From: BURT on
On May 14, 8:45 pm, Timo Nieminen <t...(a)physics.uq.edu.au> wrote:
> On May 15, 11:14 am, NoEinstein <noeinst...(a)bellsouth.net> wrote:
>
> > On May 14, 7:46 am, Timo Nieminen <t...(a)physics.uq.edu.au> wrote:
>
> > > For example, double the absolute temperature of the balls; easy to do,
> > > just heat to about 330C. 16 times the radiated power, at double the
> > > peak frequency, as compared with a room temperature ball. How much
> > > larger should the gravitational force be?
>
> > Send me a drawing of the relative size, weight and spacing of the
> > balls.  I can approximate the gravity, especially, if I know how close
> > the big ball is to the closest one on the beam.  There will be a more
> > pronounced gravity effect if the balls are fairly close together—like
> > six inches.
>
> No, I'm not asking what should the result be in a particular Cavendish
> apparatus. I'm asking about the gravitational force between two balls,
> and how large your predicted temperature dependence is supposed to be.
>
> You say:
>
> > Once you get that, THEN you can
> > start doing the higher math to figure the likely increase in gravity.
>
> but this is what needs to come _first_. It is very useful to have some
> idea of how large some effect you're planning to measure is. If
> somebody asks you to help measure the length of something
> (accurately), you want to know whether to bring along a long tape
> measure, a metre ruler, vernier calipers, a micrometer, or something
> else.
>
> How large is your predicted effect? Given this, one can see if
> existing apparatus is sufficient, or if not, what apparatus is needed.
>
> > Air turbulence will be the limiting factor for… “how
> > close”.
>
> It is possible to do experiments in vacuum. Is it necessary to do the
> experiment in vacuum? Thus the question, how large is the effect
> supposed to be?
>
> > Also, tell me the metal type you
> > are using, and how hot you can safely heat the entire ball.  Is 330C
> > the highest you can go?
>
> Of course 330C isn't the hottest possible. 330C is double room
> temperature, convenient for giving a quantitative prediction (16 times
> radiated power, at 2 times the peak frequency).
>
> If the experiment should yield a large enough effect at 330C (or even
> lower), then it might well be better to do it at a lower temperature.
> Less convection, etc. How large should the effect be at 330C? This is
> very useful information in order to determine the best temperature to
> try the experiment at.
>
> Why should it take "higher math" to give a quantitative result? What
> higher math? Of course, since you yourself have spoken many times of
> your superior math skills, it shouldn't be a significant obstacle to
> you even if "higher math" is required. Even with only a fraction of
> your ability, it should be possible to do this easily enough, surely
> in less than an hour. So why not just say how large the effect is
> supposed to be?

How does the aether push speed up in increasing strength of gravity?

Mitch Raemsch
From: John Murphy on
On 15 May, 07:05, BURT <macromi...(a)yahoo.com> wrote:
> On May 14, 8:45 pm, Timo Nieminen <t...(a)physics.uq.edu.au> wrote:
> > On May 15, 11:14 am, NoEinstein <noeinst...(a)bellsouth.net> wrote:
>
> > > On May 14, 7:46 am, Timo Nieminen <t...(a)physics.uq.edu.au> wrote:
>
> > > > For example, double the absolute temperature of the balls; easy to do,
> > > > just heat to about 330C. 16 times the radiated power, at double the
> > > > peak frequency, as compared with a room temperature ball. How much
> > > > larger should the gravitational force be?
>
> > > Send me a drawing of the relative size, weight and spacing of the
> > > balls.  I can approximate the gravity, especially, if I know how close
> > > the big ball is to the closest one on the beam.  There will be a more
> > > pronounced gravity effect if the balls are fairly close together—like
> > > six inches.
>
> > No, I'm not asking what should the result be in a particular Cavendish
> > apparatus. I'm asking about the gravitational force between two balls,
> > and how large your predicted temperature dependence is supposed to be.
>
> > You say:
>
> > > Once you get that, THEN you can
> > > start doing the higher math to figure the likely increase in gravity.
>
> > but this is what needs to come _first_. It is very useful to have some
> > idea of how large some effect you're planning to measure is. If
> > somebody asks you to help measure the length of something
> > (accurately), you want to know whether to bring along a long tape
> > measure, a metre ruler, vernier calipers, a micrometer, or something
> > else.
