Calculators Created by Sagar S Kulkarni

Dayananda Sagar College of Engineering (DSCE), Bengaluru
219
Formulas Created
220
Formulas Verified
75
Across Categories

List of Calculators by Sagar S Kulkarni

Following is a combined list of all the calculators that have been created and verified by Sagar S Kulkarni. Sagar S Kulkarni has created 219 and verified 220 calculators across 75 different categories till date.
Verified Limiting Value of Mean Stress
Go
Verified Limiting Value of Stress Amplitude
Go
Verified Permissible Mean Stress for Fluctuating Load
Go
Verified Permissible Stress Amplitude for Fluctuating Load
Go
11 More Soderberg and Goodman Lines Calculators
Go
Verified Area Moment of Inertia of Circular Cross-Section about Diameter
Go
Verified Area Moment of Inertia of specimen given bending moment and bending stress
Go
Verified Bending moment in specimen given bending stress
Go
Verified Bending stress in specimen due to bending moment
Go
2 More Stresses due to Bending Moment Calculators
Go
Verified Axial Length of Sleeve of Muff Coupling
Go
Verified Diameter of Driving Shaft of Clamp Coupling given Length of Sleeve
Go
Verified Diameter of Driving Shaft of Clamp Coupling given Outer diameter of Sleeve Halves
Go
Verified Diameter of Driving Shaft of Muff Coupling given Axial Length of Sleeve
Go
Verified Length of Sleeve Halves of Clamp Coupling
Go
Verified Outer Diameter of Sleeve Halves of Clamp Coupling
Go
4 More Bolted Joints Calculators
Go
Verified Heat Added in Gas Turbine Combustion
Go
1 More Combustion Chamber Calculators
Go
Verified Effort using Length and Load
Go
Verified Effort using Leverage
Go
Verified Leverage
Go
Verified Load using Lengths and Effort
Go
Verified Load using Leverage
Go
Verified Mechanical Advantage
Go
9 More Components of Lever Calculators
Go
Verified Compressor work
Go
Verified Efficiency of Compressor given Enthalpy
Go
Verified Efficiency of compressor in actual gas turbine cycle
Go
11 More Compressor Calculators
Go
Verified Axial Force on Clutch from Constant Pressure Theory given Fiction Torque and Diameter
Go
Verified Axial Force on Clutch from Constant Pressure Theory given Pressure Intensity and Diameter
Go
Verified Coefficient of Friction for Clutch from Constant Pressure Theory given Diameters
Go
Verified Coefficient of Friction of Clutch from Constant Pressure Theory given Friction Torque
Go
Verified Friction Torque on Clutch from Constant Pressure Theory given Axial Force
Go
Verified Friction Torque on Clutch from Constant Pressure Theory given Pressure
Go
Verified Pressure on Clutch Plate from Constant Pressure Theory given Axial Force
Go
Verified Pressure on Clutch Plate from Constant Pressure Theory given Friction Torque
Go
4 More Constant Pressure Theory Calculators
Go
Verified Axial Force on Clutch from Constant Wear Theory given Permissible Intensity of Pressure
Go
Verified Coefficient of Friction of Clutch from Constant Wear Theory
Go
Verified Friction Torque on Cone Clutch from Constant Wear Theory given Semi-Cone Angle
Go
Verified Frictional Torque on Clutch from Constant Wear Theory given Diameters
Go
Verified Permissible Pressure Intensity on Clutch from Constant Wear Theory given Axial Force
Go
Verified Permissible Pressure Intensity on Clutch from Constant Wear Theory given Friction Torque
Go
7 More Constant Wear Theory Calculators
Go
Verified Effective convection coefficient on inside
Go
Verified Effective convection coefficient on outside
Go
Verified Overall heat transfer coefficient given convection coefficient
Go
7 More Convection Coefficient Calculators
Go
Verified Drag coefficient of flat plate laminar flow
Go
