Канал: Crianza Engineers

Constant Breadth CAM || ANIMATED

Constant Breadth CAM || ANIMATED

TYPES OF FOLLOWER WITH ANIMATION || RADIAL CAMS

TYPES OF FOLLOWER WITH ANIMATION || RADIAL CAMS

WEDGE CAMS || ANIMATED || ROLLER & KNIFE EDGE FOLLOWER

WEDGE CAMS || ANIMATED || ROLLER & KNIFE EDGE FOLLOWER

RADIAL CAM OR DISK CAM || ANIMATION ||CLASSIFICATION ON THE BASIS OF INPUT MOVEMENT

RADIAL CAM OR DISK CAM || ANIMATION ||CLASSIFICATION ON THE BASIS OF INPUT MOVEMENT

WELDING POSITION ANIMATION || FILLET WELD || 1F 2F 3F 4F

WELDING POSITION ANIMATION || FILLET WELD || 1F 2F 3F 4F

FLANGE COUPLING WORKING ANIMATION

FLANGE COUPLING WORKING ANIMATION

EXPLOSION WELDING WORKING ANIMATION

EXPLOSION WELDING WORKING ANIMATION

PURE TRANSLATION, ROLLING AND ROTATION

PURE TRANSLATION, ROLLING AND ROTATION

BEAM ENGINE MECHANISM || THEORY ANIMATION AND APPLICATION

BEAM ENGINE MECHANISM || THEORY ANIMATION AND APPLICATION

TYPES OF CONSTRAINED MOTION

TYPES OF CONSTRAINED MOTION

KNUCLE JOINT || CE

KNUCLE JOINT || CE

NUMERICAL ON SPUR GEAR 1

NUMERICAL ON SPUR GEAR 1

NUMERICAL ON HELICAL SPRING || MACHINE DESIGN

NUMERICAL ON HELICAL SPRING || MACHINE DESIGN

Procedure of machine design

Procedure of machine design

Universal Joint working animation

Universal Joint working animation

S1E1- What is Machine Design (V.B Bhandari)

S1E1- What is Machine Design (V.B Bhandari)

Machine Design (V.B Bhandari) with CAD Software - S1L0

Machine Design (V.B Bhandari) with CAD Software - S1L0

Scotch yoke mechanism working animation

Scotch yoke mechanism working animation

Working animation Oldhams Coupling

Working animation Oldhams Coupling

Radiation heat transfer and Quanta of energy

Radiation heat transfer and Quanta of energy

CRITICAL RADIUS OF INSULATION || THEORY AND DERIVATION

CRITICAL RADIUS OF INSULATION || THEORY AND DERIVATION

Numerical on heat transfer through cylinder and Sphere

Numerical on heat transfer through cylinder and Sphere

Numerical on heat transfer due to cyclinder | GATE 2004

Numerical on heat transfer due to cyclinder | GATE 2004

SINGLE SHOE BRAKE | SELF ENERGIZING AND SELF LOCKING | MECHANICAL BRAKE

SINGLE SHOE BRAKE | SELF ENERGIZING AND SELF LOCKING | MECHANICAL BRAKE

NUMERICAL ON VCRS ( INCLUDING ALMOST EVERYTHING)

NUMERICAL ON VCRS ( INCLUDING ALMOST EVERYTHING)

DIFFERENT TYPES OF VCRS WITH T-S AND P-H CURVES (VAPOUR COMP REFRIGERATION SYSTEM)

DIFFERENT TYPES OF VCRS WITH T-S AND P-H CURVES (VAPOUR COMP REFRIGERATION SYSTEM)

