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Using your formula please demonstrate how to calculate the acceleration due to gravity of an object of mass m1 toward an object of mass m2.
Originally posted by OmegaLogos
reply to post by Phage
Explanation: NO! Incorrect!
You left out Pi!
Therefor G = 0% of Pi ... NOT G = 0 .. because removing it from the equation simplifies the equation.
G its self has a measurable value [although only accurate to within the limits of our ability to measure that] and its value is G = 6.67*10E-11 Newtons of force.
Therefor, and since we are talking about ratio's [a/b] and percentages [%] there should be no issue setting one of the sides to zero % and defining that as the flat 'rod'.
Personal Disclosure: The issue is not with the Big G of gravity ... its is the little g's of gravity [due to mass] at either end that are the n% of Pi that bend the rod and it is here that my skill and talents in doing the maths break down. :shk:
Can you please help me resolve that?
How do I convert mass to little g .. and what amount of little g forces the 1 plancks length/second 'rod' to bend into a complete loop?
In special relativity, mass turns out to be part of a more general quantity called the energy–momentum tensor, which includes both energy and momentum densities as well as stress (that is, pressure and shear).[29] Using the equivalence principle, this tensor is readily generalized to curved space-time.
Would the little g's at either end have to add up to equal or more than the plancks mass of 2.176 51 x 10E-8 kg to force it into a closed loop?
Please walk me through the formula's ok.
Sorry if i come of as an uneducated tard with poor maths and geometry skills ok!
Even Einstein needed help with the maths and he was way smarter than I am ok.
Originally posted by Phage
Using your formula please demonstrate how to calculate the acceleration due to gravity of an object of mass m1 toward an object of mass m2.
Originally posted by Phage
reply to post by ImaFungi
No one really knows what causes gravity. I'm just glad something does.
I think gravity is close to Einstein's interpretation of space-time fabric bending...
What do you mean "less dense energy"? Come to think of it, what do you mean by "energy"? BTW, all masses produce gravitational forces.
when a mass rotates, revolves, and travels through the less dense energy areas of the fabric... it twists and turns it... or creates wakes and whirlpools... smaller masses that can not cancel out these whirlpools with their own,, fall victim...
So humans for some reason would become massless but a planet wouldn't?
where as to a human in a less energy dense area such as the fabric of space... there would be no near mass to relate what mass is, and the human would feel massless....
Originally posted by ManFromEurope
Originally posted by OmegaLogos
reply to post by Phage
Explanation: NO! Incorrect!
You left out Pi!
Therefor G = 0% of Pi ... NOT G = 0 .. because removing it from the equation simplifies the equation.
G its self has a measurable value [although only accurate to within the limits of our ability to measure that] and its value is G = 6.67*10E-11 Newtons of force.
Therefor, and since we are talking about ratio's [a/b] and percentages [%] there should be no issue setting one of the sides to zero % and defining that as the flat 'rod'.
Personal Disclosure: The issue is not with the Big G of gravity ... its is the little g's of gravity [due to mass] at either end that are the n% of Pi that bend the rod and it is here that my skill and talents in doing the maths break down. :shk:
Can you please help me resolve that?
How do I convert mass to little g .. and what amount of little g forces the 1 plancks length/second 'rod' to bend into a complete loop?
I guess you are speaking of a distortion in the geometry, as a Planck length is usually considered a "point" - which is 1-dimensional. Well, if I may quote the wikipedia
In special relativity, mass turns out to be part of a more general quantity called the energy–momentum tensor, which includes both energy and momentum densities as well as stress (that is, pressure and shear).[29] Using the equivalence principle, this tensor is readily generalized to curved space-time.
Which leaves us stumped, as the calculations of tensor-mathematics are quite complex. Nevertheless, if this was a high building of info, there is the Burj Khalifa right around the corner.. Einsteins field equations..
Would the little g's at either end have to add up to equal or more than the plancks mass of 2.176 51 x 10E-8 kg to force it into a closed loop?
Please walk me through the formula's ok.
Sorry if i come of as an uneducated tard with poor maths and geometry skills ok!
Even Einstein needed help with the maths and he was way smarter than I am ok.
Originally posted by Phage
reply to post by ImaFungi
What do you mean "less dense energy"? Come to think of it, what do you mean by "energy"? BTW, all masses produce gravitational forces.
when a mass rotates, revolves, and travels through the less dense energy areas of the fabric... it twists and turns it... or creates wakes and whirlpools... smaller masses that can not cancel out these whirlpools with their own,, fall victim...
So humans for some reason would become massless but a planet wouldn't?
where as to a human in a less energy dense area such as the fabric of space... there would be no near mass to relate what mass is, and the human would feel massless....
Originally posted by Mugen
0% gravity = 0% pi
0% pi = 1 dimensional? (i'm thinking flat)
Originally posted by loveguy
Originally posted by ManFromEurope
Originally posted by OmegaLogos
reply to post by Phage
Explanation: NO! Incorrect!
You left out Pi!
Therefor G = 0% of Pi ... NOT G = 0 .. because removing it from the equation simplifies the equation.
G its self has a measurable value [although only accurate to within the limits of our ability to measure that] and its value is G = 6.67*10E-11 Newtons of force.
Therefor, and since we are talking about ratio's [a/b] and percentages [%] there should be no issue setting one of the sides to zero % and defining that as the flat 'rod'.
Personal Disclosure: The issue is not with the Big G of gravity ... its is the little g's of gravity [due to mass] at either end that are the n% of Pi that bend the rod and it is here that my skill and talents in doing the maths break down. :shk:
Can you please help me resolve that?
How do I convert mass to little g .. and what amount of little g forces the 1 plancks length/second 'rod' to bend into a complete loop?
