Archive for November, 2016

Daily Report 25/11/16

Sunday, November 27th, 2016

The equivalent of 86,314 printed pages was downloaded during the day (314.701 megabytes) from 1,696 memory files downloaded (hits) and 422 distinct visits each averaging 3.2 memory pages and 9 minutes, printed pages to hits ratio of 50.92, main spiders google, MSN and yahoo. Top ten 1332, Collected ECE2 1302, Evans / Morris 825(est), Collected scientometrics 492, F3(Sp) 282, Barddoniaeth / Collected Poetry 272, Principles of ECE 239, Autobiography volumes one and two 236, Evans Equations 176, Eckardt / Lindstrom 174, Collected Proofs 133, UFT88 133, CEFE 109, Engineering Model 59, PECE 50, UFT311 35, Self charging inverter 34, Llais 34, PLENR 32, UFT321 31(est), ECE2 19, List of Prolific Authors 16, Lindstrom Idaho lecture 16, Three world records by MWE 13, UFT313 31, UFT314 32, UFT315 32, UFT316 23, UFT317 30, UFT318 24, UFT319 31, UFT320 34, UFT322 32, UFT323 28, UFT324 35, UFT325 32, UFT326 33, UFT327 35, UFT328 30, UFT329 26, UFT330 31, UFT331 21, UFT332 21, UFT333 23, UFT334 23, UFT335 19, UFT336 21, UFT337 26, UFT338 19, UFT339 20, UFT340 25, UFT341 24, UFT342 27, UFT343 19, UFT344 21, UFT345 26, UFT346 32, UFT347 26, UFT348 18, UFT349 22, UFT351 20, UFT352 28, UFT353 19, UFT354 41, UFT355 34, UFT356 37, UFT358 26, UFT359 45, UFT360 40, UFT361 35 to date in November 2016. City of Winnipeg UFT Theory; Edu Pakistan Essay 65; Physics Moscow State University Omnia Opera; University of Warwick UFT309. Intense interest all sectors, updated usage file attached for November 2016.

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Daily Report 24/11/16

Saturday, November 26th, 2016

The equivalent of 131,731 printed pages was downloaded during the day (480.290 megabytes) from 3,355 downloaded memory files (hits) and 552 distinct visits, each averaging 5.2 memory pages and 10 minutes, printed pages to hits ratio of 39.26, main spiders google, MSN and yahoo. Top ten 1283, Collected ECE2 1218, Collected Evans / Morris 792(est); Collected scientometrics 442, F3(Sp) 274, Barddoniaeth / Collected Poetry 262, Autobiography volumes one and two 233, Principles of ECE 230, Collected Eckardt / Lindstrom 166, Evans Equations 144, Collected Proofs 143, UFT88 126, CEFE 107, PECE 46, UFT311 35 Self charging inverter 33, Llais 34, PLENR 32, UFT321 31, ECE2 19, Lindstrom Idaho lecture 16, List of prolific authors 15, Three world records 10, UFT313 31, UFT314 32, UFT315 31, UFT316 23, UFT317 29, UFT318 24, UFT319 29, UFT320 36, UFT322 32, UFT323 28, UFT324 35, UFT325 32, UFT326 33, UFT327 34, UFT328 28, UFT329 24, UFT330 30, UFT331 21, UFT332 20, UFT333 21, UFT334 23, UFT335 18, UFT336 21, UFT337 24, UFT338 17, UFT339 20, UFT340 25, UFT341 23, UFT342 26, UFT343 19, UFT344 20, UFT345 25, UFT346 32, UFT347 24, UFT348 18, UFT349 22, UFT351 17, UFT352 26, UFT353 17, UFT354 37, UFT355 32, UFT356 37, UFT357 25, UFT358 25, UFT359 45, UFT360 30, UFT361 35 todate in Novemeber 2016. City of Winnipeg UFT355; University of Alberta UFT33; Deusu search engine UFT2141b; University of Heidelberg UFT18; University of Illinois Urbana-Champaign UFT88; University of Tartu Estonia UFT57; Open University of Hong Kong PECE, Theory of H Bonding, Overview; Mathematics National Taiwan University UFT88. Intense interest all sectors, updated usage file attached for November 2016.

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Discussion of 362(5)

Friday, November 25th, 2016

OK many thanks. In Eq. (18) the lower case v should have been a capital V.

362(5): Convective Derivative of the General Vector, Application to Orbits

I have a problem with eqs.(17-21) which should hold for arbitrary vectors V. The middle term at the RHS in (21) only depends on the velocity v. This seems not be meaningvul if V is not a velocity. I think this should be:

DV/dt = partial V / partila t + (v*nabla) V .

