The Annals of Frontier and Exploratory Science

Physics of Many-body Continuum Media Problems. Not Only Mathematics. Physics 2

Vladi S. Travkin

Hierarchical Scaled Physics and Technologies (HSPT), Rheinbach, Germany, Denver, CO, USA

Any information displayed here is mostly the propriatary information in the area of "Physics of Many-body Continuum Media Problems. Not Only Mathematics. Physics 2." ================================================================

The Many-body Continuum Media Problem known in astronomy and physics since the Kepler's time is not just a singular and flat mathematical kind of problems that humanity tries to solve for more than 400 years.

Here we for simplicity turning to the Wikipedia [1,2] or any astronomy, astrophysics, general physics textbook, where can be found initial history with more than enough very restricted explanations for ancient preferably mathematical vision while with the simplified outdated mathematical statements and kinds of COHP physics for this large group of problems.

Where everyone can find ways to existing thousands (tens of thousands) solution attempts and publications that have been trying to solve the variations of this really the key fundamental physical problem for humanity.

Note - that the 2 only Category exist for this field in COH physics - "n-body" for really Continuum scale Bodies and "many-body" for the Sub-atomic particles! All are mostly for the Point-Mass-Charge-Spin (PMCS) objects - not Bodies really! They - COH physicists cannot do Many-body problems correctly - develop for models the physical and mathematical statements and simulate them correctly.

King Oscar II of Sweden in XIX established a prize for anyone who could find the solution to the "n-body" gravitational problem. The problem was formulated for Point-Mass' and in rather strict way:

"Given a system of arbitrarily many mass points that attract each according to Newton's law, under the assumption that no two points ever collide, try to find a representation of the coordinates of each point as a series in a variable that is some known function of time and for all of whose values the series converges uniformly."

In most of manuscripts, textbooks since the XVIII the "n-body" problems are always considered and formulated as the One-phase interaction problems.

Until recent of the new basis HSP solutions, all those attempts were of the One Scale One Phase (OSOP) interaction problem statements and their pseudo-soluions.

Why pseudo-solutions?

Because all the "solutions" were achieved for even OSOP as for limited number of Point-Mass' (PM) interacting throughout "action-at-a-distance" entities named "points" or "particles," bodies. So - no real solution was achieved for numerous heading to infinity or very large, at least, number of real physical objects of physical sense interacting via the real intermedium or the second phase which is always present in our 3D world - not the Point-Mass-Charge-Spin (PMCS) mathematical objects like in COHP [1,2] that we fully have being negated for many years [3-29] with references there in. Since there are no peers in many fields in HS physics, especially in those we established firstly, we should refer to ourselves.

These (PMCS) objects are not even the physical objects - these are only mathematical objects - and physical fictions based on numerous related conjectures either for astronomy, astrophysics or Continuum Mechanics, particle physics, nuclear physics, any sub-atomic physics, [3-29].

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These "like" structural spatial placements of sub-atomic or atomic particles, atoms in COHP developed not for real analysis and modeling as seems this one. COH physics don't have - did not accept the structural HSP definitions of the sub-atomic physics objects - we tell on this for many years and in many works [3-29,32-39]. No - it is just to show students the mythical picture that could imitate the locations of the particle - but not for modeling this 3DD spatial physics.

Also of tremendous interest on this matter are works of prof. R.M.Santilli [30], for example, so to some extent with the some outdated (Homogeneous One-scale) physical reasonings in the remarkable arguments on falsified contemporary cosmology scams [31].

These are the Heterogeneous Two-phase media Many-body problems, for example, as the following

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Oh, yes, this last one is also the Many-body problem - in the 1D Two-phase Two-scale statement, while one of the phases can be taken as the medium of the aether. Even if not the aether is the second phase - it is still the Many-body problem - just in COHP physicists don't know -What is the physics of Many-body problem - and construct the mathematical only explanation of the one-phase-one-scale statements.

