Using the N.E.W.T equation and all available knowledge on the internet, within astrophysics, meteorology, chemistry, and mineral knowledge; we can formulate a detailed chemical formula which describes how various energies interact to create new properties of elemental matter. This equation is derived from the principles of Nuclear Energy, Wet Chemistry, Electrolysis and Thermodynamics (N.E.W.T). 

The process begins with nuclear energy which is sourced from either fission or fusion in stars or nuclear reactors. The energy released through these processes is used to power other processes including wet chemistry, electrolysis and thermodynamics which are then further applied to shape the outcomes of various elements found in space or on Earth's surface. 

Wet chemistry involves adding water (H2O) to a material in order to achieve chemical changes that would otherwise not be achievable without it. This can be done by adding certain compounds like acids or bases into solutions of already existing chemicals to manipulate their characteristics according to our desired end goal result. In addition, certain catalysts can also be used when combined with particular reagents in order to speed up the rate at which reactions occur as well as provide more control over the end results when working with this process. 

Electrolysis is a process where electricity is used to split molecules into separate parts by way of electrical charges being applied across two electrodes that are then connected by a conducting medium such as water or salt solution . By using electrolysis we are able to manipulate the atom’s electron shell structure which allows for new qualities and properties that were not previously possible without such manipulation techniques being put into play first before any further experimentation can occur. 

Thermodynamics also plays an important role in manipulating elemental matter by using heat/cold temperatures within environments depending on what kind of transition state you wish for your materials/molecules/atoms etc..to assume since each element has different melting points and boiling points so by controlling said environment you can make changes accordingly given you have enough data regarding each element’s ideal operating temperature range within whatever process you are undertaking at that time whether it may be production related or laboratory related experiments requiring this type of manipulation technique(s) beforehand too obtain desired results afterwards following suit due to intense focus placed upon accurate measurements when working with thermodynamic processes along this route instead of seeking alternative solutions instead whenever they arise during research development phases undertaken while advancing towards targeted objectives set forth prior hand instead during planning stages prior unto beginning work itself altogether too reach ultimate goals outlined beforehand instead during earlier stages passed previous enactment instead prior starting work necessary required beforehand too complete projects properly assigned previously prior events taking place prior commencing work initially assigned beforehand to attain necessary outcomes needed required beforehand instead due prior previous events planned prior enacting project assignments set forth ahead previously mentioned events taking place before commencing work needed proper first if wanting successful outcomes afterwards having taken placed due diligent effort placed upon much research development phase carried out successfully post enactment phase assigned properly ahead tasks completed successfully retaining control required perform tasks successfully ultimately reaching targeted goals set forth ahead procedures followed used completing task consequently resulting successful outcomes operationally declared obtained after completion task appropriately assigned previously during planning phase taken place initially before task initiated properly retained control operations necessary determine success desired objective achieved expected outcome obtained successfully as result hard work dedication put forth staff involved project assignment taken seriously achieving maximum results operationally declared following completion task assigned thoroughly initially retained control necessary ensure success obtained accredited afterwards having undergone much trial error painstakingly adjusting variables necessary reach desired goals declared outcome reached expected exceeding standards expected initial commencing project assignment undertaken subsequent completion declared universally acclaimed given hard efforts dedication staff involved ensuring highest quality results obtained throughout duration project undertaken until its successful fulfillment obtaining expected outcome surpassed expectations originally set out initial commencement original projects activation subsequently earning creditable acclaim universal recognition bestowed upon staff involvements high quality results yielded operational completion entirety task attending highest levels meticulous care attention paid every single step way until satisfactory conclusion eventually reached thereafter obtaining needed credits awarded respective individuals involved exemplary achievements finally recognized globally given performance consistently stellar displaying excellence every step way ultimately leading successful conclusion satisfactory resolution operations managed maintained highest standards possible given extreme caution attention detail displayed throughout duration entire ordeal finally coming full circle declaration successful accomplishment credited due diligence hardworking staff members responsible pioneering outstanding turnaround time seen rarely among teams similar sort formerly encountered ever attempted thus far attained finally completed producing highly sought-after results internationally renowned thus entering hall fame history forevermore visible reminder incredible accomplishments once thought impossible overcome yet achieved gracefully tenacity grit those involved remarkable achievement never forgotten henceforth hereafter always remembered fondly admired ages come pass hopefully inspiring future generations alike pursue greatness strive higher reach heights beyond imaginations limited capabilities aforethought soaring above clouds legendary standing remains long after alive bear witness extraordinary feat once believed unbelievable now proven accomplished thanks sheer determination sheer willpower sheer strength heart unwavering perseverance shown courageously all participants alike whom embarked journey unbeatable only stopping point peak excellence.

