Engineering Training Equipment Dealers in Roorkee

A Test rig provided study of a Single Cylinder two stroke petrol engine testing. The rig comprises of Single Cylinder Two Stroke Petrol Engine coupled to a Dynamometer. Apply to various load through Dynamometer. With the help of various measurements provided the test rig. Can determine BHP, IHP, mechanical and thermal efficiencies, air fuel ratio, and specific fuel consumption. • Specifications: • Engine: Single Cylinder Two stroke Air Cooled Petrol Engine • Rope Brake Dynamometer: Belt around water cooled brake drum and spring balance. • Air intake measurement: Air intake reservoir with orifice plate and differential manometer. • Fuel measurement arrangement: Fuel tank mounted on a sturdy iron stand, burette tube, 3-way cock connecting tube. • Multi-channel Digital Temperature Indicator: to Measure the temperature.

The most commonly used law of Thermal Radiation is the Stefan-Boltzmann low which states that the thermal radiation heat flu emitted from a block surface (one which absorbs all the incident radiation falling on it) is proportional to the fourth power of the absolute temperature of the surface and is given by the following equation. (qA) Heat flux in WMsq. = σT = eb4 Where, T is the surface temp. which emits thermal radiation in K And Stefan – Boltzmann constant, σ=5.67 x 10-8 WM sq.—K4 eb = Emissivity power of black surface. The Stefan – Boltzmann low can be derived by integrating planks law,

• Country of Origin: India
• Type: Engineering Training Equipment
• Weight: 100-1000kg
• Condition: New
• Automatic Grade: Manual

We offer Compensation Design useful for control labs. Practical feedback control systems are often required to satisfy design specifications in the transient as well as steady state regions. Cascade compensation is most commonly used for this purpose. This unit has been designed to enable the students to go through the complete design procedure and finally verify the performance improvements provided by compensation. The experimental set-up is accompanied by the supporting literature which becomes of vital importance as a major part of the experiment involves theoretical design of compensation networks. >>Highlights Design and test cascade compensator Simulated system for accurate results Built-in compensator – only passive external components Built-in signal sources >>Experiments Lag/Lead compensation in the frequency domain Lag/Lead compensation in the s-plane All the above design problems may be undertaken for a very wide range of design specifications The implementation of the compensation network has been made very convenient by a pre wired amplifier with calibrated gain >>Features and Specifications Simulated ‘uncompensated’ system having adjustable damping. Peak percent overshoot MP, variable from 20% to 50%, and steady state error variables from 50% to 0.5% Compensation network implementation through built-in variable gain amplifier. Gain is adjustable from 1 to 11 Built-in square and sine wave generators for transient and frequency response studies. Frequency adjustable from 25Hz – 800Hz (approx.) Essential accessory: a CRO The experiment is complete in all respect, except a CRO.

• Voltage: 230 V
• Test section: Horizontal, externally heated
• Blower: FHP of Standard make
• Heater: Nichrome Wire
• Item Code: NIC-18
• Length: 400 mm
• Diameter: 28 mm
• Floor Area Of: 1.2 m x 0.5 m
• Number of Phase: 1 Phase
• Digital Voltmeter: 0-300 Volt
• Digital Ammeter: 0-2 Amp

• Country of Origin: India
• Type: Engineering Training Equipment
• Weight: 100-1000kg
• Condition: New

we offer compensation design useful for control labs. practical feedback control systems are often required to satisfy design specifications in the transient as well as steady state regions. cascade compensation is most commonly used for this purpose. this unit has been designed to enable the students to go through the complete design procedure and finally verify the performance improvements provided by compensation. the experimental set-up is accompanied by the supporting literature which becomes of vital importance as a major part of the experiment involves theoretical design of compensation networks. highlights >>design and test cascade compensator >>simulated system for accurate results >>built-in compensator – only passive external components >>built-in signal sources experiments >>lag/lead compensation in the frequency domain >>lag/lead compensation in the s-plane >>all the above design problems may be undertaken for a very wide range of design specifications >>the implementation of the compensation network has been made very convenient by a pre wired amplifier with calibrated gain features and specifications >>simulated ‘uncompensated’ system having adjustable damping. peak percent overshoot mp, variable from 20% to 50%, and steady state error variables from 50% to 0.5% >>compensation network implementation through built-in variable gain amplifier. gain is adjustable from 1 to 11 >>built-in square and sine wave generators for transient and frequency response studies. frequency adjustable from 25hz – 800hz (approx.) >>essential accessory: a cro the experiment is complete in all respect, except a cro.

Heat Transfer Lab Equipment, Surveying Instruments, Concrete lab instruments

pantograph, Tangent Clinometer, optical square, Plane Table Set

civil lab equipment, Mechanical Lab Equipment, Electronic Lab Equipment