| Topic: |
Science > Physics |
| User: |
"Lester Zick" |
| Date: |
08 May 2007 11:28:48 AM |
| Object: |
Infinitesimal Arithmetic |
Infinitesimal Arithmetic
~v~~
It's curious that for any finite r, infinitesimal i, and transfinite
I, the same people who understand I+r=I have such difficulty
understanding r+i=r.
~v~~
.
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| User: "Bill" |
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| Title: Re: Infinitesimal Arithmetic |
08 May 2007 12:08:44 PM |
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"Lester Zick" <dontbother@nowhere.net> wrote in message
news:599143t529d59p29kmmsa7qj86hbhav6eh@4ax.com...
Infinitesimal Arithmetic
~v~~
It's curious that for any finite r, infinitesimal i, and transfinite
I, the same people who understand I+r=I have such difficulty
understanding r+i=r.
~v~~
even so, what is I/i or (r-i)/~v~~ ??
.
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| User: "Lester Zick" |
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| Title: Re: Infinitesimal Arithmetic |
08 May 2007 12:50:08 PM |
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On Tue, 8 May 2007 12:08:44 -0500, "Bill Mays@bilboMaso.ugh"
<nospam@spamless.com> wrote:
"Lester Zick" <dontbother@nowhere.net> wrote in message
news:599143t529d59p29kmmsa7qj86hbhav6eh@4ax.com...
Infinitesimal Arithmetic
~v~~
It's curious that for any finite r, infinitesimal i, and transfinite
I, the same people who understand I+r=I have such difficulty
understanding r+i=r.
~v~~
even so, what is I/i or (r-i)/~v~~ ??
Truly true truth.
~v~~
.
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| User: "Bill" |
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| Title: Re: Infinitesimal Arithmetic |
08 May 2007 06:32:30 PM |
|
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"Lester Zick" <dontbother@nowhere.net> wrote in message
news:ind143h27t6fe9dum8e0fd3fqa8ldb2uh1@4ax.com...
On Tue, 8 May 2007 12:08:44 -0500, "Bill Mays@bilboMaso.ugh"
<nospam@spamless.com> wrote:
"Lester Zick" <dontbother@nowhere.net> wrote in message
news:599143t529d59p29kmmsa7qj86hbhav6eh@4ax.com...
Infinitesimal Arithmetic
~v~~
It's curious that for any finite r, infinitesimal i, and transfinite
I, the same people who understand I+r=I have such difficulty
understanding r+i=r.
~v~~
even so, what is I/i or (r-i)/~v~~ ??
Truly true truth.
~v~~ = moron of the lessor kind
.
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| User: "Lester Zick" |
|
| Title: Re: Infinitesimal Arithmetic |
09 May 2007 12:15:18 PM |
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On Tue, 8 May 2007 18:32:30 -0500, "Bill Mays@bilboMaso.ugh"
<nospam@spamless.com> wrote:
"Lester Zick" <dontbother@nowhere.net> wrote in message
news:ind143h27t6fe9dum8e0fd3fqa8ldb2uh1@4ax.com...
On Tue, 8 May 2007 12:08:44 -0500, "Bill Mays@bilboMaso.ugh"
<nospam@spamless.com> wrote:
"Lester Zick" <dontbother@nowhere.net> wrote in message
news:599143t529d59p29kmmsa7qj86hbhav6eh@4ax.com...
Infinitesimal Arithmetic
~v~~
It's curious that for any finite r, infinitesimal i, and transfinite
I, the same people who understand I+r=I have such difficulty
understanding r+i=r.
~v~~
even so, what is I/i or (r-i)/~v~~ ??
Truly true truth.
~v~~ = moron of the lessor kind
You mean ~v~~ is only leasing truth? Oh well. If you say so.
~v~~
.
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| User: "Uncle Al" |
|
| Title: Re: Infinitesimal Arithmetic |
08 May 2007 02:17:38 PM |
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Lester Zick wrote:
Infinitesimal Arithmetic
~v~~
It's curious that for any finite r, infinitesimal i, and transfinite
I, the same people who understand I+r=I have such difficulty
understanding r+i=r.
Hey Zick, perserverative boring spammer, tell us about algebras
defined by
not(not(p or q) or not(p or not(q)) = p
--
Uncle Al
http://www.mazepath.com/uncleal/
(Toxic URL! Unsafe for children and most mammals)
http://www.mazepath.com/uncleal/lajos.htm#a2
.
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| User: "Ross A. Finlayson" |
|
| Title: Re: Infinitesimal Arithmetic |
08 May 2007 08:50:45 PM |
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On May 8, 12:17 pm, Uncle Al <Uncle...@hate.spam.net> wrote:
Lester Zick wrote:
Infinitesimal Arithmetic
~v~~
It's curious that for any finite r, infinitesimal i, and transfinite
I, the same people who understand I+r=I have such difficulty
understanding r+i=r.
Hey Zick, perserverative boring spammer, tell us about algebras
defined by
not(not(p or q) or not(p or not(q)) = p
--
Uncle Alhttp://www.mazepath.com/uncleal/
(Toxic URL! Unsafe for children and most mammals)http://www.mazepath.com/uncleal/lajos.htm#a2
By infinitesimal, do you mean delta x as delta x goes to zero, dx, the
differential?
Then, if you sum those over the unit interval, you get 1, so, if "i"
was the differential and "I" the infinity of differentials on the unit
interval, then you might think something along the lines as the
inventors of the calculus (infinitesimal analysis) did, that Ii = 1 =
iI. (Perhaps that "I" is better thought of as the single unit scalar
infinity or as Sergeyev calls it (1), and the integral is not a sum
but a multiple, with then Lebesgue sums of the products.) Lester, do
you think Ii = 1? Then, it is not a transfinite infinity that you
consider.
Then, in consideration of a "real number" r (read: definite real) in
sum with an infinitesimal (read: unit scalar infinitesimal), and that
the sum is not definitely different than the original real number
(definitely the same, indefinitely the next), there's a notion that
there would be I many to those to increment r by one, and some portion
of I many to increment less than one, defined in terms of again
definite real numbers on the unit interval.