Verified Drag coefficient of flat plate laminar flow given friction factor
Go
Verified Drag Coefficient of Flat Plate Laminar Flow using Schmidt Number
Go
Verified Friction factor of flat plate laminar flow
Go
Verified Friction factor of flat plate laminar flow given Reynolds number
Go
Verified Local Sherwood Number for Flat Plate in Laminar Flow
Go
Verified Local Sherwood Number for Flat Plate in Turbulent Flow
Go
Verified Sherwood Number for Flat Plate in Laminar Flow
Go
11 More Convective Mass Transfer Calculators
Go
Verified Angular Acceleration given Linear Acceleration
Go
Verified Angular Displacement given Angular Acceleration
Go
Verified Angular Velocity given Linear Velocity
Go
Verified Angular Velocity of Body Moving in Circle
Go
Verified Final Angular Velocity
Go
Verified Initial Angular Velocity
Go
5 More Curvilinear Motion Calculators
Go
Verified Allowable stress for brittle material
Go
Verified Allowable stress for ductile material
Go
Verified Factor of safety for brittle materials
Go
Verified Factor of safety for ductile materials
Go
Verified Ultimate tensile strength for brittle materials
Go
Verified Yield strength for ductile materials
Go
Verified Centrifugal Force on Clutch
Go
Verified Friction Force on Centrifugal Clutch
Go
Verified Friction Torque on Centrifugal Clutch
Go
Verified Spring Force in Centrifugal Clutch
Go
Verified Addendum Circle Diameter of Medium Size Gear Diameter given Addendum
Go
Verified Addendum Circle Diameter of Medium Size Gear given Module and Number of Teeth
Go
Verified Center to Center Distance between Spur Gears
Go
Verified Circular Pitch of Gear given Diameter and Number of Teeth
Go
Verified Dedendum Circle Diameter of Medium Size Gear given Dedundum
Go
Verified Dedendum Circle Diameter of Medium Size Gear given Module and Number of Teeth
Go
Verified Diametral Pitch of Gear given Circular Pitch
Go
Verified Diametral Pitch of Gear given Number of teeth and Pitch Circle Diameter
Go
Verified Inner Diameter of Rim of Medium Size Diameter
Go
Verified Maximum Tangential Force on Gear given Service factor
Go
Verified Maximum Torque of Gear given Service Factor
Go
Verified Module of Gear given Diametral Pitch
Go
Verified Module of Gear given Pitch Circle Diameter
Go
Verified Pitch Circle Diameter of Gear given Module and Number of Teeth
Go
Verified Pitch Circle Diameter of Medium Size Gear
Go
Verified Rated Torque of Gear given Service Factor
Go
Verified Rated Torque of Spur Gear Motor given Service Factor
Go
Verified Service Factor for Gear given Torque
Go
Verified Service factor for motor
Go
Verified Service Factor using Tangential Force
Go
Verified Starting Torque of Spur Gear Motor given Service Factor
Go
Verified Tangential Force on Gear due to Rated Torque
Go
Verified Velocity factor for accurately hobbed and generated gears when v less than 20
Go
Verified Velocity factor for commercially cut gears made with form cutters when v less than 10
Go
Verified Velocity factor for precision gears with shaving and grinding operations when v greater than 20
Go
43 More Design of Spur Gears Calculators
Go
Verified Effective Length of Bush in Contact with Input Flange of Bushed Pin Coupling
Go
Verified Effective Length of Bush of Bushed Pin Coupling given Torque
Go
Verified Torque Transmitted by Bushed Pin Coupling
Go
5 More Design Parameters Calculators
Go
Verified Outer Diameter of Bush in Bushed Pin Coupling given Force
Go
Verified Outer Diameter of Bush in Bushed Pin Coupling given Torque and Effective Length
Go
10 More Diameter of Bushed Pin Flexible Coupling Components Calculators
Go
Created Poisson's ratio given tensile strain due to compressive stress in diagonal BD
Go
