Renewable Energy System Lab, Renewable Energy System Lab Equipments, Renewable Energy System Lab Tools, Renewable Energy System Lab Tool Kits, Renewable Energy System Lab Manufacturers, Renewable Energy System Lab Suppliers from India, China, Kenya
Lab Tender Suppliers Africa and Lab Equipment Africa Kenya, Uganda, Sudan, Algeria, Morocco, Angola, Ghana, Mozambique, Madagascar, South Africa, Ivory Coast, Cameroon, Niger, Burkina Faso, Mayotte, Sao Tome, Seychelles, Zambia, Chad, Somalia, Senegal, Zimbabwe, Guinea, Rwanda, Benin, Burundi, Tunisia, South Sudan, Mali, Malawi, Nigeria, Ethiopia, Egypt, DR Congo, Tanzania, Togo, Sierra Leone, Libya, Congo, Central African Republic, Liberia, Mauritania, Eritrea, Gambia, Botswana, Namibia, Gabon, Lesotho, Guinea Bissau, Equatorial Guinea, Mauritius, Eswatini, Djibouti, Reunion, Comoros, Cape Verde, Western Sahara Ministerial Tender Board Lab Equipment India, Ministry of School Education Lab, Vocational Training Lab Tenders Suppliers India
A workbench, complete with loads, motors and data acquisition systems. Approximate dimensions: 2000 mm x 800 mm x1700 mm (h).
An auxiliary table for PC, bench top instruments and equipment like oscilloscopes, multi meters, etc.
Measurement system for complete power parameters.
Mechanical and electrical data acquisition instruments.
Programmable Logic Controller(PLC).
2 Motors (conventional and high efficiency, 1.5 HP).
A control panel, with all the electric and electronic components arranged in an ergonomic way.
Load module
Motors driving systems: frequency inverter,soft starter, contactor.
Driving system and protection elements such as: circuit breakers, regulators, switches, keys, lights.
A lighting unit simulates natural solar radiation and allows a range of experiments to be carried out in the laboratory. The light is converted into heat in an absorber and transferred to a heat transfer fluid. Solar thermal systems convert solar energy into usable thermal energy. It allows you to demonstrate solar thermal heating of domestic water in an illustrative manner. The heat is released to the water by an integrated heat exchanger in the tank. A pump conveys the heat transfer fluid through a hot water tank.
Learning Objectives/Experiments:
Design and operation of a simple solar thermal system
Influence of illuminance, angle of incidence and flow rate
Influence of various absorbing surfaces
Determining efficiency curves
Determining the net power
Energy balance on the solar collector.
The Solar Energy Computer Interface unit consists of a solar panel on a tilting and rotating base, an inverter, a regulator, a storage battery, load circuit, a fan, lamp load, voltmeters and ammeters. Solar Energy Computer Interface is a bench mounted unit designed for a study of electricity generation form sunlight, storage and use of energy. The panel is mounted on a tilting and rotating base.
Experiments:
Current-voltage characteristics of solar panel.
Working principles of load regulator low unloading and overloading protection Principles of inverter.
Effect of shading on performance.
Effect of panel inclination on performance.
90W, 12V, complete with a cell for measuring the solar radiation and with a panel temperature sensor.
....
It allows simulating the wind force and direction. System composed of: wind speed and direction sensor, power supply, fan, potentiometer, measurement circuit.
....
Duralumin alloy varnished structure mounted on anti-vibration rubber feet, provided with slide guides to fix one or two machines and with coupling guard.
....
Relay for automatic adjustment of the power factor in systems with inductive load.
Power factor adjustment range: 0.9 ... 0.98 ind
2 decimal digit display
Output relay for batteries connection: 4 NO contacts with LED indication
Output relay contact: 400 Vac, 5 A
Sensitivity: 0.2 ... 1.2 K
Supply voltage: three-phase from mains
Automatic detection of the frequency.
Ammetric input circuit: 5 A (250 mA min.).
Switchable Capacitor Battery system with which different capacitance values can be connected to the mains for reactive power compensation. Each switching level can be controlled separately: internally, through 4 toggle switches, externally, through 4 control inputs Coil operating voltage: 220 Vac
Four switching levels each consisting of 3 capacitors in star connection with discharging resistors:
level 1 (b1 coil): 3 x 2 ¼F/450 V
level 2 (b2 coil): 3 x 4 ¼F/450 V
level 3 (b3 coil): 3 x 8 ¼F/450 V
level 4 (b4 coil): 3 x 16 ¼F/450 V
Compensation power: max 1360 VAr at 50 Hz, 380 V.
Single or three phase resistive step variable load.