There is everywhere a vector V to be used at the RHS of the operators. In the operator v*nabla itself the velocity appears. This gives different results for (22).

Horst

Am 24.11.2016 um 13:15 schrieb EMyrone:

The convective derivative of any vector field V(t, r(t), theta(t)) is given by Eq. (7) and involves two Cartan derivatives as shown. The result is applied to the Coriolis velocity in Eq. (22) and the Coriolis accelerations in Eq. (23). The components of the orbital Coriolis velocity are changed to Eqs. (35) and (36) when the orbiting object of mass m is considered to move through a fluid spacetime or aether instead of as a point particle as in the usual orbital theory. The observable square of the orbital velocity is changed to Eq. (38), and the Newtonian result (39) is changed by the presence of the spin connection (26) of fluid dynamics and Cartan geometry. By suitable choice of spin connection components it should be possible to produce a precessing orbit, and also the hyperbolic spiral orbit of a whirlpool galaxy. The kinetic energy, hamiltonian and lagrangian are changed by the assumption of a fluid spacetime, aether or vacuum. Computer algebra could be used to model a precessing orbit and hyperbolic spiral orbit with choice of spin connection components. At this point I will write up Sections 1 and 2 of UFT362 and pencil in Section 3 for co author Horst Eckardt as usaul.

Daily Report 23/11/16

Friday, November 25th, 2016

The equivalent of 108, 962 printed pages was downloaded during the day (397.277 megabytes) from 2,265 memory files downloaded (hits) and 491 distinct visits each averaging 3.7 memory pages and 8 minutes, printed pages to hits ratio 48.11, main spiders google, MSN and yahoo. Top ten 1245, Collected ECE2 1218, Evans / Morris 759(est), Collected scientometrics 403(est), F3(Sp) 272, Barddoniaeth / Collected Poetry 244, Principles of ECE 219, Autobiography volumes one and two 209, Evans Equations 162, Eckardt / Lindstrom 153(est), Colelcted Proofs 131, UFT88 119, CEFE 107, Engineering Model 49, PECE 42, UFT311 35, Self charging inverter 33, Llais 32, PLENR 31, UFT321 29, ECE2 19, Idaho 16, Prolific authors 15, Three world records by MWE 10, UFT313 31, UFT314 32, UFT315 29, UFT316 21, UFT317 28, UFT318 22, UFT319 23, UFT320 34, UFT322 31, UFT323 28, UFT324 34, UFT325 31, UFT326 30, UFT327 34, UFT328 27, UFT329 23, UFT330 30, UFT331 21, UFT332 19, UFT333 20, UFT334 22, UFT335 18, UFT336 20, UFT337 23, UFT338 16, UFT339 18, UFT340 25, UFT341 23, UFT342 26, UFT343 17, UFT344 17, UFT345 25, UFT346 30, UFT347 22, UFT348 17, UFT349 21, UFT351 17, UFT352 25, UFT353 16, UFT354 35, UFT355 30, UFT356 36, UFT357 25, UFT358 24, UFT359 43, UFT360 39, UFT361 35 to date in November 2016. City of Winnipeg UFT Section; University of Concepcion Chile Faculty of Physical Sciences and Mathematics Essay 109(Sp); Deusu search engine Germany Home page; Rhine Westphalia Technical University Aachen UFT175; Steinbuch Computer Center Karlsruhe Institute of Technology Proofs; College of Information Sceinces and Technology Pennsylvania State University UFT73; Spanish Centre for Energetics, Ambient Media and Technologies (Ciemat) Essay 85(Sp); Physics Complutense University Madrid UFT110; Distance Learning University of Murcia UFT165(Sp), AIAS staff, B(3); University of Rijeki Croatia Publications; Interdisciplinary Professional Unit in Engineering and Advanced Technologies National Polytechnic Institute of Mexico UFT170(Sp); Pakistan Education and Research Network UFT26. Intense interest all sectors, updated usage file attached for November 2016.

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362(5): Convective Derivative of the General Vector, Application to Orbits

Thursday, November 24th, 2016

The convective derivative of any vector field V(t, r(t), theta(t)) is given by Eq. (7) and involves two Cartan derivatives as shown. The result is applied to the Coriolis velocity in Eq. (22) and the Coriolis accelerations in Eq. (23). The components of the orbital Coriolis velocity are changed to Eqs. (35) and (36) when the orbiting object of mass m is considered to move through a fluid spacetime or aether instead of as a point particle as in the usual orbital theory. The observable square of the orbital velocity is changed to Eq. (38), and the Newtonian result (39) is changed by the presence of the spin connection (26) of fluid dynamics and Cartan geometry. By suitable choice of spin connection components it should be possible to produce a precessing orbit, and also the hyperbolic spiral orbit of a whirlpool galaxy. The kinetic energy, hamiltonian and lagrangian are changed by the assumption of a fluid spacetime, aether or vacuum. Computer algebra could be used to model a precessing orbit and hyperbolic spiral orbit with choice of spin connection components. At this point I will write up Sections 1 and 2 of UFT362 and pencil in Section 3 for co author Horst Eckardt as usaul.

