Sunday, February 25, 2024
Latest:

# materials and metallurgical

Engineering

## How to Calculate and Solve for Inter-atomic Spacing | Bragg’s Law

The image above represents inter-atomic spacing. To compute for inter-atomic spacing, three essential parameters are needed and these parameters are Order

Engineering

## How to Calculate and Solve for Conversion of Volume Fraction to Mass Fraction | Phase Transformation

The image above represents the conversion of volume fraction to mass fraction. To compute for volume fraction to mass fraction,

Engineering

## How to Calculate and Solve for Net Force between Two Atoms | Crystal Structures

The image above represents net force between two atoms. To compute for net force between two atoms, two essential parameters

Engineering

## How to Calculate and Solve for Planar Density | Crystal Structures

The image above represents planar density. To compute for planar density, two essential parameters are needed and these parameters are

Engineering

## How to Calculate and Solve for Linear Density | Crystal Structures

The image above represents linear density. To compute for linear density, two essential parameters are needed and these parameters are Number

Engineering

## How to Calculate and Solve for Hexagonal Crystals | Crystal Structures

The image above represents hexagonal crystals. To compute for hexagonal crystals, two essential parameters are needed and these parameters are Miller

Engineering

## How to Calculate and Solve for Theoretical Density of Metals | Crystal Structures

The image above represents theoretical density of metals. To compute for theoretical density of metals, four essential parameters are needed

Engineering

## How to Calculate and Solve for Unit Cell Edge Length | Crystal Structures

The image above represents unit cell edge length. To compute for unit cell edge length, one essential parameter is needed

Engineering

## How to Calculate and Solve for Atomic Packing Factor | Crystal Structures

The image above represents atomic packing factor. To compute for atomic packing factor, two essential parameters are needed and these

Engineering

## How to Calculate and Solve for Unit Cell Edge Length | Crystal Structures

The image above represents unit cell edge length. To compute for unit cell edge length, one essential parameter is needed

Engineering

## How to Calculate and Solve for Angle of Diffraction | Bragg’s Law

The image above represents angle of diffraction. To compute for angle of diffraction, three essential parameters are needed and these

Engineering

## How to Calculate and Solve for Distance of Inter-atomic Spacing | X-Ray Diffusion

The image above represents distance of inter-atomic spacing. To compute for distance of inter-atomic spacing, four essential parameters are needed

Engineering

## How to Calculate and Solve for Wavelength | Bragg’s Law

The image above represents wavelength. To compute for wavelength, three essential parameters are needed and these parameters are Order of

Engineering

## How to Calculate and Solve for Order of Reflection | Bragg’s Law

The image above represents order of reflection. To compute for order of reflection, three essential parameters are needed and these

Engineering

## How to Calculate and Solve for Grain Size Number with Magnification | Imperfection in Solids

The image above represents grain size number with magnification. To compute for grain size number with magnification, two essential parameters

Engineering

## How to Calculate and Solve for Grain Size Determination: Relationship between ASTM number and Grain Size per Square Inch | Imperfection in Solids

The image above represents grain size determination. To compute for average number of grains per square inch, one essential parameter

Engineering

## How to Calculate and Solve for Atomic Weight in Alloying | Imperfection in Solids

The atomic weight in alloying is represented by the image below. To compute for atomic weight in alloying, four essential

Engineering

## How to Calculate and Solve for Density in Alloying | Imperfection in Solids

The image above represents density in alloying. To compute for density in alloying, four essential parameters are needed and these

Engineering

## How to Calculate and Solve for Conversion of Weight Percent to Mass per Unit Volume in Alloys | Imperfection in Solids

The conversion of weight percent to mass per unit volume in alloys is represented by the image below. To compute

Engineering

## How to Calculate and Solve for Conversion of Weight Percent to Atom Percent | Imperfection in Solids

The image above represents the conversion of weight percent to atom percent. To compute for the conversion of weight percent

Engineering

## How to Calculate and Solve for Atom Percent for Alloys | Imperfection in Solids

The image above represents atom percent for alloys. To compute for atom percent for alloys, two essential parameters are needed

Engineering

## How to Calculate and Solve for Weight Percent for Alloys | Imperfection in Solids

The image above represents weight percent for alloys. To compute for weight percent for alloys, two essential parameters are needed

Engineering

## How to Calculate and Solve for Number of Atoms per Unit Volume in Metals | Imperfection in Solids

The image above represents number of atoms per unit volume in metals. To compute for number of atoms per unit

Engineering

## How to Calculate and Solve for Equilibrium Number of Vacancies | Imperfection in Solids

The image above represents equilibrium number of vacancies. To compute for equilibrium number of vacancies, four essential parameters are needed