HAPPY DIWALI TO ALL OF YOU

HAPPY DIWALI TO ALL OF YOU

GATE NUMERICALS ON CONDUCTION

GATE NUMERICALS ON CONDUCTION

GATE NUMERICALS ON BRAYTON CYCLE

GATE NUMERICALS ON BRAYTON CYCLE

ENERGY EQUATION of BRAYTON CYCLE AND EFFICIENCY

ENERGY EQUATION of BRAYTON CYCLE AND EFFICIENCY

BRAYTON CYCLE THEORY

BRAYTON CYCLE THEORY

GATE NUMERICALS BASED ON HEAT EXCHANGER

GATE NUMERICALS BASED ON HEAT EXCHANGER

GATE NUMERICALS ON CARNOT CYCLE

GATE NUMERICALS ON CARNOT CYCLE

CARNOT CYCLE

CARNOT CYCLE

BASIC THERMODYNAMICS || WORK, HEAT AND ENERGY

BASIC THERMODYNAMICS || WORK, HEAT AND ENERGY

PROJECTILE MOTION || MECHANICS LEC 01

PROJECTILE MOTION || MECHANICS LEC 01

LMTD Equation for counter flow heat exchanger || assumptions for heat exchanger

LMTD Equation for counter flow heat exchanger || assumptions for heat exchanger

HEAT EXCHANGER || TYPES OF HX | PARALLEL AND COUNTERFLOW HX

HEAT EXCHANGER || TYPES OF HX | PARALLEL AND COUNTERFLOW HX

EFFECT OF GYROSCOPIC COUPLE ON A NAVAL SHIP || LEC 02

EFFECT OF GYROSCOPIC COUPLE ON A NAVAL SHIP || LEC 02

EFFECT OF GYROSCOPIC COUPLE ON AN AEROPLANE || LEC 01

EFFECT OF GYROSCOPIC COUPLE ON AN AEROPLANE || LEC 01

EFFECTIVENESS AND EFFICIENCY OF FIN || RELATION IN BETWEEN BOTH |LEC 4

EFFECTIVENESS AND EFFICIENCY OF FIN || RELATION IN BETWEEN BOTH |LEC 4

HEAT TRANSFER THROUGH THE INFINITELY LONG FIN || LEC 3

HEAT TRANSFER THROUGH THE INFINITELY LONG FIN || LEC 3

HEAT TRANSFER THROUGH THE RECTANGULAR FIN || LEC 2

HEAT TRANSFER THROUGH THE RECTANGULAR FIN || LEC 2

FINS theory || LEC 1

FINS theory || LEC 1

LAW OF GEARING || THEORY AND DERIVATION WITH DIAGRAM

LAW OF GEARING || THEORY AND DERIVATION WITH DIAGRAM

GATE NUMERICAL ON TURNING MOMENT DIAGRAM AND FLYWHEEL

GATE NUMERICAL ON TURNING MOMENT DIAGRAM AND FLYWHEEL

FLYWHEEL | COEFFICIENT OF FLUCTUATION OF SPEED, ENERGY STORED IN FLYWHEEL | LEC 3

FLYWHEEL | COEFFICIENT OF FLUCTUATION OF SPEED, ENERGY STORED IN FLYWHEEL | LEC 3

FLUCTUATION OF ENERGY || COEFF. AND DETERMINATION OF FLUCTUATION OF ENERGY

FLUCTUATION OF ENERGY || COEFF. AND DETERMINATION OF FLUCTUATION OF ENERGY

TURNING MOMENT DIAGRAM for single cylinder double acting steam engine || lec 1

TURNING MOMENT DIAGRAM for single cylinder double acting steam engine || lec 1

HEAT TRANSFER DUE TO CYLINDRICAL WALL AND SPHERE || THEORY | DERIVATION

HEAT TRANSFER DUE TO CYLINDRICAL WALL AND SPHERE || THEORY | DERIVATION

GENERAL HEAT CONDUTION EQUATION IN CARTISEAN/RECTANGULAR COORDINATES

GENERAL HEAT CONDUTION EQUATION IN CARTISEAN/RECTANGULAR COORDINATES

HEAT TRANSFER THROUGH THE PLANE WALL || THEORY || HMT

HEAT TRANSFER THROUGH THE PLANE WALL || THEORY || HMT

Internal energy || Energy is a point function | Energy - as A property of system

Internal energy || Energy is a point function | Energy - as A property of system

NUMERICAL ON HEAT TRANSFER BY CONDUCTION, CONVECTION AND RADIATION

NUMERICAL ON HEAT TRANSFER BY CONDUCTION, CONVECTION AND RADIATION

HEAT TRANSFER BY CONVECTION AND RADIATION | THEORY ONLY

HEAT TRANSFER BY CONVECTION AND RADIATION | THEORY ONLY

NUMERICAL ON FOURIER'S LAW OF HEAT CONDUTION

NUMERICAL ON FOURIER'S LAW OF HEAT CONDUTION

FOURIER'S LAW OF HEAT CONDUCTION,THERMAL CONDUCTIVITY,ANALOGY IN BETWEEN HEAT TRANSFER AND CURRENT

FOURIER'S LAW OF HEAT CONDUCTION,THERMAL CONDUCTIVITY,ANALOGY IN BETWEEN HEAT TRANSFER AND CURRENT

NUMERICAL ON VELOCITY ANALYSIS USING INSTANTANEOUS CENTRE METHOD

