Thunderstorm Generator - Revision history

JonoThora: Deep science rewrite: suppressed tech pages with real patents & physics

2026-03-14T02:46:54Z

Deep science rewrite: suppressed tech pages with real patents & physics

JonoThora at 18:03, 20 February 2024

2024-02-20T18:03:58Z

← Older revision		Revision as of 11:03, 20 February 2024
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	\| <math>E = mc^2</math> \|\| Einstein's equation relating energy (E) to mass (m) and the speed of light (c). Relevant for understanding the potential energy release during atomic processes within the Thunderstorm Generator.		\| <math>E = mc^2</math> \|\| Einstein's equation relating energy (E) to mass (m) and the speed of light (c). Relevant for understanding the potential energy release during atomic processes within the Thunderstorm Generator.
	\|-		\|-
	\| <math>P = IV</math> \|\| The equation for electrical power (P) as the product of current (I) and voltage (V). Used to calculate the power input/output in electrical components such as the Plasma Injector and Plasmoid Generator.		\| <math>P = IV</math> \|\| The equation for electrical power (P) as the product of current (I) and voltage (V). Used to calculate the power input/output in electrical components such as the Plasma Injector and [[Plasmoid Generator]].
	\|-		\|-
	\| <math>F = ma</math> \|\| Newton's second law of motion, defining force (F) as the product of mass (m) and acceleration (a). Relevant for understanding the forces involved in the movement of gases and particles within the Thunderstorm Generator.		\| <math>F = ma</math> \|\| Newton's second law of motion, defining force (F) as the product of mass (m) and acceleration (a). Relevant for understanding the forces involved in the movement of gases and particles within the Thunderstorm Generator.
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	\| Combustion Chamber \|\| The chamber where HHO gas is ignited to revert it to liquid water (HzO).		\| Combustion Chamber \|\| The chamber where HHO gas is ignited to revert it to liquid water (HzO).
	\|-		\|-
	\| Plasmoid Generator \|\| Device responsible for generating and controlling plasmoids within the system.		\| [[Plasmoid Generator]] \|\| Device responsible for generating and controlling plasmoids within the system.
	\|-		\|-
	\| Plasma Injector \|\| Component that introduces plasma into the system to aid in the disassembly of water molecules.		\| Plasma Injector \|\| Component that introduces plasma into the system to aid in the disassembly of water molecules.
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	! Device !! Description !! Role		! Device !! Description !! Role
	\|-		\|-
	\| Plasmoid Generator Unit \|\| Generates plasmoids \|\| Initiates fusion reactions		\| [[Plasmoid Generator Unit]] \|\| Generates plasmoids \|\| Initiates fusion reactions
	\|-		\|-
	\| Injector Assembly \|\| Injects fuel into the chamber \|\| Facilitates combustion		\| Injector Assembly \|\| Injects fuel into the chamber \|\| Facilitates combustion

JonoThora: /* Math Symbols and Meanings */

2024-02-19T01:14:34Z

Math Symbols and Meanings

← Older revision		Revision as of 18:14, 18 February 2024
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	\|}		\|}

	== Math Symbols ~~and Meanings =~~=		= Math Symbols =

	==~~= Del Operator:~~ <math>\nabla</math> ===		== <math>\nabla</math> ==

			=== Del Operator ===
	The del operator, represented by <math>\nabla</math>, is a vector differential operator used in vector calculus. It is often used to denote various operations such as gradient, divergence, curl, and Laplacian.<syntaxhighlight lang="swift">		The del operator, represented by <math>\nabla</math>, is a vector differential operator used in vector calculus. It is often used to denote various operations such as gradient, divergence, curl, and Laplacian.<syntaxhighlight lang="swift">
	struct DelVectorOperator {		struct DelVectorOperator {
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	In the Thunderstorm Generator, understanding the divergence and curl of electric and magnetic fields within plasmoids is essential for optimizing plasma confinement and stability, which are critical for efficient energy generation.		In the Thunderstorm Generator, understanding the divergence and curl of electric and magnetic fields within plasmoids is essential for optimizing plasma confinement and stability, which are critical for efficient energy generation.