Al, I wonder, I put forward a gedanken experiment the other day: say
there is a geometrical plane in space, and two emitters at rest on it,
and they each emit a pair of particles at some synchronized time at
right angles in it, and the left and right particles which travel in a
straight line meet at the same time. Then, if there is a minimum
length, eg the Planck length, and the path of the particles is in
length some integral multiple of the Planck length, then, the diagonal
of the square formed is some irrational multiple of the Planck
length. Are Pythagoras and Planck incompatible?
The more that is learned about the universe the larger it appears to
be, the more that is learned about "subatomic" particles the smaller
they appear to be.
Where functions between physical objects are physical objects, there
are infinitely many physical objects, the universe is infinite and
infinite sets are equivalent, demonstrably. There is a universe
despite ZF's axiomatization otherwise, ZF being the Russell set, it's
in ZF.
What would happen if the cosmological constant was an infinitesimal?
Post-Cantor and post-Goedel, next is complexity.
Ross
--
Finlayson Consulting
.
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| User: "Lester Zick" |
|
| Title: Re: Infinitesimal Arithmetic |
09 May 2007 02:58:19 PM |
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On 8 May 2007 18:50:45 -0700, "Ross A. Finlayson"
<raf@tiki-lounge.com> wrote:
On May 8, 12:17 pm, Uncle Al <Uncle...@hate.spam.net> wrote:
Lester Zick wrote:
Infinitesimal Arithmetic
~v~~
It's curious that for any finite r, infinitesimal i, and transfinite
I, the same people who understand I+r=I have such difficulty
understanding r+i=r.
Hey Zick, perserverative boring spammer, tell us about algebras
defined by
not(not(p or q) or not(p or not(q)) = p
--
Uncle Alhttp://www.mazepath.com/uncleal/
(Toxic URL! Unsafe for children and most mammals)http://www.mazepath.com/uncleal/lajos.htm#a2
By infinitesimal, do you mean delta x as delta x goes to zero, dx, the
differential?
Technically I'm more interested in the definite infinitesimal integral
between 0 and dt of v=dr/dt which is the radially directed finite v
resulting from the definite infinitesimal integral of centrifugal a.
The magnitude of dr is infinitesimal so r remains finitely constant.
Then, if you sum those over the unit interval, you get 1, so, if "i"
was the differential and "I" the infinity of differentials on the unit
interval, then you might think something along the lines as the
inventors of the calculus (infinitesimal analysis) did, that Ii = 1 =
iI. (Perhaps that "I" is better thought of as the single unit scalar
infinity or as Sergeyev calls it (1), and the integral is not a sum
but a multiple, with then Lebesgue sums of the products.) Lester, do
you think Ii = 1? Then, it is not a transfinite infinity that you
consider.
Well this an interesting question, Ross, I've actually pondered. I'm
inclined to the opinion that i=r/I and I=r/i. However I'm disinclined
to make a federal case out of it at this point because the calculus
makes clear the relation between finite acceleration and velocity so
the only novel aspect of what I'm trying to emphasize is the concept
of infinitesimal definite integration which clearly shows the presence
of finite centripetal velocity and infinitesimal dr in the presence of
centripetal acceleration.
Then, in consideration of a "real number" r (read: definite real) in
sum with an infinitesimal (read: unit scalar infinitesimal), and that
the sum is not definitely different than the original real number
(definitely the same, indefinitely the next), there's a notion that
there would be I many to those to increment r by one, and some portion
of I many to increment less than one, defined in terms of again
definite real numbers on the unit interval.
I'm not sure I'm construing your remarks here correctly, Ross. This is
more than just a mathematical curiosity. It's a real problem in the
mathematical interpretation of angular mechanics and time as an
independent variable in infinitesimal contexts.
~v~~
.
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| User: "Ross A. Finlayson" |
|
| Title: Re: Infinitesimal Arithmetic |
09 May 2007 04:09:23 PM |
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On May 9, 12:58 pm, Lester Zick <dontbot...@nowhere.net> wrote:
On 8 May 2007 18:50:45 -0700, "Ross A. Finlayson"
<r...@tiki-lounge.com> wrote:
On May 8, 12:17 pm, Uncle Al <Uncle...@hate.spam.net> wrote:
Lester Zick wrote:
Infinitesimal Arithmetic
~v~~
It's curious that for any finite r, infinitesimal i, and transfinite
I, the same people who understand I+r=I have such difficulty
understanding r+i=r.
Hey Zick, perserverative boring spammer, tell us about algebras
defined by
not(not(p or q) or not(p or not(q)) = p
--
Uncle Alhttp://www.mazepath.com/uncleal/
(Toxic URL! Unsafe for children and most mammals)http://www.mazepath.com/uncleal/lajos.htm#a2
By infinitesimal, do you mean delta x as delta x goes to zero, dx, the
differential?
Technically I'm more interested in the definite infinitesimal integral
between 0 and dt of v=dr/dt which is the radially directed finite v
resulting from the definite infinitesimal integral of centrifugal a.
The magnitude of dr is infinitesimal so r remains finitely constant.
Then, if you sum those over the unit interval, you get 1, so, if "i"
was the differential and "I" the infinity of differentials on the unit
interval, then you might think something along the lines as the
inventors of the calculus (infinitesimal analysis) did, that Ii = 1 =
iI. (Perhaps that "I" is better thought of as the single unit scalar
infinity or as Sergeyev calls it (1), and the integral is not a sum
but a multiple, with then Lebesgue sums of the products.) Lester, do
you think Ii = 1? Then, it is not a transfinite infinity that you
consider.
Well this an interesting question, Ross, I've actually pondered. I'm
inclined to the opinion that i=r/I and I=r/i. However I'm disinclined
to make a federal case out of it at this point because the calculus
makes clear the relation between finite acceleration and velocity so
the only novel aspect of what I'm trying to emphasize is the concept
of infinitesimal definite integration which clearly shows the presence
of finite centripetal velocity and infinitesimal dr in the presence of
centripetal acceleration.
Then, in consideration of a "real number" r (read: definite real) in
sum with an infinitesimal (read: unit scalar infinitesimal), and that
the sum is not definitely different than the original real number
(definitely the same, indefinitely the next), there's a notion that
there would be I many to those to increment r by one, and some portion
of I many to increment less than one, defined in terms of again
definite real numbers on the unit interval.