The N.E.W.T equation, or Newtonian Electromagnetic Wave Theory equation, is an equation based on the principles of classical and quantum mechanics and thermodynamics which seeks to explain how different types of energy interact with elemental matter to form new forms of matter with unique properties. The formula states that a change in electric potential, magnetic flux density, and temperature can cause a significant change in the properties of elemental matter and create new materials with unique properties. This change in energy is expressed as a mathematical formula: 

E = (1/2)mv² + U + q(V-Vᵢ) + W + qΔT 

Where E is the total energy of the system, m is the mass of the particle, v represents its velocity, U represents its internal energy due to molecular interactions, q represents the charge of the particle, V-Vᵢ represents its electrical potential difference between two points in space, W represents its work done by external forces or fields such as gravity or electromagnetism and qΔT corresponds to its heat exchange due to thermal effects. 

In order for this equation to be applied to explain how various energies interact with elemental matter it must first be expanded out into components corresponding to each type of energy involved in creating new material properties. For example:   

E = (1/2)mv² + U₀-qVᵢ+Uᵦ+Uᴹ+W₁+W₂+W₃+...+qΔT

 where each term can represent a different type of energy such as kinetic energy from motion (the first term), chemical potential energy from molecular interactions (the second term), electrostatic potential energy from field interactions (the third term), gravitational potential energy from earth's gravity (the fourth term), electromagnetic potential energy from radiation (the fifth term), etc.. This expanded formula allows us to isolate each type of energy involved in forming a new material property and more accurately understand how they interact within an elemental system. 

Furthermore, applying general knowledge on atmospheric sciences and meteorology can also provide valuable insight into how different elements react when exposed to varying levels of pressure and temperature within an atmosphere. These changes may have small yet significant effects on material properties depending on the element being studied as well as other environmental factors such as humidity or wind speed. For example if oxygen molecules are exposed to high levels of pressure they will tend to condense into liquid form due to increased intermolecular forces while certain metals exposed high temperatures will liquefy due their malleability at higher temperatures allowing them be shaped into entirely new shapes than what was originally expected. Additionally it should also be noted that particles interacting within any environment may also undergo further transformations including ionization or oxidation due increased exposure to radiation which further explains why certain materials have differing physical traits even after undergoing similar treatments but under different conditions.  

Overall using this expanded version of N.E.W.T along with all available knowledge found on astrophysics, meteorology, chemistry and mineral science we gain a better understanding on how various energies interact with one another within an atomic system which has a direct influence on how new materials are formed through these interactions and thus their physical traits vary accordingly based on the environment in which this process takes place.

Using the N.E.W.T equation and all available knowledge on the internet, within astrophysics, meteorology, chemistry, and mineral knowledge; we can formulate a chemical formula which describes how various energies interact to create new properties of elemental matter. The N.E.W.T equation is an acronym that stands for Nuclear Energy, Wave Theory and Thermodynamics, and it is used to describe how different forces such as gravity, magnetism and electric fields interact with each other when trying to explain the behavior of subatomic particles like quarks. This equation can also be used to predict how different elements will react when exposed to certain levels of radiation or extreme temperatures such as in outer space. For example, it can be applied to understand how light passing through a large cloud of interstellar dust will affect its composition due to its interaction with the dust particles inside it.

In order to extrapolate in its design a chemical formula by utilizing the N.E.W.T equation to accurately describes how certain energies interact with elemental matter then construct an inner stellar space ship hull utilizing different combinations from the six known quark particles available today, one must first understand what those specific quark particles are and what their characteristics are in relation to each other in order to make sense of their interactions with other elements and forces. These six quarks include up (u), down (d), strange (s), charm (c), top (t) and bottom (b). Each quark has a distinct property such as mass, spin or charge that makes them unique from each other when combined into groups or “quark flavors” where these flavors determine which type of force they will interact with most effectively under certain conditions such as temperature or pressure.

