From: Henri Wilson on
On Sat, 04 Jun 2005 12:40:51 +0200, "Paul B. Andersen"
<paul.b.andersen(a)deletethishia.no> wrote:

>Henri Wilson wrote:
>> On 3 Jun 2005 07:08:42 -0700, paul.b.andersen(a)hia.no (Paul B. Andersen) wrote:
>>

>>>In a Cepheid there is a standing acoustic wave.
>>>The frequency is determined by the dimension of the star
>>>and the speed of sound in it.
>>>http://www.owlnet.rice.edu/%7Ebonnieb/Physics.html
>>>
>>>That's why there is a close relationship between
>>>the size of the star/crystal and the period.
>>
>>
>> Well Paul, you will now have to show me the connection between a resonant
>> acoustic wave through a ball of gas and its surface brightness.
>
>Done before, won't bother to repeat it.
>You never read it anyway.

How do you explain why stars of the same approximate size and temperature have
periods ranging from a few days to five years or more?

Are the acoustics controlled by fairies too?

>
>>>It is ridiculous to believe that only objects orbiting
>>>each other can have a constant period.
>>
>>
>> If you understood anything about diffusive, random and chaotic processes, you
>> wouldn't make such a ridiculous claim.
>>
>> Here is a statement from a paper on cepheids:
>> "When one measures the radial velocity of Cepheids, one finds a cyclic
>> variation, which has the same period as their change in brightness. "
>
>Of course.
>
>> Funny that. It's exactly what theBaT expects.
>
>Yea, right. :-)
>Very apparent from the following. :-)
>
>>>Cepheids are found in a small strip ("the instability strip")
>>>of the HR-diagram.
>>>http://www.astro.livjm.ac.uk/courses/one/NOTES/Garry%20Pilkington/loc.htm
>>>Their properties are very similar.

no connection.

>>
>>
>> Good.

>>>>I remember you assuring the late Androcles that binaries can easily have
>>>>periods this short.
>>>
>>>Indeed binaries can easily have periods this short or even shorter.
>>>So what?
>>>
>>>I won't bother to explain why this is irrelevant.
>>>Because you know it.
>>>Don't you?
>>>
>>>
>>>>>But I sure look forward to your attempt to
>>>>>explain how it is possible anyway.
>>>>>It is bound to be funny. :-)
>>>>
>>>>The 'Wilsonian Heavy' cool star.
>>>
>>>I find this a bit disappointing.
>>>Silly isn't good enough.
>>>I want it silly AND funny.
>>>So can't you do better?
>
>Henri can indeed do MUCH better:

the WCH

>
>> Well Paul, thanks to your patience and occasionally not unreasonable debating
>> skills, I now can. I have been able to dramatically extend the BaT to explain
>> cepheids, Miras etc, and put another nail in the SRian coffin.
>>
>> The truth is, cepheids are mainly small white stars orbiting neutron stars and
>> other 'Wilsonian cool heavies' (WCH). The occasional red giant that you mention
>> is really a small white but, because the mass of the WHC stars is very high,
>> light is greatly redshifted as it escapes the gravity field of the pair.
>>
>> This also explains the period/brightness relationship.
>> The further away from the WCH the orbiting cepheid is, the less redshift and
>> the more light energy escapes. Note the plane of the orbit wrt the observer is
>> a factor here.
>>
>> see: spiff.rit.edu/classes/phys240/lectures/lmc/lmc.html.
>>
>> Very interesting and supportive of the BaT.
>>
>> Miras are like cephids except no WCH is involved.
>>
>> I think we can start rewriting the astronomy books right now.
>
>Much better, Henri. I knew you could!
>Incredible silly AND hilarious!
>That's the way I want it!
>Thanks a lot.
>
>Nobody can parody Henri Wilson like Henri Wilson. :-)
>Possibly a bit too absurd to be a real good parody,
>but anyway - well done.

Thanks for the help. I will give you a mention.

