Re: TO BG>>>>>>>>Theory of electron movement through the body

[Guest guest]

I tried that, too. Your bulb uses too much current to light up.

Your body resistance is limiting the current so that even a

flashlight bulb will not get enough current to light up, or even to

glow faintly!

This shows you how little electricity you are using to kill (disable)

these germs!!! I calculated it's about 1/40th the amount used by a

penlight.

Real dangerous, right? hahhahh

bG

> Electrons are tiny charged particles. They all have the

same charges

> which repel each other. They don't have anything to give each other

so

> they push themselves apart if left to their own devices.

>

[Guest guest]

Some of us have built the 6 volt germ killer using a ammeter in the circuit that

tell you absolutely current is flowing from point A to point B be it one foot to

another one foot to hand etc. Yes current flows through the body.

Jack

TO BG>>>>>>>>Theory of electron movement through the

body

Dear BG,

Do you mean that the 6V can pass the current through the body? I mean, if I

connect myself to the + end of 6V with my right hand and to the - end of 6V

battery with my other hand, will charge pass through me? Is there a way of

finding it out if this really happens? Like, if I connect a very small light

bulb to one end of the closed circuit, the light would still not light. So how

can we make sure that the voltage is good enough to pass through the body?

Thanks

Reza

baby_grand <no_reply > wrote:

Electrons are tiny charged particles. They all have the same charges

which repel each other. They don't have anything to give each other so

they push themselves apart if left to their own devices.

[Guest guest]

Further: the current we use is very small on the order of a half a milliamp or

..5 ma. It's doubtful it would light an ordinary lamp like a flashlight lamp.

Higher current can cause damage so we don't use it.

Jack

TO BG>>>>>>>>Theory of electron movement through the

body

Dear BG,

Do you mean that the 6V can pass the current through the body? I mean, if I

connect myself to the + end of 6V with my right hand and to the - end of 6V

battery with my other hand, will charge pass through me? Is there a way of

finding it out if this really happens? Like, if I connect a very small light

bulb to one end of the closed circuit, the light would still not light. So how

can we make sure that the voltage is good enough to pass through the body?

Thanks

Reza

baby_grand <no_reply > wrote:

Electrons are tiny charged particles. They all have the same charges

which repel each other. They don't have anything to give each other so

they push themselves apart if left to their own devices.

[Guest guest]

Does it show any amperage? Also what about the skin effect? Do you think the

current just flows on the surface from one point to another or does it pass

through tissues?

Thanks

Reza

Jack Milliorn <jack.mill@...> wrote:

Some of us have built the 6 volt germ killer using a ammeter in the

circuit that tell you absolutely current is flowing from point A to point B be

it one foot to another one foot to hand etc. Yes current flows through the body.

Jack

TO BG>>>>>>>>Theory of electron movement through the body

Dear BG,

Do you mean that the 6V can pass the current through the body? I mean, if I

connect myself to the + end of 6V with my right hand and to the - end of 6V

battery with my other hand, will charge pass through me? Is there a way of

finding it out if this really happens? Like, if I connect a very small light

bulb to one end of the closed circuit, the light would still not light. So how

can we make sure that the voltage is good enough to pass through the body?

Thanks

Reza

baby_grand <no_reply > wrote:

Electrons are tiny charged particles. They all have the same charges

which repel each other. They don't have anything to give each other so

they push themselves apart if left to their own devices.

[Guest guest]

yes, from 1 millionth of an amp to whatever you want.

no skin effect with dc current, that's an AC current phenomenon. The

current dives into you..don't worry about that, it goes through

bones, joints, fat, skin, you name it.

bG

> Electrons are tiny charged particles. They all have the same

charges

> which repel each other. They don't have anything to give each other

so

> they push themselves apart if left to their own devices.

>

>

[Guest guest]

Yes it does show " amperage " (current) I use on the order of 0.250 ma or 250

microamp (ua). A very small amount of current. I have a 0-1 milliamp meter in

the circuit along with a potentiometer for adjusting the current.

Jack

TO BG>>>>>>>>Theory of electron movement through the

body

Dear BG,

Do you mean that the 6V can pass the current through the body? I mean, if I

connect myself to the + end of 6V with my right hand and to the - end of 6V

battery with my other hand, will charge pass through me? Is there a way of

finding it out if this really happens? Like, if I connect a very small light

bulb to one end of the closed circuit, the light would still not light. So how

can we make sure that the voltage is good enough to pass through the body?

Thanks

Reza

baby_grand <no_reply > wrote:

Electrons are tiny charged particles. They all have the same charges

which repel each other. They don't have anything to give each other so

they push themselves apart if left to their own devices.

[Guest guest]

--- baby_grand <no_reply > wrote:

> yes, from 1 millionth of an amp to whatever you

> want.

> no skin effect with dc current, that's an AC current

> phenomenon. The

> current dives into you..don't worry about that, it

> goes through

> bones, joints, fat, skin, you name it.

>

> bG

Agreed, and with all of the research and papers that

have been written over the years it seems likely

that the relative resistivity to plain old DC (if not

for various frequencies)for elements of tissue and

blood etc. should be out there somewhere. I envision

an approximate equivalent circuit, but I'd like a bit

more info to flesh it out. I thought bG's reference

to electron motion in the presents of other electrons

was good -- you know, 'like signs repell and all that'

An equivalent circuit would be static. Bg's info made

it dynamic.

>

>

> > Electrons are tiny charged particles. They all

> have the same

> charges

> > which repel each other. They don't have anything

> to give each other

> so

> > they push themselves apart if left to their own

> devices.

> >

> > [Non-text portions of this message have been

> removed]

> >

> >

> >

> >

> >

> >

> > ---------------------------------

> > Need Mail bonding?

> > Go to the Q & A for great tips from

> Answers users.

> >

> > [Non-text portions of this message have been

> removed]

> >

>

>

>

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____

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[Guest guest]

connect LED bulb that lights up or A-meter that measures flow of current.

TO BG>>>>>>>>Theory of electron movement through the

body

Dear BG,

Do you mean that the 6V can pass the current through the body? I mean, if I

connect myself to the + end of 6V with my right hand and to the - end of 6V

battery with my other hand, will charge pass through me? Is there a way of

finding it out if this really happens? Like, if I connect a very small light

bulb to one end of the closed circuit, the light would still not light. So how

can we make sure that the voltage is good enough to pass through the body?

Thanks

Reza

baby_grand <no_reply > wrote:

Electrons are tiny charged particles. They all have the same charges

which repel each other. They don't have anything to give each other so

they push themselves apart if left to their own devices.

[Guest guest]

> Electrons are tiny charged particles. They all have the

same charges

> which repel each other. They don't have anything to give each

other so

> they push themselves apart if left to their own devices.

>

[Guest guest]

> Electrons are tiny charged particles. They all have the same

charges

> which repel each other. They don't have anything to give each

other so

> they push themselves apart if left to their own devices.

>

>

[Guest guest]

In the body the current tends to follow the blood vessels more since blood

conducts many times better than the tissue. electricity follows the path of

least resistance.

Take care,

V

>

>> Electrons are tiny charged particles. They all have the same

> charges

>> which repel each other. They don't have anything to give each

> other so

>> they push themselves apart if left to their own devices.

>>