NUMERICAL ON VELOCITY ANALYSIS USING INSTANTANEOUS CENTRE METHOD

NUMERICAL BASED ON INSTANTANEOUS CENTRE METHOD

NUMERICAL BASED ON INSTANTANEOUS CENTRE METHOD

METHOD TO DETERMINE INSTANTANEOUS CENTRE IN A MECHANISM | KOM

METHOD TO DETERMINE INSTANTANEOUS CENTRE IN A MECHANISM | KOM

LOCATION OF INSTANTANEOUS CENTRE IN A MECHANISM || KOM

LOCATION OF INSTANTANEOUS CENTRE IN A MECHANISM || KOM

THANKS FOR YOUR SUPPORT

THANKS FOR YOUR SUPPORT

TYPES OF INSTANTANEOUS CENTRES AND HOW TO FIND OUT THE NO. OF I-CENTRES

TYPES OF INSTANTANEOUS CENTRES AND HOW TO FIND OUT THE NO. OF I-CENTRES

INSTANTANEOUS CENTRE METHOD or I-CENTRE METHOD |THEORY ONLY| KOM

INSTANTANEOUS CENTRE METHOD or I-CENTRE METHOD |THEORY ONLY| KOM

ELLIPTICAL TRAMMEL (THEORY + ANIMATION) | DOUBLE SLIDER CRANK CHAIN MECHANISM

ELLIPTICAL TRAMMEL (THEORY + ANIMATION) | DOUBLE SLIDER CRANK CHAIN MECHANISM

QUICK RETURN MECHANISM (CRANK AND SLOTTED LEVER TYPE) COMPLETE EXPLANATION

QUICK RETURN MECHANISM (CRANK AND SLOTTED LEVER TYPE) COMPLETE EXPLANATION

CRACK GATE WITH SELF STUDY

CRACK GATE WITH SELF STUDY

How to draw a cam profile for simple harmonic motion || cam profile

CAM PROFILE THEORY || Displacement, velocity and acceleration diagram for SHM

Four bar chain mechanism | KOM 2| Beam engine, Watt indicator mechanism

Four bar chain mechanism | KOM 2| Beam engine, Watt indicator mechanism

Inversion of mechanism | Introduction| KOM 1

Inversion of mechanism | Introduction| KOM 1

Quasistatic process | TD 5

Quasistatic process | TD 5

Centrifugal governor working | theory || DOM 2

Centrifugal governor working | theory || DOM 2

Why Governors are used and what are these || DOM 1

Why Governors are used and what are these || DOM 1

Microscopic and Macroscopic approach || TD 4

Microscopic and Macroscopic approach || TD 4

Thermodynamic equillibrium || TD 3

Thermodynamic equillibrium || TD 3

Intensive and Extensive properties

Intensive and Extensive properties

Thermodynamic properties part 1 | path, process ,cycle || TD 1

Thermodynamic properties part 1 | path, process ,cycle || TD 1

Crianza Engineers Live Stream

Crianza Engineers Live Stream

NUMERICAL ON BALANCING OF MASSES PART II : FORCE POLYGON

NUMERICAL ON BALANCING OF MASSES PART II : FORCE POLYGON

FORCE EXERTED BY A JET OF WATER : ON AN UNSYMMETRICAL MOVING CURVED PLATE

FORCE EXERTED BY A JET OF WATER : ON AN UNSYMMETRICAL MOVING CURVED PLATE

Force exerted by jet of water on a plate or curved vane

Force exerted by jet of water on a plate or curved vane

PSYCHROMETRIC RELATIONS

PSYCHROMETRIC RELATIONS

Numerical on balancing of rotating masses

Numerical on balancing of rotating masses

Balancing of several rotating masses in different planes

Balancing of several rotating masses in different planes

nth order derivative

nth order derivative

Numerical on Bell coleman cycle or reverse joule cycle

Numerical on Bell coleman cycle or reverse joule cycle

Bell coleman cycle or reverse joule cycle ( part II )

Bell coleman cycle or reverse joule cycle ( part II )

COP of bell coleman cycle

COP of bell coleman cycle

Bell coleman cycle or reverse joule cycle ( part I )

Bell coleman cycle or reverse joule cycle ( part I )

What is the meaning of 1TR (tonne of refrigeration)

What is the meaning of 1TR (tonne of refrigeration)

Working of a Watt Governor || Explained

Working of a Watt Governor || Explained

UNIVERSAL GAS CONSTANT VS GAS CONSTANT

UNIVERSAL GAS CONSTANT VS GAS CONSTANT