0
INTRODUCTION 
 DEFINITION 
 INITIATOR 
 CONSUMPTION 
 POSITION IN INDIA 
1
BEGINING 
 FARADAY’S CREATION 
 THEORITICAL AND EXPERIMENTAL STUDIES 
2 
Fig 2.1:Experimental Set-up
PRINCIPLE 
3 
 FARADAYS LAWS OF ELECTRO MAGNETIC INDUCTION 
 LORENTZ FORCE 
 Eind =u x B 
 Jind = C x Eind 
 MHD ENERGY CONSERVATION
Fig 4.1: Segmented Faraday Generator 
4
OPEN CYCLE SYSTEM 
5 
 FUEL AND ALKALI METAL USED 
 MECHANISM 
 THE HALL EFFECT 
Fig 5.1: Open Cycle MHD System
CLOSED CYCLE SYSTEM 
6 
 GENERAL TYPES 
 WORKING FLUID 
 MECHANISM 
Fig 6.1: Closed system of MHD cycle using fluid coupled with steam generator
SEEDED INERT GAS SYSTEM 
7 
 A CLOSED GAS SYSTEM 
 FORM OF CYCLE 
 RAW MATERIALS USED 
 MECHANISM 
FIG-7.1: Block diagram of seeded inert gas system
LIQUID METAL SYSTEM 
6 
 CONVENIENT CARRIER 
 MECHANISM 
FIG-8.1: Working Principle of liquid MHD System
ADVANTAGES 
8 
 EFFICIENCY 
 CONTAINS NO MOVING PARTS 
 DIRECT CONVERSION OF HEAT TO ELECTRICITY 
 LOW OPERATIONAL COST
COMPARISION 
9
CURRENT AND FUTURE ASPECTS 
10 
 IN FUSION REACTION 
 AT THERMONUCLEAR REACTOR 
FIG-10.1:International Thermonuclear Experimental Set-Up
11 
 ESTIMATION BY 2020 
 NATIONS INVOLVED 
FIG-10.2:Set-Up for treatment of Cancer
6

mhd generator

  • 1.
  • 2.
    INTRODUCTION  DEFINITION  INITIATOR  CONSUMPTION  POSITION IN INDIA 1
  • 3.
    BEGINING  FARADAY’SCREATION  THEORITICAL AND EXPERIMENTAL STUDIES 2 Fig 2.1:Experimental Set-up
  • 4.
    PRINCIPLE 3 FARADAYS LAWS OF ELECTRO MAGNETIC INDUCTION  LORENTZ FORCE  Eind =u x B  Jind = C x Eind  MHD ENERGY CONSERVATION
  • 5.
    Fig 4.1: SegmentedFaraday Generator 4
  • 6.
    OPEN CYCLE SYSTEM 5  FUEL AND ALKALI METAL USED  MECHANISM  THE HALL EFFECT Fig 5.1: Open Cycle MHD System
  • 7.
    CLOSED CYCLE SYSTEM 6  GENERAL TYPES  WORKING FLUID  MECHANISM Fig 6.1: Closed system of MHD cycle using fluid coupled with steam generator
  • 8.
    SEEDED INERT GASSYSTEM 7  A CLOSED GAS SYSTEM  FORM OF CYCLE  RAW MATERIALS USED  MECHANISM FIG-7.1: Block diagram of seeded inert gas system
  • 9.
    LIQUID METAL SYSTEM 6  CONVENIENT CARRIER  MECHANISM FIG-8.1: Working Principle of liquid MHD System
  • 10.
    ADVANTAGES 8 EFFICIENCY  CONTAINS NO MOVING PARTS  DIRECT CONVERSION OF HEAT TO ELECTRICITY  LOW OPERATIONAL COST
  • 11.
  • 12.
    CURRENT AND FUTUREASPECTS 10  IN FUSION REACTION  AT THERMONUCLEAR REACTOR FIG-10.1:International Thermonuclear Experimental Set-Up
  • 13.
    11  ESTIMATIONBY 2020  NATIONS INVOLVED FIG-10.2:Set-Up for treatment of Cancer
  • 14.