Physics SL
Physics SL
5
Chapters
329
Notes
Theme A - Space, Time & Motion
Theme A - Space, Time & Motion
Theme B - The Particulate Nature Of Matter
Theme B - The Particulate Nature Of Matter
Discover Matter's Forms: Solids, Liquids & Gases in Physics
Discovering Particles: Evolution of Material Structure Language
Phases Of Matter: Understanding Solid, Liquid, And Gas
Understanding Temperature: From Historical Views To Modern Scales
Internal Energy: Exploring Phases & Particle Movement
Linking KineEnergy & Temperature: Understanding The Boltzmann Constant
Unraveling Energy Transfers: Temperature & Phase Changes
Understanding Specific Heat Capacity: Water vs. Copper
Understanding Specific Latent Heat: From Ice To Vapor
Thermal Energy Transfer: Conduction, Convection & Radiation
Understanding Thermal & Electrical Conduction: A Deep Dive
Understanding Thermal Conductivity: Engineering Design Insights
Unveiling Convection: The Natural Powerhouse Behind Fluid Movement
Sea Breezes: Understanding Day-Night Ocean Wind Changes
Discover Earth's Convection: Shaping Continents Over Time
Understanding Why Winds Blow & The Magic Of Convection
Thermal Radiation & Its Impact on Everyday Objects
Black-Body Radiation: Unraveling The Secrets Of Thermal Energy
Unlocking Black Body Radiation: How Spectrum Varies With Temperature
Unveiling Wien's Displacement Law: The Key To Black-Body Emission
Unlocking the Stefan–Boltzmann Law: The Power of Black Body Radiation
Crucial Astronomy Laws: Stefan–Boltzmann & Wien’s Displacement
Unlocking Stellar Secrets: Apparent Brightness & Galaxy Discoveries
Understanding Earth's Atmosphere: The Vital 0.04% Impact
Unlocking Emissivity: Grey Bodies Vs. Black Bodies Explained
Unlocking The Mysteries: The Solar Constant & Earth's Energy Balance
Unlocking Earth's Energy Balance: Surface & Atmosphere Dynamics
Understanding The Greenhouse Effect: Earth Vs. Moon Temperatures
Why Greenhouse Gases Absorb Energy: The Science Unraveled
Earth's Climate Balance: Unveiling The Secrets Of Surface Temperature
Global Warming: The Undeniable Climate Shift We Face
Understanding The Origin Of Gas Pressure In The Atmosphere
Understanding Pressure: Solids, Liquids, and Gases Explained
Understanding Avogadro's Number & The Significance Of The Mole
Gas Laws: A Deep Dive Into Boyle's, Charles's, And Avogadro's Discoveries
Unlocking the Secrets: A Deep Dive into Gas Molecules and Brownian Motion
Kinetic Model Of Ideal Gas: A Comprehensive Exploration
Linking Temperature to Kinetic Energy: Dive into Ideal Gas Theory
Understanding Real vs. Ideal Gases: Key Insights
Understanding Gas Behavior: Real vs. Ideal Interactions
Thermodynamics Basics: Systems, Surroundings, and Energy Transfer
Unlocking The First Law of Thermodynamics: Insights & Examples
Pressure-Volume Diagrams: Visualizing Gas Work & Processes
Unlocking Gas Behavior: Dive Into P–V Diagrams & Thermodynamics
Isobaric Change: Delve Into Thermodynamics & Gas Laws
Isovolumetric Change: Understanding Constant Gas Volume
Understanding Isothermal Changes: The Basics Explained
Understanding Adiabatic Changes: Insight & Implications
Unlocking The Secrets Of Heat Engines: A Deep Dive
Understanding Refrigerators & Heat Pumps: Energy Transfers Explained
Mastering Thermodynamics: Fun With Physics!
Entropy & Thermodynamics: The Macroscopic Viewpoint Explained
Understanding Entropy: From Microscopic Interpretation To Real-World Implications
Discovering Electrification: From Ancient Greeks To Modern Science
Understanding Metal Conduction: From Atoms To Electrons
Understanding Electric Current: From Electrons To Amperes
Understanding Potential Difference & Its Role in Electrical Circuits
Unraveling The Multifaceted Effects Of Electric Current
Electromotive Force (Emf): Understanding Energy Transfers In Circuits
Understanding Electrical Power: From Basic Concepts To Advanced Applications
Mastering Current & Potential Difference: Analogue Vs. Digital Meters
Understanding Electrical Resistance: From Electron Interactions to Everyday Applications
Understanding Ohm’s Law: From History To Practical Applications
Understanding Non-Ohmic Behavior: Beyond Ohm's Law
Unlocking Resistivity: Key Insights & Practical Explorations
Mastering Resistor Combinations: Series & Parallel Explained
Explore Variable Resistors: How They Adjust To Your Needs
Unraveling Thermistors: NTC's Unique Temperature-Resistance Relation
Unlocking The Secrets Of Light-Dependent Resistors
Understanding Variable Resistors & Potentiometers: A Deep Dive
Master Heating Equations & Energy Conversion Calculations
Unlocking The Secrets Of Electric Cells & Batteries: DC Devices Explored
Chemical Vs. Solar Cells: A Deep Dive Into Energy Sources
Internal Resistance & EMF: Decoding Cell Dynamics
Power Matching in Cells: Maximizing Circuit Efficiency
Theme C - Wave Behaviour
Theme C - Wave Behaviour
Theme D - Fields
Theme D - Fields
Theme E - Nuclear & Quantum Physics
Theme E - Nuclear & Quantum Physics
IB Resources
Theme B - The Particulate Nature Of Matter
Physics SL
Physics SL

