, orifice plate flow meter and measuring nozzle. Shut-off devices: angle seat valve, gate valve. Annular chambers allow measurement of pressure without interaction. 2 twin tube manometers for measuring the pressure difference. Flow rate determined by base module. Water supply using base module or via laboratory supply.

Francis Turbine Apparatus

Francis Turbine Specification of Francis Turbine: Function of a Francis turbine. Transparent front panel for observing the operating area. Loading the turbine by use of the band brake. Adjustable guide vanes for setting different angles of attack. Marking on brake drum for non-contact speed measurement. Instruments: spring balances for determining the torque, manometer shows pressure at turbine inlet Flow determination by base module . Water supply using the base module or via lab supply. Dimensions and Weights: L x W x H: 400x400x630mm Weight: approx: 17kg

Orifice and Free Jet Flow Apparatus

Orifice And Jet Velocity Apparatus MICROTEKNIK are offering a wide range of Orifice And Jet Velocity Apparatus.Orifice and Free Jet Flow A plexiglass cylinder is equipped with an adjustable overflow and scale which enables the height of the water column to be set and read accurately. 2 types of outlet nozzle can be compared.

Osborne Reynold Demonstration Apparatus

Osborne Reynold Demonstration Apparatus: Description of Osborne Reynold Demonstration Apparatus: 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 .The experimental results can be used to determine the critical Reynolds number. Specification of Osborne Reynold Demonstration Apparatus Visualization 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 stabilize the flow. Flow rate in the pipe section can be adjusted via a valve. Flow rate determined by base module.

Flowmeter Measurement Apparatus

Flowmeter Measurement Apparatus Description of Flow Measurement Apparatus: This experiment has been established to investigate the relationships existing between the rate of flow, pressure, and the thickness of the filter cake. Once these relationships are determined for a particular filter press, the size of the ancillary equipment (i.e. pumps and piping) can be determined. The apparatus in our laboratory can be operated in two modes; constant inlet pressure to the filter, or constant filtrate flow rate from the filter. Students will investigate both modes of operation experimentally. Finally, the knowledge gained will be used to design a plate-and-frame filter press operation. Specification of Flow Measurement Apparatus: Piping system, 8mm nominal bore. Venturimeter, transparent, made of clear Acrylic and having convergent and divergent portions, throat diameter 18mm, maximum diameter: 30mm, upstream taper: 1500, downstream taper: 600. Number of static pressure taps 8. Orifice plate, 30mm nominal diameter. Turbine flow meter, 2 liters/s max. flow rate. Multi-tube manometer, 0-300 mm column, No. of tubes: 6 with hand pump. Measurements: Static pressures along the venturimeter. Static pressures across orifice plate. Flow rate using turbine flow meter. Actual volume flow rate using Hydraulic Bench or graduated tank.

Pascal Apparatus

Specification of Pascal Apparatus: Lever arm with sliding weight and spirit level measures force at the base of the vessel. Three alternative glass vessels supplied: Parallel sided, Conical and Tapering. Flexible diaphragm retained by ring for ease of replacement. Height adjustable pointer allows all vessels to be filled to a common depth.

Flow Over Weirs Apparatus

Flow Over Weirs Apparatus Introduction of Flow over weirs apparatus A weir is an overflow structure extending across a stream or a channel and normal to the direction of the flow. They are normally categorized by their shape as either sharp-crested or broad-crested. This laboratory experiment focuses on sharp-crested weirs only. Two different types of weirs will be introduced: 1- The V-notch weir. 2- The rectangular weir (horizontal weir with end contractions). Objective: To Study the Discharge over different type of notches. Specification of Flow over weirs apparatus: Dimensions of rectangular notch: Height=82mm, width=30mm. Angle of V notch weir: 900 inclusive. Hook and point gauge range: 0 to 150mm. Accuracy: 0.1mm. Overall dimension of weir plates: Height=190.5mm, Width=178mm, Thickness=4mm.

Kaplan Turbine Test Rig

Kaplan Turbine Test Rig:

Basic Metacentric Height Apparatus

Disc Bowl Centrifuge

Descriptions of Disc Bowl Centrifuge The Disc Bowl Centrifuge is designed to provide practical training in the technique of separating a heavy phase liquid from a lighter phase.

Plate and Frame Filter Press

Fluid Friction Apparatus

Cavitation Demonstration Unit

DEMONSTRATION CAPABILITIES Observation of the phenomenon of cavitations in a liquid Comparison of theoretical and actual pressure at cavitations conditions Observation of air-release due to dissolved gases in a liquid Demonstration of reducing cavitations by increasing the static pressure in a liquid TECHNICAL SPECIFICATIONS Circular Venturi-shaped test section manufactured from clear acrylic for full visualization of cavitations Three Bourdon gauges indicate the static pressure upstream of the contraction inside the throat and downstream of the expansion in the test section Flow-control valves upstream and downstream of the test section enable flow conditions to be optimized for the demonstration of cavitations Quick-release fitting for easy connection to Hydraulics Bench Upstream pressure gauge:- Diameter: 63mm Range: 0 to 1 bar Throat vacuum gauge:- Diameter: 100 mm Range: -1 to 0 bar Downstream pressure gauge:- Diameter: 63 mm Range: 0 to -1 bar Note: The content of the product and specification are subject to change without prior notice for continuous improvement. Images shown are for representation purpose only. “MICROTEKNIK keeps the right to modify the content in the product without prior notice.

