Канал: Jim Leflar

Reynolds Number Unit Conversions -- Engineering Thermodynamics 2/107

Reynolds Number Unit Conversions -- Engineering Thermodynamics 2/107

Calculating Standard Barometric Pressure at Elevation -- Engineering Thermodynamics 3/107

Calculating Standard Barometric Pressure at Elevation -- Engineering Thermodynamics 3/107

Pressure Created by a Column of Fluid -- Engineering Thermodynamics 4/107

Pressure Created by a Column of Fluid -- Engineering Thermodynamics 4/107

Pressure of a Fluid Column in a Sealed Water Tower -- Engineering Thermodynamics 5/107

Pressure of a Fluid Column in a Sealed Water Tower -- Engineering Thermodynamics 5/107

Fluid Pressure Involving a Pressure Gauge and Manometer -- Engineering Thermodynamics 6/107

Fluid Pressure Involving a Pressure Gauge and Manometer -- Engineering Thermodynamics 6/107

Absolute vs Gauge Pressures in Tank of Oil Over Water -- Engineering Thermodynamics 7/107

Absolute vs Gauge Pressures in Tank of Oil Over Water -- Engineering Thermodynamics 7/107

Chapter 1 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 8/107

Chapter 1 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 8/107

Kinetic Energy Change -- Engineering Thermodynamics 9/107

Kinetic Energy Change -- Engineering Thermodynamics 9/107

Potential Energy Change -- Engineering Thermodynamics 10/107

Potential Energy Change -- Engineering Thermodynamics 10/107

Polytropic Processes in Piston-Cylinders -- Engineering Thermodynamics 12/107

Polytropic Processes in Piston-Cylinders -- Engineering Thermodynamics 12/107

Polytropic Processes and their Work -- Engineering Thermodynamics 11/107

Polytropic Processes and their Work -- Engineering Thermodynamics 11/107

Isothermal Compression Process -- Engineering Thermodynamics 13/107

Isothermal Compression Process -- Engineering Thermodynamics 13/107

Polytropic Process in s Series of Processes-- Engineering Thermodynamics 14/107

Polytropic Process in s Series of Processes-- Engineering Thermodynamics 14/107

Polytropic Process as Part of a Cycle -- Engineering Thermodynamics 15/107

Polytropic Process as Part of a Cycle -- Engineering Thermodynamics 15/107

Closed System Energy Balance -- Engineering Thermodynamics 16/107

Closed System Energy Balance -- Engineering Thermodynamics 16/107

Energy Balance Applied to a Cycle -- Engineering Thermodynamics 17/107

Energy Balance Applied to a Cycle -- Engineering Thermodynamics 17/107

The Closed System Rate Energy Balance -- Engineering Thermodynamics 18/107

The Closed System Rate Energy Balance -- Engineering Thermodynamics 18/107

Conduction Heat Transfer -- Engineering Thermodynamics 19/107

Conduction Heat Transfer -- Engineering Thermodynamics 19/107

Convective Heat Transfer -- Engineering Thermodynamics 20/107

Convective Heat Transfer -- Engineering Thermodynamics 20/107

Radiation Heat Transfer -- Engineering Thermodynamics 21/107

Radiation Heat Transfer -- Engineering Thermodynamics 21/107

Power Cycle Efficiency -- Engineering Thermodynamics 22/107

Power Cycle Efficiency -- Engineering Thermodynamics 22/107

Refrigeration Cycle Coefficient of Performance (COP) -- Engineering Thermodynamics 23/107

Refrigeration Cycle Coefficient of Performance (COP) -- Engineering Thermodynamics 23/107

Heat Pump Cycle Coefficient of Performance (COP) -- Engineering Thermodynamics 24/107

Heat Pump Cycle Coefficient of Performance (COP) -- Engineering Thermodynamics 24/107

Chapter 2 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 25/107

Chapter 2 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 25/107

Using Property Tables to Determine the Phase of a State -- Engineering Thermodynamics 26/107

Using Property Tables to Determine the Phase of a State -- Engineering Thermodynamics 26/107

Using Property Tables to Determine State Properties -- Engineering Thermodynamics 27/107

Using Property Tables to Determine State Properties -- Engineering Thermodynamics 27/107

Using Property Tables to Determine Saturation Quality -- Engineering Thermodynamics 28/107

Using Property Tables to Determine Saturation Quality -- Engineering Thermodynamics 28/107

Thermodynamic Properties of Subcooled Liquids -- Engineering Thermodynamics 29/107

Thermodynamic Properties of Subcooled Liquids -- Engineering Thermodynamics 29/107

Drawing Thermodynamic Phase Diagrams -- Engineering Thermodynamics 30/107

Drawing Thermodynamic Phase Diagrams -- Engineering Thermodynamics 30/107

Quality of a Saturated Mixture -- Engineering Thermodynamics 31/107

Quality of a Saturated Mixture -- Engineering Thermodynamics 31/107

Specific Volumes of Saturated Liquids and Vapors -- Engineering Thermodynamics 32/107