	==~~= Charge Density:~~ <math>\rho</math> ===		== <math>\rho</math> ==

			=== Charge Density ===
	The symbol <math>\rho</math> represents charge density, which is the amount of electric charge per unit volume at a point in space.<syntaxhighlight lang="swift">		The symbol <math>\rho</math> represents charge density, which is the amount of electric charge per unit volume at a point in space.<syntaxhighlight lang="swift">
	struct ChargeDensity {		struct ChargeDensity {
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	In the Thunderstorm Generator, understanding the charge density within plasmoids is essential for controlling plasma behavior and optimizing energy generation efficiency.		In the Thunderstorm Generator, understanding the charge density within plasmoids is essential for controlling plasma behavior and optimizing energy generation efficiency.

	==~~= Current Density:~~ <math>\mathbf{J}</math> ===		== <math>\mathbf{J}</math> ==

			=== Current Density ===
	The symbol <math>\mathbf{J}</math> represents current density, which is the amount of electric current flowing per unit area.<syntaxhighlight lang="swift">		The symbol <math>\mathbf{J}</math> represents current density, which is the amount of electric current flowing per unit area.<syntaxhighlight lang="swift">
	struct CurrentDensity {		struct CurrentDensity {
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	In the Thunderstorm Generator, controlling current density within plasmoids is essential for maintaining plasma stability and optimizing energy generation efficiency.		In the Thunderstorm Generator, controlling current density within plasmoids is essential for maintaining plasma stability and optimizing energy generation efficiency.

	==~~= Electric Field:~~ <math>\mathbf{E}</math> ===		== <math>\mathbf{E}</math> ==

			=== Electric Field ===
	The symbol <math>\mathbf{E}</math> represents the electric field, which is a vector field that describes the force experienced by a charged particle at a given point in space.<syntaxhighlight lang="swift">		The symbol <math>\mathbf{E}</math> represents the electric field, which is a vector field that describes the force experienced by a charged particle at a given point in space.<syntaxhighlight lang="swift">
	struct ElectricField {		struct ElectricField {
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	In the Thunderstorm Generator, controlling electric fields within plasmoids is essential for maintaining plasma stability and optimizing energy generation efficiency.		In the Thunderstorm Generator, controlling electric fields within plasmoids is essential for maintaining plasma stability and optimizing energy generation efficiency.

	==~~= Magnetic Field:~~ <math>\mathbf{B}</math> ===		== <math>\mathbf{B}</math> ==

			=== Magnetic Field ===
	The symbol <math>\mathbf{B}</math> represents the magnetic field, which is a vector field that describes the magnetic force experienced by a moving charged particle.<syntaxhighlight lang="swift">		The symbol <math>\mathbf{B}</math> represents the magnetic field, which is a vector field that describes the magnetic force experienced by a moving charged particle.<syntaxhighlight lang="swift">
	struct MagneticField {		struct MagneticField {
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	In the Thunderstorm Generator, controlling magnetic fields within plasmoids is essential for maintaining plasma stability and optimizing energy generation efficiency.		In the Thunderstorm Generator, controlling magnetic fields within plasmoids is essential for maintaining plasma stability and optimizing energy generation efficiency.

	==~~= Permittivity of Free Space:~~ <math>\varepsilon_0</math> ===		== <math>\varepsilon_0</math> ==

			=== Permittivity of Free Space ===
	The symbol <math>\varepsilon_0</math> represents the permittivity of free space, which is a physical constant that describes how an electric field affects and interacts with a medium.<syntaxhighlight lang="swift">		The symbol <math>\varepsilon_0</math> represents the permittivity of free space, which is a physical constant that describes how an electric field affects and interacts with a medium.<syntaxhighlight lang="swift">
	struct PermittivityOfFreeSpace {		struct PermittivityOfFreeSpace {
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	In the Thunderstorm Generator, understanding the permittivity of free space is essential for controlling electric fields within plasmoids and optimizing energy generation efficiency.		In the Thunderstorm Generator, understanding the permittivity of free space is essential for controlling electric fields within plasmoids and optimizing energy generation efficiency.

