Malcolm wrote:
Hi Marshall, we certainly disagree on this one, check out positive and
negative doping of semiconductors, obviously there can be more and
looser - so to speak - electrons within lattice structures and more than
there are protons to balance them.
Nope. You are changing things. We
Dan Nave wrote:
I take exception to this characterization. Electricity in a metal
conductor moves at the speed of light.
You are opening a can of worms talking about the speed of flow of actual
electrons or charges...
Dan
What do you mean by electricity? Voltage flows at the speed of
Malcolm wrote:
Ummm,
On Fri, 2008-09-12 at 15:36 -0005, M. G. Devour wrote:
Dear Neville,
You write:
[The actual linear velocity of the electrons within the wire is
proportional to the current: Zero with the switch off, and limited by
ohm's law, ie. total circuit resistance and
Wayne Fugitt wrote:
Evening Mike,
At 10:41 AM 9/12/2008, you wrote:
The higher the voltage or lower the resistance, then yes, the
current will be higher, which means the electrons are moving faster
in the wire.
In that case, how can one calculate watts ?
Watts is current times voltage.
I would prefer to say propagate rather than flow when referring to
voltage or pressure.
Dan
-Original Message-
From: Marshall Dudley [mailto:mdud...@king-cart.com]
Sent: Monday, September 15, 2008 10:00 AM
To: silver-list@eskimo.com
Subject: Re: CSThinking about current flow
?
Of course, when we get into actual electrolysis in the CS cell, we have
to ask you about it... ;-))
Dan
-Original Message-
From: Marshall Dudley [mailto:mdud...@king-cart.com]
Sent: Monday, September 15, 2008 10:18 AM
To: silver-list@eskimo.com
Subject: Re: CSThinking about current flow
Hi Marshall, we certainly disagree on this one, check out positive and
negative doping of semiconductors, obviously there can be more and
looser - so to speak - electrons within lattice structures and more than
there are protons to balance them. Further, due to the strains between
crystal
]
Sent: Monday, September 15, 2008 10:18 AM
To: silver-list@eskimo.com
Subject: Re: CSThinking about current flow: for Neville
Malcolm wrote:
Ummm,
On Fri, 2008-09-12 at 15:36 -0005, M. G. Devour wrote:
Dear Neville,
The number of electrons inside a wire
he is looking at how a light switch works.flick
on.flick off.flick on.
- Original Message -
From: Malcolm s...@asis.com
To: silver-list@eskimo.com
Sent: Tuesday, September 16, 2008 5:01 AM
Subject: RE: CSThinking about current flow: for Neville
AMEN!
Just look what you
Thanks for that Mike, I may know my stuff with mobile earthmoving equipment
and semi trailers and whatever other work I have been involved in, but
electricity...DUH!! I appreciate the patience and tolerance everyone has
shown here and will continue with my 'tutorials' while trying to keep my
Dear Neville,
You write:
[The actual linear velocity of the electrons within the wire is
proportional to the current: Zero with the switch off, and limited by
ohm's law, ie. total circuit resistance and voltage, when on.]
As a simple example...the higher the current, the quicker the
- Original Message -
From: M. G. Devour mdev...@eskimo.com
To: silver-list@eskimo.com
Sent: Friday, September 12, 2008 10:48 PM
Subject: CSThinking about current flow: for Neville
[In metals and other good conductors, the medium by which current flows
is usually moving electrons.
Dan writes:
I take exception to this characterization. Electricity in a metal
conductor moves at the speed of light.
Yes, Dan, the effects of an EMF propagate at the speed of light, but
individual *electrons* don't! (To the extent they exist as discrete
objects at all!)
The ping-pong balls
Okay, guys, I yield! But if you can come up with *better* imagery
that's intuitive *and* rigorous, I'm all ears! grin
Mike D.
Evening Mike,
At 10:41 AM 9/12/2008, you wrote:
The higher the voltage or lower the resistance, then yes, the
current will be higher, which means the electrons
: Friday, September 12, 2008 10:37 AM
To: silver-list@eskimo.com
Subject: Re: CSThinking about current flow: for Neville
Dear Neville,
You write:
[The actual linear velocity of the electrons within the wire is
proportional to the current: Zero with the switch off,
and limited
Ummm,
On Fri, 2008-09-12 at 15:36 -0005, M. G. Devour wrote:
Dear Neville,
You write:
[The actual linear velocity of the electrons within the wire is
proportional to the current: Zero with the switch off, and limited by
ohm's law, ie. total circuit resistance and voltage, when on.]
Evening Mike,
At 10:41 AM 9/12/2008, you wrote:
The higher the voltage or lower the resistance, then yes, the
current will be higher, which means the electrons are moving faster
in the wire.
In that case, how can one calculate watts ?
Measure or guess ?
Unless I misunderstand it,
Didit; but other than that small glitch it was an excellent explanation
for Neville's purposes, Props!!
On Fri, 2008-09-12 at 18:59 -0005, M. G. Devour wrote:
Okay, guys, I yield! But if you can come up with *better* imagery
that's intuitive *and* rigorous, I'm all ears! grin
Mike D.
Neville,
Maxwells equations, not Marshall,
shakes headmutter, muttersigh...
Chuck
Some national parks have long waiting lists for camping reservations.
When you have to wait a year to sleep next to a tree, something is
wrong.
On
Message -
From: Malcolm s...@asis.com
To: silver-list@eskimo.com
Sent: Saturday, September 13, 2008 8:43 AM
Subject: Re: CSThinking about current flow: for Neville
Didit; but other than that small glitch it was an excellent explanation
for Neville's purposes, Props!!
On Fri, 2008-09-12 at 18
EXCELLENT!! Just love that. Thanks Chuck, I can't stop laughing.
Sorry.
N.
- Original Message -
From: cking...@nycap.rr.com
To: silver-list@eskimo.com
Sent: Saturday, September 13, 2008 9:12 AM
Subject: Re: CSThinking about current flow: for Neville
Neville,
Maxwells equations
Isn't Mike saying I = E/R Where I is directly proportional to E and
inversely proportional to R?
Now,weather electrons speed up and sow down, I don't know about that...
Andy
In a message dated 9/12/2008 3:46:07 P.M. Pacific Daylight Time,
cwa...@netdoor.com writes:
Evening Mike,
Oops, now in plain text with corrections...
Isn't Mike saying I = E/R Where I is directly proportional to E and
inversely proportional to R?
watts still = I x E
Now, whether electrons speed up and slow down, I don't know about that...
Andy
In a message dated 9/12/2008 3:46:07 P.M.
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