Theme B - The Particulate Nature Of Matter

Understanding Metal Conduction: From Atoms To Electrons

Word Count Emoji
649 words
Reading Time Emoji
4 mins read
Updated at Emoji
Last edited on 5th Nov 2024

Table of content

Conduction in metals - the rock band of atoms 🎸

  • Metal Atoms & Metallic Bonds

    • Imagine a dance floor, with atoms dancing in a regular pattern. This is called a lattice arrangement.
    • Each dancer (atom) gives away an electron to a "common electron pool" or the sea of electrons.
  • Positive Vibes Only

    • Since each atom loses an electron, what remains are positive ions.
    • And guess what? They don’t stand still! Even if it's super cold (but above absolute zero), these ions are shaking it off like they're at a Taylor Swift concert.
  • The Electrifying Sea

    • This sea isn't water, but of free electrons or conduction electrons. They're the reason we have electricity!
    • Electrical Resistance: Think of it as a dance where electrons pass on their energy to the ions. This handover causes resistance.
  • With & Without Electric Fields

    • No electric field? Electrons play a game of tag with ions in the lattice. Super random.
    • Electric field on? Electrons get a push! They drift in the opposite direction to the field.
    • Real World Example: Ever seen ants on a moving walkway? They might scramble around, but there's a general direction they're headed. Just like our electrons!
  • Special Mention - The VIP Wires

    • Wires in circuits, especially those made of copper, are like VIP lanes on a highway. Little to no resistance! So, they're treated as perfect conductors.

Conduction in gases & liquids - the electro cocktail party 🥤

  • Just like in metals, gases and liquids can conduct electricity if they have free ions due to their bonding.
  • Apply an electric field and watch the ions dance
    • Positive ions move with the field.
    • Negative ions groove in the opposite direction.
    • When they move, the party's electric - we see an electric current!

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IB Resources
Theme B - The Particulate Nature Of Matter
Physics SL
Physics SL

Theme B - The Particulate Nature Of Matter

Understanding Metal Conduction: From Atoms To Electrons

Word Count Emoji
649 words
Reading Time Emoji
4 mins read
Updated at Emoji
Last edited on 5th Nov 2024

Table of content

Conduction in metals - the rock band of atoms 🎸

  • Metal Atoms & Metallic Bonds

    • Imagine a dance floor, with atoms dancing in a regular pattern. This is called a lattice arrangement.
    • Each dancer (atom) gives away an electron to a "common electron pool" or the sea of electrons.
  • Positive Vibes Only

    • Since each atom loses an electron, what remains are positive ions.
    • And guess what? They don’t stand still! Even if it's super cold (but above absolute zero), these ions are shaking it off like they're at a Taylor Swift concert.
  • The Electrifying Sea

    • This sea isn't water, but of free electrons or conduction electrons. They're the reason we have electricity!
    • Electrical Resistance: Think of it as a dance where electrons pass on their energy to the ions. This handover causes resistance.
  • With & Without Electric Fields

    • No electric field? Electrons play a game of tag with ions in the lattice. Super random.
    • Electric field on? Electrons get a push! They drift in the opposite direction to the field.
    • Real World Example: Ever seen ants on a moving walkway? They might scramble around, but there's a general direction they're headed. Just like our electrons!
  • Special Mention - The VIP Wires

    • Wires in circuits, especially those made of copper, are like VIP lanes on a highway. Little to no resistance! So, they're treated as perfect conductors.

Conduction in gases & liquids - the electro cocktail party 🥤

  • Just like in metals, gases and liquids can conduct electricity if they have free ions due to their bonding.
  • Apply an electric field and watch the ions dance
    • Positive ions move with the field.
    • Negative ions groove in the opposite direction.
    • When they move, the party's electric - we see an electric current!

Unlock the Full Content! File Is Locked Emoji

Dive deeper and gain exclusive access to premium files of Physics SL. Subscribe now and get closer to that 45 🌟

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