Engineer's Text Book

A Hyperlinked Guide For Engineers

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$:/state/ <center>$$I_s=\frac{1}{12}mL^2+m(\frac{L^2}{4})$$</center> <center> $$\frac{1}{12}+\frac{1}{4}$$ $$\frac{1}{12}+\frac{3}{12}$$ $$\frac{4}{12}$$ $$\frac{1}{3}$$</center> --500688698
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1. Background information
10 + 1 Steps to Magic Moments
10. Maintenance
10A.P1
10A.P2
10B.P3
10B.P4
11. Life in Service - Product Life
12. Safety
13. Testing
14. Packaging
15. Product costs
16. Time scales
1st Law of Indices
1st Law of Logarithms
2. Scope of the specification
2010 U11 D1
2010 U11 M1
2010 U11 M3
2010 U11 M4
2010 U11 P1
2010 U11 P3
2010 U11 P5
2010 U11 P6
2010 U11 P7
2010 U14 D1
2010 U14 D2
2010 U14 M1
2010 U14 M2
2010 U14 M3
2010 U14 M4
2010 U14 P1
2010 U14 P2
2010 U14 P3
2010 U14 P4
2010 U14 P5
2010 U14 P6
2010 U14 P7
2010 U14 P8
2010 U5 D1
2010 U5 M1
2010 U5 M2
2010 U5 M4
2010 U5 P1
2010 U5 P2
2010 U5 P3
2010 U5 P4
2010 U5 P5
2010 U5 P6
2010 U5 P7
2015 U27 M4
2015 U27 P1
2015 U27 P2
2015 U27 P5
2015 U27 P7
2015 U31 M2
2015 U31 P3
2024 U13 D4
2024 U13 P9
2025 HNC U11 P4
27A.P1
27A.P2
27B.P3
27B.P4
27C.M4
27C.M5
27C.P5
27C.P6
27C.P7
2nd Law of Indices
2nd Law of Logarithms
3. Relevant Authorities to be Consulted
3rd Law of Indices
3rd Law of Logarithms
4. Performance
4A.P1
4A.P2
4B.P3
4B.P4
4C.M3
4C.M4
4C.P5
4C.P6
4th Law of Indices
4th Law of Logarithms
5. Ergonomics
5th Law of Indices
5th Law of Logarithms
6. Aesthetics, Appearance and Finish
6th Law of Indices
6th Law of Logarithms
7. Materials
8. Quantity Scale of Production
9 Steps to Shear Force and Bending Moment Diagrams
9. Manufacture
A Site Map
A Tufte-Inspired Web Article
A: Analyse a Loaded Pin-Jointed Frame
A: Analyse a Loaded Pin-Jointed Frame - Joint 1
A: Analyse a Loaded Pin-Jointed Frame - Joint 2
A: Analyse a Loaded Pin-Jointed Frame - Joint 4
A: Analyse a Loaded Pin-Jointed Frame - Joint 5
A: Analyse a Loaded Pin-Jointed Frame - Support Reactions
A: Analyse a Simple 60–30 Triangular Frame
A: Analyse a Simple 60–30 Triangular Frame - First Joint
A: Analyse a Simple 60–30 Triangular Frame - Remaining Member
A: Analyse a Simple 60–30 Triangular Frame - Support Reactions
A: Analyse a Simply Supported Beam, Central Point Load
A: Analyse a Simply Supported Beam, Central Point Load - Bend Radius
A: Analyse a Simply Supported Beam, Central Point Load - Maximum Bending Moment
A: Analyse a Simply Supported Beam, Central Point Load - Maximum Bending Stress
A: Analyse a Simply Supported Beam, Central Point Load - Safety Factor
A: Analyse a Simply Supported Beam, Full length UDL
A: Analyse a Simply Supported Beam, Full length UDL - Bend Radius
A: Analyse a Simply Supported Beam, Full length UDL - Maximum Bending moment
A: Analyse a Simply Supported Beam, Full length UDL - Maximum bending Stress
A: Analyse a Simply Supported Beam, Full length UDL - Safety Factor
A: Analytically Find the Forces in a Frame
A: Analytically Find the Forces in a Frame - Joint 1
A: Analytically Find the Forces in a Frame - Joint 2
A: Analytically Find the Forces in a Frame - Joint 3
A: Analytically Find the Forces in a Frame - Reaction Forces
A: Axial Stress Change
A: Axial Stress Change - Change in Length
A: Axial Stress Change - Compression Stress
A: Axial Stress Change - Expansion Stress
A: Block and Tackle
A: Block and Tackle - Effort
A: Block and Tackle - Mechanical Advantage
A: Block and Tackle - Velocity Ratio
A: Boiler Efficiency
A: Boyle's Law
A: Calculate the Products of Combustion with Excess Air
A: Calculate the Products of Combustion with Excess Air - Actual Air Supplied
A: Calculate the Products of Combustion with Excess Air - Excess Oxygen
A: Calculate the Products of Combustion with Excess Air - Fuel Products
A: Calculate the Products of Combustion with Excess Air - Nitrogen in the Products
A: Calculate the Products of Combustion with Excess Air - Theoretical Air
A: Calculate the Products of Combustion with Excess Air - Wet and Dry Products
A: Calculate the Support Reactions Using Moments
A: Calculate the Support Reactions Using Moments - Anticlockwise Moments
A: Calculate the Support Reactions Using Moments - Calculate R1
A: Calculate the Support Reactions Using Moments - Calculate R2
A: Calculate the Support Reactions Using Moments - Clockwise Moments
A: Calculate the Support Reactions Using Moments - Combined R2 Method
A: Calculate the Support Reactions Using Moments - Equate the Moments