>
>
>Paul


HW.
www.users.bigpond.com/hewn/index.htm

Sometimes I feel like a complete failure.
The most useful thing I have ever done is prove Einstein wrong.
From: Henri Wilson on
On Sat, 4 Jun 2005 12:37:53 +0000 (UTC), bz <bz+sp(a)ch100-5.chem.lsu.edu> wrote:

>H@..(Henri Wilson) wrote in
>news:g4n1a11q7ia6pestvnasp45tk5utoq55e7(a)4ax.com:
>
>> Well Paul, you will now have to show me the connection between a
>> resonant acoustic wave through a ball of gas and its surface brightness.
>>
>>
>>>
>>>It is ridiculous to believe that only objects orbiting
>>>each other can have a constant period.
>>
>> If you understood anything about diffusive, random and chaotic
>> processes, you wouldn't make such a ridiculous claim.
>
>Seems like we live near a star that regularly goes through a 11 year cycle.

A very approximate 11 year cycle. The actual period is all over hte place..as
one would expect with gaseous diffusion, etc..

>
>I guess those diffusive, random, and chaotic processes only prevent DISTANT
>stars from undergoing periodic variations.

Learn a few facts, bz.
How can similar stars exhibit very constant 'acoustic variation' frequencies
ranging from days to years?

>
>> Here is a statement from a paper on cepheids:
>> "When one measures the radial velocity of Cepheids, one finds a cyclic
>> variation, which has the same period as their change in brightness. "
>>
>> Funny that. It's exactly what theBaT expects.
>
>Funny also, that is what one would see from a fusion relaxation oscillator.

If one was a DHR desperate for any piece of remote evidence.

>
>Star core is too cool for sustained fusion of some particular fuel. Starts
>to collapse under gravity, heats up enough to start fusing at the core,
>expands [and cools] under the sudden flux of photons, neutrons and
>neutrinos produced. Stops fusing, but keeps expanding due to inertia for a
>while, and starts to collapse again, under gravity.

All in a perfect sphere, of course? :)

>
>Of course, such oscillations would only occur in certain sized[total mass]
>stars with certain compositions. Within that size range, there would be
>considerable variation in oscillation frequency and in the stability of the
>oscillator. Double stars and stars with planets would probably be LESS
>stable and regular than more isolated stars.
>
>The relaxation oscillator would normally have a 'sawtooth' waveform,
>although other circuit elements change the shape.

........desperate for any piece of remote evidence.

>
>Does BaT also predict a sawtooth?

Precisely, I thought you knew that.

>
>What shaped curve do most cepheids display?




HW.
www.users.bigpond.com/hewn/index.htm

Sometimes I feel like a complete failure.
The most useful thing I have ever done is prove Einstein wrong.
From: bz on
H@..(Henri Wilson) wrote in
news:a7h4a15kv74e548ab5ip7bj8m20r7ojhcl(a)4ax.com:

> On Sat, 4 Jun 2005 12:37:53 +0000 (UTC), bz <bz+sp(a)ch100-5.chem.lsu.edu>
> wrote:
>
>>H@..(Henri Wilson) wrote in
>>news:g4n1a11q7ia6pestvnasp45tk5utoq55e7(a)4ax.com:
>>
>>> Well Paul, you will now have to show me the connection between a
>>> resonant acoustic wave through a ball of gas and its surface
>>> brightness.
>>>
>>>
>>>>
>>>>It is ridiculous to believe that only objects orbiting
>>>>each other can have a constant period.
>>>
>>> If you understood anything about diffusive, random and chaotic
>>> processes, you wouldn't make such a ridiculous claim.
>>
>>Seems like we live near a star that regularly goes through a 11 year
>>cycle.
>
> A very approximate 11 year cycle. The actual period is all over hte
> place..as one would expect with gaseous diffusion, etc..

How do you think it looks from a few dozen light years away.

>>I guess those diffusive, random, and chaotic processes only prevent
>>DISTANT stars from undergoing periodic variations.
>
> Learn a few facts, bz.
> How can similar stars exhibit very constant 'acoustic variation'
> frequencies ranging from days to years?

Stars differ in size, composition and rotation rate.
Any one of which is sufficient to account for the variations in frequency

>>> Here is a statement from a paper on cepheids:
>>> "When one measures the radial velocity of Cepheids, one finds a cyclic
>>> variation, which has the same period as their change in brightness. "
>>>
>>> Funny that. It's exactly what theBaT expects.
>>
>>Funny also, that is what one would see from a fusion relaxation
>>oscillator.
>
> If one was a DHR desperate for any piece of remote evidence.

What if one is interested in truth?