Created Shear Strain in Diagonal given Tensile Strain for Square Block
Go
Created Tensile strain in diagonal BD of square block ABCD due to compressive stress
Go
Created Tensile Strain in Diagonal given Shear Strain for Square Block
Go
Created Tensile Strain in Diagonal of Square Block due to Tensile Stress
Go
Created Total Compressive Strain in Diagonal AC of Square Block ABCD
Go
Created Total Tensile Strain in Diagonal of Square Block
Go
4 More Direct Strains of Diagonal Calculators
Go
Verified Strain Energy due to Change in Volume given Principal Stresses
Go
Verified Strain Energy due to Change in Volume given Volumetric Stress
Go
Verified Strain Energy due to Change in Volume with No Distortion
Go
Verified Stress due to Change in Volume with No Distortion
Go
Verified Total Strain Energy per Unit Volume
Go
Verified Volumetric Strain with No Distortion
Go
7 More Distortion Energy Theory Calculators
Go
Created Discharge of Double Acting Reciprocating Pump
Go
Created Discharge of Double Acting Reciprocating Pump neglecting Diameter of Piston Rod
Go
Created Discharge of Reciprocating Pump
Go
Created Power Required to Drive Double acting Reciprocating Pump
Go
Created Pressure Head when Connecting Rod is not very long as compared to Crank Length
Go
Created Volume of liquid delivered in one revolution of crank- double acting reciprocating pump
Go
Created Volume of liquid sucked in during suction stroke
Go
Created Weight of Water Delivered by Reciprocating Pump given Speed
Go
Created Work Done by Double Acting Reciprocating Pump
Go
Created Work Done by Double-acting Pump considering all Head Losses
Go
Created Work Done by Reciprocating Pumps
Go
4 More Double Acting Pumps Calculators
Go
Verified Effectiveness in double pipe parallel flow heat exchanger
Go
Verified Effectiveness NTU method
Go
10 More Effectiveness Calculators
Go
Verified Overall Efficiency of Propulsive System
Go
Verified Propulsive power
Go
Verified Thermal Efficiency of Jet Engines given Effective Speed Ratio
Go
Verified Transmission Efficiency given Output and Input of Transmission
Go
8 More Efficiency Metrics Calculators
Go
Verified Coefficient of restitution of two colliding bodies
Go
Verified Velocity of approach in indirect impact of body with fixed plane
Go
Verified Velocity of separation in indirect impact of body with fixed plane
Go
6 More Elastic Bodies Calculators
Go
Verified Angular Frequency
Go
Verified Damping Force
Go
Verified Displacement of Body in Simple Harmonic Motion
Go
Verified Frequency given Spring Constant and Mass
Go
Verified Inertia Force
Go
Verified Magnitude of Acceleration of Body in Simple Harmonic Motion
Go
Verified Magnitude of Acceleration of Body in Simple Harmonic Motion given Displacement
Go
Verified Spring Force
Go
Verified Velocity of Body in Simple Harmonic Motion
Go
5 More Elements of Vibration Calculators
Go
Created Bar's total elongation if weight given per unit volume of bar
Go
Created Length of Bar given Total Elongation of Bar
Go
Created Length of Bar using Total Elongation and Weight per unit volume of bar
Go
Created Modulus of Elasticity given Total Elongation of Bar
Go
Created Total elongation of bar
Go
Created Weight of Bar given Total Elongation of Bar
Go
4 More Elongation of Bar due its Own Weight Calculators
Go
Created Acceleration of liquid in pipe
Go
Created Coefficient of discharge of pump
Go
Created Loss of head due to friction given area of Pipe
Go
Created Mass of water in pipe
Go
Created Pressure head due to acceleration
Go
Created Velocity of Liquid in Pipe
Go
Created Volume of liquid delivered given weight of liquid
Go
Created Weight of water delivered per second
Go
4 More Flow Parameters Calculators