According to general points of view the new opinions or theories should be supported to some degree with the irresistible reasons and the math. Well, the math is all over this and other our publications - to provide it in a one chapter is above the normal delivering of the physical stuff and it is actually within the referenced publications.

We found the Two-scale Two-phase solutions for Many-Body problems after more than a century of incomplete and mostly incorrect one-phase-one-scale "pseudo-solutions" and most of them are in publication only in this website -

Travkin, V.S., "When the 2x2 is not going to be 4 - What to do?" "http://travkin-hspt.com/eldyn/WhatToDo2.htm, (2002-2004)

see also on the firstly solved Many-Body problems in

Travkin, V.S., Classical Problems in Thermal Physics, HSP, "http://travkin-hspt.com/thermph/02.htm, (2003)

and in

Travkin V.S., Classical Problems in Fluid Mechanics, HSP, http://travkin-hspt.com/fluid/03.htm, (2003)

and many other solutions in other sciences in this website.

It is so pure prove of the interscale physics communication and difference, even analytical HSP Two-phase Two-scale solutions of the One-scale classical problems that can be found solved incorrectly in any COHP textbook were achieved by magic. Later on that COHP professors just shut up their mouses and keeping silence on these Two-scale Many-Body solutions since the 1990s.

Now again - What is the main difference in mathematics for a Homogeneous media and the Many-body globular and not only morphology media treatments? This is seen from the two Figures following - where it is shown that the Heterogeneous WSAM theorem that is the great analog of Gauss-Ostrogradsky theorem provides for the serious diversity that brings in the quite unusual and dissimilar HSP governing equations.

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Meanwhile, we remind again to students and professionals that the two-phase and polyphase media physics and mathematical methods for them did not exist in XIX and at the first half of XX century. This is not taught in the universities and students don't know about this.

Only the application of HSP techniques, methods allow to observe the number of problems that can be formalized as the unified chapters in physics and mathematics of Many-body problems by some features, issues similar or the same as in others among the Polyphase Two-scale (at least) problems.

The sub-division in the sets of formulations and mathematical statements of Many-body problems can be drawn between the few groups.


1) One scale. Characterized as the simple XVIII century straight one scale tasks. Only the separate bodies, particles with no specified volume, morphology and surface features or the Point-Mass (PM) objects are present in the mathematical statement. Only the interaction equation(s) assigned and determined for pairwise interaction.

No interparticle medium and processes are allowed and described.

Example is actually the source problem: Gravidynamics inside of the solar system when the cosmic space filled with the aether - later in XX century it started as to be present as the vacuum without any properties. So - the problem formulated as - for just the distance and trajectories between the planets and sun and their dynamics equations.

Old style one phase Many-body problems of XVI-XVIII centuries. There is no sense even to discuss the mathematical piculiarities and long history of attempts to solve this kind of Many-body problem statements like for "physics" needs - because physically they are incorrect due to one-phase mathematical formulations, while mathematically these problems are not fully solved even in our times beginning of XXI.


2) One scale problems set up as in the above class, but the second medium with the equation(s) of processes is allowed. Meaning that the process(s) in the interparticle medium are recognized also as the physical process(s) with their governing equations. Still, it is the one-scale COH physics of the after the WWII time scale.

So - these are the two-phase problems with the one phase - the particles (bodies) with their inside physics. Mostly we mean the rigid Continuum body or particle, but not exclusively. And the intermedium is physically connected to the particle phase via the interface surface physics - the Boundary Conditions (BC) between them, but the BCs in these COHP Many-body treatments have not involved in the scaled physics and as we know this now - after more than 30 years of HSP developments - this blindness regarding the scaled physics do not allow to see and have in the problems many additional physical phenomena .

Examples are: the two-phase media - which are the most spread media in the universe probably - and the two-phase separate phases physics dynamics governing equations of a one scale as this is treated in COHP - with errors in the governing equations, by the way [32-39].


3) The Two-scale physical and mathematical description of physical nature of the two-phase and polyphase media of transport (transduction) of particles (many-body phenomena) when the dominant direction of physical processes is happening from the Lower scale physics to the Upper Scale physics - the Bottom-Up (BUP) Physics.