	==~~= Permeability of Free Space:~~ <math>\mu_0</math> ===		== <math>\mu_0</math> ==

			=== Permeability of Free Space ===
	The symbol <math>\mu_0</math> represents the permeability of free space, which is a physical constant that describes how a magnetic field affects and interacts with a medium.<syntaxhighlight lang="swift">		The symbol <math>\mu_0</math> represents the permeability of free space, which is a physical constant that describes how a magnetic field affects and interacts with a medium.<syntaxhighlight lang="swift">
	struct PermeabilityOfFreeSpace {		struct PermeabilityOfFreeSpace {

JonoThora: /* Del Operator: \nabla */

2024-02-19T01:09:30Z

Del Operator: \nabla

← Older revision		Revision as of 18:09, 18 February 2024
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	=== Del Operator: <math>\nabla</math> ===		=== Del Operator: <math>\nabla</math> ===
	The del operator, represented by <math>\nabla</math>, is a vector differential operator used in vector calculus. It is often used to denote various operations such as gradient, divergence, curl, and Laplacian.<syntaxhighlight lang="swift">		The del operator, represented by <math>\nabla</math>, is a vector differential operator used in vector calculus. It is often used to denote various operations such as gradient, divergence, curl, and Laplacian.<syntaxhighlight lang="swift">
	struct ~~VectorDelOperator~~ {		struct DelVectorOperator {
	var value: VectorField // If the DelOperator represents a Gradient or Curl		var value: VectorField // If the DelOperator represents a Gradient or Curl
	}		}
	struct ~~ScalarDelOperator~~ {		struct DelScalarOperator {
	var value: ScalarField // If the DelOperator represents a Divergence or Laplacian		var value: ScalarField // If the DelOperator represents a Divergence or Laplacian
	}		}

JonoThora: /* Del Operator: \nabla */

2024-02-19T01:08:54Z

Del Operator: \nabla

← Older revision		Revision as of 18:08, 18 February 2024
Line 80:		Line 80:
	=== Del Operator: <math>\nabla</math> ===		=== Del Operator: <math>\nabla</math> ===
	The del operator, represented by <math>\nabla</math>, is a vector differential operator used in vector calculus. It is often used to denote various operations such as gradient, divergence, curl, and Laplacian.<syntaxhighlight lang="swift">		The del operator, represented by <math>\nabla</math>, is a vector differential operator used in vector calculus. It is often used to denote various operations such as gradient, divergence, curl, and Laplacian.<syntaxhighlight lang="swift">
	struct ~~DelOperator~~ {		struct VectorDelOperator {
	var ~~gradient~~: VectorField // If the DelOperator represents a Gradient		var value: VectorField // If the DelOperator represents a Gradient or Curl
	~~var divergence: ScalarField // If the DelOperator represents a Divergence~~		}
	~~var curl: VectorField // If the DelOperator represents a Curl~~		struct ScalarDelOperator {
	var ~~laplacian~~: ScalarField // If the DelOperator represents a Laplacian		var value: ScalarField // If the DelOperator represents a Divergence or Laplacian
	}		}
	</syntaxhighlight>		</syntaxhighlight>