I'm not sure I'm construing your remarks here correctly, Ross. This is
more than just a mathematical curiosity. It's a real problem in the
mathematical interpretation of angular mechanics and time as an
independent variable in infinitesimal contexts.
~v~~
Consider a non-self-intersecting space-filling curve, that is a curve
(in smooth infinitesimal analysis, where the circle is an infinitely-
sided regular polygon, perhaps a collection of line segments sharing
endpoints) that has as a point on the curve each point in an area,
say, the unit square or unit circle.
Those space-filling curves are generally accepted to exist, in certain
proscribed forms, as fractals, but consider something along the lines
of an analog of a line from zero to one on the one-dimensional unit
interval, that starts at zero and somehow spirals outwards thus that
it is continuously incident to itself yet fills area and forms
variously the open or closed unit disc or two-dimensional coordinate
plane for any two linearly independent coordinate axes, or polar/
circular coordinates of two variables. (The derivative is
infinitesimal, recoverable in bookkeeping.)
(Consider an entire plane or infinitesimal patch of area: is it a
disc or square or any regular polygon in between?)
That novitiates in pre-calculus recognize and may ably use delta-
epsilonics does not erase the thousands of years pre-, post-, (and
what's during, contra-?, intermedio-?) the infinitesimal analysis'
"rigorization". That is to say, the attempts to bring conceivable
notions of the real numbers that lie outside what is today the
standard are legion, because there is a perceived acknowledgment in
the academic corpi that there is more to the real numbers than their
standard treatment.
In delta-epsilonics, it is for no finite difference that true
analytical results corresponding to the obvious geometric results hold
true: it is not for any finite difference that they hold true, and
were the differences zero then there would not be non-trivial results
about the non-trivial. So, the differential is less than any definite
finite quantity, and non-zero. Then, perhaps you might consider that
delta-epsilonics provides what may be seen as a subset of Tony's
"inverse function rule", in a way.
A lot of people spend a lot of time considering the foundations of
mathematics and the perceived paradoxoi/en/es in the philosophical
mathematical logic construed to underpin it, because it's fascinating
to those with an introspective yet holistic mindset. For millenia it
is the case that some of what are perceived as the deepest thoughts
are about these things. So, when there gets to be consideration that
there couldn't be an empty set or there can't be infinity, where by
the same token by the very deep embedding of those concepts as
definitive of all in between they can't not, then, reconciliation
leads to duality, observable in many systems, and, all.
Generally where I use the word universe it means the domain of
discourse, the _collection_, in set theory a _set_, in physics the
physical universe, which includes all things. So, the null axiom
theory is the null axiom set theory, the null axiom number theory, the
null axiom geometric theory, and the null axiom physical theory.
Compare God's "it was dark, then there was light" to Lee's "from the
void springs everything." Posit: nothing, or not, ad infinitum,
itself the continuum and Ouroboros, Yggdrasil's map is a theosophical
diagram.
In theory, truth should equate to utterability (or trivially lack
thereof, with the NAT reinforcing itself), in a consistent theory:
provability.
There's only one theory with no axioms.
Ross
--
Finlayson Consulting
.
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| User: "Lester Zick" |
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| Title: Re: Infinitesimal Arithmetic |
09 May 2007 06:46:58 PM |
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Yeah, look, Ross, I don't do exemplary analogical definitions of
problems without axioms for which I've already provided true
definitions without axioms. If you think space is filled with non
intersecting curves etc. that's nice but it just doesn't have much to
do with what I'm talking about. If you have something to say about
what I am discussing please do. Otherwise I suggest you communicate
with Al on whatever subjects you're interested in.
On 9 May 2007 14:09:23 -0700, "Ross A. Finlayson"
<raf@tiki-lounge.com> wrote:
On May 9, 12:58 pm, Lester Zick <dontbot...@nowhere.net> wrote:
On 8 May 2007 18:50:45 -0700, "Ross A. Finlayson"
<r...@tiki-lounge.com> wrote:
On May 8, 12:17 pm, Uncle Al <Uncle...@hate.spam.net> wrote:
Lester Zick wrote:
Infinitesimal Arithmetic
~v~~
It's curious that for any finite r, infinitesimal i, and transfinite
I, the same people who understand I+r=I have such difficulty
understanding r+i=r.
Hey Zick, perserverative boring spammer, tell us about algebras
defined by
not(not(p or q) or not(p or not(q)) = p
--
Uncle Alhttp://www.mazepath.com/uncleal/
(Toxic URL! Unsafe for children and most mammals)http://www.mazepath.com/uncleal/lajos.htm#a2
By infinitesimal, do you mean delta x as delta x goes to zero, dx, the
differential?
Technically I'm more interested in the definite infinitesimal integral
between 0 and dt of v=dr/dt which is the radially directed finite v
resulting from the definite infinitesimal integral of centrifugal a.
The magnitude of dr is infinitesimal so r remains finitely constant.
Then, if you sum those over the unit interval, you get 1, so, if "i"
was the differential and "I" the infinity of differentials on the unit
interval, then you might think something along the lines as the
inventors of the calculus (infinitesimal analysis) did, that Ii = 1 =
iI. (Perhaps that "I" is better thought of as the single unit scalar
infinity or as Sergeyev calls it (1), and the integral is not a sum
but a multiple, with then Lebesgue sums of the products.) Lester, do
you think Ii = 1? Then, it is not a transfinite infinity that you
consider.
Well this an interesting question, Ross, I've actually pondered. I'm
inclined to the opinion that i=r/I and I=r/i. However I'm disinclined
to make a federal case out of it at this point because the calculus
makes clear the relation between finite acceleration and velocity so
the only novel aspect of what I'm trying to emphasize is the concept
of infinitesimal definite integration which clearly shows the presence
of finite centripetal velocity and infinitesimal dr in the presence of
centripetal acceleration.
Then, in consideration of a "real number" r (read: definite real) in
sum with an infinitesimal (read: unit scalar infinitesimal), and that
the sum is not definitely different than the original real number
(definitely the same, indefinitely the next), there's a notion that
there would be I many to those to increment r by one, and some portion
of I many to increment less than one, defined in terms of again
definite real numbers on the unit interval.
