About ‘tropical fish’
One can study tropical fish in a restaurant and have
his a culinary philosophical doctrine .
Other can study tropical fish in their own surrounding natural
 environment.   His philosophy is absolutely different.
The problem is that physicists study electron without know
 its own surrounding natural environment -  vacuum.
Therefore we have ‘a culinary philosophical doctrine’.
==.


On Mar 6, 10:22 am, archytas <nwte...@gmail.com> wrote:
> Electron is now three quasi-particles - spinon, holon and orbiton.
> Physics is less about what an electron is than that it helps us use
> them - "sending them down wires so our computers work" and so on.  We
> don't know what a particle is.
>
> My take on Socratus is he may ask (rightly) too much of science.
>
> My take on science is this:
>  ‘… scientific realism[is defined] as the common sense (or common
> science) conception that, subject to a recognition that scientific
> methods are fallible and that most scientific knowledge is
> approximate, we are justified in accepting the most secure findings of
> scientists "at face value." What requires explanation is why this is a
> philosophical position rather than just a common sense one. Consider,
> for example, tropical fish realism -- the doctrine that there really
> are tropical fish; that the little books you buy about them at pet
> stores tend to get it approximately right about their appearance,
> behavior, food and temperature requirements, etc.; and that the fish
> have these properties largely independently of our theories about
> them. That's a pretty clear doctrine, but it's so commonsensical that
> it doesn't seem to have any particular philosophical import. Why is
> the analogous doctrine about science a philosophical doctrine?
> The answer is that -- setting aside skepticism about the external
> world -- there are no philosophical arguments against tropical fish
> realism, whereas important philosophical challenges have been raised
> against scientific realism.’ (Boyd 2002:1 [] mine)
>
> The philosophical issues are intractable if we start with the idea
> they can be bottomed-out.  With a comfortable sinecure I might spend
> the rest of my life trying, say, to reconcile what the Ancient Greeks
> knew about argument and complex set theory in the programmes of
> Scheibe, Ludwig and Sneed (see Balzer and Moulines 1996; Ludwig &
> Thurber 1996 and Scheibe 2001).  The later work is German and may give
> us some pointers by describing the complexity of theory formation in
> physics.  Ludwig’s main points are:
> •      Physical observations are first translated into sentences of an
> auxiliary mathematical theory containing only finite sets, and, in a
> second step, approximately embedded into an idealized theory. By this
> manoeuver the authors accentuate the contrast between finite physical
> operations and mathematical assumptions involving infinite sets.
> •     Inaccuracy sets and unsharp measurements are always considered right
> from the start – the role of approximation is held key in theory
> formation.
> •     The ‘basic domain’ of a theory is now that part of the ‘application
> domain’ where the theory is successfully applied, up to a certain
> degree of inaccuracy.
> •     The complicated terminology concerning various kinds of hypotheses
> in Ludwig is radically reduced to a small number of cases including
> fuzzy hypotheses.
> •     The problem of unsharp indirect measurements is reformulated in an
> elegant way which yet should be scrutinized by means of case studies.
>
> I'm not good at this stuff as it 'butters no parsnips' in my life -
> just interested.  Issues of science and technology as ideology are
> well articulated in Critical Theory (esp. Habermas) and I take them to
> be right if construing 'use' (as in the vampire squid of neo-classical
> economics and corrupt politics).
>
> We don't work in the certainty of faith in science and approximation
> plays a key role.  I think this gets lost and to some extent Nom I
> think your nominalism plays a role in ironing some of this out.  David
> Deutsche recently said:
>
> Constructors appear under various names in physics and other fields.
> For instance,
> in thermodynamics, a heat engine is a constructor because of the
> condition that it be
> capable of ‘operating in a cycle’. But they do not currently appear in
> laws of physics.
> Indeed, there is no possible role for them in what I shall call the
> prevailing conception
> of fundamental physics, which is roughly as follows: everything
> physical is composed of elementary constituents such as particles,
> fields and spacetime; there is
> an initial state of those constituents; and laws of motion determine
> how the state
> evolves continuously thereafter. In contrast, a construction is
> characterised only
> by its inputs and outputs, and involves subsystems (the constructor
> and the
> substrate), playing different roles, and most constructors are
> themselves composite
> objects. So, in the prevailing conception, no law of physics could
> possibly mention
> them: the whole continuous process of interaction between constructor
> and substrate
> is already determined by the universal laws governing their
> constituents.
> However, the constructor theory that I shall propose in this paper is
> not primarily
> the theory of constructions or constructors, as the prevailing
> conception would
> require it to be. It is the theory of which transformations
> input state of substrates → output state of substrates