a362ndpapernotes5.pdf

Daily Report 22/11/16

Thursday, November 24th, 2016

The equivalent of 121,792 printed pages was downloaded during the day (444.055 megabytes) from 2,070 memory files downloaded (hits) and 426 distinct visites each averaging 3.4 memory pages and 11 minutes, printed pages to hits ratio for the day of 58.84, main spiders google, MSN and yahoo. Top ten 1159, Collected ECE2 1129, Evans Morris 726, Book of scientometrics 403(est), F3(Sp) 261, Barddoniaeth / Collected Poetry 231, Principles of ECE 213, Autobiography volumes one and two 202, Evans Equations 158, Eckardt / Lindstrom 153, Collected Proofs 123, UFT88 105, CEFE 100, PECE 39, UFT311 35, Self charging inverter 31, PLENR 31, UFT321 27, ECE2 17, Lindstrom Idaho lecture 16, List of prolific authors 13, Three world records by MWE 13, UFT313 28, UFT314 28, UFT315 29, UFT316 19, UFT317 25, UFT318 21, UFT319 25, UFT320 30, UFT322 30, UFT323 28, UFT324 33, UFT325 30, UFT326 29, UFT327 29, UFT328 25, UFT329 21, UFT330 25, UFT331 19, UFT332 17, UFT333 17, UFT334 18, UFT335 17, UFT336 17, UFT337 23, UFT338 15, UFT339 17, UFT340 24, UFT341 22, UFT342 24, UFT343 14, UFT344 16, UFT345 23, UFT346 27, UFT347 20, UFT348 17, UFT349 20, UFT351 17, UFT352 22, UFT353 15, UFT354 32, UFT355 29, UFT356 33, UFT357 24, UFT358 23, UFT359 41, UFT360 38, UFT361 34 to date in November 2016. City of Winnipeg UFT Section; Iparadigms New Theories; The Fraunhofer Institute for Ceramic Technologies and Systems Dresden 2D paper; Purdue University UFT80; University of California Los Angeles UFT257; University of California Santa Barbara UFT213; Electrical Engineering and Computer Science University of Michigan UFT110; Washington State Department of Corrections UFT94; Marwadi Education Foundation India UFT85; Bose Institute Calcutta UFT88; Wayback Machine (San Franciso Internet Archives) spidering, Photon B3, Life of Myron Evans (cover); The Calyx Institute UFT110; National Taiwan University UFT10; University of Wales Swansea Catastrophe for Cosmology. Intense interest all sectors, updated usage file attached for November 2016.

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Weak and Strong Nuclear Fields

Wednesday, November 23rd, 2016

Many thanks to Gareth Evans. There are many combinations and permutations possible now, so it is a matter of selecting the most incisive. The third book is pencilled in as “The Evans / Morris Effects” and planned to be four authored, Trevor and yourself and Horst and myself. Improvements in printing technology will enable the inclusion of many of your colour photographs. You may like to discuss the choice of photographs with Trevor Morris and in the meantime review the Evans Morris papers on www.aias.us and www.upitec.org.

To: EMyrone@aol.com
Sent: 23/11/2016 14:47:17 GMT Standard Time
Subj: Re: 362(4): The Coriolis velocity as a Cartan derivative

Your reference to the weak and strong nuclear fields are also very important of course and will clear up loads of uncertainty as well as probably suggesting new areas of work and useful applications.

Sent from my Samsung device

362(4): The Coriolis velocity as a Cartan derivative

Wednesday, November 23rd, 2016

This note derives the well known Coriolis velocity (10) of the plane polar coordinate system as the generally covariant Cartan derivative (1) of ECE2 unified field theory. The Coriolis velocity includes the well known orbital velocity v = omega r of a circular orbit. Note carefully that this result is no longer true in an elliptical orbit. As shown in Note 362(2a), and computer algebra by co author Horst Eckardt, the elliptical polar system is needed for self consistency. The elliptical polar coordinates system is expected to produce new fundamental velocities and accelerations of classical dynamics, this is pencilled in for UFT363. A remarkable result of computer algebra is that Eq. (12) is also true in the elliptical polar system. The general vector field V(t, r, theta) in plane polar coordinates is given by Eq. (17), and its time derivative is the Lagrange derivative, Eq. (18). The spin connection from Eq. (18) will be given in the next note. In classical dynamics, V = V(t). Therefore if an orbit is observed to deviate from the result given by V = V(t), then it is logical to assume that the orbit must be analyzed by V = V(t, r, theta) within the overall structure of ECE2 generally covariant unified field theory, in which fluid dynamics, dynamics, gravitation and electrodynamics are unified by Cartan geometry. It is probable that this unification already encompasses the weak and strong nuclear forces, but this needs to be proven rigorously. UFT225 showed that conventional electroweak theory is a fiasco from which no conclusions can be drawn.