I'm not sure I'm construing your remarks here correctly, Ross. This is
more than just a mathematical curiosity. It's a real problem in the
mathematical interpretation of angular mechanics and time as an
independent variable in infinitesimal contexts.
~v~~
Consider a non-self-intersecting space-filling curve, that is a curve
(in smooth infinitesimal analysis, where the circle is an infinitely-
sided regular polygon, perhaps a collection of line segments sharing
endpoints) that has as a point on the curve each point in an area,
say, the unit square or unit circle.
Those space-filling curves are generally accepted to exist, in certain
proscribed forms, as fractals, but consider something along the lines
of an analog of a line from zero to one on the one-dimensional unit
interval, that starts at zero and somehow spirals outwards thus that
it is continuously incident to itself yet fills area and forms
variously the open or closed unit disc or two-dimensional coordinate
plane for any two linearly independent coordinate axes, or polar/
circular coordinates of two variables. (The derivative is
infinitesimal, recoverable in bookkeeping.)
(Consider an entire plane or infinitesimal patch of area: is it a
disc or square or any regular polygon in between?)
That novitiates in pre-calculus recognize and may ably use delta-
epsilonics does not erase the thousands of years pre-, post-, (and
what's during, contra-?, intermedio-?) the infinitesimal analysis'
"rigorization". That is to say, the attempts to bring conceivable
notions of the real numbers that lie outside what is today the
standard are legion, because there is a perceived acknowledgment in
the academic corpi that there is more to the real numbers than their
standard treatment.
In delta-epsilonics, it is for no finite difference that true
analytical results corresponding to the obvious geometric results hold
true: it is not for any finite difference that they hold true, and
were the differences zero then there would not be non-trivial results
about the non-trivial. So, the differential is less than any definite
finite quantity, and non-zero. Then, perhaps you might consider that
delta-epsilonics provides what may be seen as a subset of Tony's
"inverse function rule", in a way.
A lot of people spend a lot of time considering the foundations of
mathematics and the perceived paradoxoi/en/es in the philosophical
mathematical logic construed to underpin it, because it's fascinating
to those with an introspective yet holistic mindset. For millenia it
is the case that some of what are perceived as the deepest thoughts
are about these things. So, when there gets to be consideration that
there couldn't be an empty set or there can't be infinity, where by
the same token by the very deep embedding of those concepts as
definitive of all in between they can't not, then, reconciliation
leads to duality, observable in many systems, and, all.
Generally where I use the word universe it means the domain of
discourse, the _collection_, in set theory a _set_, in physics the
physical universe, which includes all things. So, the null axiom
theory is the null axiom set theory, the null axiom number theory, the
null axiom geometric theory, and the null axiom physical theory.
Compare God's "it was dark, then there was light" to Lee's "from the
void springs everything." Posit: nothing, or not, ad infinitum,
itself the continuum and Ouroboros, Yggdrasil's map is a theosophical
diagram.
In theory, truth should equate to utterability (or trivially lack
thereof, with the NAT reinforcing itself), in a consistent theory:
provability.
There's only one theory with no axioms.
Ross
~v~~
.
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| User: "Ross A. Finlayson" |
|
| Title: Re: Infinitesimal Arithmetic |
09 May 2007 08:54:18 PM |
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|
On May 9, 4:46 pm, Lester Zick <dontbot...@nowhere.net> wrote:
Yeah, look, Ross, I don't do exemplary analogical definitions of
problems without axioms for which I've already provided true
definitions without axioms. If you think space is filled with non
intersecting curves etc. that's nice but it just doesn't have much to
do with what I'm talking about. If you have something to say about
what I am discussing please do. Otherwise I suggest you communicate
with Al on whatever subjects you're interested in.
Lester, I have a question, what's the difference between an axiomless
definition, ie, a base type definition, and an axiom asserting the
existence of a structure with given properties? I guess I asked you
this before, can you _summarize_? (I enjoy Zickism if not too much
personal banter.)
I probably also think I have some answer, in that there is no
difference, the structure meeting the type definition. The natural
numbers and real numbers, in what they "really are", and not just
because of their incoincident appellation, are what probably exactly
model quantities in reality, natural physics.
Al, I'm wondering some more about the existence of a smallest finite
length, the Planck length, in reality. Where space-time is curved in
the Einsteinian sense, it can be in a funny way, where the curvature
is only to define straight lines of the geodesics, thus that the paths
of motions of particles are minimized (zero) in energy, instead of
having space-time be flat and the paths of motions of particles in the
omnipresent po(tential wave medium minimize energy. If Noether showed
every symmetry implies a conservation, doesn't each asymmetry imply a
non-conservation? (That's about immovable objects and unstoppable
forces, and their various importations to each other, in some kind of
soi-distant antiparallel transport, the brutally efficient perfect
information capitalist particle/wave economy.) Anyways, consider the
paired emitters A and B facing each other that emit particles to the
left and right (at 45 degree angles to the line connecting A and B),
on a plane as the planets are in alignment in the gedanken so the
geodesics are on a real plane for every observer's reference frame,
anyways, particles A_L and A_R meet B_R and B_L respectively where the
particles travel in a staight line each at the same constant velocity,
eg c in vacuum. Then, if the distance from either emitter to either
particle collision is the same and is some integral multiple of Planck
lengths, the distance in a plain Euclidean geometry between the
emitters is an irrational multiple of the Planck length, unitizing the
distance from emitter to collision the distance between emitters is
square root of two.
Is there some simple feature of Connes' noncommutative geometry in
transport that's supposed to explain how there can be a straight
line? If not, barring some other reasonable explanation, the
geodesics or paths are not straight anymore, and then, having them
curved as the new space, neither are their derivative geodesics, ad
infinitum. (I think space-time is flat.) That's why I say "space-
time is flat or space-time is flat, and gravity is always on".
Now, I am not a physicist, I'm a logician, who thinks physics is
explicable, but, a physicist should be able to understand the above
paragraphs.
Paul, I'm reminded of our discussion last year about "layman
ruminations on particle physics", and about how some refute HUP. That
is to say, experimental results suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold: Certainty.
Hey hey!
Good day,
Ross F.
--
Finlayson Consulting
.