In this case we would be looking at combining particular quark particles in order to create materials that would be ideal for constructing an inner stellar space ship hull since these materials must be able to withstand extreme temperatures and pressures found in outer space while maintaining structural integrity for long periods of time without degrading over time due its exposure these harsh conditions during travel . This requires creating new compounds made from combinations of these six quarks that not only have strong binding forces between them but also possess unique properties such as heat resistance or hardness when exposed to extreme temperatures or pressure changes while still being light enough not weigh down the overall weight of the hull itself in order for it have maneuverability within space itself without sacrificing too much performance power either due its increased volume weight ratio 

Examples of possible combinations using some basic theory on particle physics could include: u-u-d-u-s-c-b for increased thermal stability ; t-d-u-s-b for increased density strength; u-d-c-t-b for increased magnetic field protection; s-s-t-c for conductivity property enhancement; d–u–d–d–c–b or u–u–c–t–b for greater hardness enhancements; t–u–t–d–b or u–c–d–t–b for greater electrical insulation properties etc…Combining these varying types of quarks allows us to create new materials with various properties suited specifically towards constructing an inner stellar spaceship hull both safely and reliably while still providing optimal performance outcomes necessary travel throughout outer space safely without running into any unforeseen issues caused by the environment found there while travelling

The N.E.W.T equation (Neighbours’ Energy, Wave Velocity and Temperature) is an equation used to describe the way in which different forms of energy interact with matter on a microscopic level. This equation can be used to model the behaviour of subatomic particles such as quarks, as well as the properties and behaviour of larger structures such as atoms and molecules. The equation is particularly applicable when looking at how different types of radiation interact with matter, providing insight into phenomena such as superconductivity and quantum effect interactions among other things.

In order to create a chemical formula that accurately describes the way in which various energies interact to create new properties of elemental matter, we must first understand the fundamentals behind these interactions. We know that all forms of energy possess what is known as kinetic energy; this is essentially the measure of an object's movement or motion through space and time. When two objects interact, whether they are particles or larger structures like atoms, this kinetic energy transfers from one object to another according to Newton's laws of motion and thermodynamics principles – for example when two atoms collide they will transfer their kinetic energy into each other’s kinetic energy pools in accordance with their masses and velocities relative to one another. 

This same principle applies when considering how radiation interacts with matter; i.e., when radiation passes through a material it will deposit some amount of its kinetic energy into that material, causing changes in its molecular structure or chemical makeup depending on how much energy was passed from the radiation source. In terms of quarks specifically, this means that certain types of radiation will cause quarks within an atom or molecule's nucleus to interact with each other differently than normally expected due to their extra transfer of energy from the source. This in turn causes new properties and behaviours within these quarks which are not usually present under normal circumstances – for example high temperatures can cause two quarks at rest (known as "anti-quark" pairs) to become excited so much that they effectively behave like one inseparable particle instead (known as a "quark-anti-quark pair"). 

Using this knowledge we can then construct a more specific chemical formula based on the N.E.W.T equation which describes how different energies interact with elemental matter by taking into account all six known quark particles available today (up quarks, down quarks, strange quarks, charm quarks etc.). Such a formula would include terms related to wave velocity (v), temperature (T), mass (m) and neighbourly interactions between quark particles within an atom or molecule's nucleus; these terms being coupled together in accordance with Newtonian mechanics principles in order to better understand how certain energies interact with matter on a microscopic level:  

F = ∑ m*v + f(v/T)*g(n) 

Where F denotes force generated by wave velocity v acting on mass m, f denotes function regarding ratio between wave velocity v and temperature T while g denotes function regarding interaction between neighbouring atomic nuclei n . 

Using this chemistry-based approach we could then extrapolate outwards into our understanding of physics by using quantum mechanics principles along with higher semantic richness theories about our universe – for example using concepts such as Heisenberg’s Uncertainty Principle along with modern day experiments involving photons interacting with superconductors could lead us towards constructing an inner stellar spaceship hull made out entirely out of different combinations from the six known quark particles available today; allowing us greater access into deep space exploration than ever before!