>
> > How large is your predicted effect? Given this, one can see if
> > existing apparatus is sufficient, or if not, what apparatus is needed.
>
> > > Air turbulence will be the limiting factor for… “how
> > > close”.
>
> > It is possible to do experiments in vacuum. Is it necessary to do the
> > experiment in vacuum? Thus the question, how large is the effect
> > supposed to be?
>
> > > Also, tell me the metal type you
> > > are using, and how hot you can safely heat the entire ball.  Is 330C
> > > the highest you can go?
>
> > Of course 330C isn't the hottest possible. 330C is double room
> > temperature, convenient for giving a quantitative prediction (16 times
> > radiated power, at 2 times the peak frequency).
>
> > If the experiment should yield a large enough effect at 330C (or even
> > lower), then it might well be better to do it at a lower temperature.
> > Less convection, etc. How large should the effect be at 330C? This is
> > very useful information in order to determine the best temperature to
> > try the experiment at.
>
> > Why should it take "higher math" to give a quantitative result? What
> > higher math? Of course, since you yourself have spoken many times of
> > your superior math skills, it shouldn't be a significant obstacle to
> > you even if "higher math" is required. Even with only a fraction of
> > your ability, it should be possible to do this easily enough, surely
> > in less than an hour. So why not just say how large the effect is
> > supposed to be?
>
> How does the aether push speed up in increasing strength of gravity?
>
> Mitch Raemsch

The aether is a medium that will accommodate any postualte that suits
it!

--
Harbinger.
From: BURT on
On May 15, 12:20 am, John Murphy
<london.accommodation.homest...(a)googlemail.com> wrote:
> On 15 May, 07:05, BURT <macromi...(a)yahoo.com> wrote:
>
>
>
>
>
> > On May 14, 8:45 pm, Timo Nieminen <t...(a)physics.uq.edu.au> wrote:
> > > On May 15, 11:14 am, NoEinstein <noeinst...(a)bellsouth.net> wrote:
>
> > > > On May 14, 7:46 am, Timo Nieminen <t...(a)physics.uq.edu.au> wrote:
>
> > > > > For example, double the absolute temperature of the balls; easy to do,
> > > > > just heat to about 330C. 16 times the radiated power, at double the
> > > > > peak frequency, as compared with a room temperature ball. How much
> > > > > larger should the gravitational force be?
>
> > > > Send me a drawing of the relative size, weight and spacing of the
> > > > balls.  I can approximate the gravity, especially, if I know how close
> > > > the big ball is to the closest one on the beam.  There will be a more
> > > > pronounced gravity effect if the balls are fairly close together—like
> > > > six inches.
>
> > > No, I'm not asking what should the result be in a particular Cavendish
> > > apparatus. I'm asking about the gravitational force between two balls,
> > > and how large your predicted temperature dependence is supposed to be..
>
> > > You say:
>
> > > > Once you get that, THEN you can
> > > > start doing the higher math to figure the likely increase in gravity.
>
> > > but this is what needs to come _first_. It is very useful to have some
> > > idea of how large some effect you're planning to measure is. If
> > > somebody asks you to help measure the length of something
> > > (accurately), you want to know whether to bring along a long tape
> > > measure, a metre ruler, vernier calipers, a micrometer, or something
> > > else.
>
> > > How large is your predicted effect? Given this, one can see if
> > > existing apparatus is sufficient, or if not, what apparatus is needed..
>
> > > > Air turbulence will be the limiting factor for… “how
> > > > close”.
>
> > > It is possible to do experiments in vacuum. Is it necessary to do the
> > > experiment in vacuum? Thus the question, how large is the effect
> > > supposed to be?
>
> > > > Also, tell me the metal type you
> > > > are using, and how hot you can safely heat the entire ball.  Is 330C
> > > > the highest you can go?
>
> > > Of course 330C isn't the hottest possible. 330C is double room
> > > temperature, convenient for giving a quantitative prediction (16 times
> > > radiated power, at 2 times the peak frequency).
>
> > > If the experiment should yield a large enough effect at 330C (or even
> > > lower), then it might well be better to do it at a lower temperature.
> > > Less convection, etc. How large should the effect be at 330C? This is
> > > very useful information in order to determine the best temperature to
> > > try the experiment at.