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| User: "neilist" |
|
| Title: Re: Infinitesimal Arithmetic |
11 May 2007 02:55:19 PM |
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|
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
.
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| User: "Lester Zick" |
|
| Title: Re: Infinitesimal Arithmetic |
11 May 2007 07:00:57 PM |
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|
On 11 May 2007 12:55:19 -0700, neilist <littoralee@gmail.com> wrote:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Good to know. Thanks for the opine, opie.
~v~~
.
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| User: "neilist" |
|
| Title: Re: Infinitesimal Arithmetic |
16 May 2007 02:38:56 PM |
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On May 11, 8:00 pm, Lester Zick <dontbot...@nowhere.net> wrote:
On 11 May 2007 12:55:19 -0700, neilist <littora...@gmail.com> wrote:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Good to know. Thanks for the opine, opie.
~v~~
You're welcome. Hope you learned something. Ross wouldn't.
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| User: "Lester Zick" |
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| Title: Re: Infinitesimal Arithmetic |
16 May 2007 06:22:39 PM |
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On 16 May 2007 12:38:56 -0700, neilist <littoralee@gmail.com> wrote:
On May 11, 8:00 pm, Lester Zick <dontbot...@nowhere.net> wrote:
On 11 May 2007 12:55:19 -0700, neilist <littora...@gmail.com> wrote:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Good to know. Thanks for the opine, opie.
~v~~
You're welcome. Hope you learned something. Ross wouldn't.
What I learned, neilist, was that there was another idiot on these
groups who can't be bothered to demonstrate the truth of what he
thinks. Big surprise. Who'da thunk. You're in good company.
~v~~
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| User: "David R Tribble" |
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| Title: Re: Infinitesimal Arithmetic |
16 May 2007 10:21:23 PM |
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Ross Finlayson(?) wrote:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
neilist wrote:
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Lester Zick wrote:
Good to know. Thanks for the opine, opie.
neilist wrote:
You're welcome. Hope you learned something. Ross wouldn't.
Actually, the HUP does hold for all objects, regardless of size.
It's just that the uncertainty of a macroscopic object relative to
its size is incredibly small compared to, say, that of an electron.
.
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| User: "Lester Zick" |
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| Title: Re: Infinitesimal Arithmetic |
17 May 2007 01:57:39 PM |
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On 16 May 2007 20:21:23 -0700, David R Tribble <david@tribble.com>
wrote:
Ross Finlayson(?) wrote:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
neilist wrote:
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Lester Zick wrote:
Good to know. Thanks for the opine, opie.
neilist wrote:
You're welcome. Hope you learned something. Ross wouldn't.
Actually, the HUP does hold for all objects, regardless of size.
It's just that the uncertainty of a macroscopic object relative to
its size is incredibly small compared to, say, that of an electron.
Well the problem is that we don't actually know what HUP holds for
because it's only a principle applied to and tested for particles and
not to macroscopic groups of particles as a whole. This is one of the
difficulties in arguing from principles without understanding where
the principles come from and why they are what they are in mechanical
terms. If we simply extrapolate HUP from particles to macroscopic
aggregates of particles one would think HUP applies to all strictly as
a function of mass. But that would only be true if macroscopic bodies
were themselves massive particles the same way particles are instead
of mere assemblages of particles. And the fact is we don't even begin
to understand the structure of particles well enough to infer that.
There is no doubt HUP applies to particles in macroscopic bodies but
in order to resolve the issue of whether HUP applies to macroscopic
bodies directly we need to ascertain what mechanics causes HUP to be
what it is in particles and to decide whether a common mechanics can
be translated directly to macroscopic bodies. And simply saying both
share mass as a common form of resistance to acceleration and arguing
that HUP must apply to macroscopic bodies as a result doesn't do that.
This is one of the primary difficulties with empirical extrapolations
and arguments. Heisenberg initially drew an inspired guess which was
subsequently validated for particles. But he never showed the origin
for the effect in mechanical terms. And consequently all kinds of non
mechanical guesses and extrapolations for his original insight have
been touted as "necessary" implications of that principle.
In order to decide to what HUP actually applies we first need to know
what the structure of particles is and understand the mechanics which
determines application of the principle. And empirical extrapolations
don't do that. They just compound the problem by stacking guesses on
top of other guesses until no one actually understand the mechanics
involved.
It's one of the basic reasons opinions by themselves just don't matter
since it's the reasons why an opinion is what it is that matter and
without an explicit understanding of those reasons, opinions per se
just don't matter and never will.It's the core weakness of empiricism.
And the same is true of relativity, Einstein's inspired guesses to the
contrary notwithstanding. All kinds of doctrinal inferences are drawn
from Einstein's principles without the least notion where the guesses,
inferences, and even the principles themselves come from in mechanical
terms. A guess may turn out to be correct but that still doesn't make
it anything more than a guess and doesn't make interpretations of the
guess and certainly not extrapolations of the guess anything more than
problematic.
And the same is true of guesses which turn out to be wrong. The real
number line in modern math turns out to be wrong but that isn't to say
that guesses based on erroneous guesses are necessarily themselves to
be construed as wrong for that reason. They're still guesses and are
nothing more than mechanically disconnected speculations which can
nontheless be correct despite the fact that they themselves were based
on incorrect guesses, divinations, and inspirations.
Empiricism as an epistemological framework is simply flawed. It is one
thing to rely on guesswork as a substitute for strict adherence to an
incorrect mechanical framwork such as the medieval Aristotelian
metaphysics demanded by the Roman Catholic church. But it is quite
another to contend that empirical guesswork is an epistemologically
adequate alternative in itself to a correct mechanical understanding.
~v~~
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| User: "Ross A. Finlayson" |
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| Title: Re: Infinitesimal Arithmetic |
17 May 2007 11:08:04 AM |
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On May 16, 8:21 pm, David R Tribble <d...@tribble.com> wrote:
Ross Finlayson(?) wrote:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
neilist wrote:
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Lester Zick wrote:
Good to know. Thanks for the opine, opie.
neilist wrote:
You're welcome. Hope you learned something. Ross wouldn't.
Actually, the HUP does hold for all objects, regardless of size.
It's just that the uncertainty of a macroscopic object relative to
its size is incredibly small compared to, say, that of an electron.