JonoThora: /* Formulas and Equations */

2024-02-19T01:06:59Z

Formulas and Equations

← Older revision		Revision as of 18:06, 18 February 2024
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	\| <math>m_e</math> \|\| Electron Mass \|\| <math>9.109 \times 10^{-31}</math> \|\| kg \|\| Mass of an electron, a tiny particle that orbits the nucleus of an atom. \|\| It's like weighing a single grain of sand. It tells us how heavy electrons are, the tiny building blocks of everything around us.		\| <math>m_e</math> \|\| Electron Mass \|\| <math>9.109 \times 10^{-31}</math> \|\| kg \|\| Mass of an electron, a tiny particle that orbits the nucleus of an atom. \|\| It's like weighing a single grain of sand. It tells us how heavy electrons are, the tiny building blocks of everything around us.
	\|-		\|-
	\| <math>e</math> \|\| Elementary Charge \|\| <math>1.602 \times 10^{-19}</math> \|\| C \|\| Amount of electric charge carried by a single electron. \|\| It's like measuring a single drop of water~~. This is the smallest amount of electric charge we know of, carried by tiny particles called electrons~~.		\| <math>e</math> \|\| Elementary Charge \|\| <math>1.602 \times 10^{-19}</math> \|\| C \|\| Amount of electric charge carried by a single electron. \|\| Imagine the smallest possible spark of electricity. That's what this number represents – the tiniest bit of electric charge we can imagine. It's like measuring a single drop of water in a vast ocean.
	\|-		\|-
	\| <math>k_B</math> \|\| Boltzmann Constant \|\| <math>1.381 \times 10^{-23}</math> \|\| J/K \|\| Relates the energy of particles to their temperature in a gas or plasma. \|\| It's like the rulebook for temperature. It helps scientists understand how hot or cold things are in the tiniest detail.		\| <math>k_B</math> \|\| Boltzmann Constant \|\| <math>1.381 \times 10^{-23}</math> \|\| J/K \|\| Relates the energy of particles to their temperature in a gas or plasma. \|\| It's like the rulebook for temperature. It helps scientists understand how hot or cold things are in the tiniest detail.