That means the Lower Scale BCs play one of the major roles in these problems. This part of HSP tasks description is the most advanced throughout the last 50 years of reasearch, see some of many examples of studies on HSP problems in different sciences [3-29,32-39] with references to other numerous studies.

Meanwhile, the most of physical science communities prefer not to respond to these challenges stated with HSP - because that means the great transfer in most of their wrong studies and actually conversion to a graduate level studies, examples [33-39].

Examples are: Distribution of mass- and/or energy (heat) within the porous medium throughout the porous networks. Numerous designs of chemical reactors and other heat- and mass transfering heterogeneous devices. Similar to spatial structures of Many Body medium morpholodies.

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"Elementary" Particles in Space (Aether) Schematic. Note that here depicted the particles - not the "point-particles." That is why in the pictures they can be seen as the small balls, circles, tores, etc. That is allowed only in HSP - not for COH physics, because for COHP it is wrong and is the falsification of public and students.

The "Point" particles have no volume, surface and are not Visible - that is why they shoud be drawn as the Arrows showing the location of the "point-particle" and nothing else.

The related mathematical physics' for the "point-particles" presented by only arrows for their coordinates and direction of movement and for the real volumetric particles and bodies are Different, quite different.

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Two presentations of Volume with water molecules in paramagnetic state at the sub-atomic Fifth (A5)4 and Sixth (A6)5 zoomed scales distribution of free electrons, atoms of H, H2O, and ions in the aether in the low pressure vessel, for example. The Sub-atomic particles, atoms, and molecules of H2 and water given not in correct scales in the figure, but to visually present the real physical model for mathematical modeling that in COHP absolutely has been screwed since the beginning of XX century.

Here specifically at the Upper part of the figure the sub-atomic particles and even the atoms and molecules as usual in COHP designed as the Point-Mass-Charge-Spin (PMCS) objects -- so they need to be also graphically Invisible as in the COHP theories suggested and used in XX -- XXI and should be drawn by arrows pointing out only to location and not any structural or morphology features of particles.

On the contrary in the HSP presentation of the Lower part of the REV image is given much more complex physical model that now in XXI can and should be mathematically modeled and simulated.

For this real picture even the two-scale assessment COH physics can not perform.

A cloud of solid spheres(balls) - an example of Many-body Problem (MBP) that can be acting in many physical Two-phase Two-scale tasks - gravidynamics, two-phase flow, two-phase electromagnetic properties, etc. - a one scale statement is not revealing proper characteristics

Highly dispersed globular medium consisting of spheres
    with inter-spherical spacing greater then 5 sphere diameters.

Highly dispersed globular medium consisting of spheres with inter-spherical spacing greater then 5 sphere diameters.

Randomized series
    of spherical bead screens -- 1-D globular
    morphology

Randomized series of spherical bead screens -- 1-D globular morphology.

Capillary
    morphology model of porous medium: a bundle of
    parallel pores embedded in solid
    is the morphology model (SPPM) of porous medium

Now in figure


featured with the hundred microns scale microscopic picture Ultramet



and with the micrometer scale microscopic picture


given the examples of the Continuum scales MB problems physical and mathematical statements and solutions of different level of accuracy in the 90s - http://travkin-hspt.com/compos/index.htm,, http://travkin-hspt.com/compos/case-study/case-study.htm, in Materials science.


4) The Two- or more scale physical problems when physical and mathematical processes/methods and descriptions of transport (transduction) of particles (many-body phenomena) are directed from the Top- to Down scales (TDP) by scaled Physics. The boundary conditions at the Upper scale are the specific BCs.

Examples are: Polyphase media (particles, many-body phenomena) transport, dynamics, polyscale materials dynamics, transport in some environment or device, Heat Exchangers, some types of Chemical Reactors, External parts of Nuclear Reactors, etc.

The great role in this can be played by the possible determination of the (-1Sc) Scale - the Lower Scale which is below the Lower (0Sc) scale of the two-scale initially determined (developed) statement.

