From: Sam Wormley on
On 6/13/10 8:10 PM, Sam Wormley wrote:
> On 6/13/10 7:49 PM, Brad Guth wrote:
>> On Jun 13, 4:12 pm, palsing<pnals...(a)gmail.com> wrote:
>>> On Jun 13, 12:37 pm, Brad Guth<bradg...(a)gmail.com> wrote:
>>>
>>>> You do realize I�m working with the tidal radii grip that Sirius has
>>>> on our solar system, and not the other way around...
>>>
>>> This statement alone shows that you do not really understand the
>>> science. The escape velocity formula cited by Gregg do not imply a
>>> 'direction' ...
>>>
>>> \Paul A
>>
>> Perhaps that's his problem.
>>
>> You simply can't place something as massive as the original Sirius
>> star/solar system nearby anything else, without that situation causing
>> Newtonian interactions.
>>
>> Ever heard of a barycenter?
>>
>> Do you think such a barycenter wasn't created?
>>
>> ~ BG
>
> F = m1 m2 G / r^2
>
> Calculate the force between the Sirius system and the solar system
> and let us know what the answer is.
>
> r = 2.64 � 0.01 pc
> m1 = 1.9891 � 10^30 kg
> m2 = 5.9628 � 10^30 kg

In case your interested, the force on our sun from the
earth is five orders of magnitude greater than from the
Sirius system.

From: Sam Wormley on
On 6/13/10 9:47 PM, Brad Guth wrote:
> On Jun 13, 6:10 pm, Sam Wormley<sworml...(a)gmail.com> wrote:
>> On 6/13/10 7:49 PM, Brad Guth wrote:
>>
>>
>>
>>> On Jun 13, 4:12 pm, palsing<pnals...(a)gmail.com> wrote:
>>>> On Jun 13, 12:37 pm, Brad Guth<bradg...(a)gmail.com> wrote:
>>
>>>>> You do realize I�m working with the tidal radii grip that Sirius has
>>>>> on our solar system, and not the other way around...
>>
>>>> This statement alone shows that you do not really understand the
>>>> science. The escape velocity formula cited by Gregg do not imply a
>>>> 'direction' ...
>>
>>>> \Paul A
>>
>>> Perhaps that's his problem.
>>
>>> You simply can't place something as massive as the original Sirius
>>> star/solar system nearby anything else, without that situation causing
>>> Newtonian interactions.
>>
>>> Ever heard of a barycenter?
>>
>>> Do you think such a barycenter wasn't created?
>>
>>> ~ BG
>>
>> F = m1 m2 G / r^2
>>
>> Calculate the force between the Sirius system and the solar system
>> and let us know what the answer is.
>>
>> r = 2.64 � 0.01 pc
>> m1 = 1.9891 � 10^30 kg
>> m2 = 5.9628 � 10^30 kg
>
> http://www.1728.com/gravity.htm
> http://www.wsanford.com/~wsanford/calculators/gravity-calculator.html
>
> What's next?
>
> ~ BG

Calculate the force on the sun from the earth and the Sirius
system and compare.

From: palsing on
On Jun 13, 8:19 pm, Brad Guth <bradg...(a)gmail.com> wrote:

> The molecular cloud that created those impressive Sirius stars may
> have been worth <12.5e6 Ms (more if you'd care to include Sirius C).
> Are you suggesting that kind of molecular mass is also
> inconsequential?

Since it was so far away at that time, yes, essentially
inconsequential. Kinda like your theories...

\Paul A
From: Greg Neill on
Greg Neill wrote:
> Brad Guth wrote:
>
>> Your politically correct and/or faith-based approved obfuscation and
>> denial of those pesky Newtonian laws of gravity are noted.
>
> Every equation I've shown you has been pure Newtonian
> physics. That you cannot recognize it is a telling
> advertisement for your lack of education in the field.
>
>>
>> If not due to gravity and those Newtonian laws, why is 2005-VX3 or
>> most any other elliptical trekking Oort item still with us?
>
> Because they are gravitationally bound.
>
> 2005 VX3 has an orbital semimajor axis of 2592 AU, with
> perihelion of 4.114 AU and aphelion of 2588 AU. That
> makes its specific mechanical energy:

Oops. Make that an orbital semimajor axis of 1296 AU,
(4.114 + 2588)/2. The major axis is the sum of the peri-
helion and aphelion distances, and the semimajor axis is
half of that.

>
> a = 2592
> u = 39.474 AU^3/yr^2 (Sun's grav. parameter in convenient units)
> E = -u/(2*a)
>
> = -1.711 x 10^5 J/kg

= -3.422 x 10^5 J/kg

so it is even more "tightly bound" than I'd first
calculated.

>
> Its orbital speed at aphelion is:
>
> v_ap = sqrt(2*(E + u/r)) with r = 2588 AU
>
> = 0.586 km/sec

= 0.033 km/sec
>
> Escape velocity at that distance is:
>
> v_esc = sqrt(2*u/r)
>
> = 0.828 km/sec
>
> So its speed at aphelion is less than escape velocity at that
> distance. As expected.

The conclusion stands.


From: Brad Guth on
On Jun 13, 8:05 pm, "Greg Neill" <gneil...(a)MOVEsympatico.ca> wrote:
> Brad Guth wrote:
> > On Jun 13, 6:10 pm, Sam Wormley <sworml...(a)gmail.com> wrote:
> >> F = m1 m2 G / r^2
>
> >> Calculate the force between the Sirius system and the solar system
> >> and let us know what the answer is.
>
> >> r = 2.64 ± 0.01 pc
> >> m1 = 1.9891 × 10^30 kg
> >> m2 = 5.9628 × 10^30 kg
>
> >  http://www.1728.com/gravity.htm
> >  http://www.wsanford.com/~wsanford/calculators/gravity-calculator.html
>
> > What's next?
>
> You haven't answered yet.  Give us your numeric
> result.

You're wasting time. Just put everything into a public funded
supercomputer and let it run.

Tell us where that 90% stuff is coming from.

~ BG