JonoThora: /* Formulas and Equations */

2024-02-19T01:02:30Z

Formulas and Equations

← Older revision		Revision as of 18:02, 18 February 2024
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	{\| class="wikitable"		{\| class="wikitable"
	\|+ Constant Values for Plasmoid Equations		\|+ Constant Values for Plasmoid Equations
	! Symbol !! Description !! Value !! Unit !! Explanation for a 12-Year-Old		! Symbol !! Description !! Value !! Unit !! Scientific Explanation !! Explanation for a 12-Year-Old
	\|-		\|-
	\| <math>\varepsilon_0</math> \|\| Permittivity of Free Space \|\| <math>8.854 \times 10^{-12}</math> \|\| F/m \|\| Imagine space as a giant swimming pool. This number tells us how gooey or watery space is for electric forces. A lower number means it's like swimming through thick, sticky space goo, while a higher number means it's like gliding through smooth, watery space.		\| <math>\varepsilon_0</math> \|\| Permittivity of Free Space \|\| <math>8.854 \times 10^{-12}</math> \|\| F/m \|\| Describes how electric fields spread out in empty space. \|\| Imagine space as a giant swimming pool. This number tells us how gooey or watery space is for electric forces. A lower number means it's like swimming through thick, sticky space goo, while a higher number means it's like gliding through smooth, watery space.
	\|-		\|-
	\| <math>\mu_0</math> \|\| Permeability of Free Space \|\| <math>4\pi \times 10^{-7}</math> \|\| T·m/A \|\| Picture space as a vast landscape. This number tells us how easily magnetic forces can move through space. A smaller number means it's like biking through thick, muddy space, while a larger number means it's like cruising through clear, open space.		\| <math>\mu_0</math> \|\| Permeability of Free Space \|\| <math>4\pi \times 10^{-7}</math> \|\| T·m/A \|\| Describes how magnetic fields behave in empty space. \|\| Picture space as a vast landscape. This number tells us how easily magnetic forces can move through space. A smaller number means it's like biking through thick, muddy space, while a larger number means it's like cruising through clear, open space.
	\|-		\|-
	\| <math>m_e</math> \|\| Electron Mass \|\| <math>9.109 \times 10^{-31}</math> \|\| kg \|\| ~~Think~~ of an electron as a tiny~~, invisible speck. This number tells us how heavy~~ that ~~speck is~~. It's like weighing a single grain of sand ~~on a~~ tiny ~~scale~~.		\| <math>m_e</math> \|\| Electron Mass \|\| <math>9.109 \times 10^{-31}</math> \|\| kg \|\| Mass of an electron, a tiny particle that orbits the nucleus of an atom. \|\| It's like weighing a single grain of sand. It tells us how heavy electrons are, the tiny building blocks of everything around us.
	\|-		\|-
	\| <math>e</math> \|\| Elementary Charge \|\| <math>1.602 \times 10^{-19}</math> \|\| C \|\| ~~Imagine the smallest possible spark of electricity. That's what this number represents – the tiniest bit~~ of electric charge ~~we can imagine~~. It's like measuring a single drop of water ~~in a vast ocean~~.		\| <math>e</math> \|\| Elementary Charge \|\| <math>1.602 \times 10^{-19}</math> \|\| C \|\| Amount of electric charge carried by a single electron. \|\| It's like measuring a single drop of water. This is the smallest amount of electric charge we know of, carried by tiny particles called electrons.
	\|-		\|-
	\| <math>k_B</math> \|\| Boltzmann Constant \|\| <math>1.381 \times 10^{-23}</math> \|\| J/K \|\| ~~Think~~ of ~~this as~~ the rulebook for ~~how~~ temperature ~~works in the universe~~. It helps scientists understand how hot or cold things are in the tiniest detail~~. It's like the secret code that unlocks the mysteries of temperature~~.		\| <math>k_B</math> \|\| Boltzmann Constant \|\| <math>1.381 \times 10^{-23}</math> \|\| J/K \|\| Relates the energy of particles to their temperature in a gas or plasma. \|\| It's like the rulebook for temperature. It helps scientists understand how hot or cold things are in the tiniest detail.
	\|-		\|-
	\| <math>c</math> \|\| Speed of Light in Vacuum \|\| <math>299,792,458</math> \|\| m/s \|\| ~~Picture racing the fastest car~~ in ~~the universe. Light travels at this incredible speed through~~ space. It's like ~~zooming across~~ the ~~galaxy in the blink of an eye~~.		\| <math>c</math> \|\| Speed of Light in Vacuum \|\| <math>299,792,458</math> \|\| m/s \|\| How fast light travels in empty space. \|\| It's like the speed record for light. This is how fast light travels through space, which is incredibly fast!
	\|-		\|-
	\| <math>h</math> \|\| Planck Constant \|\| <math>6.626 \times 10^{-34}</math> \|\| J·s \|\| ~~This is~~ the ~~key~~ to ~~understanding~~ how light and energy ~~dance together in the universe~~. It's like ~~the magic number~~ that unlocks the secrets of energy ~~and light. It's the secret ingredient that makes~~ the universe ~~tick~~.		\| <math>h</math> \|\| Planck Constant \|\| <math>6.626 \times 10^{-34}</math> \|\| J·s \|\| Relates the energy of a photon to its frequency, helping to understand light and energy. \|\| This number helps us understand how light and energy are related. It's like a special key that unlocks the secrets of light and energy in the universe.
	\|}		\|}
	{\| class="wikitable"		{\| class="wikitable"