Go
Created Acceleration of Piston
Go
Created Angle Turned by Crank in Time t
Go
Created Corresponding distance x travelled by Piston
Go
Created Cross sectional area of piston given volume of liquid
Go
Created Darcy-Weisbach equation
Go
Created Intensity of pressure due to acceleration
Go
Created Length of Stroke given Volume of Liquid
Go
Created Power Required to Drive Pump
Go
Created Slip of Pump
Go
Created Slip percentage
Go
Created Slip Percentage given Coefficient of Discharge
Go
Created Velocity of Piston
Go
1 More Fluid Parameters Calculators
Go
Created Actual Discharge given Pump Slippage
Go
Created Actual Discharge given Volumetric Efficiency and Theoretical Discharge
Go
Created Angular Speed given Theoretical Discharge and Volumetric Displacement
Go
Created Pump Slippage
Go
Created Pump Slippage Percentage
Go
Created Theoretical Discharge given Outer and Inner Gear Diameter
Go
Created Theoretical Discharge given Pump Slippage
Go
Created Theoretical Discharge given Volumetric Efficiency and Actual Discharge
Go
Created Theoretical Discharge of External Gear Pump
Go
Created Theoretical Volumetric Displacement of External Gear Pump
Go
Created Volumetric Efficiency of Gear Pumps
Go
Created Width of Rotor given Volumetric Displacement
Go
Created Diameter of delivery pipe
Go
Created Diameter of suction pipe
Go
Created Flow ratio
Go
Created Flow velocity at inlet given volume of liquid
Go
Created Flow velocity at outlet given volume of liquid
Go
Created Flow velocity given flow ratio
Go
Created Leakage of Liquid given Volumetric Efficiency and Discharge
Go
Created Mechanical efficiency given Specific Weight of Liquid
Go
Created Net positive suction head
Go
Created Overall efficiency
Go
Created Speed ratio
Go
Created Static head
Go
Created Thoma's cavitation factor
Go
Created Thoma's Cavitation factor given Net Positive Suction Head
Go
Created Torque at outlet
Go
Created Vane efficiency
Go
Created Volume of liquid at inlet
Go
Created Volume of liquid at outlet
Go
Created Weight of liquid
Go
Verified Convective heat transfer coefficient of storage type heat exchanger
Go
Verified Entry temperature of cold fluid
Go
Verified Entry temperature of hot fluid
Go
Verified Heat exchanged NTU method
Go
Verified Heat transfer surface area for unit length of matrix in storage type heat exchanger
Go
Verified Location factor at distance X of heat exchanger
Go
Verified Logarithmic mean temperature difference
Go
Verified Mass flow rate of cold fluid
Go
Verified Mass Flowrate of Fluid in Storage type Heat Exchanger
Go
Verified Specific heat of cold fluid
Go
Verified Specific heat of fluid in storage type heat exchanger
Go
14 More Heat exchanger Calculators
Go
Created Annular Area of Differential Hydraulic Accumulator
Go
Created Capacity of Hydraulic Accumulator
Go
Created Total Weight of Ram of Hydraulic Accumulator
Go
Created Work Done in Lifting Ram of Hydraulic Accumulator
Go
9 More Hydraulic Accumulator Calculators
Go
Created Efficiency of Hydraulic Coupling
Go
Created Power input of hydraulic coupling
Go
Created Power output of hydraulic coupling
Go
Created Slip of hydraulic or fluid coupling
Go
Created Speed ratio of hydraulic coupling
Go
1 More Hydraulic Coupling Calculators
Go
Created Area of Piston given Force and Pressure
Go
Created Discharge during Extension
Go
Created Discharge during Retraction
Go
Created Force during Retraction
Go
Created Force Exerted onto Piston or by Piston
Go
Created Power Developed during Extension
Go
Created Pressure during Retraction
Go
Created Pressure Exerted by Piston
Go
Created Velocity of Piston during Extension
Go
Created Velocity of Piston during Retraction