Construct an emitter E and at some distance L in vacuum a detector D,
emit a photon at time t_0 from the emitter, collect it at time t_{L/c}
at the detector, where light speed is a constant then is known the
photon's position and momentum.
HUP is said to be a key feature of modern, quantum physics, and apply
to all bodies, where each thing is particle and wave.
http://www.rialian.com/rnboyd/heisenburg-refute.htm
The above article posits in a similar manner to the simple gedanken
experiment that I describe that HUP does not apply to some photon.
So, HUP is said to apply to every dualistic particle/wave, including
meso- and macro-scale objects, yet, if light (a photon) travels in a
straight line at a constant velocity, then, a photon emitted along
that line will have known its velocity (a constant) and via knowledge
of its wavelength _momentum_ (fixed) in the direction of that line,
and as a function of time and constant velocity c, its _position_.
Then is known its position and momentum, which can be predicted.
Dave, when I saw you had posted to this thread I wondered if it would
be about your eta-numbers (a consideration of infinitesimals).
Hope you learned something.
Ross
--
Finlayson Consulting
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| User: "Ross A. Finlayson" |
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| Title: Re: Infinitesimal Arithmetic |
17 May 2007 09:40:26 AM |
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On May 16, 8:21 pm, David R Tribble <d...@tribble.com> wrote:
Ross Finlayson(?) wrote:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
neilist wrote:
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Lester Zick wrote:
Good to know. Thanks for the opine, opie.
neilist wrote:
You're welcome. Hope you learned something. Ross wouldn't.
Actually, the HUP does hold for all objects, regardless of size.
It's just that the uncertainty of a macroscopic object relative to
its size is incredibly small compared to, say, that of an electron.
Construct an emitter E and at some distance L in vacuum a detector D,
emit a photon at time t_0 from the emitter, collect it at time t_{L/c}
at the detector, where light speed is a constant then is known the
photon's position and momentum.
HUP is said to be a key feature of modern, quantum physics, and apply
to all bodies, where each thing is particle and wave.
http://www.rialian.com/rnboyd/heisenburg-refute.htm
The above article posits in a similar manner to the simple gedanken
experiment that I describe that HUP does not apply to some photon.
So, HUP is said to apply to every dualistic particle/wave, including
meso-scale objects, yet, if light (a photon) travels in a straight
line at a constant velocity, then, a photon emitted along that line
will have known its velocity (a constant) and via knowledge of its
wavelength _momentum_ (fixed) in the direction of that line, and as a
function of time and constant velocity c, its _position_. Then is
known its position and momentum, which can be predicted.
Dave, when I saw you had posted to this thread I wondered if it would
be about your eta-numbers (a consideration of infinitesimals).
Hope you learned something.
Ross
--
Finlayson Consulting
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| User: "Wolf" |
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| Title: Re: Infinitesimal Arithmetic |
17 May 2007 01:32:17 PM |
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Ross A. Finlayson wrote:
On May 16, 8:21 pm, David R Tribble <d...@tribble.com> wrote:
Ross Finlayson(?) wrote:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
neilist wrote:
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Lester Zick wrote:
Good to know. Thanks for the opine, opie.
neilist wrote:
You're welcome. Hope you learned something. Ross wouldn't.
Actually, the HUP does hold for all objects, regardless of size.
It's just that the uncertainty of a macroscopic object relative to
its size is incredibly small compared to, say, that of an electron.
Construct an emitter E and at some distance L in vacuum a detector D,
emit a photon at time t_0 from the emitter, collect it at time t_{L/c}
at the detector, where light speed is a constant then is known the
photon's position and momentum.
HUP is said to be a key feature of modern, quantum physics, and apply
to all bodies, where each thing is particle and wave.
http://www.rialian.com/rnboyd/heisenburg-refute.htm
The above article posits in a similar manner to the simple gedanken
experiment that I describe that HUP does not apply to some photon.
So, HUP is said to apply to every dualistic particle/wave, including
meso-scale objects, yet, if light (a photon) travels in a straight
line at a constant velocity, then, a photon emitted along that line
will have known its velocity (a constant) and via knowledge of its
wavelength _momentum_ (fixed) in the direction of that line, and as a
function of time and constant velocity c, its _position_. Then is
known its position and momentum, which can be predicted.
Well then, Ross, do the experiment. Detect that emitted photon,
determine its wavelength, and predict its trajectory be after you have
determined its wavelength.
--
Wolf
"Don't believe everything you think." (Maxine)
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| User: "Ross A. Finlayson" |
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| Title: Re: Infinitesimal Arithmetic |
19 May 2007 05:37:39 PM |
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On May 17, 11:32 am, Wolf <ElLoboVi...@ruddy.moss> wrote:
Ross A. Finlayson wrote:
On May 16, 8:21 pm, David R Tribble <d...@tribble.com> wrote:
Ross Finlayson(?) wrote:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
neilist wrote:
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Lester Zick wrote:
Good to know. Thanks for the opine, opie.
neilist wrote:
You're welcome. Hope you learned something. Ross wouldn't.
Actually, the HUP does hold for all objects, regardless of size.
It's just that the uncertainty of a macroscopic object relative to
its size is incredibly small compared to, say, that of an electron.
Construct an emitter E and at some distance L in vacuum a detector D,
emit a photon at time t_0 from the emitter, collect it at time t_{L/c}
at the detector, where light speed is a constant then is known the
photon's position and momentum.
HUP is said to be a key feature of modern, quantum physics, and apply
to all bodies, where each thing is particle and wave.
http://www.rialian.com/rnboyd/heisenburg-refute.htm
The above article posits in a similar manner to the simple gedanken
experiment that I describe that HUP does not apply to some photon.
So, HUP is said to apply to every dualistic particle/wave, including
meso-scale objects, yet, if light (a photon) travels in a straight
line at a constant velocity, then, a photon emitted along that line
will have known its velocity (a constant) and via knowledge of its
wavelength _momentum_ (fixed) in the direction of that line, and as a
function of time and constant velocity c, its _position_. Then is
known its position and momentum, which can be predicted.
Well then, Ross, do the experiment. Detect that emitted photon,
determine its wavelength, and predict its trajectory be after you have
determined its wavelength.