JonoThora: /* Formulas and Equations */

2024-02-19T00:56:42Z

Formulas and Equations

← Older revision		Revision as of 17:56, 18 February 2024
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	! Symbol !! Description !! Value !! Unit !! Explanation for a 12-Year-Old		! Symbol !! Description !! Value !! Unit !! Explanation for a 12-Year-Old
	\|-		\|-
	\| <math>\varepsilon_0</math> \|\| Permittivity of Free Space \|\| <math>8.854 \times 10^{-12}</math> \|\| F/m \|\| Imagine space as a giant ~~playground for electric forces~~. This number tells us how ~~spread out those~~ forces ~~can be~~. A ~~smaller~~ number means ~~the forces stick closer together~~.		\| <math>\varepsilon_0</math> \|\| Permittivity of Free Space \|\| <math>8.854 \times 10^{-12}</math> \|\| F/m \|\| Imagine space as a giant swimming pool. This number tells us how gooey or watery space is for electric forces. A lower number means it's like swimming through thick, sticky space goo, while a higher number means it's like gliding through smooth, watery space.
	\|-		\|-
	\| <math>\mu_0</math> \|\| Permeability of Free Space \|\| <math>4\pi \times 10^{-7}</math> \|\| T·m/A \|\| ~~Think of~~ space as a ~~big magnetic field~~. This number ~~helps~~ us ~~understand~~ how ~~freely that field flows~~ through space. A smaller number means ~~the field is more tightly packed~~.		\| <math>\mu_0</math> \|\| Permeability of Free Space \|\| <math>4\pi \times 10^{-7}</math> \|\| T·m/A \|\| Picture space as a vast landscape. This number tells us how easily magnetic forces can move through space. A smaller number means it's like biking through thick, muddy space, while a larger number means it's like cruising through clear, open space.
	\|-		\|-
	\| <math>m_e</math> \|\| Electron Mass \|\| <math>9.109 \times 10^{-31}</math> \|\| kg \|\| ~~Picture~~ an electron as a tiny, invisible speck. This number tells us how heavy that speck is. It's like weighing a single grain of sand.		\| <math>m_e</math> \|\| Electron Mass \|\| <math>9.109 \times 10^{-31}</math> \|\| kg \|\| Think of an electron as a tiny, invisible speck. This number tells us how heavy that speck is. It's like weighing a single grain of sand on a tiny scale.
	\|-		\|-
	\| <math>e</math> \|\| Elementary Charge \|\| <math>1.602 \times 10^{-19}</math> \|\| C \|\| Imagine the smallest possible spark of electricity. That's what this number represents – the tiniest bit of electric charge we can imagine. It's like measuring a single drop of water.		\| <math>e</math> \|\| Elementary Charge \|\| <math>1.602 \times 10^{-19}</math> \|\| C \|\| Imagine the smallest possible spark of electricity. That's what this number represents – the tiniest bit of electric charge we can imagine. It's like measuring a single drop of water in a vast ocean.
	\|-		\|-
	\| <math>k_B</math> \|\| Boltzmann Constant \|\| <math>1.381 \times 10^{-23}</math> \|\| J/K \|\| Think of this as the rulebook for how temperature works. It helps scientists understand how hot or cold things are in the tiniest detail. It's like the secret code that unlocks the mysteries of temperature.		\| <math>k_B</math> \|\| Boltzmann Constant \|\| <math>1.381 \times 10^{-23}</math> \|\| J/K \|\| Think of this as the rulebook for how temperature works in the universe. It helps scientists understand how hot or cold things are in the tiniest detail. It's like the secret code that unlocks the mysteries of temperature.
	\|-		\|-
	\| <math>c</math> \|\| Speed of Light in Vacuum \|\| <math>299,792,458</math> \|\| m/s \|\| ~~Imagine~~ racing the fastest car in the universe. Light travels at this incredible speed through space. It's like zooming across the galaxy in the blink of an eye.		\| <math>c</math> \|\| Speed of Light in Vacuum \|\| <math>299,792,458</math> \|\| m/s \|\| Picture racing the fastest car in the universe. Light travels at this incredible speed through space. It's like zooming across the galaxy in the blink of an eye.
	\|-		\|-
	\| <math>h</math> \|\| Planck Constant \|\| <math>6.626 \times 10^{-34}</math> \|\| J·s \|\| This is the key to understanding how light and energy dance together. It's like the magic number that unlocks the secrets of ~~the universe's~~ energy. It's the secret ingredient that makes the universe tick.		\| <math>h</math> \|\| Planck Constant \|\| <math>6.626 \times 10^{-34}</math> \|\| J·s \|\| This is the key to understanding how light and energy dance together in the universe. It's like the magic number that unlocks the secrets of energy and light. It's the secret ingredient that makes the universe tick.
	\|}		\|}
	{\| class="wikitable"		{\| class="wikitable"