> can be caused and which cannot, and why. As I shall explain, the idea
> is that the
> fundamental questions of physics can all be expressed in terms of
> those issues, and
> that the answers do not depend on what the constructor is, so it can
> be abstracted
> away, leaving transformations as the basic subject matter of the
> theory. I shall
> argue that we should expect such a theory to constitute a fundamental
> branch of
> physics with new, universal laws, and to provide a powerful new
> language for
> expressing other theories.
>
> We are not perplexed alone!
>
> On Mar 5, 6:42 pm, sadovnik  socratus <socra...@bezeqint.net> wrote:
>
>
>
> > Are you "Physics" perplexed, like me? Options
> > ==.
> > 1
> > *ATOMS*  - have electrons. . . . . . . . .
> > 2
> > *ELECTRONS* Negatively charged particles that constitute electricity.
> > 3
> > *ELECTRON VOLT*  . . . .
> > 4
> > *FERMIONS*   . .  have leptons . . . . . . .
> > 5
> > *LEPTONS*  . . . .Lightweight particles like the electrons that
> > constitute  electrical current and  . . . . .
> > 6
> > *NEUTRINOS* Extremely light, almost massless, invisible particles
> > produced
> > in radioactive decays, they are part of the lepton family  . . . .
> > 7.
> > PHOTONS* Particles that transmit electromagnetic forces, or light.
> > 8
> > *STANDARD MODEL* A set of equations that describes forces of nature
> > in
> > terms of elementary particles, known as fermions,  . . . . .
> > 9
> > There are three forces of nature in the Standard Model:
> >  light, or  electromagnetism . . . .
> > ===.
> > Half of your perplexed  points tied  with electron / photon.
> > Nobody knows what electron is.
> > If we solve that problem - the perplex will be disappeared
> > ==========================..
> >      The Electron’s  puzzle.
> > ===.
> > 1900, 1905
> > Planck and Einstein found the energy of electron: E=h*f.
> > 1916
> > Sommerfeld found the formula of electron : e^2=ah*c,
> >  1928
> > Dirac found two more formulas of electron’s energy:
> >           +E=Mc^2  and  -E=Mc^2.
> > According to QED in interaction with vacuum electron’s
> > energy is infinite: E= ∞
> > Questions.
> > Why does the simplest particle - electron have five ( 5 ) formulas ?
> > What is connection between them ?
> > Why does electron obey five ( 5) Laws ?
> >     a) Law of conservation and transformation energy/ mass
> >     b) Maxwell’s equations
> >     c) Heisenberg Uncertainty Principle / Law
> >     d) Pauli Exclusion Principle/ Law
> >     e) Fermi-Dirac statistics
> > What is connection between them ?
> > #
> > What is an electron ?
> > Nobody knows.
> > In the internet we can read hundreds theories about electron
> > All of them are problematical
> > We can read hundreds books about philosophy of physics.
> > But how can we trust them if we don’t know what electron is ?
> > ==.
> > Quote by Heinrich Hertz on Maxwell's equations:
>
> > "One cannot escape the feeling that these mathematical formulae
> > have an independent existence and an intelligence of their own,
> > that they are wiser than we are, wiser even than their discoverers,
> > that we get more out of them than was originally put into them."
> > =.
> > The banal Electron is not as simple as we think and, maybe,
> > he is much wiser than we are.
> > ==========.
> > Conclusion from some article:
> > One of the best kept secrets of science is
> > that physicists have lost their grip on reality.
> > ========.
>
> > On Mar 5, 7:10 pm, nominal9 <nomin...@yahoo.com> wrote:
>
> > > I know a bit about, say ..... half of the terms..... (maybe more)
>
> > >http://www.nytimes.com/2013/03/05/science/a-glossary-of-physics-terms...
>
> > > Glossary: A Guide for the Perplexed
>
> > > *ATOMS* The basic units of ordinary matter consist of one or more 
> > > electrons
> > > circling a tiny, dense nucleus of protons and neutrons.
>
> > > *BOSONS* Particles that can transmit forces between other particles,
> > > according to quantum theory, the lingua franca of modern physics. An
> > > example is the photon, which carries electromagnetism or light — and, of
> > > course, the bosons called Higgs, W and Z (see below).
>
> > > *DARK 
> > > MATTER<http://topics.nytimes.com/top/news/science/topics/dark_matter/index.h...>
> > > * Invisible matter that seems to provide the gravitational glue to 
> > > assemble
> > > galaxies and other large cosmic structures, according to astronomical
> > > measurements.
>
> > > *ELECTRONS* Negatively charged particles that constitute electricity.
>
> > > *ELECTRON VOLT* A unit of energy or mass (in Einstein’s world, they are 
> > > the
> > > same) equal to the energy gained when an electron passes through one volt
> > > of potential. An electron is, for example, 511,000 electron volts in mass,
> > > and a proton is 938,000,000 electron volts.
>
> > > *FERMIONS* Particles that form the basis for what we normally think of as
> > > matter. Elementary fermions are divided into two categories, leptons and
> > > quarks (see below). Protons and neutrons are also fermions.
>
> ...
>
> read more »- Hide quoted text -
>
> - Show quoted text -

-- 
You received this message because you are subscribed to the Google Groups 
"Epistemology" group.
To unsubscribe from this group and stop receiving emails from it, send an email 
to epistemology+unsubscr...@googlegroups.com.
To post to this group, send email to epistemology@googlegroups.com.
Visit this group at http://groups.google.com/group/epistemology?hl=en.
For more options, visit https://groups.google.com/groups/opt_out.


Reply via email to