Specific Volumes of Saturated Liquids and Vapors -- Engineering Thermodynamics 32/107

Thermodynamic Work at Constant Pressure in a Piston-Cylinder -- Engineering Thermodynamics 33/107

Thermodynamic Work at Constant Pressure in a Piston-Cylinder -- Engineering Thermodynamics 33/107

Applying an Energy Balance to a Constant Volume Process -- Engineering Thermodynamics 34/107

Applying an Energy Balance to a Constant Volume Process -- Engineering Thermodynamics 34/107

Heating a Saturated Mixture at Constant Volume in a Rigid Tank -- Engineering Thermodynamics 35/107

Heating a Saturated Mixture at Constant Volume in a Rigid Tank -- Engineering Thermodynamics 35/107

The Saturation Critical Point and its Properties -- Engineering Thermodynamics 36/107

The Saturation Critical Point and its Properties -- Engineering Thermodynamics 36/107

Work and Heat Transfer in a Constant Pressure Process -- Engineering Thermodynamics 37/107

Work and Heat Transfer in a Constant Pressure Process -- Engineering Thermodynamics 37/107

Work and Mass in a Water Condensation Process -- Engineering Thermodynamics 38/107

Work and Mass in a Water Condensation Process -- Engineering Thermodynamics 38/107

Cooling a Saturated Mixture at Constant Volume in a Rigid Tank -- Engineering Thermodynamics 39/107

Cooling a Saturated Mixture at Constant Volume in a Rigid Tank -- Engineering Thermodynamics 39/107

Cooling Superheated Propane at Constant Volume in a Rigid Tank -- Engineering Thermodynamics 40/107

Cooling Superheated Propane at Constant Volume in a Rigid Tank -- Engineering Thermodynamics 40/107

Two Water Processes in Series in a Piston-Cylinder -- Engineering Thermodynamics 41/107

Two Water Processes in Series in a Piston-Cylinder -- Engineering Thermodynamics 41/107

Work, Heat Transfer & Efficiency of a Power Cycle -- Engineering Thermodynamics 42/107

Work, Heat Transfer & Efficiency of a Power Cycle -- Engineering Thermodynamics 42/107

Work and Heat Transfer in a Refrigeration Cycle -- Engineering Thermodynamics 43/107

Work and Heat Transfer in a Refrigeration Cycle -- Engineering Thermodynamics 43/107

Introduction to the Ideal Gas Law -- Engineering Thermodynamics 44/107

Introduction to the Ideal Gas Law -- Engineering Thermodynamics 44/107

Introduction to the Generalized Compressibility Chart -- Engineering Thermodynamics 45/107

Introduction to the Generalized Compressibility Chart -- Engineering Thermodynamics 45/107

The Ideal Gas Law Relationship for Processes -- Engineering Thermodynamics 46/107

The Ideal Gas Law Relationship for Processes -- Engineering Thermodynamics 46/107

Introduction to Enthalpy and Specific Heats for Gases -- Engineering Thermodynamics 47/107

Introduction to Enthalpy and Specific Heats for Gases -- Engineering Thermodynamics 47/107

Using the Air Tables to Solve a Polytropic Process -- Engineering Thermodynamics 48/107

Using the Air Tables to Solve a Polytropic Process -- Engineering Thermodynamics 48/107

Using an Energy Balance to Solve a Paddle-wheel Process -- Engineering Thermodynamics 49/107

Using an Energy Balance to Solve a Paddle-wheel Process -- Engineering Thermodynamics 49/107

Air as an Ideal Gas in an Adiabatic Polytropic Process -- Engineering Thermodynamics 50/107

Air as an Ideal Gas in an Adiabatic Polytropic Process -- Engineering Thermodynamics 50/107

Air as an Ideal Gas in a Power Cycle -- Engineering Thermodynamics 51/107

Air as an Ideal Gas in a Power Cycle -- Engineering Thermodynamics 51/107

Chapter 3 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 52/107

Chapter 3 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 52/107

The Open System Continuity Equations -- Engineering Thermodynamics 53/107

The Open System Continuity Equations -- Engineering Thermodynamics 53/107

Continuity Equations Applied to Refrigerant in a Pipe -- Engineering Thermodynamics 54/107

Continuity Equations Applied to Refrigerant in a Pipe -- Engineering Thermodynamics 54/107

Continuity Equations for Steam Flowing Though a Pipe -- Engineering Thermodynamics 55/107

Continuity Equations for Steam Flowing Though a Pipe -- Engineering Thermodynamics 55/107

Open System Continuity Equations Applied to an Air Turbine -- Engineering Thermodynamics 56/107