Meaning - if at the scale (0Sc) both phases are accepted as the Continuous matter physical statements - then if we admit that one or both these phases are not the initially considered as continuous matters - but itself (themselves) is the polyscale matter.

Also, we can accept that the scale (-1Sc) or Sc{(-1)} is formed of the 2 (for example) or more sub-phases.

Then we can talk on the Reverse construction of the scale (-1Sc) and scale (0Sc) corresponding process governing equations of the Top-Down GE development.

One of the main issues on this road would be the development, formulation of the Lower scale (-1Sc) the governing equations if they are in need. The problem right now is that when formulating the Lower scale (0Sc) governing equation(s) for each acting phase of the Heterogeneous medium we accept as the given assumption - that each Lower scale (0Sc) phase is the Homogeneous Continuum medium phase. While this definitely can be incorrect and mostly incorrect for the physical materials even for like Homogeneous Continuous structure at an initial scale [40-51,7].

The saving method (one of) in this situation is a call for the connecting coefficients - that is serving to science, and not only to physical sciences, for more then two hundred years. The largest technical science is the science of getting a needed coefficient [7].

Meanwhile, it is not only the problem with coefficients from the Lower scale Sc{(-1)} - but the many disappointed questions appear regarding the lost of new physical meaning terms in equations of both (0Sc, 1Sc) scale [3-29,32-39,40-51].

The meaning, the physical phenomena that these terms express are the new, sought after ones and these are of natural effects, that usually in the governing COHP equations on (0Sc) are of the forceful insertion, introduced mode on the base of outside thoughts following the Homogeneous studies used on the phenomena [7-10,13.37-39].


5) The Two, three or more scales physical processes or phenomena of transport (transduction) of particles (many-body) phenomena when the BUP and TD (BUP - TDP) physics scaling communications are happening simultaneously in the device or phenomenon.

These TD - BU physical and mathematical processes, phenomena are more complex and demanding for the accurate, more ratious formulation of physical and mathematical models, governing equations. The processes' general direction can be dominant TD or BU that actually demanding the different governing mathematical modeling equations.

All biological living creatures present themselves the examples of Double Transduction (Scale transport or transport of material and aetherial particulate natural components) BU- TD transport processes [52-65].

In a tedious selection and analysis of works by biologists and medical personnel [54] we reflected on some good intended studies where workers do understand importance of studying the real biological, medicinal issues with the most close morphological copying of tissue samples, parts of organs or biocells as, for example, in the very resourceful work with COHP fake Scaled (!) presentation of ensemble of cell's Nuclear Pore Complex, where are given figures with Heterogeneous bio-tissues as this one

Fig. 2_Alber-1
Figure 2.

The real Hierarchical structure of the cell's Nuclear Pore Complex (NPC) - consisting of four (4) scales with different structural and physical functions - the great mortal error is depicted on the third scale P with the Figure (P) for 3D structure of molecules - they are still drawn as in the Homogeneous block with molecules. And besides - the three other scale selected Volumes for analysis are also the Heterogeneous Polyphase Volumes. Workers just don't know how to make a figure and treatment - research of Polyphase volumes here in openly biophysical study - still in usual pictures in medicinal literature doctors know how to draw the piece of Polyphase tissue. So far described in a pure biological semantical language. Meanwhile, in HSB Each scale has components of physical description and mathematical language and models. These models are not and would not being available to biological communities - unless they handle somehow HSB education and tools.

Alber-1_Fig-9abc-sm.gif
Fig-9abc

The parts and assembling the NPC of large sub-parts of macromolecules.

Alber-1_Fig-10a-sm.gif
Fig-10a

Cellular NPC assembled from the macromolecules and shown at the Upper scale. The function and properties of NPC as a whole and of parts are not achievable and available for description and analysis for this One-scale Homogeneous biological model - the Many-body problem in biology.