Max. Voltage: 220/380 V/Y
Max. Power: 3 x 400 W
Suitable for Power Supply with variable voltage the braking systems and the excitation of the machines through manual or automatic operation.
Automatic regulation of excitation to keep a constant voltage
DC output: 0 to 210 V, 2 A
Power supply: 220 V, 50/60 Hz
Measurement of AC voltage, current, power, active energy, reactive energy, apparent energy, power factor and frequency.
Measurement of dc voltage, current, power and energy.
Alternate voltage: 450 V
Alternate current: 20 A
Direct voltage: 300 V
Direct current: 20 A
Power: 9000 W.
Current max.: 30A
Power: 360W
Voltage: 12V
Measurement of voltages, currents, frequencies, active power, reactive power, apparent power. Microprocessor controlled three Âphase power analyzer.
Input current: 5 A (max 20 Arms)
Input voltage: 500 V (max 800 Vrms)
Auxiliary supply: single phase from mains
Operating frequency: 47 · 63 Hz.
The smart grid knows our requirement of power consumption. When the demand for electricity is at its maximum, the Smart Grid automatically adapts to the demand by picking up excess energy from many sources to avoid overload problems or interruptions of power. The Smart Grid is a system for an "intelligent distribution" of electricity, able to know the consumption of the various end users and to manage the generation and distribution of electricity according to demand. Furthermore, the software that runs the Smart Grid monitors the electrical flow of the system, integrates renewable energy into the network and activates / suspends the industrial or domestic processes during periods when electricity costs less / more. Simply put, if in a given area we have a potential overload of energy, the excess energy can be redistributed to other areas that need it, based on the actual requests from end users. It has, therefore, the function of sharing the electricity that is generated from various sources, both public and private, traditional and renewable, and ensuring that electrical devices use electricity as efficiently as possible.
....
The trainer allows studying the Energy Efficiency in a hydraulic circuit with motor driven pump controlled by an inverter. Trainer for the study of the Energy Efficiency in the control of electric motors.
Training Objectives:
Introduction to the different sensors/actuators used in this trainer and their main features (float switch, flow sensor, pressure sensors and solenoid valves)
Learning and setting a Multifunction Network Analyzer (MNA)
Learning and programming an industrial Variable Speed Drive (VSD)
Learning the energy savings with electric motors and drives
Possibility to import data (saved on micro SD card) in Microsoft Excel environment for processing.
Introduction to electric motors
Learning and programming an advanced PLC with operator interface.
Power supply unit for Three Phase connection with4pole cam mains switch. Three phase indicator lamps. 25A current operated earth leakage circuitbreaker, sensitivity 30 mA.
Switch for simulation of wind or photovoltaic energy power source.
Output through 5 safety terminals:
L1, L2, L3, N and PE.
Complete with connecting cables, experiment manual, interface to PC and software for data acquisition and display. Solar Wind Fuel Cells Energy Trainer has been designed for the study of renewable energies: solar energy, wind energy and hydrogen fuel cell systems.
Training Objectives:
Determining characteristic curve of solar panel
Hydrogen/oxygen or hydrogen/air operation
Assembling a fuel cell
Determining electrolyser efficiency
Learning about Faradays laws
Determining characteristic curves of fuel cell
Producing and storing hydrogen
Determining decomposition voltage of water
Building a model hydrogen car
Using methanol to generate electricity
Determining characteristic curve of electrolyser
Determining fuel cell efficiency
Voltage and current in a series connection of solar panels
Voltage and current in a parallel connection of solar panels
Determining characteristic curves of DMFC
Influence of the surface of a solar module on voltage and current intensity of a solar module.
Complete with connecting cables, experiment manual and software for data acquisition and display. Trainer for the theoretical practical study of the hydrogen based fuel cells energy.
Training Objectives:
Determining characteristic curve of solar panel
Voltage controlled automatic measurements
Determining characteristic curve of electrolyser
Study of a fuel cell stack up to ten cells
Determining fuel cell efficiency
Determining decomposition voltage of water
Producing and storing hydrogen
Learning about Faraday's laws
Determining characteristic curves of fuel cell
Monitoring single cell stack voltages at your PC
Power controlled automatic measurements
Long term measurements at your own PC
Fixing the output at different operating points of the fuel cell stack
The turbine housing is transparent so as to show how the turbine uses the inertia produced by a water jet. Through the different indicators of the system, it is possible to visualize all the variables related to the transformation of energy. The Hydroelectric Power Trainer is designed for the study and display of both the behavior and the characteristics of a Pelton turbine. The braking device by means of an electric brake allows working at different speeds in a simple and effective way.
Training Objectives:
Efficiency of the turbine electric generator system
Characteristic curves of the turbine
Curves of iso efficiency.