Go
Created Actual Discharge given Volumetric Efficiency
Go
Created Actual Torque Delivered
Go
Created Mechanical Efficiency
Go
Created Overall Efficiency Percentage
Go
Created Pressure of Liquid Entering Motor
Go
Created Theoretical Discharge for Hydraulic Motors
Go
Created Theoretical Discharge given Volumetric Efficiency
Go
Created Theoretical Power
Go
Created Theoretical Power given Volumetric Displacement
Go
Created Theoretical Torque Developed
Go
Created Theoretical Volumetric Displacement given Torque and Pressure
Go
Created Volumetric Efficiency of Motor given Theoretical and Actual Discharge
Go
Created Mechanical Advantage of Hydraulic Press
Go
10 More Hydraulic Press Calculators
Go
Created Aubuisson's Efficiency of Hydraulic Ram
Go
Created Rankine's Efficiency of Hydraulic Ram
Go
Created Rate of Discharge of Water Actually Lifted by Ram
Go
Created Rate of Discharge of Water Flowing Past Waste Valve
Go
Created Time during which Velocity in Supply Pipe Builds up from Zero to Vmax-Hydraulic Ram
Go
Created Time during which Waste Valve Remains Closed-Hydraulic Ram
Go
Created Total Time for One Cycle of Hydraulic Ram
Go
6 More Hydraulic Ram Calculators
Go
Created Efficiency of torque convertor
Go
Created Hydraulic Torque Convertor - Power Input
Go
Created Hydraulic Torque Convertor - Power Output
Go
Created Torque transmitted to turbine shaft of torque converter
Go
Created Angular Speed of Turbine given Specific Speed
Go
Created Head of turbine given specific speed
Go
Created Power of Turbine given Specific Speed
Go
Created Specific Speed of Turbine
Go
Created Unit flow per discharge
Go
Created Unit power
Go
Created Unit speed of turbomachine
Go
Created Impeller power
Go
Created Impeller radius at inlet given inlet tangential velocity
Go
Created Impeller radius at outlet given outlet tangential velocity
Go
Created Least diameter of impeller when outlet diameter is twice of inlet diameter
Go
Created Outlet Diameter of Impeller using Speed Ratio, Manometric Head and Impeller Speed
Go
Created Tangential velocity given speed ratio
Go
Created Tangential Velocity of Impeller at Inlet
Go
Created Tangential Velocity of Impeller at Inlet using Angular Velocity
Go
Created Tangential velocity of impeller at outlet
Go
Created Tangential Velocity of Impeller at Outlet using Angular Velocity
Go
Inlets (1)
Verified Kinetic Energy of Air at Inlet
Go
3 More Inlets Calculators
Go
Verified Force Exerted by Mass Carried by Lift on its Floor, when Lift is Moving Upwards
Go
Verified Net Downward Force, when Lift is Moving Downwards
Go
Verified Normal Reaction on Inclined Plane due to Mass of Body
Go
Verified Reaction of Lift when it is Moving Downwards
Go
Verified Reaction of Lift when it is Moving Upwards
Go
Verified Tension in Cable when Lift is Moving Upwards with Mass
Go
8 More Laws of Motion Calculators
Go
Verified Length of Effort Arm given Leverage
Go
Verified Length of Effort Arm given Load and Effort
Go
Verified Length of Load Arm given Leverage
Go
Verified Length of Load Arm given Load and Effort
Go
7 More Lever Arm Calculators
Go
Verified Frictional Effort Lost
Go
9 More Machine Design Characteristics Calculators
Go
Created Manometric efficiency
Go
Created Manometric Efficiency using Velocities
Go
Created Manometric head given head imparted by impeller and loss of head in pump
Go
Created Manometric head given head imparted by impeller if loss of head in pump is zero
Go
Created Manometric head given outlet impeller diameter, impeller speed and speed ratio
Go
Created Manometric head given static head, friction losses in suction and delivery pipes
Go
Created Manometric Head using Static Head and Losses in Pipes