a362ndpapernotes4.pdf

Distinction between Dynamics and Fluid Dynamics

Wednesday, November 23rd, 2016

Now that the blog is fixed, these internationally known blog dialogues can be resumed and archived in real time on the wayback machine for the readership (www.archive.org). This looks to be very interesting work and can be the basis of UFT362 along with Notes 362(1) and 362(3) and one or two more notes that I intend to prepare. The UFT363 can be dedicated to the plane elliptical coordinates, when a new discovery in vector analysis appeared out of the blue. All of the work described below is full of interest. Eq. (23), Notes 361(3) gives the complete convective derivative in cylindrical coordinates. It is also given in Cartesian, spherical polar and general curvilinear coordinates on www.pleasemakeanote.blospot.co.uk. Marion and Thornton give the usual acceleration a(t) in spherical polar coordinates as well as cylindrical and Cartesian coordinates. It looks as if the change from plane polar to elliptical polar coordinates produces new accelerations (a(t)) and velocities (v(t)) in classical dynamics. There is a snowstorm of complexity in elliptical polar coordinates, which simplifies tremendously to r bold = r e sub r bold as shown by Horst’s protocol using Maxima. I can take it from there to look for new velocities and accelerations due to the self consistent and rotating elliptical polar frame. These intricate calculations have been be done by hand, and they result in a new discovery in vector analysis. In 1835, Coriolis used a plane polar system, although his mathematical language was probably much different.

To: EMyrone@aol.com
Sent: 22/11/2016 09:44:07 GMT Standard Time
Subj: Re: Discussion of Attachment

Many thaks, you anticipated the answer to my question I would have asked next: Do we have to strictly discern between dynamics of mass points and fluid/continuous field dynamics? So the calculations in my note seem to be right and the additional acceleration terms a_1 can further be simplified in general. I already did some plots and one can see the differences between point and fluid dynamics in the case of the Torkado. This seems to be an appropriate example because it is mostly displayed as a flow field. Then the orbit I selected is a streamline of it. I eliminated all time dependencies by assuming angular momentum conservation in Z direction. Then the angular velocity can be expressed as

theta dot = L0^2 / (m r^2)

with r(theta). This is certainly an approach taken from mass point dynamics but hopefully not too wrong here. I will send over the next version of my note shortly.

PS: do we have a special expression for the fluid dynamics acceleration in cylindrical coordinates, with Z terms?

Horst

Am 22.11.2016 um 10:25 schrieb EMyrone:

Many thanks again. The answer is that the conventional acceleration of classical dynamics is based on the assumption v = v(t). So the convective derivative reduces to the ordinary time derivative because v is a function only of t. So Eq. (2) of Note 361(3) reduces to:

Dv / dt = dv / dt = d(r dot e sub r + r theta dot e sub theta) / dt = a

However, if v = v(t, r(t), theta(t)) then the chain rule of differentiation must be used as in Eq. (2) of Note 361(3), and the spin connection is changed to Eq. (1) of note 362(3). In conventional dynamics and orbital theory, v is not a function of r(t), and v is not a function of theta(t). In other words, in classical dynamics, v is not the velocity field of a fluid, it is the velocity of a particle. Observation in classical dynamics seems to confirm this assumption to some currently unknown degree of approximation. In fluid dynamics however the extra accelerations are present and have been observed through the Navier Stokes equation, vorticity equation and so on. So there are eddies, turbulence, baroclinic forces and so on. In classical dynamics v is the velocity of a particle, in fluid dynamics it is the velocity field of a fluid. If for some reason v = v(t, r(t), theta(t)) in classical dynamics the usual acceleration will be changed. If spacetime, the vacuum or ether is a fluid, these extra accelerations should become observable in dynamics and astronomy. That is the prediction of ECE2.

To: Emyrone
Sent: 21/11/2016 20:20:04 GMT Standard Time
Subj: Fwd: Problem with acceleration a1 ?

I recalculated the terms as described in the attachment. Is there an
error? The acceleration a is massively altered by a_1.

Horst

Reposting on Blog

Wednesday, November 23rd, 2016

Following the WordPress fiasco I will repost a few messages, in particular discussions with Horst Eckardt on notes for UFT362.