Fuel Cells Systems Trainer has been designed for the study of fuel cell systems. It is safe and easy to be operated. It teaches their engineering principles and it allows performing a set of experiments for educational purposes.
Training Objectives:
Fuel Cells Systems Trainer is very flexible, modular and suitable for the understanding of basic principles as well as more complex technology concepts.
It allows performing the following experiments:
Familiarize yourself with the trainer
Calculation of the energy efficiency of the (Proton Exchange Membrane) PEM Fuel Cell
Performance of the (Proton Exchange Membrane)PEM Fuel Cell with fixed loads, with DC/DC Converter
Performance of the (Proton Exchange Membrane) PEM Fuel Cell with fixed loads, without DC/DC converter
Recording of the current/voltage characteristic curve of the (Proton Exchange Membrane) PEM Fuel Cell with variable load.
Cathodic Protection Training Bench provides suitable devices to highlight the concept of the free corrosion potential, measured with easy to use reference electrodes and means suitable to build with a certain accuracy the polarization curves. Cathodic Protection Training Bench provides facilities to study the case of isolated systems, as well as the case of systems where different metals are coupled together. Particular attention is given to the presence or not of several kinds of insulating materials over the surfaces of the samples, in order to demonstrate the different behavior of the same material when coated or bare.
....
The simulator consists of a panel operating by PC with mimic diagram for the clear positioning of the components. The various zones of the mimic diagram are presented with different colours and shades to emphasize the peculiar characteristics of the system. This simulator is an educational system designed in vertical frame, bench-top, so the students have the capability to watch the theoretical and practical study of the automotive systems. The mimic diagram is fitted with light indicators so as to enable the observation of the control. It includes colour mimic diagram that clearly shows the structure of the system and allows the location of components on it.
The operational conditions are entered by the students. The display of the information available at the PC monitor allows the continuous monitoring of the educational system. The insertion of faults is carried out by the PC.
The subsystems that form the hybrid solution and that are analyzed by means of the simulator and shown on the synoptical panel are the following: Gasoline Unit, including:
Gasoline Engine, with a bank of 4 cylinders and multipoint sequential injection
i-VTEC: Intelligent Variable-valve Timing and Electronic-lift Control
Engine ECU (electronic control unit for managing the thermal motor)
i-DSI: Intelligent Double Sequential Ignition.
Training Objectives:
Operating the wind turbine and the anemometer
Braking in the braking mode
Braking in the no load operation/open circuit/free spinning mode
Identification of the components
Installation and testing of the anemometer
Installation and testing of the wind turbine
Battery regulating and charging
Supplying AC load with wind power and a battery
Direct current wind energy installation
Supplying AC load with wind power stored in a battery
Complete system for wind energy.
The light intensity can be manually adjusted through a potentiometer or automatically controlled to allow performing experiments with different light intensities, therefore simulating the light conditions from dawn to twilight. Lamps For Photovoltaic Solar Trainers is used to provide suitable lighting to the photovoltaic solar module.
The Lamps For Photovoltaic Solar Trainers includes the following main components:
Magnetothermal switch, differential 10A
Potentiometer, 10k
4 off halogen lamps, 300 W each
Dimmer for controlling the light intensity.
Complete with connecting cables and experiment manual. Photovoltaic Solar Energy Trainer is mounted on a mobile structure that allows it to be moved to the venue for practical sessions and allowing the photovoltaic panel to receive solar radiation.
Training Objectives:
The photovoltaic panel, which can be inclined through a range of 0 to 90, and the calibrated cell used to measure solar irradiation, are on one side, and all of the components of a basic photovoltaic facility used to provide 12 V of direct current and 230 V of alternating current are on the other side.
Identification of all components of the trainer and how they are associated with its operation
Measurement of the voltage and power parameters of the photovoltaic panel
Programming the load regulator
Analysis of the installation of the trainer
Measurement of solar irradiation
Alternating current supply
Direct current supply.
With the Solar Position Tracking System trainer, it is possible to monitor the most meaningful parameters of the sun tracker and to compare them with the expected optimal setting according to the actual sun position.
Features:
Humidity sensor
Compass sensor.
Automatic or manual tracking.
Protection against gust.
Temperature sensor.
Training Objectives:
Measuring the mains voltage
Measuring the electricity delivered to the mains grid
Measuring the electricity produced by the solar panel and delivered/taken from the mains grid.