A: Calculate the Support Reactions Using Moments - Identify Moment Directions
A: Calculate the Support Reactions Using Moments - Replace the UDL
A: Calculate the Support Reactions Using Moments - Select BOB
A: Calculate the Theoretical Air Required for Combustion
A: Calculate the Theoretical Air Required for Combustion - Oxygen for Each Element
A: Calculate the Theoretical Air Required for Combustion - Oxygen Ratios
A: Calculate the Theoretical Air Required for Combustion - Theoretical Air
A: Calculate the Theoretical Air Required for Combustion - Total Oxygen
A: Change in Viscosity for a Temperature Change
A: Change in Viscosity with a Change in Pressure
A: Characteristic Gas Law
A: Charles’s Law
A: Compare Energy Transfer During Gas Processes
A: Compare Energy Transfer During Gas Processes - Boyle's Law
A: Compare Energy Transfer During Gas Processes - Constant Pressure
A: Compare Energy Transfer During Gas Processes - Constant Volume
A: Compare Energy Transfer During Gas Processes - Evaluation
A: Compare Heat Loss from Unlagged and Lagged Pipes
A: Compare Heat Loss from Unlagged and Lagged Pipes - Heat-Loss Reduction
A: Compare Heat Loss from Unlagged and Lagged Pipes - Insulation Radius
A: Compare Heat Loss from Unlagged and Lagged Pipes - Insulation Resistance
A: Compare Heat Loss from Unlagged and Lagged Pipes - Lagged Heat Loss
A: Compare Heat Loss from Unlagged and Lagged Pipes - Lagged Pipe
A: Compare Heat Loss from Unlagged and Lagged Pipes - Pipe Radii
A: Compare Heat Loss from Unlagged and Lagged Pipes - Steel Resistance
A: Compare Heat Loss from Unlagged and Lagged Pipes - Unlagged Heat Loss
A: Compare Heat Loss from Unlagged and Lagged Pipes - Unlagged Pipe
A: D’Alembert’s Principle
A: Determine the Polytropic Index
A: Determine the Polytropic Index - Final Volume
A: Determine the Polytropic Index - Initial Volume
A: Determine the Polytropic Index - Polytropic Index
A: Determine the Specific Heat Capacities of Air
A: Determine the Specific Heat Capacities of Air - Characteristic Gas Constant
A: Determine the Specific Heat Capacities of Air - Constant Pressure
A: Determine the Specific Heat Capacities of Air - Constant Volume
A: Determine the Specific Heat Capacities of Air - Mass of Air
A: Direct Stress, Strain and Extension
A: Direct Stress, Strain and Extension - Direct Strain
A: Direct Stress, Strain and Extension - Direct Stress
A: Direct Stress, Strain and Extension - Extension
A: Dryness Fraction Using a Throttling Calorimeter
A: Energy Transfer from Boiler to Superheater
A: Energy Transfer from Boiler to Superheater - Boiler
A: Energy Transfer from Boiler to Superheater - Energy Supplied by the Fuel
A: Energy Transfer from Boiler to Superheater - Energy Transferred to the Water
A: Energy Transfer from Boiler to Superheater - Steam Table Values
A: Energy Transfer from Boiler to Superheater - Superheater
A: Energy Transfer from Boiler to Superheater - Superheater Heat-Transfer Rate
A: Energy Transfer in a Closed Thermodynamic System
A: Energy Transfer in a Closed Thermodynamic System - Change in Internal Energy
A: Energy Transfer in a Closed Thermodynamic System - Final Volume
A: Energy Transfer in a Closed Thermodynamic System - Heat Supplied
A: Energy Transfer in a Closed Thermodynamic System - Heat Transfer
A: Energy Transfer in a Closed Thermodynamic System - Polytropic Work
A: Energy Transfer in a Closed Thermodynamic System - Work Done
A: Equilibrant of a Non-Concurrent Force System
A: Equilibrant of a Non-Concurrent Force System - Worked Presentation
A: Factor of Safety for Direct and Shear Stress
A: Factor of Safety for Direct and Shear Stress - Direct Factor of Safety
A: Factor of Safety for Direct and Shear Stress - Plate Direct Stress
A: Factor of Safety for Direct and Shear Stress - Rivet Shear Stress
A: Factor of Safety for Direct and Shear Stress - Shear Factor of Safety
A: Falling Cannon Ball
A: Falling Cannon Ball - How Far
A: Falling Cannon Ball - Time to Splash
A: Fluid Velocity Through a Venturi Meter
A: Force Separating Pressurised Pipe Flanges
A: Four Bar Linkage
A: Four Bar Linkage - Trig for D
A: Four Bar Linkage - Vector Diagram for D
A: Four Bar Linkage - Velocity of B
A: Gay Lussac's Law
A: General Gas Law
A: Graphically Find the Forces in a Frame
A: Gross and Net Calorific Values Using a Boys’ Calorimeter
A: Gyroscopic Couple
A: Gyroscopic Couple - Angular Velocity
A: Gyroscopic Couple - Gyroscopic Torque
