Non-Conventional Power Plants
The non-conventional sources of energy are being continuously produced in nature and are not exhaustible. Examples include wood, geothermal energy, wind energy, tidal energy, nuclear fusion, biomass, solar energy etc.
The following are the power plants from non-conventional sources of energy.
Thermoelectric Generator
Thermionic generator
Fuel-cells Power Plants
Photovoltaic solar cells Power System
MHD Power Plants
Fussion Reactor NPP Power System
Biogas, Biomass Energy Power system
Geothermal Energy
Wind Energy Power System
Ocean Thermal energy conversion (OTEC)
Wave and Tidal Wave
Energy Plantation Scheme
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The non-conventional sources of energy are being continuously produced in nature and are not exhaustible. Examples include wood, geothermal energy, wind energy, tidal energy, nuclear fusion, biomass, solar energy etc.
The following are the power plants from non-conventional sources of energy.
Thermoelectric Generator
Thermionic generator
Fuel-cells Power Plants
Photovoltaic solar cells Power System
MHD Power Plants
Fussion Reactor NPP Power System
Biogas, Biomass Energy Power system
Geothermal Energy
Wind Energy Power System
Ocean Thermal energy conversion (OTEC)
Wave and Tidal Wave
Energy Plantation Scheme
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Blockchain Technology
π Blockchain is a system of recording information in a way that makes it difficult or impossible to change, hack, or cheat the system.
π A blockchain is essentially a digital ledger of transactions that is duplicated and distributed across the entire network of computer systems on the blockchain.
π Each block in the chain contains a number of transactions, and every time a new transaction occurs on the blockchain, a record of that transaction is added to every participantβs ledger.
π The decentralised database managed by multiple participants is known as Distributed Ledger Technology (DLT).
Blockchain Technology
π Blockchain is a system of recording information in a way that makes it difficult or impossible to change, hack, or cheat the system.
π A blockchain is essentially a digital ledger of transactions that is duplicated and distributed across the entire network of computer systems on the blockchain.
π Each block in the chain contains a number of transactions, and every time a new transaction occurs on the blockchain, a record of that transaction is added to every participantβs ledger.
π The decentralised database managed by multiple participants is known as Distributed Ledger Technology (DLT).
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Which of the following circuit elements stores energy in the electromagnetic field?
Anonymous Quiz
10%
Condenser
45%
Inductance
8%
Resistance
37%
Capacitance
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An alternator converts __ energy into ____energy.
Anonymous Quiz
14%
Potential to kinetic
66%
Mechanical to electrical
21%
Electrical to mechanical
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Beginners Guide to Electronics.pdf
1.7 MB
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The ______ allows current to flow one way in the rectifier assembly.
Anonymous Quiz
78%
Diode
6%
Thyroid
13%
Electromotive force (EMF)
3%
Counter-electromotive force (CEMF)
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πVoltage and Current Values in Three-Phase Systems ππ
ππWhen we measure voltage and current in three-phase systems, we need to be specific as to where weβre measuring.
ππLine voltage refers to the amount of voltage measured between any two line conductors in a balanced three-phase system. With the above circuit, the line voltage is roughly 208 volts.
ππPhase voltage refers to the voltage measured across any one component (source winding or load impedance) in a balanced three-phase source or load.
ππ¦πFor the circuit shown above, the phase voltage is 120 volts. The terms line current and phase current follows the same logic: the former referring to the current through any one line conductor, and the latter to the current through any one componentπ₯
πππY-connected sources and loads always have line voltages greater than phase voltages, and line currents equal to phase currents. If the Y-connected source or load is balanced, the line voltage will be equal to the phase voltage times the square root of 3.πππ₯π₯
ππWhen we measure voltage and current in three-phase systems, we need to be specific as to where weβre measuring.
ππLine voltage refers to the amount of voltage measured between any two line conductors in a balanced three-phase system. With the above circuit, the line voltage is roughly 208 volts.
ππPhase voltage refers to the voltage measured across any one component (source winding or load impedance) in a balanced three-phase source or load.
ππ¦πFor the circuit shown above, the phase voltage is 120 volts. The terms line current and phase current follows the same logic: the former referring to the current through any one line conductor, and the latter to the current through any one componentπ₯
πππY-connected sources and loads always have line voltages greater than phase voltages, and line currents equal to phase currents. If the Y-connected source or load is balanced, the line voltage will be equal to the phase voltage times the square root of 3.πππ₯π₯
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Buchholz relay is used in which of the following machines:
Anonymous Quiz
20%
Synchronous Machines
14%
DC Machines
13%
Induction Motors
52%
Transformers
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Which one of the following device is used for improving the power factor of the system:
Anonymous Quiz
47%
Synchronous Phase Modifier
24%
Shunt Reactor
12%
Series Reactor
16%
Asynchronous Generator
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A MOSFET (Metal-Oxide-Semiconductor Field-Effect Transistor) is a type of transistor used for amplifying or switching electronic signals. It is a key component in digital and analog circuits, including microprocessors, power supplies, and motor controllers.
Structure of MOSFET
A MOSFET has three main terminals:
1. Gate (G) β Controls the flow of current.
2. Drain (D) β The output terminal where current exits.
3. Source (S) β The terminal where current enters.
4. (Substrate or Body (B) β Often connected to the source.)
The transistor operates by applying a voltage to the gate, which creates an electric field that controls the current flow between the drain and source.
Types of MOSFETs
1. Enhancement Mode MOSFET: Normally OFF; requires a gate voltage to turn ON.
2. Depletion Mode MOSFET: Normally ON; requires a gate voltage to turn OFF.
Each type can be either N-channel (NMOS) or P-channel (PMOS):
NMOS: Current flows when a positive voltage is applied to the gate.
PMOS: Current flows when a negative voltage is applied to the gate.
Applications of MOSFETs
Used in digital circuits (e.g., microprocessors, memory chips).
Power electronics (e.g., switching regulators, inverters).
RF amplifiers and analog signal processing.
Motor control and switching applications.
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Structure of MOSFET
A MOSFET has three main terminals:
1. Gate (G) β Controls the flow of current.
2. Drain (D) β The output terminal where current exits.
3. Source (S) β The terminal where current enters.
4. (Substrate or Body (B) β Often connected to the source.)
The transistor operates by applying a voltage to the gate, which creates an electric field that controls the current flow between the drain and source.
Types of MOSFETs
1. Enhancement Mode MOSFET: Normally OFF; requires a gate voltage to turn ON.
2. Depletion Mode MOSFET: Normally ON; requires a gate voltage to turn OFF.
Each type can be either N-channel (NMOS) or P-channel (PMOS):
NMOS: Current flows when a positive voltage is applied to the gate.
PMOS: Current flows when a negative voltage is applied to the gate.
Applications of MOSFETs
Used in digital circuits (e.g., microprocessors, memory chips).
Power electronics (e.g., switching regulators, inverters).
RF amplifiers and analog signal processing.
Motor control and switching applications.
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