diff --git a/.obsidian/graph.json b/.obsidian/graph.json index baace18..75c46b7 100644 --- a/.obsidian/graph.json +++ b/.obsidian/graph.json @@ -17,6 +17,6 @@ "repelStrength": 18.5634118967452, "linkStrength": 1, "linkDistance": 52, - "scale": 0.6309651807614577, + "scale": 0.3324480902288957, "close": true } \ No newline at end of file diff --git a/.obsidian/workspace.json b/.obsidian/workspace.json index a5bd273..f8ef7a4 100644 --- a/.obsidian/workspace.json +++ b/.obsidian/workspace.json @@ -6,7 +6,7 @@ { "id": "9449342f35f00ac4", "type": "tabs", - "dimension": 50, + "dimension": 50.161812297734635, "children": [ { "id": "470a0ec0619cc58a", @@ -36,6 +36,20 @@ "title": "Buzzwords" } }, + { + "id": "64f0df5c090ab314", + "type": "leaf", + "state": { + "type": "markdown", + "state": { + "file": "Physics/Thermodynamics/Thermal Energy Transfer and Equilibrium.md", + "mode": "source", + "source": false + }, + "icon": "lucide-file", + "title": "Thermal Energy Transfer and Equilibrium" + } + }, { "id": "0cf859e0a62de9b5", "type": "leaf", @@ -56,21 +70,21 @@ "state": { "type": "markdown", "state": { - "file": "Tasks.md", + "file": "Physics/Thermodynamics/Ideal Gas Law.md", "mode": "source", "source": false }, "icon": "lucide-file", - "title": "Tasks" + "title": "Ideal Gas Law" } } ], - "currentTab": 3 + "currentTab": 2 }, { "id": "25da4f0a48a8e7cd", "type": "tabs", - "dimension": 50, + "dimension": 49.83818770226537, "children": [ { "id": "2a2c61d4f4ddce12", @@ -250,12 +264,18 @@ "obsidian-excalidraw-plugin:New drawing": false } }, - "active": "cecd41bd1ed89a81", + "active": "64f0df5c090ab314", "lastOpenFiles": [ "Physics/Thermodynamics/Ideal Gas Law.md", + "Physics/Thermodynamics/Thermal Energy Transfer and Equilibrium.md", + "Physics/Thermodynamics/Kinetic Theory of Temperature and Pressure.md", + "Physics/Fluids/Fluid and Conservation Laws.md", + "Physics/Fluids/Fluids.md", + "Physics/Oscillations/Frequency and Period of SHM.md", + "Physics/Torque and Rotational Dynamics/Newton's Second Law in Rotational Form.md", + "Tasks.md", "Physics/Thermodynamics/Thermodynamics.md", "Physics/Thermodynamics/Thermal Expansion.md", - "Physics/Thermodynamics/Kinetic Theory of Temperature and Pressure.md", "Physics/Physics AP Exam Tips.md", "Literacy/Buzzwords.md", "Physics/Thermodynamics", @@ -272,13 +292,7 @@ "Physics/Torque and Rotational Dynamics/Torque.md", "Physics/Torque and Rotational Dynamics/Torque and Rotational Dynamics.md", "Physics/Torque and Rotational Dynamics/Rotational Kinematics.md", - "Physics/Torque and Rotational Dynamics/Newton's Second Law in Rotational Form.md", "Physics/Torque and Rotational Dynamics/Rotational Equilibrium and Newton's First Law in Rotational Form.md", - "Physics/Torque and Rotational Dynamics/Connecting Linear and Rotational Motion.md", - "Physics/Linear Momentum/Linear Momentum.md", - "Physics/Fluids/Internal Structure and Density.md", - "Physics/Fluids/Pressure.md", - "Physics/Force and Translational Dynamics/Force and Translational Dynamics.md", "Physics/Fluids", "Physics/Oscillations", "Physics/Torque and Rotational Dynamics", diff --git a/physics/Thermodynamics/Thermal Energy Transfer and Equilibrium.md b/physics/Thermodynamics/Thermal Energy Transfer and Equilibrium.md new file mode 100644 index 0000000..4539a08 --- /dev/null +++ b/physics/Thermodynamics/Thermal Energy Transfer and Equilibrium.md @@ -0,0 +1,7 @@ +[[Thermodynamics]] + +# Summary +* Thermal energy transfer: Conduction Convection Radiation +* At the atomic level higher energy particles are more likely to transfer energy than lower energy particles. +* Same temperature doesn't mean same thermal energy (specific heat capacity). +* Thermal equilibrium is when 2 objects share the same temperature and there is no net energy transfer. \ No newline at end of file