Engineering

## How to Calculate and Solve for Diffusion Coefficient at Constant Temperature | Diffusion in Alloying

The above image represents the diffusion coefficient at constant temperature. To compute for diffusion coefficient at constant temperature, four essential

Engineering

## How to Calculate and Solve for Diffusion Coefficients | Diffusion in Alloying

The image above represents diffusion coefficients. To compute for diffusion coefficients, four essential parameters are needed and these parameters are Diffusion

Engineering

## How to Calculate and Solve for Non Steady State Diffusion | Diffusion in Alloying

The image above represents non steady state diffusion. To compute for non steady state diffusion, three essential parameters are needed

Engineering

## How to Calculate and Solve for Body Diffusion | Diffusion in Alloying

The image above represents body diffusion. To compute for body diffusion, three essential parameters are needed and these parameters are Concentration

Engineering

## How to Calculate and Solve for Fick’s Second Law of Diffusion | Diffusion in Alloying

The image above represents fick’s second law of diffusion. To compute for fick’s second law of diffusion, two essential parameters

Engineering

## How to Calculate And Solve for Fick’s First Law of Diffusion | Diffusion in Alloying

The image above represents fick’s first law of diffusion. To compute for fick’s first law of diffusion, two essential parameters

Engineering

## How to Calculate and Solve for Diffusion Gradient | Diffusion in Alloying

The image above represents diffusion gradient. To compute for diffusion gradient, four essential parameters are needed and these parameters are Concentration

Engineering

## How to Calculate and Solve for Steady State Diffusion | Diffusion in Alloying

The image above represents steady state diffusion. To compute for steady state diffusion, three essential parameters are needed and these

Engineering

## How to Calculate and Solve for Diffusion Flux | Diffusion in Alloying

The image above represents diffusion flux. To compute for diffusion flux, three essential parameters are needed and these parameters are Mass

Engineering

## How to Calculate and Solve for Safe Working Stress | Mechanical Properties

The image above represents safe working stress. To compute for safe working stress, two essential parameters are needed and these

Engineering

## How to Calculate and Solve for Design Stress | Mechanical Properties

The image above represents design stress. To compute for design stress, two essential parameters are needed and these parameters are Design

Engineering

## How to Calculate and Solve for Standard Deviation | Mechanical Properties

The image above represents standard deviation. To compute for standard deviation, one essential parameter is needed and these parameter is Set

Engineering

## How to Calculate and Solve for Mean | Mechanical Properties

The image above represents the mean. To compute for mean, one essential parameter can be used and this parameter is

Engineering

## How to Calculate and Solve for Conversion of Brinell Hardness to Tensile Strength | Mechanical Properties

The conversion of brinell hardness to tensile strength is represented by the image below. To compute for the conversion of

Engineering

## How to Calculate and Solve for Knoop Hardness Number | Mechanical Properties

The image above represents knoop hardness number. To compute for knoop hardness number, two essential parameters are needed and these

Engineering

## How to Calculate and Solve for Vicker’s Hardness Number | Mechanical Properties

The image above represents vicker’s hardness number. To compute for vicker’s hardness number, two essential parameters are needed and these

Engineering

## How to Calculate and Solve for Brinell Hardness Number | Mechanical Properties

The image above represents brinell hardness number. To compute for brinell hardness number, three essential parameters are needed and these

Engineering

## How to Calculate and Solve for True Stress – True Strain In Plastic Region | Mechanical Properties

The true stress – true strain in plastic region is represented by the image below. To compute for true stress

Engineering

## How to Calculate and Solve for Convert Engineering Strain to True Strain | Mechanical Properties

The true strain is represented by the image below. To compute for true strain, one essential parameter is needed and

Engineering

## How to Calculate and Solve for Convert Engineering Stress to True Stress | Mechanical Properties

The convert engineering stress to true stress is represented by the image below. To compute for engineering stress to true

Engineering

## How to Calculate and Solve for Final Area | Volume Balance in Stress

The image above represents final area. To compute for final area, three essential parameters are needed and these parameters are Final

Engineering

## How to Calculate and Solve for True Strain | Mechanical Properties

The image above represents true strain. To compute for true strain, two essential parameters are needed and these parameters are Final

Engineering

## How to Calculate and Solve for True Stress | Mechanical Properties

The image above represents true stress. To compute for true stress, two essential parameters are needed and these parameters are Force

Engineering

## How to Calculate and Solve for Hooke’s Law Linear Elastic Modulus of Resilience | Mechanical Properties

The image above represents Hooke’s law linear elastic modulus of resilience. To compute for hooke’s law linear elastic modulus of

Engineering

## How to Calculate and Solve for Linear Elastic Modulus of Resilience | Mechanical Properties

The image above represents linear elastic modulus of resilience. To compute for linear elastic modulus of resilience, two essential parameters