(bad joke aside): Russ do you have a specific type of force group of forces
in mind?

On Fri, Apr 19, 2013 at 3:47 PM, Russ Abbott <[email protected]> wrote:

> One of the replies to my question on StackExchange was that what really
> mattered was that something is accelerated. Since acceleration is really(?)
> a matter of a change in energy of the thing accelerated, perhaps the most
> fundamental interaction is the transfer of energy from one entity (whatever
> an entity is) to another. Do we have any reasonable way to talk about how
> that happens?
>
>
> *-- Russ Abbott*
> *_____________________________________________*
> ***  Professor, Computer Science*
> *  California State University, Los Angeles*
>
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>
> On Fri, Apr 19, 2013 at 2:09 PM, Stephen Guerin <
> [email protected]> wrote:
>
>> Along the lines that Lee is mentioning with fields being the first
>> class objects, Bruce Sherwood may be able to illuminate some of the
>> current thinking in Quantum Field Theory and how interpretations are
>> made with respect to forces.
>>
>> Bruce?
>>
>> -Stephen
>>
>> On Fri, Apr 19, 2013 at 1:36 PM,  <[email protected]> wrote:
>> > Russ asks:
>> >
>> >> Is there a mechanistic-type explanation for how forces work? For
>> example,
>> >> two electrons repel each other. How does that happen? Other than saying
>> >> that there are force fields that exert forces, how does the
>> electromagnetic
>> >> force accomplish its effects. What is the interface/link/connection
>> between
>> >> the force (field) and the objects on which it acts. Or is all we can
>> say is
>> >> that it just happens: it's a physics primitive?
>> >
>> > I have the impression that the best you can say is that fields act on
>> fields; fields are (the
>> > only) first-class objects, and what you're calling "objects" are at
>> best second-class--they
>> > are epiphenomena of fields (or, of *the* field).
>> >
>> > There is (or was when I last tried to look into this, about 40 years
>> ago) a concept of
>> > "current" (which I suppose is a generalization of our familiar
>> "electric current", but if so
>> > is such a generalization that I was unable to see the connection at
>> all) which was in some way
>> > involved with interactions of fields.  Maybe a Google search on current
>> and Jakiw would turn
>> > up something useful, but probably not.
>> >
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