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Quote from: CliveG on Today at 05:36:26 cell equilibrium potential which is in the order of about 60-70 millivolts. And it's easy to measure voltages a thousand times less than that.Even nanovolt measurements (a million times less than typical cell membrane potentials) are "off the peg" - albeit an expensive peg.https://uk.tek.com/keithley-low-level-sensitive-and-specialty-instruments/keithley-nanovoltmeter-model-2182a
You are applying on one criteria.
Quote from: Bored chemist on 02/11/2019 12:19:37Quote from: CliveG on Today at 05:36:26 cell equilibrium potential which is in the order of about 60-70 millivolts. And it's easy to measure voltages a thousand times less than that.Even nanovolt measurements (a million times less than typical cell membrane potentials) are "off the peg" - albeit an expensive peg.https://uk.tek.com/keithley-low-level-sensitive-and-specialty-instruments/keithley-nanovoltmeter-model-2182aAnd how do your stick the probes onto a protein attached to cell membrane? As well as detecting the opening and closing of the channel in response? At nanosecond response times?
And how do your stick the probes onto a protein attached to cell membrane? As well as detecting the opening and closing of the channel in response? At nanosecond response times?
Quote from: CliveG on 02/11/2019 15:48:06Quote from: Bored chemist on 02/11/2019 12:19:37Quote from: CliveG on Today at 05:36:26 cell equilibrium potential which is in the order of about 60-70 millivolts. And it's easy to measure voltages a thousand times less than that.Even nanovolt measurements (a million times less than typical cell membrane potentials) are "off the peg" - albeit an expensive peg.https://uk.tek.com/keithley-low-level-sensitive-and-specialty-instruments/keithley-nanovoltmeter-model-2182aAnd how do your stick the probes onto a protein attached to cell membrane? As well as detecting the opening and closing of the channel in response? At nanosecond response times?Either it can be done (it is) or your arguments about cell potentials have no basis in fact. You choose.
And, of course , there's the capacitance problem. Cell membranes are thin insulators so they have significant capacitance.Given the finite source impedance, you can't charge + discharge them that fast.The timescale for real signals is about a millisecond or 10.
Quote You are applying on one criteria.Just the one you quote, and is demonstrably true. IIRC the maximum output from the handset occurs when it is seeking a connection in a weak signal area.
Computer modelling does not verify anything. IIRC all the in vivo findings you have quoted have involved radiation intensities known to be acutely dangerous, or not replicated by independent laboratories.
I'm not saying anything. Just waiting for you to come up with a sensible demonstration of whatever you claim.
Darn. I was hoping to provoke a response from BC.
At least you guys are finally engaging!!!
Done some reading have you.
There is a consensus among independent scientists
Of course you will feel better. Enjoy your holiday. And if you do participate in a genuine double-blind experiment, the world will be interested in the result.
Quote from: CliveG on 02/11/2019 16:34:48Darn. I was hoping to provoke a response from BC.Yo got one, but you don't seem to have noticed.Quote from: CliveG on 02/11/2019 16:43:35At least you guys are finally engaging!!!We have been doing that for 11 pages.Again, it seems you didn't notice.Quote from: CliveG on 02/11/2019 16:43:35Done some reading have you.Yes, and in this case I did it in 1985/86 while studying at university.Quote from: CliveG on 03/11/2019 03:47:29There is a consensus among independent scientists Independent of what?Of evidence?
Can I take your silence as acquiescence?
How long before I achieve the status of idiot, imbecile or moron?
But I agree it is no conclusive test because it is very relaxing.
Quote from: CliveG on 04/11/2019 03:23:44 But I agree it is no conclusive test because it is very relaxing. That's not the reason.Are you just deliberately ignoring the importance of blinding in tests?
Quote from: CliveG on 04/11/2019 03:25:59Can I take your silence as acquiescence?No.I just got tired of rebutting nonsense.Quote from: CliveG on 04/11/2019 05:44:35How long before I achieve the status of idiot, imbecile or moron?I guess that's rhetorical
Mostly by personal declaration. No logical assessment of the articles I put forward.
And now we see that you are just being silly.Cell membranes have modest, but definite impedance and capacitances.If there's any meaningful point to measuring on a ns timescale there must be a corresponding GHz bandwidth.And, if you measure a voltage across a resistance of 1 K Ohm or so the noise voltage is about 0.1mV.Any "signal" below that would be perpetually lost in the noise.And, of course , there's the capacitance problem. Cell membranes are thin insulators so they have significant capacitance.Given the finite source impedance, you can't charge + discharge them that fast.The timescale for real signals is about a millisecond or 10.