Our comments:

The text statements and the Figures in the paper tell us about the pure need for scaled representation and solution in terms of hierarchy of the structure and the function of the NPC. Nevertheless, in the study there is no really hierarchical model building -- presented a morphological construction of the NPC. That is a desirable, but the "fake" hierarchy Top-Down. While authors can not present and do the Bottom-Up sequence - that is the primary goal to understand the FUNCTION of NPC.

3-scale-BU-TD-connections.png

Three scale resolution and Transduction of Properties - Scaleportation in a water polyphase-polyscale solution.

Fig_4C-Ben-Jacob-2009__182.jpg
Fig 4C

Growing of bacterial colony in a nutrient solution with an inhibitor. The Many-body problem in bacteriology.

Polyphase-Polyscale-Polyphysics (3P) blood dynamics in a middle size capillary - the Many-body problem in medicine.

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Any ecological system of small or large (even global) scale is the Double Transduction TD - BU transport and cannot be stable on the large time frames due to primary influence of astronomical events.

It is interesting to watch the same kind of "none-intersect" tricks in the biology and medicinal publications that professionals in these fields have learned from the COH physics community.

That means in any picture or figure drawn in biology and medicinal publications the bounding surface or line SHOULD NOT intersect (cross) the second or other phases in the Polyphase media which are normal in biology and medicine. This rule for Homogeneous only media they know. But what to do when the media Should be crossed - and them anyway should be - otherwise the study doesn't worse a paper it published on - workers don't know.

See students these "innocent" like scams in our:

Travkin, V. S. and Bolotina, N.N., "Analysis of Current Studies on Scaled, Collective Phenomena in Medicine Fields Presented as the One-Scale Concepts ," "http://travkin-hspt.com/med/medpapers/medpapers.htm (2013)

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"Figure 9. Multi-vessel basic vascular unit. A) A basic parent vessel unit that includes eight vessels with equal pressure differences, but with four different mean pressures, arranged so that the nearest parent vessel in each case is at a different mean pressure, which should enable functional vessels to form within and between subdomains. Non-periodic means that we consider reflection boundary conditions in all directions. B) Periodic boundary conditions in the z-direction. C) Periodic boundary conditions in the y- and z-directions."

Our comments:

This is the error that will be placed in the encyclopedias of biology, physics and mathematics - How the Homogeneous description of biomedia and problem in them are different from a Heterogeneous Scaled (at least two scales) polyphase models (correct ones).

The "solutions," simulations of the problem stated as this are not worth to consider as such while the initial concepts and mathematical statements are incorrect.

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"Figure 13. Image reconstruction. We reconstructed the vascular network by applying the following strategy. 3D multiphoton fluorescence microscopy images (A) taken from mouse models in vivo formed the basis of our geometrical reconstruction. These images were transferred to OpenInventor and Matlab for image analysis. Based on the data we reconstructed the vascular graph model that describes the connectivity of the vascular network. B) We assigned inflow (red points) and outflow nodes (blue points) at various pressures in order to obtain a persistent and stable network. The vascular graph is characterised by the spatial coordinates of the nodes and the connections between them."

Our comments:

Here in this medicinal biophysics example is drawn the model that workers don't understand - How to tackle it?

Because in this model the blood flow is crossing the Bounding surfaces for considering the phenomena and modeling them.

Any mathematical model developed in COH physics, biophysics for this task will be wrong - the wrong spending of human and other resources.

Note -- that there is the one only phase being intersected by the boundary surfaces of the REV!

On purpose? What is the purpose of keeping one only phase divided by bounding surfaces?

One of another examples group is the nuclear reactors core function [66-71] when physics of the sub-atomic scales is the first hand BU (Bottom-Up) dominant physical mechanism and at the same time the influx of cooling component is the TD (Top-Down) influences upon the core of a reactor.

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The mysterious for COHP free energy (energy from the aether mainly) devices, generators are also the type of BU- TD mass-energy transporting devices [40-51,72-75].

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Scaled (some of) presentations and modeling of Fe^56 as a single atom and in the aether (HSP-VAT) averaging in a REV as of a bunch of interactive atoms.