A: Gyroscopic Couple - Moment of Inertia
A: Heat Loss Through a Compound Wall
A: Heat Loss Through a Compound Wall - Heat-Transfer Rate
A: Heat Loss Through a Compound Wall - Overall Heat-Transfer Coefficient
A: Higher Calorific Value Using Schole's Bomb Calorimeter
A: Major Head Loss
A: Major Head Loss - Darcy-Weisbach Calculation
A: Major Head Loss - Friction Factor
A: Major Head Loss - Reynolds Number
A: Mass of a Submersible Vehicle
A: Momentum
A: Overturning Force on a Dam Wall
A: Overturning Force on a Dam Wall - Centroid Depth
A: Overturning Force on a Dam Wall - Overturning Moment
A: Overturning Force on a Dam Wall - Resultant Force
A: Overturning Force on a Dam Wall - Submerged Area
A: Parallel and Contra-Flow Heat Exchanger
A: Parallel and Contra-Flow Heat Exchanger - Contra-Flow Temperature Difference
A: Parallel and Contra-Flow Heat Exchanger - Gas Heat-Transfer Rate
A: Parallel and Contra-Flow Heat Exchanger - Heat-Transfer Areas and Lengths
A: Parallel and Contra-Flow Heat Exchanger - Overall Heat-Transfer Coefficient
A: Parallel and Contra-Flow Heat Exchanger - Parallel-Flow Temperature Difference
A: Parallel and Contra-Flow Heat Exchanger - Required Pipe Lengths
A: Parallel and Contra-Flow Heat Exchanger - Water Outlet Temperature
A: Parallel and Contra-Flow Heat Exchanger - Water Temperature
A: Parallel Axis Theorem
A: Polytropic Process - Final Pressure
A: Polytropic Process - Final Temperature
A: Polytropic Process - Mass of Air
A: Power Required in an Open Thermodynamic System
A: Power Required in an Open Thermodynamic System - Mechanical Power
A: Power Required in an Open Thermodynamic System - Thermal Power
A: Pressure and Force From Density and Height
A: Pressure from Manometer
A: Retarding Force on a Pile Drive Hammer Using Conservation of Energy
A: Retarding Force on a Pile Drive Hammer Using Conservation of Energy - Ground Resistance
A: Retarding Force on a Pile Drive Hammer Using Conservation of Energy - Hammer and Pile Velocity
A: Retarding Force on a Pile Drive Hammer Using Conservation of Energy - Hammer Impact Velocity
A: Retarding Force on a Pile Drive Hammer Using D’Alembert’s Principle
A: Retarding Force on a Pile Drive Hammer Using D’Alembert’s Principle - Ground Resistance
A: Retarding Force on a Pile Drive Hammer Using D’Alembert’s Principle - Hammer and Pile Deceleration
A: Retarding Force on a Pile Drive Hammer Using D’Alembert’s Principle - Hammer Impact Velocity
A: Screw Jack
A: Screw Jack - Efficiency
A: Screw Jack - Mechanical Advantage
A: Screw Jack - Velocity Ratio
A: Shear Stress in a Lap and Butt Joint
A: Shear Stress in a Lap and Butt Joint - Butt Joint Rivet Diameter
A: Shear Stress in a Lap and Butt Joint - Butt Joint Working Stress
A: Shear Stress in a Lap and Butt Joint - Lap Joint Shear Stress
A: Shear Stress in a Lap and Butt Joint - Rivet Area and Diameter
A: Shear Stress in a Lap and Butt Joint - Total Shear Area
A: Shear Stress, Strain and Deflection
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A: Torque, Rotational Energy and Power - Total Torque
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A: Use Buckingham Pi on Fluid Flow in Pipes - Check Dimensional Consistency
A: Use Buckingham Pi on Fluid Flow in Pipes - Combine the Pi Terms
A: Use Buckingham Pi on Fluid Flow in Pipes - Construct the Pi Terms
A: Use Buckingham Pi on Fluid Flow in Pipes - Determine the Number of Pi Terms
A: Use Buckingham Pi on Fluid Flow in Pipes - Express the Base Dimensions
A: Use Buckingham Pi on Fluid Flow in Pipes - First Pi Term
A: Use Buckingham Pi on Fluid Flow in Pipes - Identify the Variables
A: Use Buckingham Pi on Fluid Flow in Pipes - Second Pi Term
A: Use Factor of Safety to Determine the Number of Rivets
A: Use Factor of Safety to Determine the Number of Rivets - Area of One Rivet
A: Use Factor of Safety to Determine the Number of Rivets - Number of Rivets
A: Use Factor of Safety to Determine the Number of Rivets - Working Shear Stress
A: Use Shear Stress to Determine the Force Needed for a Hole Punch
A: Use Shear Stress to Determine the Force Needed for a Hole Punch - Area Resisting the Punch
A: Use Shear Stress to Determine the Force Needed for a Hole Punch - Minimum Punching Force
A: Use Shear Stress to Determine the Force Needed for a Hole Punch - Stress in the Punch
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A: Winding Drum - Finding The Force
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To Find the Secret of Free Energy
