![]() |
| If this is your first visit, be sure to check out the FAQ by clicking the link above. You may have to register before you can post: click the register link above to proceed. To start viewing messages, select the forum that you want to visit from the selection below. |
|
|||||||
| Tags: bit, kst, spin |
|
|
Thread Tools | Display Modes |
|
#1
|
|||
|
|||
|
Let me start by using an airplane,
orientated from tail to nose by using Y axis, with wings being wings being on the X axis , and Z upward. The Pitch is around X, the Roll around Y and the Yaw around Z. Denote Pitch = A23, Roll=A31, Yaw=A12, where for legalese, Auv = x_u dx^v/dt - x_v dx^u/dt. Presume our airplane has equal moments of inertial in all 3 axes, to unitized the momentum. I can maintain a Pitch=0, and Roll at twice the rate of Yaw, meaning I can Roll 720 degs for a Yaw of 360 degs. It appears to me that Yaw/Roll =1/2 and I suggest that is an intrinsic scalar. To prove that, let's employ (Maxwell's 2nd set), (a property of asymmetric tensors), A23,1 + A13,2 + A21,3 = 0 (Pitch + Roll + Yaw , rates of change). Let's use integers "n" for "rates of change", n1 * A23 + n2 * A13 + n3 * A21 = 0, so in the above example, n1=0, n2=2, n3=1, with "intrinsic spin" being n3/n2 = 1/2. A question arises as to why the assumption of using "n" as an integer value is reasonable. Suppose "n" is in units of action which can be equated to units of angular momentum, and spin, and the equation evolves to, n1*h * A23 + n2*h * A13 + n3*h * A21 = 0, in a clearer presentation, to permit, h * (n1 + n2 + n3) = 0 by using the above assumption of equal moments of inertial to allow unitizing A23 , A13 and A21. Let n1=0 , n2 =2 , n3 = -1 then n2/n2 + n3/n2 = 0 = 1 - 1/2 = 1/2 which is a scalar invariant. Regards Ken S. Tucker PS: Please allow the other posters to reply before you do, thanks. |
| Ads |
|
#2
|
|||
|
|||
|
On Apr 8, 2:44*pm, "Ken S. Tucker" wrote:
Let me start by using an airplane, orientated from tail to nose by using Y axis, with wings being wings being on the X axis , and Z upward. The Pitch is around X, the Roll around Y and the Yaw around Z. Denote Pitch = A23, Roll=A31, Yaw=A12, where for legalese, *Auv = x_u dx^v/dt - x_v dx^u/dt. This is relativistic angular momentum per unit mass. Pitch/yaw/roll are angles. The list of things you know nothing about continues to grow larger every day. You are merely an advanced version of Koobee Wublee - no understanding, just a larger database of words and formulae. [snip remaining due to idiocy] |
|
#3
|
|||
|
|||
|
On Apr 8, 8:17*pm, Eric Gisse wrote:
On Apr 8, 2:44*pm, "Ken S. Tucker" wrote: Let me start by using an airplane, orientated from tail to nose by using Y axis, with wings being wings being on the X axis , and Z upward. The Pitch is around X, the Roll around Y and the Yaw around Z. Denote Pitch = A23, Roll=A31, Yaw=A12, where for legalese, *Auv = x_u dx^v/dt - x_v dx^u/dt. This is relativistic angular momentum per unit mass. Pitch/yaw/roll are angles. The list of things you know nothing about continues to grow larger every day. You are merely an advanced version of Koobee Wublee - no understanding, just a larger database of words and formulae. [snip remaining due to idiocy] xxein: Did he say anything about mass? Did he mention a mass velocity? |
|
#4
|
|||
|
|||
|
On Apr 8, 6:44*pm, "Ken S. Tucker" wrote:
Let me start by using an airplane, orientated from tail to nose by using Y axis, with wings being wings being on the X axis , and Z upward. The Pitch is around X, the Roll around Y and the Yaw around Z. Denote Pitch = A23, Roll=A31, Yaw=A12, where for legalese, *Auv = x_u dx^v/dt - x_v dx^u/dt. Presume our airplane has equal moments of inertial in all 3 axes, to unitized the momentum. I can maintain a Pitch=0, and Roll at twice the rate of Yaw, meaning I can Roll 720 degs for a Yaw of 360 degs. It appears to me that Yaw/Roll =1/2 and I suggest that is an intrinsic scalar. To prove that, let's employ (Maxwell's 