This is to illustrate that physics (HSP) is more complicated than COHP's the gang of just charged points-mass'. The scales here are for depiction of the ideas, not the real scales.

Magnetic Motors by M.Yildiz are due to spatial arrangements of magnets [45-51]:

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One of the final phases of A.Rossi Nuclear Transduction [72-75].

Nickel_Atom_in Hydrogen-900x800-1.png

Nickel atom excitement in electromagnetic pulsing fields while ortho-hydrogen molecules explicitly interacting with Nickel's electrons. One of the scenarios in the chamber of reactor. Scales are for convenient observation only.

All the figures above and problems discussed in this Chapter in HSP are variants of the Many-body Problem. Descriptions, approaches, theories for explanation, mathematical statements for physics and not for mathematics only (correct ones not of COHP), and simulation methods are based and only valid in HSP. Students - Are you surprised?

That is because you have this kind of education, ask your professors - Why they hide and not giving these scaled phenomena courses?

The following article will describe and explain in more specific and detailed HSP mathematical language for ascribed here physical models for Many-body problem phenomena, not just mathematical statements that might have concern to the problem, the Two- or Three-scale subjects regarding the "Physics of Many-body Continuum Media Problems. Not Only Mathematics. Physics 2."

Travkin, V.S., "Physics and Modeling of Many-body Continuum Media Problems - HSP," ** _ http://travkin-hspt.com/elastic2/manybodycl//manybodym.htm

Access to manuscript may be obtained for qualified parties. Apply for authorization.

References:

1. "n-body problem," http://en.wikipedia.org/wiki/N-body_problem#Other_n-body_problems, (2015)

2. "Many-body problem," https://en.wikipedia.org/wiki/Many-body_problem, (2015)

3. Travkin, V.S., Catton, I., Transport Phenomena in Heterogeneous Media Based on Volume Averaging Theory, in Advances in Heat Transfer, Vol. 34, New York: Academic Press, pp. 1-144, (2001)

4. Travkin, V. S., What's Wrong with the Pseudo-Averaging Used in Textbooks on Atomic Physics and Electrodynamics for Maxwell-Heaviside-Lorentz Electromagnetism Equations, http://travkin-hspt.com/eldyn/maxdown/maxdown.htm, (2009)

5. Travkin, V. S., Incompatibility of Maxwell-Lorentz Electrodynamics Equations at Atomic and Continuum Scales, http://travkin-hspt.com/eldyn/incompat/incompat.htm, (2009)

6. Travkin, V. S., Electrodynamics 2 - Elements 3P (Polyphase-Polyscale-Polyphysics), http://travkin-hspt.com/eldyn2/index.htm, (2013)

7. Travkin, V.S., Experimental Science in Heterogeneous Media, http://travkin-hspt.com/exscience/index.htm, (2005)

8. Travkin, V.S., "What Classical Mechanics of XVIII Provided in XX Has Done Wrong to the Base of Mechanical Science Including the Classical Mechanics of Continuum Particles and Conventional Orthodox Homogeneous Particle Physics", http://travkin-hspt.com/rottors/classmechwrong/classmechwrong.htm, (2014)

9. Travkin, V.S.,"The Major Forces Have Been Missing From Governing Equations for Dynamics of Sub-atomic and Continuum Particles, Bodies in XVIII - XX ", http://travkin-hspt.com/rottors/forcemissing/forcemissing.htm, (2014)

10. Travkin, V.S., "Classical Mechanics Attempts for Description of Atomic Physics (ClM One-scale One-phase Homogeneous Atomic Physics - ClMO2HAP) Phenomena ," http://travkin-hspt.com/parphys2/clmechonesc1/clmechonesc1.htm, (2014)

11. Travkin, V.S., "Spinning or "Torsion" Mechanics in "Homogeneous" Media? Is it Possible?" http://travkin-hspt.com/rottors/torsmechhom/torsmechhom2.htm, (2015)