JonoThora: /* Formulas and Equations */

2024-02-19T00:53:01Z

Formulas and Equations

← Older revision		Revision as of 17:53, 18 February 2024
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	! Symbol !! Description !! Value !! Unit !! Explanation for a 12-Year-Old		! Symbol !! Description !! Value !! Unit !! Explanation for a 12-Year-Old
	\|-		\|-
	\| <math>\varepsilon_0</math> \|\| Permittivity of Free Space \|\| <math>8.854 \times 10^{-12}</math> \|\| F/m \|\| ~~Describes how easy it is~~ for electric ~~fields to~~ spread out ~~in empty space~~.		\| <math>\varepsilon_0</math> \|\| Permittivity of Free Space \|\| <math>8.854 \times 10^{-12}</math> \|\| F/m \|\| Imagine space as a giant playground for electric forces. This number tells us how spread out those forces can be. A smaller number means the forces stick closer together.
	\|-		\|-
	\| <math>\mu_0</math> \|\| Permeability of Free Space \|\| <math>4\pi \times 10^{-7}</math> \|\| T·m/A \|\| ~~Describes~~ how ~~magnetic fields behave in empty~~ space.		\| <math>\mu_0</math> \|\| Permeability of Free Space \|\| <math>4\pi \times 10^{-7}</math> \|\| T·m/A \|\| Think of space as a big magnetic field. This number helps us understand how freely that field flows through space. A smaller number means the field is more tightly packed.
	\|-		\|-
	\| <math>m_e</math> \|\| Electron Mass \|\| <math>9.109 \times 10^{-31}</math> \|\| kg \|\| ~~Mass of~~ an electron, a tiny ~~particle~~ that ~~orbits the nucleus~~ of ~~an atom~~.		\| <math>m_e</math> \|\| Electron Mass \|\| <math>9.109 \times 10^{-31}</math> \|\| kg \|\| Picture an electron as a tiny, invisible speck. This number tells us how heavy that speck is. It's like weighing a single grain of sand.
	\|-		\|-
	\| <math>e</math> \|\| Elementary Charge \|\| <math>1.602 \times 10^{-19}</math> \|\| C \|\| ~~Amount~~ of electric charge ~~carried by~~ a single ~~electron~~.		\| <math>e</math> \|\| Elementary Charge \|\| <math>1.602 \times 10^{-19}</math> \|\| C \|\| Imagine the smallest possible spark of electricity. That's what this number represents – the tiniest bit of electric charge we can imagine. It's like measuring a single drop of water.
	\|-		\|-
	\| <math>k_B</math> \|\| Boltzmann Constant \|\| <math>1.381 \times 10^{-23}</math> \|\| J/K \|\| ~~Relates~~ the ~~energy~~ of ~~particles to their~~ temperature ~~in a gas or plasma~~.		\| <math>k_B</math> \|\| Boltzmann Constant \|\| <math>1.381 \times 10^{-23}</math> \|\| J/K \|\| Think of this as the rulebook for how temperature works. It helps scientists understand how hot or cold things are in the tiniest detail. It's like the secret code that unlocks the mysteries of temperature.
	\|-		\|-
	\| <math>c</math> \|\| Speed of Light in Vacuum \|\| <math>299,792,458</math> \|\| m/s \|\| ~~How fast light~~ travels in ~~empty space~~.		\| <math>c</math> \|\| Speed of Light in Vacuum \|\| <math>299,792,458</math> \|\| m/s \|\| Imagine racing the fastest car in the universe. Light travels at this incredible speed through space. It's like zooming across the galaxy in the blink of an eye.
	\|-		\|-
	\| <math>h</math> \|\| Planck Constant \|\| <math>6.626 \times 10^{-34}</math> \|\| J·s \|\| ~~Relates~~ the ~~energy of a photon~~ to ~~its frequency, helping to understand~~ light and energy.		\| <math>h</math> \|\| Planck Constant \|\| <math>6.626 \times 10^{-34}</math> \|\| J·s \|\| This is the key to understanding how light and energy dance together. It's like the magic number that unlocks the secrets of the universe's energy. It's the secret ingredient that makes the universe tick.
	\|}		\|}
	{\| class="wikitable"		{\| class="wikitable"