2nd set), (a property of asymmetric tensors), A23,1 + A13,2 + A21,3 = 0 (Pitch + Roll + Yaw *, rates of change). Let's use integers "n" for "rates of change", n1 * A23 + n2 * A13 + n3 * A21 = 0, so in the above example, n1=0, n2=2, n3=1, with "intrinsic spin" being n3/n2 = 1/2. A question arises as to why the assumption of using "n" as an integer value is reasonable. Suppose "n" is in units of action which can be equated to units of angular momentum, and spin, and the equation evolves to, n1*h * A23 + n2*h * A13 + n3*h * A21 = 0, in a clearer presentation, to permit, h * (n1 + n2 + n3) = 0 by using the above assumption of equal moments of inertial to allow unitizing A23 , A13 and A21. Let n1=0 , *n2 =2 , *n3 = -1 then n2/n2 + n3/n2 = 0 = 1 - 1/2 = 1/2 which is a scalar invariant. Regards Ken S. Tucker PS: Please allow the other posters to reply before you do, thanks. xxein: You already know that I am not a mathematician (Hey! I spelled it correctly). What concerns me are the preconditions. Why should P, Y and R have any interger n? I might think that n is only available through (relative) velocity of the whole and interaction (Mach). By what standard can it be measured? Is there a standard that can stand alone? |
|
#5
|
|||
|
|||
|
On Apr 8, 6:06*pm, xxein wrote:
On Apr 8, 6:44*pm, "Ken S. Tucker" wrote: Let me start by using an airplane, orientated from tail to nose by using Y axis, with wings being wings being on the X axis , and Z upward. The Pitch is around X, the Roll around Y and the Yaw around Z. Denote Pitch = A23, Roll=A31, Yaw=A12, where for legalese, *Auv = x_u dx^v/dt - x_v dx^u/dt. Presume our airplane has equal moments of inertial in all 3 axes, to unitized the momentum. I can maintain a Pitch=0, and Roll at twice the rate of Yaw, meaning I can Roll 720 degs for a Yaw of 360 degs. It appears to me that Yaw/Roll =1/2 and I suggest that is an intrinsic scalar. To prove that, let's employ (Maxwell's 2nd set), (a property of asymmetric tensors), A23,1 + A13,2 + A21,3 = 0 (Pitch + Roll + Yaw *, rates of change). Let's use integers "n" for "rates of change", n1 * A23 + n2 * A13 + n3 * A21 = 0, so in the above example, n1=0, n2=2, n3=1, with "intrinsic spin" being n3/n2 = 1/2. A question arises as to why the assumption of using "n" as an integer value is reasonable. Suppose "n" is in units of action which can be equated to units of angular momentum, and spin, and the equation evolves to, n1*h * A23 + n2*h * A13 + n3*h * A21 = 0, in a clearer presentation, to permit, h * (n1 + n2 + n3) = 0 by using the above assumption of equal moments of inertial to allow unitizing A23 , A13 and A21. Let n1=0 , *n2 =2 , *n3 = -1 then n2/n2 + n3/n2 = 0 = 1 - 1/2 = 1/2 which is a scalar invariant. Regards Ken S. Tucker PS: Please allow the other posters to reply before you do, thanks. xxein: *You already know that I am not a mathematician (Hey! *I spelled it correctly). What concerns me are the preconditions. *Why should P, Y and R have any interger n? I might think that n is only available through (relative) velocity of the whole and interaction (Mach). By what standard can it be measured? *Is there a standard that can stand alone?- Hide quoted text - - Show quoted text - A infinitely small point cannot spin. Even if there is a field emenating from it. This field would be symmetrical and there would be no possibility for any spin to be measured. Spin does not exist for fundamental matter particles. Mitch Raemsch Twice Nobel Laureate 2008 |
|
#6
|
|||
|
|||
|
On Apr 8, 10:31*pm, wrote:
