Like in audio data compression, I know the difference between lossy and lossless compression . I sorta understand where the bits get allocated for the audio spectrum. Like where it's appropriate to accurately represent the raw data and where we can fudge it a little.I don't know how to do that for voter data without making assumptions or postulates of the data.Powered by Cricket Wireless------ Original message------From: Carl SchroedlDate: Sun, Jun 5, 2022 1:16 PMTo: robert bristow-johnson;Cc: Forest Simmons;Richard Lung;EM;Subject:Re: [EM] ThermodynamicsAs a software guy, the connection I make is to something I have wondered for a while -- whether it is useful to study social choice functions as lossy compression algorithms. I haven't thought it through, but it could be interesting to see if the rate-distortion branch of information theory would apply.On Sat, Jun 4, 2022, 9:09 PM robert bristow-johnson rbj@audioimagination.com wrote:
Being an electrical engineer that was ABD for a PhD in communications systems and signal processing, I have a little trouble seeing the connection to Shannon Information Theory. Either in the measure of information content of a message or set of messages or of the definition of entropy or of the capacity of a channel to carry information.So could someone make the connection for me? I get that set of ordinal ballot data is discrete information and there's some way, such as Huffman coding, to represent that information in the most compact and essential way possible.But I don't see the connection to social choice theory. Can someone help?robertPowered by Cric
ket Wireless------ Original message------From: Forest SimmonsDate: Sat, Jun 4, 2022 4:06 PMTo: Richard Lung;Cc: EM;Subject:Re: [EM] ThermodynamicsTrue!Do an internet search of "information mechanics" to confirm the validity of this tight connection.Information mechanics seems to be the key for the "unified field theory" Einstein was looking for ... and more ... unification of classical and quantum fields for all of the forces ... strong, weak, and intermediate... if not a "theory of everything."El sáb., 4 de jun. de 2022 6:26 a. m., Richard Lung voting@ukscientists.com escribió:
Forest,
The
efficiency of heat engines, in thermodynamics, offer an analogy
with voting
methods. Many other sciences do so, if voting method follows the
Stevens
structure of measurement, held in common by other branches of
science. (I
published a free e-book, about scientific models of election
method, called:
Science is Ethics as Electics.)
The
basic principle, that thermodynamics and election method have in
common is
conservation, either of energy or information. (I believe
scientists are
currently translating energy terms into information terms.)
Common-place
teachings of social choice theory, including the American
Mathematics Society,
usually make the claim that there is no perfect voting system.
The equivalent
statement in thermodynamics is that there is no perpetual motion
machine.
As
you point out, that does not preclude voting methods of
different efficiency,
the equivalent of heat engines of differing efficiency. The
engines depend on
efficient transfer of surplus heat, to work requirements, to
keep the engine
going. Similarly, transfers of vote surpluses, to elective
quotas, keep the
count procedure going. Heat forms a random distribution of
motion. And votes
typically form a random distribution of choice (subject to left
or right
skews).
Binomial STV
would perhaps
be rather more efficient than traditional STV, because it
rationally conserves
exclusion information. In rough analogy, a binomial STV “heat
engine” is better
“insulated,” to conserve heat. Thermodynamics is not just a
dynamic of heat but
also its insulation, in a closed system. Likewise, an election
method is not
just an active election, but also a closed system of exclusion.
Regards,
Richard
Lung.
Election-Methods mailing list - see https://electorama.com/em for list info
https://arxiv.org/abs/1905.03674
https://arxiv.org/abs/2104.04228
These papers may be interesting regarding this discussion.
On Mon, Jun 6, 2022 at 1:13 AM robert bristow-johnson <
rbj@audioimagination.com> wrote:
Like in audio data compression, I know the difference between lossy and
lossless compression . I sorta understand where the bits get allocated for
the audio spectrum. Like where it's appropriate to accurately represent
the raw data and where we can fudge it a little.
I don't know how to do that for voter data without making assumptions or
postulates of the data.
Powered by Cricket Wireless
------ Original message------
*From: *Carl Schroedl
*Date: *Sun, Jun 5, 2022 1:16 PM
*To: *robert bristow-johnson;
*Cc: *Forest Simmons;Richard Lung;EM;
*Subject:*Re: [EM] Thermodynamics
As a software guy, the connection I make is to something I have wondered
for a while -- whether it is useful to study social choice functions as
lossy compression algorithms. I haven't thought it through, but it could be
interesting to see if the rate-distortion branch of information theory
would apply.
On Sat, Jun 4, 2022, 9:09 PM robert bristow-johnson <
rbj@audioimagination.com> wrote:
Being an electrical engineer that was ABD for a PhD in communications
systems and signal processing, I have a little trouble seeing the
connection to Shannon Information Theory. Either in the measure of
information content of a message or set of messages or of the definition of
entropy or of the capacity of a channel to carry information.
So could someone make the connection for me?
I get that set of ordinal ballot data is discrete information and
there's some way, such as Huffman coding, to represent that information in
the most compact and essential way possible.
But I don't see the connection to social choice theory. Can someone help?
robert
Powered by Cric ket Wireless
------ Original message------
*From: *Forest Simmons
*Date: *Sat, Jun 4, 2022 4:06 PM
*To: *Richard Lung;
*Cc: *EM;
*Subject:*Re: [EM] Thermodynamics
True!
Do an internet search of "information mechanics" to confirm the validity
of this tight connection.
Information mechanics seems to be the key for the "unified field theory"
Einstein was looking for ... and more ... unification of classical and
quantum fields for all of the forces ... strong, weak, and intermediate...
if not a "theory of everything."