Tolerences for Holes and Fits
Tones Tags
Torque
Torque for Gyroscopic Precession
Total
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Total Impedance of an Capacitor in Series with a Resistance
Total Impedance of an Inductor in Series with a Resistance
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Transformer Equation
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Typical Values of Specific Heat Capacity
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Unit 1 A1
Unit 1 A2
Unit 1 B1
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Unit 1 C1
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Unit 1 D1
Unit 1 E1
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Unit 1 Engineering Principles
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Unit 1 Section A
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Unit 10 A
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Unit 10 A Distinction
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Unit 10 A1: 3D Parametric Modelling
Unit 10 A2: Develop 3D Components
Unit 10 A3: Develop a 3D Model
Unit 10 A4: Output of Drawings from a Model
Unit 10 B
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Unit 10 C
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Unit 10 C Distinction
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Unit 10 EIAD
Unit 10: B1 2D Drawing Commands
Unit 10: B2 Development of 2D Engineering Drawings
Unit 10: B3 Output of 2D Drawings
Unit 10: C1 3D Modelling Commands
Unit 10: C2 Develop 3D Components
Unit 10: C3 Development of a 3D Model
Unit 10: C4 Output of Product Drawings
Unit 11 P1 Definitions Needed to be finished
Unit 14 P2 Solution Part 1: Step 1
Unit 27 A
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Unit 27 A1: Static Parameters
Unit 27 A2: Analysis of Statically Determinate Framed Structures
Unit 27 B
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Unit 27 B1: Beam Parameters
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Unit 27 C
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Unit 27 C1: Axial Loading
Unit 27 C2: Bending Loading
Unit 27 C3: Shear Loading
Unit 27 C4: Design Considerations
Unit 27 Worked Examples Assignment 2
Unit 27:Static Mechanical Principles in Practice
Unit 3 A1
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Unit 3 A3
Unit 3 A4
Unit 3 A5
Unit 3 A6
Unit 3 B1
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Unit 3 B4
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Unit 3 C1
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Unit 3 D1
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Unit 3 Grade Descriptors
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Unit 31: Thermodynamics Principles and Practice
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Unit 4 A1: Business Functions and Key Activities
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Unit 4 Applied Commercial and Quality Principles in Engineering
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Unit 4 B1: Reasons for Cost Control and Types of Costs
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Unit 5 M1 Example Question
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Universal Gas Constant
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Untitled
Up Thrust
Upsilon
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Using Tags Two
Vacuum Permittivity
Valence Shell
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Value Added
Value Analysis Verb Noun Table (long)
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Value at Start
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Value Engineering and Analysis
Values of Coefficient of Linear Expansion
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Variable
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Where do the Equations for the Internal Stress in a Parallel Compound Bar Come From?
Where does Bernoulli's Equation Come From?
Where does Compound Axial Stress Formula Come From?
Where does F.E. equation come from?
Where does the H.E. equation come from?
Where does the K.E.equation come from?
Where Does the Linear Compound Bar Equation Come From?
Where does the Non-Flow Work Equation Come From?
Where does the P.E. equation come from?
Where the 'I' Equation Comes From
Wind Tunnel
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Xi
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Zeta