On Apr 8, 6:06*pm, xxein wrote: On Apr 8, 6:44*pm, "Ken S. Tucker" wrote: Let me start by using an airplane, orientated from tail to nose by using Y axis, with wings being wings being on the X axis , and Z upward. The Pitch is around X, the Roll around Y and the Yaw around Z. Denote Pitch = A23, Roll=A31, Yaw=A12, where for legalese, *Auv = x_u dx^v/dt - x_v dx^u/dt. Presume our airplane has equal moments of inertial in all 3 axes, to unitized the momentum. I can maintain a Pitch=0, and Roll at twice the rate of Yaw, meaning I can Roll 720 degs for a Yaw of 360 degs. It appears to me that Yaw/Roll =1/2 and I suggest that is an intrinsic scalar. To prove that, let's employ (Maxwell's 2nd set), (a property of asymmetric tensors), A23,1 + A13,2 + A21,3 = 0 (Pitch + Roll + Yaw *, rates of change). Let's use integers "n" for "rates of change", n1 * A23 + n2 * A13 + n3 * A21 = 0, so in the above example, n1=0, n2=2, n3=1, with "intrinsic spin" being n3/n2 = 1/2. A question arises as to why the assumption of using "n" as an integer value is reasonable. Suppose "n" is in units of action which can be equated to units of angular momentum, and spin, and the equation evolves to, n1*h * A23 + n2*h * A13 + n3*h * A21 = 0, in a clearer presentation, to permit, h * (n1 + n2 + n3) = 0 by using the above assumption of equal moments of inertial to allow unitizing A23 , A13 and A21. Let n1=0 , *n2 =2 , *n3 = -1 then n2/n2 + n3/n2 = 0 = 1 - 1/2 = 1/2 which is a scalar invariant. Regards Ken S. Tucker PS: Please allow the other posters to reply before you do, thanks. xxein: *You already know that I am not a mathematician (Hey! *I spelled it correctly). What concerns me are the preconditions. *Why should P, Y and R have any interger n? I might think that n is only available through (relative) velocity of the whole and interaction (Mach). By what standard can it be measured? *Is there a standard that can stand alone?- Hide quoted text - - Show quoted text - A infinitely small point cannot spin. Even if there is a field emenating from it. This field would be symmetrical and there would be no possibility for any spin to be measured. Spin does not exist for fundamental matter particles. Mitch Raemsch Twice Nobel Laureate 2008- Hide quoted text - - Show quoted text - xxein: Then there is no need for the universe to present itself to us. |
|
#7
|
|||
|
|||
|
On Apr 8, 5:42*pm, xxein wrote:
On Apr 8, 8:17*pm, Eric Gisse wrote: On Apr 8, 2:44*pm, "Ken S. Tucker" wrote: Let me start by using an airplane, orientated from tail to nose by using Y axis, with wings being wings being on the X axis , and Z upward. The Pitch is around X, the Roll around Y and the Yaw around Z. Denote Pitch = A23, Roll=A31, Yaw=A12, where for legalese, *Auv = x_u dx^v/dt - x_v dx^u/dt. This is relativistic angular momentum per unit mass. Pitch/yaw/roll are angles. The list of things you know nothing about continues to grow larger every day. You are merely an advanced version of Koobee Wublee - no understanding, just a larger database of words and formulae. [snip remaining due to idiocy] xxein: *Did he say anything about mass? *Did he mention a mass velocity? No, because he doesn't know what he is talking about. |
|
#8
|
|||
|
|||
|
Hi Xxein.
On Apr 8, 7:06 pm, xxein wrote: On Apr 8, 6:44 pm, "Ken S. Tucker" wrote: Let me start by using an airplane, orientated from tail to nose by using Y axis, with wings being wings being on the X axis , and Z upward. The Pitch is around X, the Roll around Y and the Yaw around Z. Denote Pitch = A23, Roll=A31, Yaw=A12, where for legalese, Auv = x_u dx^v/dt - x_v dx^u/dt. Presume our airplane has equal moments of inertial in all 3 axes, to unitized the momentum. I can maintain a Pitch=0, and Roll at twice the rate of Yaw, meaning I can Roll 720 degs for a Yaw of 360 degs. It appears to me that Yaw/Roll =1/2 and I suggest that is an intrinsic scalar. To prove that, let's employ (Maxwell's 2nd set), (a property of asymmetric tensors), A23,1 + A13,2 + A21,3 = 0 (Pitch + Roll + Yaw , rates of change). Let's use integers "n" for "rates of change", n1 * A23 + n2 * A13 + n3 * A21 = 0, so in the above example, n1=0, n2=2, n3=1, with "intrinsic spin" being n3/n2 = 1/2. A question arises as to why the assumption of using "n" as an integer value is reasonable. Suppose "n" is in units of action which can be equated to units of angular momentum, and spin, and the equation evolves to, n1*h * A23 + n2*h * A13 + n3*h * A21 = 0, in a clearer presentation, to permit, h * (n1 + n2 + n3) = 0 by using the above assumption of equal moments of inertial to allow unitizing A23 , A13 and A21. Let n1=0 , n2 =2 , n3 = -1 then n2/n2 + n3/n2 = 0 = 1 - 1/2 = 1/2 which is a scalar invariant. Regards Ken S. Tucker PS: Please allow the other posters to reply before you do, thanks. xxein: You already know that I am not a mathematician (Hey! I spelled it correctly). That's ok, I've been told I'm the best mathematician on the planet, so I can help you with that, as soon as I figure it out. What concerns me are the preconditions. Why should P, Y and R have any interger n? Spin seems to come in integer quantities, http://en.wikipedia.org/wiki/Planck's_constant#Usage The BIG why, is like asking why is the fundamental charge constant or the speed of light constant. We could debate that if you want, it's in the physical bowels of the universe. Spin comes in finite indivisible units. I might think that n is only available through (relative) velocity of the whole and interaction (Mach). By what standard can it be measured? Is there a standard that can stand alone? Myself, I regard spin == (charge)^2 == action == h. Regards Ken S. Tucker |
|
#9
|
|||
|
|||
|
On Apr 8, 10:33*pm, "Ken S. Tucker" wrote:
Hi Xxein. On Apr 8, 7:06 pm, xxein wrote: On Apr 8, 6:44 pm, "Ken S. Tucker" wrote: Let me start by using an airplane, orientated from tail to nose by using Y axis, with wings being wings being on the X axis , and Z upward. The Pitch is around X, the Roll around Y and the Yaw around Z. Denote Pitch = A23, Roll=A31, Yaw=A12, where for legalese, *Auv = x_u dx^v/dt - x_v dx^u/dt. Presume our airplane has equal moments of inertial in all 3 axes, to unitized the momentum. I can maintain a Pitch=0, and Roll at twice the rate of Yaw, meaning I can Roll 720 degs for a Yaw of 360 degs. It appears to me that Yaw/Roll =1/2 and I suggest that is an intrinsic scalar. To prove that, let's employ (Maxwell's 2nd set), (a property of asymmetric tensors), A23,1 + A13,2 + A21,3 = 0 (Pitch + Roll + Yaw *, rates of change). Let's use integers "n" for "rates of change", n1 * A23 + n2 * A13 + n3 * A21 = 0, so in the above example, n1=0, n2=2, n3=1, with "intrinsic spin" being n3/n2 = 1/2. A question arises as to why the assumption of using "n" as an integer value is reasonable. Suppose "n" is in units of action which can be equated to units of angular momentum, and spin, and the equation evolves to, n1*h * A23 + n2*h * A13 + n3*h * A21 = 0, in a clearer presentation, to permit, h * (n1 + n2 + n3) = 0 by using the above assumption of equal moments of inertial to allow unitizing A23 , A13 and A21. Let n1=0 , *n2 =2 , *n3 = -1 then n2/n2 + n3/n2 = 0 = 1 - 1/2 = 1/2 which is a scalar invariant. Regards Ken S. Tucker PS: Please allow the other posters to reply before you do, thanks. xxein: *You already know that I am not a mathematician (Hey! *I spelled it correctly). That's ok, I've been told I'm the best mathematician on the planet, so I can help you with that, as soon as I figure it out. HAHAHA, were you told this by someone who has any mathematical ability? [...] |
| Thread Tools | |
| Display Modes | |
|
|
Similar Threads
|
||||
| Thread | Thread Starter | Forum | Replies | Last Post |
| 3 electrons with definite total spin (like spin triplet/singlet)? | Anton81 | Physics - General Discussion | 0 | September 3rd 07 04:10 PM |
| New theory shows Fermions have odd spin, Bosons have even spin! | Golden Boar | Physics - General Discussion | 65 | June 13th 05 02:37 PM |
| New theory shows Fermions have odd spin, Bosons have even spin! | Golden Boar | Particle Physics | 1 | June 13th 05 02:37 PM |
| New theory shows Fermions have odd spin, Bosons have even spin! | markwh04@yahoo.com | Particle Physics | 1 | June 10th 05 03:12 AM |
| New theory shows Fermions have odd spin, Bosons have even spin! | Ranando King | Particle Physics | 0 | June 9th 05 08:10 PM |