--
Wolf
"Don't believe everything you think." (Maxine)
I think the notion is that monchromatic light is emitted, so that the
wavelength (in vacuum) is known a priori. In a barrel that is very
small in diameter compared to length, the "path integral" notion where
the particle takes all paths from emitter to detector would find
itself of a straight line. As well, the experiment should be far
removed from other masses, i.e. be a "closed" system, except to the
extent that it can be activated at time t_0 or 0.
Then, the notion is that the detection may as well be predicted from
the time that the particle (photon) is emitted. The photon reaches
length L at time L/c.
The observer problem (eg, watched quantum pots don't boil), might come
into play in a physical experiment where the detector would have to
interfere with the particle/wave (photon) to carry forth a mechanical
operation indicating its detection. Then, in bouncing that back to
some plate, observable effects along the lines of auto-inteference
would probably occur just as if the detector was a small aperture in
diffraction patterns.
If the particle's emission time is known, and the particle's velocity
is constant and the velocity direction vector is known, then the
position is a function of time and the momentum, after emission and
prior to detection, is a constant. So, if the photon reaches the
detector, at each point between emitter and detector the position and
momentum are known, position as a function of time and momentum as a
constant, or function of an indicator function of time multiplied by a
constant.
Basically what seems key is the observer problem and how observation
of a particle event interacts with the particle.
What equipment would you suggest to perform such an experiment? I
would presuppose some laser diode and a capacitor array to fire it and
a stopwatch, in the vacuum barrel, if the particle _is_ detected at
time t, then its position and momentum is known for times (0,t).
Then in an interpretation of the Heisenberg uncertainty principle, the
particle's position and momentum is know in advance of detection. Its
position and momentum post-detection seems to vary on what happens to
the particle in its detection, i.e. whether it is absorbed and
converted to another particle, or deflected.
Consider a chained array, where, the act of detection (which absorbs
the photon), emits a photon back down the barrel. Then, the position
(and momentum) of _the_ photon in the barrel is known as a function of
the length of the barrel, delay time on either side of emission, and
the time the experiment is begun.
Again it seems to be a matter of how detection affects the particle
itself. In the meso-scale, watching a river doesn't affect its rush
to the ocean, but "watching" a photon does affect it because there
needs to be a barrier to the photon's movement or evolution at this
level of the subatomic particles. So, the detector problem in some
sense seems to be a matter of insufficient knowledge of the detector
apparatus. Consider a perfect spherical concave mirror with the
detector that doesn't absorb the photon at the focal point, and, back
down the path of travel an array of secondary detectors, from which
detector that secondarily detects the photon, determine the path the
photon took post initial detection. The photon is emitted directly at
the detector on a line through the focal point. Then its position and
momentum direction vector post initial detection would be known post
secondary detection, and with the straight line of travel of constant
velocity photon's in vacuum, the only path that a particle having
those properties of constant velocity would be the geodesic in the
mirror array dealie that is a straight line.
In consideration of "infinitesimals" and "infinitesimal arithmetic", I
would again put forward that continuum mathematics as applied through
the integral calculus is in a sense a calculus of infinitesimals, with
arithmetic directly upon them. Then, in the micro-scale (and macro-
scale), the particles actually exhibit behavior of the infinitesimals
as they are, that quantum effects illustrate and the cart can lead the
horse in terms of mathematical physics: physically illustrated
mathematics.
Then, there is the notion that the measurable physical effects (and
their incongruities) should guide the development of mathematical
structures that reflect them, where generally it is the other way
around.
Ross
--
Finlayson Consulting
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| User: "Lester Zick" |
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| Title: Re: Infinitesimal Arithmetic |
17 May 2007 05:36:02 PM |
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On Thu, 17 May 2007 14:32:17 -0400, Wolf <ElLoboViejo@ruddy.moss>
wrote:
Wolf
"Don't believe everything you think." (Maxine)
Any more than you believe everything anyone else thinks.
~v~~
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| User: "" |
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| Title: Re: Infinitesimal Arithmetic |
11 May 2007 07:11:12 PM |
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In article <1178913319.516869.160190@u30g2000hsc.googlegroups.com>, neilist <littoralee@gmail.com> writes:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Why do you think so?
Mati Meron | "When you argue with a fool,
meron@cars.uchicago.edu | chances are he is doing just the same"
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| User: "Lester Zick" |
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| Title: Re: Infinitesimal Arithmetic |
12 May 2007 11:13:05 AM |
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On Sat, 12 May 2007 00:11:12 GMT, wrote:
In article <1178913319.516869.160190@u30g2000hsc.googlegroups.com>, neilist <littoralee@gmail.com> writes:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Why do you think so?
One guess is as good as another.
~v~~
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| User: "Eric Gisse" |
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| Title: Re: Infinitesimal Arithmetic |
13 May 2007 03:56:57 AM |
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On May 12, 9:13 am, Lester Zick <dontbot...@nowhere.net> wrote:
On Sat, 12 May 2007 00:11:12 GMT, wrote:
In article <1178913319.516869.160...@u30g2000hsc.googlegroups.com>, neilist <littora...@gmail.com> writes:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Why do you think so?
One guess is as good as another.
~v~~
Poor little Lester, so out of his depth.
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| User: "Lester Zick" |
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| Title: Re: Infinitesimal Arithmetic |
13 May 2007 12:07:30 PM |
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On 13 May 2007 01:56:57 -0700, Eric Gisse <jowr.pi@gmail.com> wrote:
On May 12, 9:13 am, Lester Zick <dontbot...@nowhere.net> wrote:
On Sat, 12 May 2007 00:11:12 GMT, wrote:
In article <1178913319.516869.160...@u30g2000hsc.googlegroups.com>, neilist <littora...@gmail.com> writes:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Why do you think so?
One guess is as good as another.
~v~~
Poor little Lester, so out of his depth.
"Depth" being Eric's eupehmism for having his stamen sucked by Isis.