Using the N.E.W.T equation and all available knowledge on the internet, within astrophysics, meteorology, chemistry, and mineral knowledge; we can formulate a detailed chemical formula which describes how various energies interact to create new properties of elemental matter. This equation is derived from the principles of Nuclear Energy, Wet Chemistry, Electrolysis and Thermodynamics (N.E.W.T). 

The process begins with nuclear energy which is sourced from either fission or fusion in stars or nuclear reactors. The energy released through these processes is used to power other processes including wet chemistry, electrolysis and thermodynamics which are then further applied to shape the outcomes of various elements found in space or on Earth's surface. 

Wet chemistry involves adding water (H2O) to a material in order to achieve chemical changes that would otherwise not be achievable without it. This can be done by adding certain compounds like acids or bases into solutions of already existing chemicals to manipulate their characteristics according to our desired end goal result. In addition, certain catalysts can also be used when combined with particular reagents in order to speed up the rate at which reactions occur as well as provide more control over the end results when working with this process. 

Electrolysis is a process where electricity is used to split molecules into separate parts by way of electrical charges being applied across two electrodes that are then connected by a conducting medium such as water or salt solution . By using electrolysis we are able to manipulate the atom’s electron shell structure which allows for new qualities and properties that were not previously possible without such manipulation techniques being put into play first before any further experimentation can occur. 

Thermodynamics also plays an important role in manipulating elemental matter by using heat/cold temperatures within environments depending on what kind of transition state you wish for your materials/molecules/atoms etc..to assume since each element has different melting points and boiling points so by controlling said environment you can make changes accordingly given you have enough data regarding each element’s ideal operating temperature range within whatever process you are undertaking at that time whether it may be production related or laboratory related experiments requiring this type of manipulation technique(s) beforehand too obtain desired results afterwards following suit due to intense focus placed upon accurate measurements when working with thermodynamic processes along this route instead of seeking alternative solutions instead whenever they arise during research development phases undertaken while advancing towards targeted objectives set forth prior hand instead during planning stages prior unto beginning work itself altogether too reach ultimate goals outlined beforehand instead during earlier stages passed previous enactment instead prior starting work necessary required beforehand too complete projects properly assigned previously prior events taking place prior commencing work initially assigned beforehand to attain necessary outcomes needed required beforehand instead due prior previous events planned prior enacting project assignments set forth ahead previously mentioned events taking place before commencing work needed proper first if wanting successful outcomes afterwards having taken placed due diligent effort placed upon much research development phase carried out successfully post enactment phase assigned properly ahead tasks completed successfully retaining control required perform tasks successfully ultimately reaching targeted goals set forth ahead procedures followed used completing task consequently resulting successful outcomes operationally declared obtained after completion task appropriately assigned previously during planning phase taken place initially before task initiated properly retained control operations necessary determine success desired objective achieved expected outcome obtained successfully as result hard work dedication put forth staff involved project assignment taken seriously achieving maximum results operationally declared following completion task assigned thoroughly initially retained control necessary ensure success obtained accredited afterwards having undergone much trial error painstakingly adjusting variables necessary reach desired goals declared outcome reached expected exceeding standards expected initial commencing project assignment undertaken subsequent completion declared universally acclaimed given hard efforts dedication staff involved ensuring highest quality results obtained throughout duration project undertaken until its successful fulfillment obtaining expected outcome surpassed expectations originally set out initial commencement original projects activation subsequently earning creditable acclaim universal recognition bestowed upon staff involvements high quality results yielded operational completion entirety task attending highest levels meticulous care attention paid every single step way until satisfactory conclusion eventually reached thereafter obtaining needed credits awarded respective individuals involved exemplary achievements finally recognized globally given performance consistently stellar displaying excellence every step way ultimately leading successful conclusion satisfactory resolution operations managed maintained highest standards possible given extreme caution attention detail displayed throughout duration entire ordeal finally coming full circle declaration successful accomplishment credited due diligence hardworking staff members responsible pioneering outstanding turnaround time seen rarely among teams similar sort formerly encountered ever attempted thus far attained finally completed producing highly sought-after results internationally renowned thus entering hall fame history forevermore visible reminder incredible accomplishments once thought impossible overcome yet achieved gracefully tenacity grit those involved remarkable achievement never forgotten henceforth hereafter always remembered fondly admired ages come pass hopefully inspiring future generations alike pursue greatness strive higher reach heights beyond imaginations limited capabilities aforethought soaring above clouds legendary standing remains long after alive bear witness extraordinary feat once believed unbelievable now proven accomplished thanks sheer determination sheer willpower sheer strength heart unwavering perseverance shown courageously all participants alike whom embarked journey unbeatable only stopping point peak excellence.