>>Star core is too cool for sustained fusion of some particular fuel.
>>Starts to collapse under gravity, heats up enough to start fusing at the
>>core, expands [and cools] under the sudden flux of photons, neutrons and
>>neutrinos produced. Stops fusing, but keeps expanding due to inertia for
>>a while, and starts to collapse again, under gravity.
>
> All in a perfect sphere, of course? :)

Stars that rotate are not perfect spheres.

>>Of course, such oscillations would only occur in certain sized[total
>>mass] stars with certain compositions. Within that size range, there
>>would be considerable variation in oscillation frequency and in the
>>stability of the oscillator. Double stars and stars with planets would
>>probably be LESS stable and regular than more isolated stars.
>>
>>The relaxation oscillator would normally have a 'sawtooth' waveform,
>>although other circuit elements change the shape.
>
> .......desperate for any piece of remote evidence.

I am not the one with faith.

>>Does BaT also predict a sawtooth?
>
> Precisely, I thought you knew that.

Not from your simulations.

>>What shaped curve do most cepheids display?




--
bz

please pardon my infinite ignorance, the set-of-things-I-do-not-know is an
infinite set.

bz+sp(a)ch100-5.chem.lsu.edu remove ch100-5 to avoid spam trap
From: Henri Wilson on
On Sun, 5 Jun 2005 01:43:43 +0000 (UTC), bz <bz+sp(a)ch100-5.chem.lsu.edu> wrote:

>H@..(Henri Wilson) wrote in
>news:a7h4a15kv74e548ab5ip7bj8m20r7ojhcl(a)4ax.com:
>
>> On Sat, 4 Jun 2005 12:37:53 +0000 (UTC), bz <bz+sp(a)ch100-5.chem.lsu.edu>
>> wrote:
>>

>>>> If you understood anything about diffusive, random and chaotic
>>>> processes, you wouldn't make such a ridiculous claim.
>>>
>>>Seems like we live near a star that regularly goes through a 11 year
>>>cycle.
>>
>> A very approximate 11 year cycle. The actual period is all over hte
>> place..as one would expect with gaseous diffusion, etc..
>
>How do you think it looks from a few dozen light years away.

A star with constant brightness.

>
>>>I guess those diffusive, random, and chaotic processes only prevent
>>>DISTANT stars from undergoing periodic variations.
>>
>> Learn a few facts, bz.
>> How can similar stars exhibit very constant 'acoustic variation'
>> frequencies ranging from days to years?
>
>Stars differ in size, composition and rotation rate.
>Any one of which is sufficient to account for the variations in frequency

HoHoHohahahahh!

1 day to 5 years? Same kind of star?

>
>>>> Here is a statement from a paper on cepheids:
>>>> "When one measures the radial velocity of Cepheids, one finds a cyclic
>>>> variation, which has the same period as their change in brightness. "
>>>>
>>>> Funny that. It's exactly what theBaT expects.
>>>
>>>Funny also, that is what one would see from a fusion relaxation
>>>oscillator.
>>
>> If one was a DHR desperate for any piece of remote evidence.
>
>What if one is interested in truth?
>
>>>Star core is too cool for sustained fusion of some particular fuel.
>>>Starts to collapse under gravity, heats up enough to start fusing at the
>>>core, expands [and cools] under the sudden flux of photons, neutrons and
>>>neutrinos produced. Stops fusing, but keeps expanding due to inertia for
>>>a while, and starts to collapse again, under gravity.

(This sounds like the nuclear 'pogo stick' that someone once invented)

>>
>> All in a perfect sphere, of course? :)
>
>Stars that rotate are not perfect spheres.

Stars that puff and blow every few days would certainly NOT be perfect spheres
either.

>
>>>Of course, such oscillations would only occur in certain sized[total
>>>mass] stars with certain compositions. Within that size range, there
>>>would be considerable variation in oscillation frequency and in the
>>>stability of the oscillator. Double stars and stars with planets would
>>>probably be LESS stable and regular than more isolated stars.
>>>
>>>The relaxation oscillator would normally have a 'sawtooth' waveform,
>>>although other circuit elements change the shape.
>>
>> .......desperate for any piece of remote evidence.
>
>I am not the one with faith.
>
>>>Does BaT also predict a sawtooth?
>>
>> Precisely, I thought you knew that.
>
>Not from your simulations.'

eccentricity 0.05-0.2

>
>>>What shaped curve do most cepheids display?