~v~~
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| User: "Eric Gisse" |
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| Title: Re: Infinitesimal Arithmetic |
13 May 2007 07:10:49 PM |
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On May 13, 10:07 am, Lester Zick <dontbot...@nowhere.net> wrote:
On 13 May 2007 01:56:57 -0700, Eric Gisse <jowr...@gmail.com> wrote:
On May 12, 9:13 am, Lester Zick <dontbot...@nowhere.net> wrote:
On Sat, 12 May 2007 00:11:12 GMT, wrote:
In article <1178913319.516869.160...@u30g2000hsc.googlegroups.com>, neilist <littora...@gmail.com> writes:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Why do you think so?
One guess is as good as another.
~v~~
Poor little Lester, so out of his depth.
"Depth" being Eric's eupehmism for having his stamen sucked by Isis.
~v~~
Dance, monkey, DANCE! Respond to every post!
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| User: "Lester Zick" |
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| Title: Re: Infinitesimal Arithmetic |
14 May 2007 12:35:00 PM |
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On 13 May 2007 17:10:49 -0700, Eric Gisse <jowr.pi@gmail.com> wrote:
On May 13, 10:07 am, Lester Zick <dontbot...@nowhere.net> wrote:
On 13 May 2007 01:56:57 -0700, Eric Gisse <jowr...@gmail.com> wrote:
On May 12, 9:13 am, Lester Zick <dontbot...@nowhere.net> wrote:
On Sat, 12 May 2007 00:11:12 GMT, wrote:
In article <1178913319.516869.160...@u30g2000hsc.googlegroups.com>, neilist <littora...@gmail.com> writes:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Why do you think so?
One guess is as good as another.
~v~~
Poor little Lester, so out of his depth.
"Depth" being Eric's eupehmism for having his stamen sucked by Isis.
~v~~
Dance, monkey, DANCE! Respond to every post!
You suck, monkey, suck! (Jesus, is this an elevating conversation or
what.)
~v~~
.
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| User: "Eric Gisse" |
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| Title: Re: Infinitesimal Arithmetic |
14 May 2007 08:11:45 PM |
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On May 14, 10:35 am, Lester Zick <dontbot...@nowhere.net> wrote:
On 13 May 2007 17:10:49 -0700, EricGisse<jowr...@gmail.com> wrote:
On May 13, 10:07 am, Lester Zick <dontbot...@nowhere.net> wrote:
On 13 May 2007 01:56:57 -0700, EricGisse<jowr...@gmail.com> wrote:
On May 12, 9:13 am, Lester Zick <dontbot...@nowhere.net> wrote:
On Sat, 12 May 2007 00:11:12 GMT, wrote:
In article <1178913319.516869.160...@u30g2000hsc.googlegroups.com>, neilist <littora...@gmail.com> writes:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Why do you think so?
One guess is as good as another.
~v~~
Poor little Lester, so out of his depth.
"Depth" being Eric's eupehmism for having his stamen sucked by Isis.
~v~~
Dance, monkey, DANCE! Respond to every post!
You suck, monkey, suck! (Jesus, is this an elevating conversation or
what.)
~v~~
Dance, monkey, DANCE! Respond to every post!
.
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| User: "Lester Zick" |
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| Title: Re: Infinitesimal Arithmetic |
15 May 2007 02:13:20 PM |
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On 14 May 2007 18:11:45 -0700, Eric Gisse <jowr.pi@gmail.com> wrote:
On May 14, 10:35 am, Lester Zick <dontbot...@nowhere.net> wrote:
On 13 May 2007 17:10:49 -0700, EricGisse<jowr...@gmail.com> wrote:
On May 13, 10:07 am, Lester Zick <dontbot...@nowhere.net> wrote:
On 13 May 2007 01:56:57 -0700, EricGisse<jowr...@gmail.com> wrote:
On May 12, 9:13 am, Lester Zick <dontbot...@nowhere.net> wrote:
On Sat, 12 May 2007 00:11:12 GMT, wrote:
In article <1178913319.516869.160...@u30g2000hsc.googlegroups.com>, neilist <littora...@gmail.com> writes:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Why do you think so?
One guess is as good as another.
~v~~
Poor little Lester, so out of his depth.
"Depth" being Eric's eupehmism for having his stamen sucked by Isis.
~v~~
Dance, monkey, DANCE! Respond to every post!
You suck, monkey, suck! (Jesus, is this an elevating conversation or
what.)
~v~~
Dance, monkey, DANCE! Respond to every post!
More homo erotic gyrations from Eric. What's the problem, Eric? Isis
left me but didn't come back to you? Maybe he found a new playmate.
~v~~
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| User: "Eric Gisse" |
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| Title: Re: Infinitesimal Arithmetic |
15 May 2007 04:27:24 PM |
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On May 15, 12:13 pm, Lester Zick <dontbot...@nowhere.net> wrote:
On 14 May 2007 18:11:45 -0700, Eric Gisse <jowr...@gmail.com> wrote:
On May 14, 10:35 am, Lester Zick <dontbot...@nowhere.net> wrote:
On 13 May 2007 17:10:49 -0700, EricGisse<jowr...@gmail.com> wrote:
On May 13, 10:07 am, Lester Zick <dontbot...@nowhere.net> wrote:
On 13 May 2007 01:56:57 -0700, EricGisse<jowr...@gmail.com> wrote:
On May 12, 9:13 am, Lester Zick <dontbot...@nowhere.net> wrote:
On Sat, 12 May 2007 00:11:12 GMT, wrote:
In article <1178913319.516869.160...@u30g2000hsc.googlegroups.com>, neilist <littora...@gmail.com> writes:
... suggest Heisenberg's Uncertainty
Principle, for a century or so bedrock of the modern model of physics,
does not always hold
Ross, you know less history than physics. HUP is only about 80 years
old. Also, HUP certainly doesn't hold for macroscopic bodies.
Why do you think so?
One guess is as good as another.
~v~~
Poor little Lester, so out of his depth.
"Depth" being Eric's eupehmism for having his stamen sucked by Isis.
~v~~
Dance, monkey, DANCE! Respond to every post!
You suck, monkey, suck! (Jesus, is this an elevating conversation or
what.)
~v~~
Dance, monkey, DANCE! Respond to every post!
More homo erotic gyrations from Eric. What's the problem, Eric? Isis
left me but didn't come back to you? Maybe he found a new playmate.
~v~~
Dance, monkey, DANCE! Respond to every post!
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