Energy Losses in Bend

Energy Losses in Bend Microteknik are manufacturer and exporter of Energy Losses in Bend Fitting Pipes. This Energy Losses in Bends and Fittings Model has been designed for students experiment on the investigation of energy losses in pipe bends and fittings including valves. The equipment is mounted on a free-standing framework supporting the test pipe work and instrumentation.

Bernoullis Theorem Demonstration

Specifications stainless steel structure 7 tubes pressure gauge, range 0 500 mm Diameter of venture tube : 20 mm Venturi tube throat diameter : 10 mm Upstream taper : 14 Downstream taper : 21 Dimension : 650 x 400 x 850 mm

Flow through an Orifice Apparatus

Flow through an Orifice Apparatus To be used with Hydraulics Bench. For measurement of contraction and velocity and discharge coefficients for orifice discharge. Clear acrylic cylinder with adjustable constant head. Water admittance via wire mesh discharge head. Orifice at the bottom of the cylinder. Traverse assembly below the cylinder, with wire and pitot tube. The wire measures jet diameter, pitot tube measures jet velocity. Velocity head on pitot tube and total head are indicated on manometer tubes.

Sharp Edge Orifice Meter

Flow Channel

Computerized Pressure Gauge Calibration Equipment

Computerized Venturi Meter

Computerised Pressure Measurement Bench

Basic Hydrology Apparatus

Computerised Flow Meter Caliberation Equipment

Computerised Flow Meter Caliberation Equipment

Pressure Measurement and Calibration

Pressure Measurement & Calibration This apparatus enables a commercial Bourdon tube pressure gauge to be accurately calibrated using a dead weight tester. Usual practice is to load gauges using oil to transmit the known pressures; however. For ease of use and cleanliness in operation, this apparatus is specially deigned for use with water instead of oil. This equipment consists of a stainless piston which is free to move vertically in a closely fitting cylinder. A transparent flexible hose connects the cylinder to the pressure gauge. Its internal mechanism is clearly visible through the transparent dial. Integral with the piston is a loading platform upon which known weights are placed during the test. All air is expelled from the system by tilting and gently tapping the cylinder.

Free Forced Convection System

FREE FORCED CONVECTION SYSTEM

Pipe Networks Bench

Pipe Surge and Water Hammer Apparatus

Pipe Surge And Water Hammer Apparatus MTFM-12 Pipe surge and water hammer are two related but independent phenomena which arise when fluid flowing in a pipe is accelerated or decelerated. The associated pressure transients can be damaging to pipe work or components and systems must be designed to avoid or with stand them. The equipment designed by clearly demonstrates the different effects resulting from gradual or instantaneous changes in fluid velocity. Effect of initial fluid velocity can also be investigated. Pipe surge resulting from a gradual change in fluid velocity is clearly seen as fluctuating changes in head in a surge shaft. DEMONSTRATION CAPABILITIES Demonstration of pipe surge Determination of oscillatory characteristics of the surge shaft Demonstration of frictional head loss between reservoir and surge shaft Comparison between theoretical and measured pressure profiles produced by water hammer Using a dual trace storage oscilloscope to record transient water hammer pressure profiles Measuring the pressure profile characteristics Determination of the velocity of sound through a fluid in a pipe Demonstration of the effects of cavitations on subsequent cycles. TECHNICAL SPECIFICATIONS Pipe surge test pipe: stainless steel 22 mm I/D x 3 m long Surge shaft : clear acrylic 40 mm I/D x 800 mm H Service pump: centrifugal type, delivering 1.35 liters/sec at 3 m H20 Flow rate measurement: volumetric tank, stepped 0-40 liter high flows 0-6 liter low flows Head tank: capacity 45 liters A self-contained unit designed to demonstrate the phenomena of pipe surge and water hammer. The unit includes two separate test pipes, service module and constant head tank. Two pressure transducers provide electrical signals for connection to a dual trace storage oscilloscope with an integral printer output. Straight pipes are used, rather than a coiled arrangement, to reduce distortion of the pressure wave. ** Note: The content of the product and specification are subject to change without prior notice for continuous improvement. Images shown are for representation purpose only. “MICROTEKNIK keeps the right to modify the content in the product without prior notice.

Free and Forced Vortex Flow

Free and Forced Vortex Flow Free and Forced Vortex Flow apparatus offered by us has been painstakingly designed by our team of expert professionals. This apparatus enables the researchers to determine the shape of the vortex profile. With the accuracy of the results it provides, this apparatus is very popular in the market. Created using optimum quality materials and cutting edge technology, this delivers flawless performance. We subject it to quality tests based on multiple parameters before making it available to the customers. Range Of Experiments: To visualize the forced & free vortex phenomenon. To plot the shape of vortex profile i.e. vertical height vs horizontal radius.

Flow Through Circular Pipe

We are reliable manufacturer of high quality FLOW THROUGH CIRCULAR PIPE. Quality approved raw material are used in the manufacturing process, while meeting all industrial norms and guidelines. It finds use in civil engineering labs, where applications involve friction between fluids of several kinds. This can be easily set up and installed. Customers can buy this in any specifications.

Flow Through Non Circular Pipe

Flow Through Non Circular Pipe