Go
Created Manometric Head using Total Head at Outlet and Inlet of Pump
Go
Created Overall Efficiency using Manometric, Volumetric and Mechanical Efficiencies
Go
Verified Mass Moment of Inertia of Circular Plate about x-axis Passing through Centroid
Go
Verified Mass Moment of Inertia of Circular Plate about y-axis Passing through Centroid
Go
Verified Mass Moment of Inertia of Circular Plate about z-axis through Centroid, Perpendicular to Plate
Go
Verified Mass Moment of Inertia of Cone about y-axis Perpendicular to Height, Passing through Apex Point
Go
Verified Mass Moment of Inertia of Rectangular Plate about x-axis through Centroid, Parallel to Length
Go
Verified Mass Moment of Inertia of Rectangular Plate about y-axis through Centroid, Parallel to Breadth
Go
Verified Mass Moment of Inertia of Rectangular Plate about z-axis through Centroid, Perpendicular to Plate
Go
Verified Mass Moment of Inertia of Triangular Plate about x-axis Passing through Centroid, Parallel to Base
Go
Verified Mass Moment of Inertia of Triangular Plate about y-axis Passing through Centroid, Parallel to Height
Go
13 More Mass Moment of Inertia Calculators
Go
Verified Convective Mass Transfer Coefficient of Flat Plate in Combined Laminar Turbulent Flow
Go
16 More Mass Transfer Coefficient Calculators
Go
Verified Inclination of Resultant of Two Forces Acting on Particle
Go
Verified Moment of Couple
Go
Verified Radius of gyration given moment of inertia and area
Go
Verified Resolution of Force with Angle along Horizontal Direction
Go
Verified Resolution of Force with Angle along Vertical Direction
Go
Verified Resultant of Two Forces Acting on Particle at 0 Degrees
Go
Verified Resultant of Two Forces Acting on Particle at 180 Degrees
Go
Verified Resultant of Two Forces Acting on Particle at 90 Degrees
Go
Verified Resultant of Two Forces acting on Particle with Angle
Go
Verified Resultant of Two like Parallel Forces
Go
Verified Resultant of Two Unlike Parallel Forces Unequal in Magnitude
Go
3 More Mechanics and Statistics of Materials Calculators
Go
Verified Logarithmic Mean of Concentration Difference
Go
Verified Logarithmic Mean Partial Pressure Difference
Go
Verified Mass Diffusing Rate through Hollow Cylinder with Solid Boundary
Go
Verified Mass Diffusing Rate through Solid Boundary Plate
Go
Verified Mass Diffusing Rate through Solid Boundary Sphere
Go
Verified Molar Flux of Diffusing Component A through Non-Diffusing B based on Concentration of A
Go
Verified Molar Flux of Diffusing Component A through Non-Diffusing B based on Log Mean Partial Pressure
Go
Verified Molar Flux of Diffusing Component A through Non-Diffusing B based on Mole Fractions of A and LMMF
Go
Verified Molar Flux of Diffusing Component A through Non-Diffusing B based on Mole Fractions of B
Go
Verified Molar Flux of Diffusing Component A through Non-Diffusing B based on Partial Pressure of B
Go
Verified Total Concentration
Go
6 More Molar Diffusion Calculators
Go
Verified Moment of Inertia of Hollow Rectangle about Centroidal Axis x-x Parallel to Breadth
Go
Verified Moment of inertia of rectangle about centroidal axis along x-x parallel to breadth
Go
Verified Moment of inertia of rectangle about centroidal axis along y-y parallel to length
Go
Verified Moment of inertia of semicircular section about its base
Go
Verified Moment of inertia of semicircular section through center of gravity, parallel to base
Go
2 More Moment of Inertia in Solids Calculators
Go
Verified Velocity of Particle after Certain Time
Go
10 More Motion under Acceleration Calculators
Go
Nozzle (3)
Verified Ideal Exhaust Velocity given Enthalpy Drop
Go
Verified Jet velocity given temperature drop