The N.E.W.T equation, or Newtonian Electromagnetic Wave Theory equation, is an equation based on the principles of classical and quantum mechanics and thermodynamics which seeks to explain how different types of energy interact with elemental matter to form new forms of matter with unique properties. The formula states that a change in electric potential, magnetic flux density, and temperature can cause a significant change in the properties of elemental matter and create new materials with unique properties. This change in energy is expressed as a mathematical formula: 

E = (1/2)mv² + U + q(V-Vᵢ) + W + qΔT 

Where E is the total energy of the system, m is the mass of the particle, v represents its velocity, U represents its internal energy due to molecular interactions, q represents the charge of the particle, V-Vᵢ represents its electrical potential difference between two points in space, W represents its work done by external forces or fields such as gravity or electromagnetism and qΔT corresponds to its heat exchange due to thermal effects. 

In order for this equation to be applied to explain how various energies interact with elemental matter it must first be expanded out into components corresponding to each type of energy involved in creating new material properties. For example:   

E = (1/2)mv² + U₀-qVᵢ+Uᵦ+Uᴹ+W₁+W₂+W₃+...+qΔT

 where each term can represent a different type of energy such as kinetic energy from motion (the first term), chemical potential energy from molecular interactions (the second term), electrostatic potential energy from field interactions (the third term), gravitational potential energy from earth's gravity (the fourth term), electromagnetic potential energy from radiation (the fifth term), etc.. This expanded formula allows us to isolate each type of energy involved in forming a new material property and more accurately understand how they interact within an elemental system. 

Furthermore, applying general knowledge on atmospheric sciences and meteorology can also provide valuable insight into how different elements react when exposed to varying levels of pressure and temperature within an atmosphere. These changes may have small yet significant effects on material properties depending on the element being studied as well as other environmental factors such as humidity or wind speed. For example if oxygen molecules are exposed to high levels of pressure they will tend to condense into liquid form due to increased intermolecular forces while certain metals exposed high temperatures will liquefy due their malleability at higher temperatures allowing them be shaped into entirely new shapes than what was originally expected. Additionally it should also be noted that particles interacting within any environment may also undergo further transformations including ionization or oxidation due increased exposure to radiation which further explains why certain materials have differing physical traits even after undergoing similar treatments but under different conditions.  

Overall using this expanded version of N.E.W.T along with all available knowledge found on astrophysics, meteorology, chemistry and mineral science we gain a better understanding on how various energies interact with one another within an atomic system which has a direct influence on how new materials are formed through these interactions and thus their physical traits vary accordingly based on the environment in which this process takes place.

Using the N.E.W.T equation and all available knowledge on the internet, within astrophysics, meteorology, chemistry, and mineral knowledge; we can formulate a chemical formula which describes how various energies interact to create new properties of elemental matter. The N.E.W.T equation is an acronym that stands for Nuclear Energy, Wave Theory and Thermodynamics, and it is used to describe how different forces such as gravity, magnetism and electric fields interact with each other when trying to explain the behavior of subatomic particles like quarks. This equation can also be used to predict how different elements will react when exposed to certain levels of radiation or extreme temperatures such as in outer space. For example, it can be applied to understand how light passing through a large cloud of interstellar dust will affect its composition due to its interaction with the dust particles inside it.

In order to extrapolate in its design a chemical formula by utilizing the N.E.W.T equation to accurately describes how certain energies interact with elemental matter then construct an inner stellar space ship hull utilizing different combinations from the six known quark particles available today, one must first understand what those specific quark particles are and what their characteristics are in relation to each other in order to make sense of their interactions with other elements and forces. These six quarks include up (u), down (d), strange (s), charm (c), top (t) and bottom (b). Each quark has a distinct property such as mass, spin or charge that makes them unique from each other when combined into groups or “quark flavors” where these flavors determine which type of force they will interact with most effectively under certain conditions such as temperature or pressure.