12. Travkin, V.S., "Scaled Presentation of "Torsion" Mechanics in Polyphase Media", http://travkin-hspt.com/rottors/tormechpoly/tormechpoly.htm, (2014)

13. Travkin, V.S., Experiment of Franck-Hertz on Electron Scattering in a Mercury Vapor. Physics 2 , http://travkin-hspt.com/atom2/franckhertz/franckhertz.htm, (2014)

14. Travkin, V.S., Particle Physics - Heterogeneous Polyscale Collectively Interactive, http://travkin-hspt.com/parphys/index.htm, (2011)

15. Travkin, V.S., "What is the Particle Physics Now?" http://www.travkin-hspt.com/parphys/whatispp/whatispp.htm , (2011)

16. Travkin, V.S., Particle Physics (Particle Physics 2). Fundamentals, http://travkin-hspt.com/parphys2/index.htm, (2013)

17. Travkin, V.S., Nuclear Physics Structured. Introduction, http://travkin-hspt.com/nuc/index.htm, (2006-2013)

18. Travkin, V.S., Statistical Mechanics Homogeneous for Point Particles. What Objects it Articulates? http://travkin-hspt.com/statmech/index.htm, (2014)

19. Travkin, V.S., Solid State Polyscale Physics. Fundamentals, http://travkin-hspt.com/solphys/index.htm, (2014)

20. Travkin, V.S., Atomic and Subatomic Physics 2 - Elements 3P, http://travkin-hspt.com/atom2/index.htm, (2003-2015)

21. Gordienko, Y.G. and Travkin, V.S., "Transport Properties of Point-Like Objects in Multi-Scale Heterogeneous Substructure," http://travkin-hspt.com/atom/pointlike.htm, (2003)

22. Travkin, V.S., "Crystalline Medium Defects and Micro-Heterogeneous Solid State Plasma VAT Equations," http://travkin-hspt.com/atom/04.htm, (2004)

23. Travkin, V.S., Elements of the 2nd Physics at the beginning of XXI , Elements of the 2nd Physics at the beginning of XXI, (1980-2015)

24. Travkin, V.S., "Two-Scale Three-Phase Regular and Irregular Shape Charged Particles (Electrons, Photons) Movement in MHL Electromagnetic Fields in a Vacuum0 (Aether)," http://travkin-hspt.com/parphys2/abstracts/twoparticlesshort-ab.htm, (2011)

25. Travkin, V.S. and Bolotina, N.N., "Two-Scale Two-Phase Formation of Charged 3D Continuum Particles - Sphere and Cube From Electrons in a Vacuum0 (Aether). An Example of Scaleportation of Charge from the Sub-Atomic to Continuum Charged Particles, Conventional MD Cannot be Applied," http://travkin-hspt.com/parphys2/abstracts/subtocontin-ab.htm, (2011)

26. Travkin, V.S. and Bolotina, N.N., "One Structured Electron in an Aether (Vacuum0) Electrodynamics, Many Electrons in an Aether Fixed in Space - the Upper Scale Galilean Electrodynamics," http://travkin-hspt.com/parphys/abstracts/stillelectrons-ab.htm (2011)

27. Travkin, V.S. and Bolotina, N.N., "Electrons and CMBR (Cosmic Microwave Background Radiation) Flux of Photons in a Vacuum0 (Aether) - Two-Scale Galilean Theory ," http://travkin-hspt.com/parphys/abstracts/elcmbr-ab.htm (2010)

28. Travkin, V.S. and Bolotina, N.N., "The Classical and Sub-Atomic Physics are the Same Physics," http://travkin-hspt.com/parphys/pdf/51_PrAtEd-QM-Ref-2HSPT.pdf, (2013)

29. Travkin, V.S., Scattering Modeling in Optics using One Scale , http://www.travkin-hspt.com/optics/optscattering.htm, (2003-2008)

30. "Institute for Basic Research," http://www.i-b-r.org/index.htm, (2015)

31. Santilli, R.M., "Interview of prof.. Ruggero Maria Santilli on the Ongoing Obscurantism in Cosmology," http://www.i-b-r.org/Prof-Santilli-Interview.html, (2013)