Go
Verified Kinetic Energy of Exhaust Gases
Go
5 More Nozzle Calculators
Go
Verified NTU relation of double pipe parallel flow heat exchanger
Go
Verified Number of transfer units
Go
6 More NTU Relations Calculators
Go
Verified Number of Bushes or Pins in Terms of Effective Length of Bush and Torque in Bush Pin Coupling
Go
1 More Number of Elements Calculators
Go
Created Actual Torque Developed in Piston Pumps
Go
Created Angle of Swash Plate Inclination given Volumetric Displacement
Go
Created Area of Piston Pump given Volumetric Displacement
Go
Created Efficiency of Jet Pump
Go
Created Mechanical Efficiency given Theoretical and Actual Power Delivered
Go
Created Mechanical Efficiency given Theoretical and Actual Torque
Go
Created Overall Efficiency given Actual and Theoretical Discharge
Go
Created Overall Efficiency of Piston Pump
Go
Created Piston Pump Constant K
Go
Created Stroke Length of Axial Piston Pump
Go
Created Stroke Length of Piston Pump given Volumetric Displacement
Go
Created Swash Plate Inclination with Axis of Cylinder
Go
Created Tan of Angle of Inclination of Swash Plate
Go
Created Tan of Angle of Swash Plate Inclination given Volumetric Displacement
Go
Created Theoretical Discharge given Angular Speed of Driving Member of Hydraulic Pump
Go
Created Theoretical Power of Piston Pump
Go
Created Theoretical Volumetric Displacement given Area of Piston and Stroke Length
Go
Created Theoretical Volumetric Displacement given Bore Diameter and Swash Plate Inclination
Go
Created Volumetric Efficiency of Pump given Actual and Theoretical Discharge of Pump
Go
Verified Horizontal Component of Velocity of Particle Projected Upwards from Point at Angle
Go
13 More Projectile Motion Calculators
Go
Verified Velocity Ratio in Weston's Differential Pulley given Number of Teeth
Go
Verified Velocity Ratio in Weston's Differential Pulley given Radius of Pulleys
Go
7 More Pulley Block Calculators
Go
Created Angular Speed given Specific Speed of Pump
Go
Created Angular Velocity of Centrifugal Pump
Go
Created Discharge of pump given specific speed
Go
Created Head of Pump given Specific Speed
Go
Created Minimum speed for starting centrifugal pump
Go
Created Output power
Go
Created Specific Speed of Pump
Go
Created Static power
Go
Created Suction specific speed
Go
Created Volumetric Efficiency of Pump given Discharge and Leakage of Liquid
Go
Created Work done per second for Centrifugal pumps
Go
Created Work done per second given Torque
Go
Created Work done per second per unit weight of liquid
Go
Created Work done per second per unit weight of liquid if flow at inlet is not radial
Go
Created Work done per second when Flow at Inlet is not Radial
Go
Created Modulus of Elasticity given Compressive Stress
Go
Created Modulus of Elasticity given Tensile Stress
Go
Created Modulus of Rigidity given Shear Stress
Go
3 More Relationship between Stress and Strain Calculators
Go
Created Modulus of Resilience at given Strain Energy
Go
Created Modulus of Resilience given Proof Resilience
Go
Created Modulus of Resilience given Stress Induced
Go
Created Proof Resilience
Go
Created Proof Resilience given Stress Induced
Go
Verified Angle of inclination of thread
Go
Verified Slope of thread
Go
2 More Screw Friction Calculators
Go
Verified Efficiency of Screw Jack
Go
Verified Velocity Ratio of Worm Geared Screw Jack
Go
Verified Velocity Ratio of Worm Geared Screw Jack with Double Threaded
Go
Verified Velocity Ratio of Worm Geared Screw Jack with Multiple Threads
Go
6 More Screw Jack Calculators
Go
Created Loss of head due to friction in delivery pipe
Go
Created Loss of head due to friction in suction pipe
Go