HW.
www.users.bigpond.com/hewn/index.htm

Sometimes I feel like a complete failure.
The most useful thing I have ever done is prove Einstein wrong.
From: bz on
H@..(Henri Wilson) wrote in
news:lm07a19eiegnpvdrji2bnqf4mvgs5n10jj(a)4ax.com:

> On Sun, 5 Jun 2005 01:43:43 +0000 (UTC), bz <bz+sp(a)ch100-5.chem.lsu.edu>
> wrote:
>
>>H@..(Henri Wilson) wrote in
>>news:a7h4a15kv74e548ab5ip7bj8m20r7ojhcl(a)4ax.com:
>>
>>> On Sat, 4 Jun 2005 12:37:53 +0000 (UTC), bz
>>> <bz+sp(a)ch100-5.chem.lsu.edu> wrote:
>>>
>
>>>>> If you understood anything about diffusive, random and chaotic
>>>>> processes, you wouldn't make such a ridiculous claim.
>>>>
>>>>Seems like we live near a star that regularly goes through a 11 year
>>>>cycle.
>>>
>>> A very approximate 11 year cycle. The actual period is all over hte
>>> place..as one would expect with gaseous diffusion, etc..
>>
>>How do you think it looks from a few dozen light years away.
>
> A star with constant brightness.

How about a 11 year variable with rather small brightness variation?


>>>>I guess those diffusive, random, and chaotic processes only prevent
>>>>DISTANT stars from undergoing periodic variations.
>>>
>>> Learn a few facts, bz.
>>> How can similar stars exhibit very constant 'acoustic variation'
>>> frequencies ranging from days to years?
>>
>>Stars differ in size, composition and rotation rate.
>>Any one of which is sufficient to account for the variations in
>>frequency
>
> HoHoHohahahahh!

Hanson does it better.

>
> 1 day to 5 years? Same kind of star?

http://astronomy.swin.edu.au/sao/downloads/het611-m18a01.ppt

>>>>> Here is a statement from a paper on cepheids:
>>>>> "When one measures the radial velocity of Cepheids, one finds a
>>>>> cyclic variation, which has the same period as their change in
>>>>> brightness. "
>>>>>
>>>>> Funny that. It's exactly what theBaT expects.
>>>>
>>>>Funny also, that is what one would see from a fusion relaxation
>>>>oscillator.
>>>
>>> If one was a DHR desperate for any piece of remote evidence.

>>What if one is interested in truth?

>>>>Star core is too cool for sustained fusion of some particular fuel.
>>>>Starts to collapse under gravity, heats up enough to start fusing at
>>>>the core, expands [and cools] under the sudden flux of photons,
>>>>neutrons and neutrinos produced. Stops fusing, but keeps expanding due
>>>>to inertia for a while, and starts to collapse again, under gravity.
>
> (This sounds like the nuclear 'pogo stick' that someone once invented)

I seek truth. You play 'one-upsmanship games'.

>>>
>>> All in a perfect sphere, of course? :)
>>
>>Stars that rotate are not perfect spheres.
>
> Stars that puff and blow every few days would certainly NOT be perfect
> spheres either.

http://astronomy.swin.edu.au/sao/downloads/het611-m18a01.ppt

>>>>Of course, such oscillations would only occur in certain sized[total
>>>>mass] stars with certain compositions. Within that size range, there
>>>>would be considerable variation in oscillation frequency and in the
>>>>stability of the oscillator. Double stars and stars with planets would
>>>>probably be LESS stable and regular than more isolated stars.
>>>>
>>>>The relaxation oscillator would normally have a 'sawtooth' waveform,
>>>>although other circuit elements change the shape.
>>>
>>> .......desperate for any piece of remote evidence.

>>I am not the one with faith.

>>>>Does BaT also predict a sawtooth?
>>>
>>> Precisely, I thought you knew that.
>>
>>Not from your simulations.'

> eccentricity 0.05-0.2

I see a sine wave variation at 0.05
I see a distorted sine wave at 0.2 with narrow decreases in brightness.
I see nothing like a sawtooth at either.
Perhaps I need other than default values for other parameters.

>>>>What shaped curve do most cepheids display?


--
bz

please pardon my infinite ignorance, the set-of-things-I-do-not-know is an
infinite set.

bz+nanae(a)ch100-5.chem.lsu.edu


--
bz

please pardon my infinite ignorance, the set-of-things-I-do-not-know is an
infinite set.

bz+sp(a)ch100-5.chem.lsu.edu remove ch100-5 to avoid spam trap