>
> > > Why should it take "higher math" to give a quantitative result? What
> > > higher math? Of course, since you yourself have spoken many times of
> > > your superior math skills, it shouldn't be a significant obstacle to
> > > you even if "higher math" is required. Even with only a fraction of
> > > your ability, it should be possible to do this easily enough, surely
> > > in less than an hour. So why not just say how large the effect is
> > > supposed to be?
>
> > How does the aether push speed up in increasing strength of gravity?
>
> > Mitch Raemsch
>
> The aether is a medium that will accommodate any postualte that suits
> it!
>
> --
> Harbinger.- Hide quoted text -
>
> - Show quoted text -

In that case it is blank slate like string dimensions are.

Mitch Raemsch
From: tadchem on
On May 7, 3:57 pm, NoEinstein <noeinst...(a)bellsouth.net> wrote:
> On May 7, 2:21 am, Timo Nieminen <t...(a)physics.uq.edu.au> wrote:
>
> Dear Timo:  On the one hand you compliment me; on the other you chide
> me for not having… “all” of the numbers at my fingertips.  I’m pleased
> that you know so much about astronomy.  That was a major hobby of mine
> through high school.  I saw things like “stars” that weren’t round,
> and I never realized that most were galaxies.  I would lie in bed at
> night wondering what the mechanism of gravity is.  I heard that the
> many colors of light related to the ‘temperature’ of the source.  It
> was by reasoning, alone, that I’ve concluded that all photons are
> identical regardless of the temperature.  The only temperature variant
> in light is the spacing of the photons.  Photons carry some ether away—
> like hobos on a train, which eventually jump off.  Since gravity is
> directly proportional to photon emission (not ‘gravitons’, which don’t
> exist), then it is the luminosity and the temperature of the light
> that determine the gravity of stars.
>
> At ‘room temperatures’ gravity is mass proportional, and matches
> Newton’s law.  There has to be an object-size threshold that DENIES
> mass in favor of surface area and temperature.  I suspect that a
> heated Cavendish ball will have gravity somewhere between the room
> temperature, and the white hot.
>
> I had concerns with my theory that very cold planets would have
> limited infrared emissions.  Then, I realized that it is the SUN that
> provides the photons to the colder planets, that keeps the gravity
> forces going.  Block off that solar energy from a planet, and it will
> go flying out on its tangent.  I’ve realized that the estimates of the
> masses of the planets are probably wrong.  Kepler had the Laws of
> Planetary Motion exactly right, if one substitutes “apparent” mass,
> for the object mass.
>
> Timo, you probably know that my mind isn’t a compendium with every bit
> of data you’re seeking.  Until about grade 5, I had an ear
> “photographic” memory.  Later, I hated courses requiring memorization
> (history), favoring, instead, courses that require analytical ability,
> like math and science.  I would be happy to assist you in quantifying
> gravity.  But most of my realizations about the Universe have come
> from accepting the data of others, and making my ‘theories’ not be in
> conflict.  Now, since I’ve opened up this gravity-can-of-worms to
> include temperature, there isn’t any raw data to readily aid me in
> finding the answers, no matter how smart I am.
>
> I hope you can select some little corner of that problem and attack
> it, objectively.  Keep me apprised of your progress.  It’s possible I
> might have a spark of inspiration that could help you.  *** Because of
> you, I realized that every star in a galaxy gets tugs from every other
> star.  Successfully calculating the STRUCTURE of that unifying force
> will require a super-computer.  I suspect that those results—together
> with my temperature determinant gravity—will show that ZERO mass
> (gravity) is needed at the galactic centers.  And since the Big Bang
> never happened, there is no dark matter, whatsoever, needed to hold
> the Universe together.
>
> I’m busy trying to save the USA via my New Constitution.  The way most
> people think about… ’science’, having “that man” who disproved
> Einstein write a constitution may not give me very many Brownie
> Points.  But I invite any of you who are interested to go to Political
> Forum and read:  “Start the Revolution!  Government is out-of-touch
> with the People!”  Talk-it-up!  — NoEinstein —  (AKA John A.