El sáb., 4 de jun. de 2022 6:26 a. m., Richard Lung <
voting@ukscientists.com> escribió:
Forest,
The efficiency of heat engines, in thermodynamics, offer an analogy with
voting methods. Many other sciences do so, if voting method follows the
Stevens structure of measurement, held in common by other branches of
science. (I published a free e-book, about scientific models of election
method, called: Science is Ethics as Electics.)
The basic principle, that thermodynamics and election method have in
common is conservation, either of energy or information. (I believe
scientists are currently translating energy terms into information terms.)
Common-place teachings of social choice theory, including the American
Mathematics Society, usually make the claim that there is no perfect voting
system. The equivalent statement in thermodynamics is that there is no
perpetual motion machine.
As you point out, that does not preclude voting methods of different
efficiency, the equivalent of heat engines of differing efficiency. The
engines depend on efficient transfer of surplus heat, to work requirements,
to keep the engine going. Similarly, transfers of vote surpluses, to
elective quotas, keep the count procedure going. Heat forms a random
distribution of motion. And votes typically form a random distribution of
choice (subject to left or right skews).
Binomial STV would perhaps be rather more efficient than traditional
STV, because it rationally conserves exclusion information. In rough
analogy, a binomial STV “heat engine” is better “insulated,” to conserve
heat. Thermodynamics is not just a dynamic of heat but also its insulation,
in a closed system. Likewise, an election method is not just an active
election, but also a closed system of exclusion.
Regards,
Richard Lung.
Election-Methods mailing list - see https://electorama.com/em for list
info
Election-Methods mailing list - see https://electorama.com/em for list
info
Very interesting in this context and other aspects of voting! Thanks for
the valuable references!
El lun., 6 de jun. de 2022 9:06 a. m., Andy Dienes andydienes@gmail.com
escribió:
https://arxiv.org/abs/1905.03674
https://arxiv.org/abs/2104.04228
These papers may be interesting regarding this discussion.
On Mon, Jun 6, 2022 at 1:13 AM robert bristow-johnson <
rbj@audioimagination.com> wrote:
Like in audio data compression, I know the difference between lossy and
lossless compression . I sorta understand where the bits get allocated for
the audio spectrum. Like where it's appropriate to accurately represent
the raw data and where we can fudge it a little.
I don't know how to do that for voter data without making assumptions or
postulates of the data.
Powered by Cricket Wireless
------ Original message------
*From: *Carl Schroedl
*Date: *Sun, Jun 5, 2022 1:16 PM
*To: *robert bristow-johnson;
*Cc: *Forest Simmons;Richard Lung;EM;
*Subject:*Re: [EM] Thermodynamics
As a software guy, the connection I make is to something I have wondered
for a while -- whether it is useful to study social choice functions as
lossy compression algorithms. I haven't thought it through, but it could be
interesting to see if the rate-distortion branch of information theory
would apply.
On Sat, Jun 4, 2022, 9:09 PM robert bristow-johnson <
rbj@audioimagination.com> wrote:
Being an electrical engineer that was ABD for a PhD in communications
systems and signal processing, I have a little trouble seeing the
connection to Shannon Information Theory. Either in the measure of
information content of a message or set of messages or of the definition of
entropy or of the capacity of a channel to carry information.
So could someone make the connection for me?
I get that set of ordinal ballot data is discrete information and
there's some way, such as Huffman coding, to represent that information in
the most compact and essential way possible.
But I don't see the connection to social choice theory. Can someone
help?
robert
Powered by Cric ket Wireless
------ Original message------
*From: *Forest Simmons
*Date: *Sat, Jun 4, 2022 4:06 PM
*To: *Richard Lung;
*Cc: *EM;
*Subject:*Re: [EM] Thermodynamics
True!
Do an internet search of "information mechanics" to confirm the validity
of this tight connection.
Information mechanics seems to be the key for the "unified field theory"
Einstein was looking for ... and more ... unification of classical and
quantum fields for all of the forces ... strong, weak, and intermediate...
if not a "theory of everything."
El sáb., 4 de jun. de 2022 6:26 a. m., Richard Lung <
voting@ukscientists.com> escribió:
Forest,
The efficiency of heat engines, in thermodynamics, offer an analogy
with voting methods. Many other sciences do so, if voting method follows
the Stevens structure of measurement, held in common by other branches of
science. (I published a free e-book, about scientific models of election
method, called: Science is Ethics as Electics.)
The basic principle, that thermodynamics and election method have in
common is conservation, either of energy or information. (I believe
scientists are currently translating energy terms into information terms.)
Common-place teachings of social choice theory, including the American
Mathematics Society, usually make the claim that there is no perfect voting
system. The equivalent statement in thermodynamics is that there is no
perpetual motion machine.
As you point out, that does not preclude voting methods of different
efficiency, the equivalent of heat engines of differing efficiency. The
engines depend on efficient transfer of surplus heat, to work requirements,
to keep the engine going. Similarly, transfers of vote surpluses, to
elective quotas, keep the count procedure going. Heat forms a random
distribution of motion. And votes typically form a random distribution of
choice (subject to left or right skews).
Binomial STV would perhaps be rather more efficient than traditional
STV, because it rationally conserves exclusion information. In rough
analogy, a binomial STV “heat engine” is better “insulated,” to conserve
heat. Thermodynamics is not just a dynamic of heat but also its insulation,
in a closed system. Likewise, an election method is not just an active
election, but also a closed system of exclusion.
Regards,
Richard Lung.
Election-Methods mailing list - see https://electorama.com/em for list
info
Election-Methods mailing list - see https://electorama.com/em for list
info
Election-Methods mailing list - see https://electorama.com/em for list
info