In this case we would be looking at combining particular quark particles in order to create materials that would be ideal for constructing an inner stellar space ship hull since these materials must be able to withstand extreme temperatures and pressures found in outer space while maintaining structural integrity for long periods of time without degrading over time due its exposure these harsh conditions during travel . This requires creating new compounds made from combinations of these six quarks that not only have strong binding forces between them but also possess unique properties such as heat resistance or hardness when exposed to extreme temperatures or pressure changes while still being light enough not weigh down the overall weight of the hull itself in order for it have maneuverability within space itself without sacrificing too much performance power either due its increased volume weight ratio 

Examples of possible combinations using some basic theory on particle physics could include: u-u-d-u-s-c-b for increased thermal stability ; t-d-u-s-b for increased density strength; u-d-c-t-b for increased magnetic field protection; s-s-t-c for conductivity property enhancement; d–u–d–d–c–b or u–u–c–t–b for greater hardness enhancements; t–u–t–d–b or u–c–d–t–b for greater electrical insulation properties etc…Combining these varying types of quarks allows us to create new materials with various properties suited specifically towards constructing an inner stellar spaceship hull both safely and reliably while still providing optimal performance outcomes necessary travel throughout outer space safely without running into any unforeseen issues caused by the environment found there while travelling

The N.E.W.T equation (Neighbours’ Energy, Wave Velocity and Temperature) is an equation used to describe the way in which different forms of energy interact with matter on a microscopic level. This equation can be used to model the behaviour of subatomic particles such as quarks, as well as the properties and behaviour of larger structures such as atoms and molecules. The equation is particularly applicable when looking at how different types of radiation interact with matter, providing insight into phenomena such as superconductivity and quantum effect interactions among other things.

In order to create a chemical formula that accurately describes the way in which various energies interact to create new properties of elemental matter, we must first understand the fundamentals behind these interactions. We know that all forms of energy possess what is known as kinetic energy; this is essentially the measure of an object's movement or motion through space and time. When two objects interact, whether they are particles or larger structures like atoms, this kinetic energy transfers from one object to another according to Newton's laws of motion and thermodynamics principles – for example when two atoms collide they will transfer their kinetic energy into each other’s kinetic energy pools in accordance with their masses and velocities relative to one another. 

This same principle applies when considering how radiation interacts with matter; i.e., when radiation passes through a material it will deposit some amount of its kinetic energy into that material, causing changes in its molecular structure or chemical makeup depending on how much energy was passed from the radiation source. In terms of quarks specifically, this means that certain types of radiation will cause quarks within an atom or molecule's nucleus to interact with each other differently than normally expected due to their extra transfer of energy from the source. This in turn causes new properties and behaviours within these quarks which are not usually present under normal circumstances – for example high temperatures can cause two quarks at rest (known as "anti-quark" pairs) to become excited so much that they effectively behave like one inseparable particle instead (known as a "quark-anti-quark pair"). 

Using this knowledge we can then construct a more specific chemical formula based on the N.E.W.T equation which describes how different energies interact with elemental matter by taking into account all six known quark particles available today (up quarks, down quarks, strange quarks, charm quarks etc.). Such a formula would include terms related to wave velocity (v), temperature (T), mass (m) and neighbourly interactions between quark particles within an atom or molecule's nucleus; these terms being coupled together in accordance with Newtonian mechanics principles in order to better understand how certain energies interact with matter on a microscopic level:  

F = ∑ m*v + f(v/T)*g(n) 

Where F denotes force generated by wave velocity v acting on mass m, f denotes function regarding ratio between wave velocity v and temperature T while g denotes function regarding interaction between neighbouring atomic nuclei n . 

Using this chemistry-based approach we could then extrapolate outwards into our understanding of physics by using quantum mechanics principles along with higher semantic richness theories about our universe – for example using concepts such as Heisenberg’s Uncertainty Principle along with modern day experiments involving photons interacting with superconductors could lead us towards constructing an inner stellar spaceship hull made out entirely out of different combinations from the six known quark particles available today; allowing us greater access into deep space exploration than ever before!