> Armistead)
>
>
>
>
>
> > On Thu, 6 May 2010, NoEinstein wrote:
> > > “My theory”, counter to Newton’s Law of Universal (sic) Gravity,
> > > states that the gravity of a star is directly proportional to the
> > > temperature-determined, photon emissions over the entire surface area
> > > of the star (without needing to consider the mass).
>
> > Measurements of the "mass" of stars in binary systems are really
> > measurements of the gravitational force of stars in binary systems. If
> > you're right, a plot bolometric luminosity versus measured "mass" of stars
> > in binary systems should give a straight line (within experimental error).
> > Since you're obviously smart enough to have realised this long ago, and
> > are also obviously smart enough to have checked this yourself, what was
> > the result?
>
> > The "mass", as measured from binary orbits, is available for many stars
> > (including nearby ones such as Alpha Centari A and B, Sirius A and B),
> > and the relevant information is readily available online, so I suppose I
> > could check this myself if you don't care enough to provide the result (or
> > didn't care enough to bother checking something so trivial).
>
> > If it isn't a directly proportional linear relationship, what would that
> > mean?
>
> > > Timo, because of what I’ve
> > > just reasoned… your Cavendish may not be sensitive enough.  Until
> > > someone does an “every star” gravity weave calculation for, say, the
> > > Milky Way, I don’t know if there is a 22.25% underestimate of star
> > > gravity, or a 5%.
>
> > So, you don't know? Why not apply your mighty intellect and provide the
> > answer?
>
> > > Consider this: If you can heat one ball white hot,
> > > and you DO detect a greater gravity, you’ve confirmed my theory.
>
> > It would _support_ your theory, not confirm it in any absolute sense.
> > If one tries this and _doesn't_ detect a greater gravitational force,
> > would that mean your theory is wrong and it's time to forget it and move
> > on?- Hide quoted text -
>
> - Show quoted text -

So how does a siphon work?

Tom Davidson
Richmond, VA
From: NoEinstein on
On May 14, 10:33 am, PD <thedraperfam...(a)gmail.com> wrote:
>
Dear PD: Nowhere in any high school physics text does it say that
work can be done when pushing against ZERO resistance. Don't you
recall agreeing that a hockey puck sliding many feet across slick ice
isn't increasing in KE simply because a "displacement" has occurred?
You, sir, are fighting for your crumby "science" life. I'm still King
of the Hill, and you are a lying, sidestepping fool. Your legacy is
that you are one of the most pathetic people on planet Earth. —
NoEinstein —
>
> On May 14, 3:13 am, NoEinstein <noeinst...(a)bellsouth.net> wrote:
>
> > On May 7, 6:07 pm, PD <thedraperfam...(a)gmail.com> wrote:
>
> > PD hasn't quoted any authoritative source showing that WORK is in any
> > way involved in calculating KE.
>
> Oh, yes, I have, John. You don't seem to remember anything that was
> told to you the day before.
> Do you like easy to read pages? Here's one for students at West
> Virginia University:http://www.ac.wwu.edu/~vawter/PhysicsNet/Topics/Work/WorkEngergyTheor...
> "The energy associated with the work done by the net force does not
> disappear after the net force is removed (or becomes zero), it is
> transformed into the Kinetic Energy of the body. We call this the Work-
> Energy Theorem."
>
> > And he hasn't quoted any
> > authoritative source saying that "work" can be done simply by
> > COASTING, against no resistance!
>
> The definition of work is in high school books, John.
>
> >  And he certainly can't explain how
> > 'gravity' could possibly 'know' the velocities of every falling object
> > (like hail from varying heights) and add the exact semi-parabolic KE
> > increase to each.
>
> Doesn't have to, John. The force is not solely responsible for the
> increase in energy. The work is. The work is the product of both the
> force and the displacement. That's how the work increases in each
> second. It's simple, John. Seventh graders can understand it. I don't
> know why you're so much slower than the average 7th grader.
>
>
>
> > In short, PD is a total, sidestepping FRAUD!  And
> > 95% of the readers know that he's a fraud!  — NoEinstein —
>
> > > On May 7, 3:16 pm, NoEinstein <noeinst...(a)bellsouth.net> wrote:
>
> > > > On May 7, 9:12 am, PD <thedraperfam...(a)gmail.com> wrote:
>
> > > > PD, you are a LIAR!  Never ONCE have you explained why KE = 1/2mv^2
> > > > isn't in violation of the Law of the Conservation of Energy.  Until
> > > > you do (and you CAN'T) everyone will know that you are just an air-
> > > > head FRAUD!  — NoEinstein —
>
> > > Oh, but I have. If you really need to have it explained again, I ask
> > > you this time to print it out.