I guess you are speaking of a distortion in the geometry, as a Planck length is usually considered a "point" - which is 1-dimensional. Well, if I may quote the wikipedia
In special relativity, mass turns out to be part of a more general quantity called the energy–momentum tensor, which includes both energy and momentum densities as well as stress (that is, pressure and shear).[29] Using the equivalence principle, this tensor is readily generalized to curved space-time.
Which leaves us stumped, as the calculations of tensor-mathematics are quite complex. Nevertheless, if this was a high building of info, there is the Burj Khalifa right around the corner.. Einsteins field equations..
Would the little g's at either end have to add up to equal or more than the plancks mass of 2.176 51 x 10E-8 kg to force it into a closed loop?
Please walk me through the formula's ok.
Sorry if i come of as an uneducated tard with poor maths and geometry skills ok!
Even Einstein needed help with the maths and he was way smarter than I am ok.
Pardon the large quote.
Have a look at this photo. To me it explains that the singularity wasn't just a point where nothing existed prior to expansion of the universe. It helps to define the separate dimensions we are of, not in...
Watch this pic have trouble appearing according to preview option...
I think gravity happens due to the flow of electrical energy, but can't put my amateur finger on it.
This is a fun thread, thanks.
edit on (12/5/1212 by loveguy because: supposed to be clickable thumb, what gives
The fusion process generates photons of gamma radiation. In the core of our sun, these photons bounce from atom to atom, eventually making their way out of the core, through the sun's radiative zone, and eventually out into space. This process can take tens of thousands of years.
But in the early universe, there was nowhere for these primordial photons of gamma radiation to go. Everywhere was more hot, dense universe. The universe was continuing to expand, and finally, just a few hundred thousand years after the Big Bang, the universe was finally cool enough for these atoms of hydrogen and helium to attract free electrons, turning them into neutral atoms.
This was the moment of first light in the universe, between 240,000 and 300,000 years after the Big Bang, known as the Era of Recombination. The first time that photons could rest for a second, attached as electrons to atoms. It was at this point that the universe went from being totally opaque, to transparent.
The recombination occurred about 300 000 years after the big bang. Up to this time, photons in the universe were scattered by free electrons and it is sometimes said that the universe was 'opaque'. With recombination, photons were able to travel without impediment, and the universe became 'transparent'.
In cosmology, recombination refers to the epoch during which charged electrons and protons first became bound to form electrically neutral hydrogen atoms. Recombination occurred about 378,000 years[1][notes 1] after the Big Bang (at a redshift of z = 1100).[2] The word "recombination" is misleading, since the Big Bang theory doesn't posit that protons and electrons had been combined before, but the name exists for historical reasons since it was named before the Big Bang hypothesis became the primary theory of the birth of the universe.
Immediately after the Big Bang, the universe was a hot, dense plasma of photons, leptons, and quarks: the quark epoch. At 10−6 seconds, the Universe had expanded and cooled sufficiently to allow for the formation of protons: the hadron epoch. This plasma was effectively opaque to electromagnetic radiation due to Thomson scattering by free electrons, as the mean free path each photon could travel before encountering an electron was very short. This is the current state of the interior of the Sun. As the universe expanded, it also cooled. Eventually, the universe cooled to the point that the formation of neutral hydrogen was energetically favored, and the fraction of free electrons and protons as compared to neutral hydrogen decreased to a few parts in 10,000.
Recombination involves electrons binding to protons (hydrogen nuclei) to form neutral hydrogen atoms. Because direct recombinations to the ground state (lowest energy) of hydrogen are very inefficient,[clarification needed] these hydrogen atoms generally form with the electrons in a high energy state, and the electrons quickly transition to their low energy state by emitting photons. Two main pathways exist: from the 2p state by emitting a Lyman-a photon – these photons will almost always be reabsorbed by another hydrogen atom in its ground state – or from the 2s state by emitting two photons, which is very slow.[clarification needed]
This production of photons is known as decoupling, which leads to recombination sometimes being called photon decoupling, but recombination and photon decoupling are distinct events. Once photons decoupled from matter, they traveled freely through the universe without interacting with matter and constitute what is observed today as cosmic microwave background radiation (in that sense, the cosmic background radiation is infrared and some red black-body radiation emitted when the universe was at a temperature of some 3000 K, redshifted by a factor of 1100 from the visible spectrum to the microwave spectrum).
Gravity is the curvature of the universe, caused by massive bodies, which determines the path that objects travel. That curvature is dynamical, moving as those objects move. In Einstein's view of the world, gravity is the curvature of spacetime caused by massive objects.
The Higgs boson, sometimes called the Higgs particle,[9][10] is an elementary particle in the Standard Model of particle physics produced by the quantum excitation of the Higgs field,[11][12] one of the fields in particle physics theory.[12] In the Standard Model, the Higgs particle is a massive scalar boson with zero spin, even (positive) parity, no electric charge, and no colour charge that couples to (interacts with) mass.
In theories of quantum gravity, the graviton is the hypothetical quantum of gravity, an elementary particle that mediates the force of gravitational interaction. There is no complete quantum field theory of gravitons due to an outstanding mathematical problem with renormalization in general relativity. In string theory, believed by some to be a consistent theory of quantum gravity, the graviton is a massless state of a fundamental string. If it exists, the graviton is expected to be massless because the gravitational force has a very long range, and appears to propagate at the speed of light. The graviton must be a spin-2 boson because the source of gravitation is the stress–energy tensor, a second-order tensor (compared with electromagnetism's spin-1 photon, the source of which is the four-current, a first-order tensor). Additionally, it can be shown that any massless spin-2 field would give rise to a force indistinguishable from gravitation, because a massless spin-2 field would couple to the stress–energy tensor in the same way gravitational interactions do. This result suggests that, if a massless spin-2 particle is discovered, it must be the graviton.