Changing the inclination of the solar panel
Changing the azimuth of the solar panel
Measuring the load current, voltage, power and energy
Setting the solar panel to the most irradiated position
Covering the solar panel with different materials
Calculating the inner resistance of the solar panel
Obtaining the solar panel current voltage curve
Obtaining the solar irradiation data
Obtaining the solar panel voltage irradiation curve
The Personal Computer constantly keeps under control the simulation in progress and displays its behavior through analog and digital signals and meters; in this way the student, through measurements and tests, can go on with the troubleshooting. It is possible to simulate the behaviour of components and systems, on the basis of the operating conditions which can be monitored directly on the panel or through Personal Computer by teacher and students.
....
Training Objectives:
To investigate how the solar irradiation influences the solar panel output voltage
To obtain a daily irradiation curve
To test the complete system
To cover the solar panel with different materials
To calculate the inner resistance of the solar panels
To use both solar power and energy stored in the battery to power the DC load
To charge the battery using solar energy.
Training Objectives:
Direct current wind energy installation
Alternating current wind energy installation
Complete system for wind energy
Installation and testing of the anemometer
Connecting the wind turbine and the anemometer to the trainer
Identification of the components
Installation and testing of the wind turbine
Battery regulating and charging.
Training Objectives:
To calculate the inner resistance of the solar panels
To obtain a daily irradiation curve
To investigate how the solar irradiation influences the solar panel output voltage
To cover the solar panel with different materials
To use both solar power and energy stored in the battery to power the DC load
To test the complete system
To charge the battery using solar energy.
Training Objectives:
Interpretation of diagrams and association with their objective
Measurement of wind speed
Identification of the components and association with their function
Analysis of the operation of the installations once assembled
Assembly of the proposed installations
Analysis of the behavior of the wind turbine.
The coil is immersed in an insulated tank containing hot water provided by either an electric resistance heater which is housed within the tank, or by the optional solar energy collector mounted in a suitable position outside. The Solar And Heat Source Vapour Turbine consists of a coiled copper tube through which pressurised solvent flows.
Experimental Capabilies:
Clear and easily observed demonstration of a classic Rankine Cycle. Production of Torque/Speed and Power/Speed curves for a single stage impulse turbine. Use of property charts or tables and the application of the First Law of Thermodynamics to produce energy balance. In addition, With Optional Solar Panel Demonstration of the production of shaft work from solar radiation. Determination of thermal efficiency at a range of turbine inlet and exhaust pressures. Comparison of performance with the Rankine Cycle Estimation of total frictional losses in turbines. Measurement of solar energy collection at a range of mean water temperatures.
Combined Wind And Solar Power Generation is supplied with a 500W solar simulator that allows the panel to be irradiated and generate power within the laboratory. This allows students to investigate the relative magnitude of incoming solar radiation, relative to power generated.
A small solar panel with nominal 10W output is connected to a battery charge control system. The charge controller can be connected to the supplied 12V deep cycle lead acid battery. The charge controller is also connected to a small wind turbine.
An optional Flat Focusing Solar Collector is available that can be supplied to allow a comparison of performance of the two types of collector.
....
An optional solar array that can be attached to the panel to simulate incident solar radiation.
....
An instrumentation and water circulating console is attached to the panel under test via flexible hoses and this displays all of the relevant measured parameters.
Flat Plate Solar Collector unit is designed for internal or external operation. A Flat Plate Solar Collector similar to those used for heating swimming pools or domestic hot water is mounted on an adjustable frame. For internal operation an artificial solar source is available on application as an optional extra.
Experimental Capabilities:
Measuring the efficiency of a Flat Plate Solar Collector
Study of the variation of incident energy on the collector and collector inclination.
Analysis of the efficiency and heat losses of the collector in use.
With the addition of optional computerised data acquisition the daily variation of incident energy and system performance.
With the optional focussing collector, comparison of the efficiency with a flat plate collector.
Photovoltaic Trainer system may be expanded by the addition of extra optional solar panels and batteries. Instrumentation includes high accuracy solarimeter, panel temperature, electrical charging and load power measurement.
A complete 80W solar panel system with instrumentation panel containing a battery charge controller, panel loading system, all relevant instrumentation and an external deep cycle 110Amp hour battery.
Proton Exchange Membrane Fuel Cell incorporates a unique membrane electrode assembly for the stack cells, each of which is internally reinforced and water cooled. The Proton Exchange Membrane fuel cell is one of the current leading contenders as a power source for use in motor vehicles. The fuel cell generates electrical power directly from hydrogen and air producing only pure water and heat as a by-product.
This gives the cell a high watt density and allows students to investigate a practical fuel cell with a realistic output capable of driving significant electrical loads up to 0.75kW. Unlike other educational units on the market the Proton Exchange Membrane Fuel Cell utilises an award winning module that is identical to those used in an actual vehicle power supply currently in production.
Solar Thermal Energy Trainer
....