Open System Continuity Equations Applied to an Air Turbine -- Engineering Thermodynamics 56/107

Isothermal Liquid Water Flowing Through a Diffuser -- Engineering Thermodynamics 57/107

Isothermal Liquid Water Flowing Through a Diffuser -- Engineering Thermodynamics 57/107

Air Flowing Through a Duct -- Engineering Thermodynamics 58/107

Air Flowing Through a Duct -- Engineering Thermodynamics 58/107

Open System Energy Balance -- Engineering Thermodynamics 59/107

Open System Energy Balance -- Engineering Thermodynamics 59/107

Air Flowing Through a Converging/Diverging Nozzle -- Engineering Thermodynamics 60/107

Air Flowing Through a Converging/Diverging Nozzle -- Engineering Thermodynamics 60/107

Superheated Steam Flowing Through a Diffuser -- Engineering Thermodynamics 61/107

Superheated Steam Flowing Through a Diffuser -- Engineering Thermodynamics 61/107

Air Flowing Through a Diffuser -- Engineering Thermodynamics 62/107

Air Flowing Through a Diffuser -- Engineering Thermodynamics 62/107

Open System Energy Balance for a Steam Turbine -- Engineering Thermodynamics 63/107

Open System Energy Balance for a Steam Turbine -- Engineering Thermodynamics 63/107

Open System Energy Balance for an Air Turbine -- Engineering Thermodynamics 64/107

Open System Energy Balance for an Air Turbine -- Engineering Thermodynamics 64/107

Open System Energy Balance for an Air Compressor -- Engineering Thermodynamics 65/107

Open System Energy Balance for an Air Compressor -- Engineering Thermodynamics 65/107

Energy Balance & Continuity Eqution of a Refrigerant Compressor -- Engineering Thermodynamics 66/107

Energy Balance & Continuity Eqution of a Refrigerant Compressor -- Engineering Thermodynamics 66/107

Enthalpy Change for a Subcooled Liquid; Pump Power -- Engineering Thermodynamics 67/107

Enthalpy Change for a Subcooled Liquid; Pump Power -- Engineering Thermodynamics 67/107

Temperature Rise Across a Water Pump -- Engineering Thermodynamics 68/107

Temperature Rise Across a Water Pump -- Engineering Thermodynamics 68/107

Pumping Water Uphill and Through a Nozzle -- Engineering Thermodynamics 69/107

Pumping Water Uphill and Through a Nozzle -- Engineering Thermodynamics 69/107

Counterflow Heat Exchanger with Oil and Water -- Engineering Thermodynamics 70/107

Counterflow Heat Exchanger with Oil and Water -- Engineering Thermodynamics 70/107

A Refrigerant Condensing Water-Cooled Heat Exchanger -- Engineering Thermodynamics 71/107

A Refrigerant Condensing Water-Cooled Heat Exchanger -- Engineering Thermodynamics 71/107

A Constant-Enthalpy Throttle Valve Process -- Engineering Thermodynamics 72/107

A Constant-Enthalpy Throttle Valve Process -- Engineering Thermodynamics 72/107

A Variable Enthalpy Throttle Valve Process -- Engineering Thermodynamics 73/107

A Variable Enthalpy Throttle Valve Process -- Engineering Thermodynamics 73/107

Chapter 4 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 74/107

Chapter 4 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 74/107

Reversible, Irreversible & Impossible Power Cycles (1/3) -- Engineering Thermodynamics 75/107

Reversible, Irreversible & Impossible Power Cycles (1/3) -- Engineering Thermodynamics 75/107

Reversible, Irreversible & Impossible Power Cycles (2/3) -- Engineering Thermodynamics 76/107

Reversible, Irreversible & Impossible Power Cycles (2/3) -- Engineering Thermodynamics 76/107

Reversible, Irreversible & Impossible Power Cycles (3/3) -- Engineering Thermodynamics 77/107

Reversible, Irreversible & Impossible Power Cycles (3/3) -- Engineering Thermodynamics 77/107

Analysis of Power Cycle Efficiency Claims -- Engineering Thermodynamics 79/107

Analysis of Power Cycle Efficiency Claims -- Engineering Thermodynamics 79/107

Reversible Power Cycle Efficiency -- Engineering Thermodynamics 80/107

Reversible Power Cycle Efficiency -- Engineering Thermodynamics 80/107

Reversible, Irreversible & Impossible Refrigeration Cycles -- Engineering Thermodynamics 81/107

Reversible, Irreversible & Impossible Refrigeration Cycles -- Engineering Thermodynamics 81/107

Performance (COP) of Reversible Refrigeration Cycles -- Engineering Thermodynamics 82/107

Performance (COP) of Reversible Refrigeration Cycles -- Engineering Thermodynamics 82/107

Performance (COP) of Reversible Heat Pump Cycles -- Engineering Thermodynamics 83/107