Created Pressure Head due to Acceleration in Delivery Pipe
Go
Created Pressure Head due to Acceleration in Suction Pipe
Go
Created Work done against friction in delivery pipe
Go
Created Work done against friction in suction pipe
Go
Created Work Done by Single-acting Pump considering all Head Losses
Go
2 More Single Acting Pumps Calculators
Go
Strain (3)
Created Compressive Strain given Compressive Stress
Go
Created Shear Strain if Modulus of Rigidity and Shear Stress
Go
Created Tensile Strain given Modulus of Elasticity
Go
4 More Strain Calculators
Go
Created Load Applied Suddenly using Stress Induced by Sudden Applied Load
Go
Created Maximum Strain Energy Stored in Body for Sudden Impact Load
Go
Created Strain Energy Stored in Body
Go
Created Stress Induced in Body given Stored Strain Energy
Go
Created Stress Induced in Body given Work Done by Load
Go
Created Volume of Body given Modulus of Resilience
Go
Created Work Done by Load given Induced Stress
Go
Stress (3)
Created Compressive Stress given Compressive Strain
Go
Created Shear Stress given Shear Strain
Go
Created Tensile Stress given Modulus of Elasticity
Go
3 More Stress Calculators
Go
Verified Force Acting on Each Pin or Bush of Coupling
Go
Verified Permissible Intensity of Pressure between Flange and Rubber Bush in Bushed Pin Coupling
Go
Verified Permissible Intensity of Pressure between Flange and Rubber Bush of Coupling given Torque
Go
2 More Stress Analysis Calculators
Go
Created Actual Expansion when Support Yields
Go
1 More Thermal Stress Calculators
Go
Created Actual Strain given Support Yields for Value of Actual Expansion
Go
Created Actual Strain when Support Yields
Go
Created Actual Stress given Support Yields for Value of Actual Strain
Go
Created Actual Stress when Support Yields
Go
7 More Thermal Stress Calculators
Go
Verified Efficiency of Joule cycle
Go
Verified Enthalpy of Ideal Gas at given Temperature
Go
Verified Internal Energy of Perfect Gas at given Temperature
Go
Verified Pressure Ratio
Go
Verified Stagnation enthalpy
Go
14 More Thermodynamics and Governing Equations Calculators
Go
Verified Momentum Thrust
Go
Verified Thrust power specific fuel consumption
Go
19 More Thrust Generation Calculators
Go
Verified Bare Area over Fin leaving Fin Base
Go
Verified Bare Area over Fin leaving Fin Base given Surface Area
Go
Verified Fin surface area
Go
Verified Number of fins given perimeter
Go
Verified Number of fins in length L
Go
Verified Outer Diameter of Tube in Transverse Fin Heat Exchanger
Go
19 More Transverse Fin Heat Exchanger Calculators
Go
Verified Turbine Work given Enthalpy
Go
Verified Turbine Work in Gas Turbine given Temperature
Go
4 More Turbine Calculators
Go
Verified Mass Flow Rate of Exhaust Gases
Go
Verified Mass Flow Rate of Exhaust Gases given Fuel Air Ratio
Go
Verified Thermal efficiency of turbojet engine
Go
11 More Turbojets Calculators
Go
Verified Propeller Efficiency
Go
Verified Thermal Efficiency of Propeller Engines
Go
2 More Turboprops Calculators
Go
Verified Equivalent Stiffness of Two Springs in Parallel
Go
Verified Equivalent Stiffness of Two Springs in Series
Go
2 More Undamped Free Vibration Calculators
Go
Created Angular Speed of Vane Pump given Theoretical Discharge
Go
Created Eccentricity of Vane Pump
Go
Created Theoretical Discharge of Vane Pump
Go
Created Theoretical Discharge of Vane Pump given diameter of Camring and Rotor
Go
Created Vane Pump Constant
Go
Created Volumetric Displacement of Vane Pumps
Go
Created Width of Rotor of Vane Pump given Volumetric Displacement
Go
Created Width of Vane Pump given Theoretical Discharge
Go
Let Others Know
Facebook
Twitter
Reddit
LinkedIn
Email
WhatsApp
Copied!