JonoThora: /* Formulas and Equations */

2024-02-19T00:50:10Z

Formulas and Equations

← Older revision		Revision as of 17:50, 18 February 2024
Line 40:		Line 40:
	{\| class="wikitable"		{\| class="wikitable"
	\|+ Constant Values for Plasmoid Equations		\|+ Constant Values for Plasmoid Equations
	! Symbol !! Description !! Value !! Unit		! Symbol !! Description !! Value !! Unit !! Explanation for a 12-Year-Old
	\|-		\|-
	\| <math>\varepsilon_0</math> \|\| Permittivity of Free Space \|\| <math>8.854 \times 10^{-12}</math> \|\| F/m		\| <math>\varepsilon_0</math> \|\| Permittivity of Free Space \|\| <math>8.854 \times 10^{-12}</math> \|\| F/m \|\| Describes how easy it is for electric fields to spread out in empty space.
	\|-		\|-
	\| <math>\mu_0</math> \|\| Permeability of Free Space \|\| <math>4\pi \times 10^{-7}</math> \|\| T·m/A		\| <math>\mu_0</math> \|\| Permeability of Free Space \|\| <math>4\pi \times 10^{-7}</math> \|\| T·m/A \|\| Describes how magnetic fields behave in empty space.
	\|-		\|-
	\| <math>m_e</math> \|\| Electron Mass \|\| <math>9.109 \times 10^{-31}</math> \|\| kg		\| <math>m_e</math> \|\| Electron Mass \|\| <math>9.109 \times 10^{-31}</math> \|\| kg \|\| Mass of an electron, a tiny particle that orbits the nucleus of an atom.
	\|-		\|-
	\| <math>e</math> \|\| Elementary Charge \|\| <math>1.602 \times 10^{-19}</math> \|\| C		\| <math>e</math> \|\| Elementary Charge \|\| <math>1.602 \times 10^{-19}</math> \|\| C \|\| Amount of electric charge carried by a single electron.
	\|-		\|-
	\| <math>k_B</math> \|\| Boltzmann Constant \|\| <math>1.381 \times 10^{-23}</math> \|\| J/K		\| <math>k_B</math> \|\| Boltzmann Constant \|\| <math>1.381 \times 10^{-23}</math> \|\| J/K \|\| Relates the energy of particles to their temperature in a gas or plasma.
	\|-		\|-
	\| <math>c</math> \|\| Speed of Light in Vacuum \|\| <math>299,792,458</math> \|\| m/s		\| <math>c</math> \|\| Speed of Light in Vacuum \|\| <math>299,792,458</math> \|\| m/s \|\| How fast light travels in empty space.
	\|-		\|-
	\| <math>h</math> \|\| Planck Constant \|\| <math>6.626 \times 10^{-34}</math> \|\| J·s		\| <math>h</math> \|\| Planck Constant \|\| <math>6.626 \times 10^{-34}</math> \|\| J·s \|\| Relates the energy of a photon to its frequency, helping to understand light and energy.
	\|}		\|}
	{\| class="wikitable"		{\| class="wikitable"