Performance (COP) of Reversible Heat Pump Cycles -- Engineering Thermodynamics 83/107

Introduction to Entropy & Entropy Production -- Engineering Thermodynamics 84/107

Introduction to Entropy & Entropy Production -- Engineering Thermodynamics 84/107

Chapter 5 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 85/107

Chapter 5 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 85/107

Finding Specific Entropy Values in Tables -- Engineering Thermodynamics 86/107

Finding Specific Entropy Values in Tables -- Engineering Thermodynamics 86/107

Using Tables to Find the Entropy Change During a Process -- Engineering Thermodynamics 87/107

Using Tables to Find the Entropy Change During a Process -- Engineering Thermodynamics 87/107

Using Tables to Evaluate a Constant Entropy Process -- Engineering Thermodynamics 88/107

Using Tables to Evaluate a Constant Entropy Process -- Engineering Thermodynamics 88/107

Entropy Change for a Process Using an Ideal Gas -- Engineering Thermodynamics 89/107

Entropy Change for a Process Using an Ideal Gas -- Engineering Thermodynamics 89/107

Entropy Change for Water Being Cooled at Constant Volume -- Engineering Thermodynamics 90/107

Entropy Change for Water Being Cooled at Constant Volume -- Engineering Thermodynamics 90/107

Entropy Change for an Ideal Gas Process -- Engineering Thermodynamics 91/107

Entropy Change for an Ideal Gas Process -- Engineering Thermodynamics 91/107

Introduction to Isentropic Processes & the Tds Equation -- Engineering Thermodynamics 92/107

Introduction to Isentropic Processes & the Tds Equation -- Engineering Thermodynamics 92/107

Work & Heat Transfer in an Internally Reversible Process -- Engineering Thermodynamics 93/107

Work & Heat Transfer in an Internally Reversible Process -- Engineering Thermodynamics 93/107

Internally Reversible Process with Temperature Change -- Engineering Thermodynamics 94/107

Internally Reversible Process with Temperature Change -- Engineering Thermodynamics 94/107

Carnot Refrigeration Cycle -- Engineering Thermodynamics 95/107

Carnot Refrigeration Cycle -- Engineering Thermodynamics 95/107

Water Condensation Process in a Piston-Cylinder -- Engineering Thermodynamics 96/107

Water Condensation Process in a Piston-Cylinder -- Engineering Thermodynamics 96/107

Heating Air in a Rigid Tank with a Paddle-Wheel -- Engineering Thermodynamics 97/107

Heating Air in a Rigid Tank with a Paddle-Wheel -- Engineering Thermodynamics 97/107

Entropy Change in a Refrigerant Process in a Piston-Cylinder -- Engineering Thermodynamics 98/107

Entropy Change in a Refrigerant Process in a Piston-Cylinder -- Engineering Thermodynamics 98/107

Hot Metal Bar Being Cooled in a Tank of Water -- Engineering Thermodynamics 99/107

Hot Metal Bar Being Cooled in a Tank of Water -- Engineering Thermodynamics 99/107

Evaluating a Heat Pump Performance Claim -- Engineering Thermodynamics 100/107

Evaluating a Heat Pump Performance Claim -- Engineering Thermodynamics 100/107

Entropy Production in an Ammonia Compressor -- Engineering Thermodynamics 101/107

Entropy Production in an Ammonia Compressor -- Engineering Thermodynamics 101/107

Entropy Production in a Heat Exchanger -- Engineering Thermodynamics 102/107

Entropy Production in a Heat Exchanger -- Engineering Thermodynamics 102/107

Isentropic Air Compression in a Piston-Cylinder -- Engineering Thermodynamics 103/107

Isentropic Air Compression in a Piston-Cylinder -- Engineering Thermodynamics 103/107

Adiabatic Internally Reversible Refrigerant Compressor -- Engineering Thermodynamics 104/107

Adiabatic Internally Reversible Refrigerant Compressor -- Engineering Thermodynamics 104/107

Isentropic Turbine Efficiency -- Engineering Thermodynamics 105/107

Isentropic Turbine Efficiency -- Engineering Thermodynamics 105/107

Maximum Theoretical Exit Pressure of an Air Compressor -- Engineering Thermodynamics 106/107

Maximum Theoretical Exit Pressure of an Air Compressor -- Engineering Thermodynamics 106/107

Chapter 6 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 107/107

Chapter 6 Tool Box (Summary of Useful Equations) -- Engineering Thermodynamics 107/107

SI & English Units & Unit Conversions -- Engineering Thermodynamics 1/107

SI & English Units & Unit Conversions -- Engineering Thermodynamics 1/107

Power Cycle Work & Heat -- Engineering Thermodynamics 78/107

Power Cycle Work & Heat -- Engineering Thermodynamics 78/107