>
> > > The law of conservation of energy says that any change in the energy
> > > of a system must be due solely to the work done on the system.
>
> > > The work is the force acting on the object times the displacement of
> > > the object. So any change in energy of the object must be due solely
> > > to this work.
>
> > > In the case of a falling body released from rest, we'll look at the
> > > increase in the kinetic energy, which must be due to the work done by
> > > the only force acting on the body -- gravity. If the increase of
> > > kinetic energy the body has at any time is accounted for by the work
> > > that was done on the body during that time, then we know that the law
> > > of conservation of energy has been respected.
>
> > > In the first second, the body will fall 16 ft. In the next second, it
> > > will fall an additional 48 feet. In the third second, it will fall an
> > > additional 80 feet. During these first three seconds, the force has
> > > remained constant, so that it is the same in the first second, the
> > > second second, the third second. The speed increases linearly, so that
> > > it is falling at 32 ft/s after the first second, 64 ft/s after the
> > > second second, and 96 ft/s after the third second.
>
> > > Now, let's take a look at the work. The work done since the drop,
> > > after the first second, is the force of gravity times the
> > > displacement. This is mass x g x (16 ft). So this is how much kinetic
> > > energy the object has after one second. Now, in the second second,
> > > we'll add more work, in the amount mass x g x (48 ft), since that's
> > > the displacement for the next second. This increases the kinetic
> > > energy of the body, so that it now has kinetic energy mass x g x (16
> > > ft + 48 ft) = mass x g x (64 ft), and that number is four times bigger
> > > than it was after the first second. Now, in the third second, we'll
> > > add more work, in the amount mass x g x (80 ft), since that's the
> > > displacement for the next sentence. Since energy is conserved, this
> > > added energy must add to the kinetic energy of the body, so that it
> > > now has kinetic energy mass x g x (64 ft + 80 ft) = mass x g x (144
> > > ft), and that number is nine times bigger than it was after the first
> > > second.
>
> > > Now, it should be plain that the kinetic energy is conserved, since
> > > the only thing that has been contributing to it is the work done in
> > > subsequent seconds. We lost nothing, and we added only that which
> > > gravity added. The energy is conserved.
>
> > > It should also be apparent that the kinetic energy is increasing in
> > > the ratios 1:4:9.
> > > Meanwhile, the velocities are increasing linearly, in the ratios
> > > 1:2:3.
>
> > > Now, any fourth grader can see that we've completely conserved energy,
> > > losing track of nothing, and yet the kinetic energy is increasing as
> > > the square of the velocity. 1:4:9 are the squares of 1:2:3.
>
> > > There is no violation of conservation of kinetic energy, and yet KE is
> > > proportional to v^2.
>
> > > Now, don't you feel silly that a 4th grader can understand all of
> > > this, but you've never understood it?
>
> > > > > On May 6, 8:54 pm, NoEinstein <noeinst...(a)bellsouth.net> wrote:
>
> > > > > > On May 5, 11:43 am, PD <thedraperfam...(a)gmail.com> wrote:
>
> > > > > > OH?  Then please explain, PD, how a UNIFORM force input—the static
> > > > > > weight of the falling object—can cause a semi-parabolic increase in
> > > > > > the KE.  Haven't you heard?:  Energy IN must = energy OUT!   —
> > > > > > NoEinstein —
>
> > > > > I have explained this to you dozens of times. I gather that you do not
> > > > > remember any of those posts, and you do not know how to use your
> > > > > newsreader or Google to go back and find any of those dozens of times
> > > > > when it has been explained to you.
>
> > > > > I surmise that you are slipping into dementia, where each day begins
> > > > > anew, with any lessons learned the previous day forgotten.
>
> > > > > I don't think it's a good use of my time to explain the same thing to
> > > > > you each day, only to have you retire at night and forget it by
> > > > > morning, do you?
>
> > > > > PD- Hide quoted text -
>
> > > - Show quoted text -- Hide quoted text -
>
> - Show quoted text -