32. Travkin, V.S., "Concepts: HSP-VAT Conceptual Vision and Methods in Application to Continuum Mechanics," http://travkin-hspt.com/elastic/conceptscm/conceptscm, (2010)

33. Travkin, V.S., "Are there any other Methods and Theories available?" http://travkin-hspt.com/fundament/04.htm, (2001)

34. Travkin, V.S., "Reductionism and/versus Holism in Physics and Biology - are Both Defective Concepts without Scaleportation," http://travkin-hspt.com/fundament/scaleport/scaleport.htm, (2005)

35. Travkin, V.S., "Pseudo-Averaging (Scaling, Hierarchy), Quasi-Averaging, Ad-hoc Averaging, and other "Averaging" (Scaling, Hierarchy) Type Claims," http://travkin-hspt.com/, (2002)

36. Travkin, V.S., Continuum Mechanics of Heterogeneous (Ht) Media; Elasticity, Plasticity, http://travkin-hspt.com/elastic/index.htm, (2005)

37. Travkin, V.S., "What is in use in Continuum Mechanics of Heterogeneous Media as of Through ~1950 - 2005?" http://www.travkin-hspt.com/elastic/whatsupf/whatsup.htm;, (2005-2006)

38. Travkin, V.S., "Who Are in the Continuum Mechanics Continuing to Dwell in an Ivory Tower? Who Tries to Re-Invent the Wheel? What Are the Damage and Financial Loss?" http://www.travkin-hspt.com/elastic/ivorytower/ivorytower.htm, (2006)

39. Travkin, V.S.,"Homogeneous Mathematical Schemes for Heterogeneous Multiphase Fluids - 14 Years After 1998 Analysis and Criticism, " http://travkin-hspt.com/fluid/homofluids2012/homofluids2012.htm, (2012)

40. Travkin, V.S., "Papp Effect is a Nuclear/Atomic One," http://travkin-hspt.com/nuc/abstracts/pappeff-ab.htm, (2010)

41. Travkin, V.S., "Isomers in Conventional Orthodox Homogeneous Nuclear Physics (COHNP) and in Reality," http://travkin-hspt.com/nuc/abstracts/isomers-ab.htm, (2014)

42. Travkin, V.S., "Transfer of Energy Up and Down within the Isomer's Nucleus Structural Formula Domain," http://travkin-hspt.com/nuc/abstracts/isomenergy-ab.htm, (2014)

43. Travkin, V.S., "Pumping of Energy by Noble Gases. Papp Engine Function," http://travkin-hspt.com/nuc/abstracts/pappenergy-ab.htm, (2014)

44. Travkin, V.S., "Interscale Magnetism Between the Sub-Atomic ("vacuum0") - Mesoscale (Continuum) - and Bulk Micrometer Scale Polydomain Characteristics. Magnetic Motors Phenomenon Applications," http://travkin-hspt.com/fermag/abstracts/magnet3sc-ab.htm, (2013)

45. Travkin, V.S., "02//2013 Are Magnet Motors (MM) Exist? Misunderstanding of the Function," http://travkin-hspt.com/fermag/mmexist/mmexist.htm, (2013)

46. Travkin, V.S., "02//2013 Failure of Perendev and V-gate MM Homogeneous Designs (Homogeneous Models Do not Exist). Then the Scaled Approach," http://travkin-hspt.comfermag/failPerendev/failPerendev.htm/, (2013)

47. Travkin, V.S., "02//2013 Magnet Motors of M.Yildiz. Major Design Polyscale Features and Solutions. Why These MM Work?" http://travkin-hspt.com/fermag/yildiz1fl/yildiz1fl.htm, (2013)

48. Travkin, V.S., "Upscale Energy Transport in Magnet Motors (MM) from the Sub-atomic to the 2-nd Heterogeneous Continuum Scale in MM ," http://travkin-hspt.com/fermag/abstracts/mmenergyup-ab.htm, (2013)

49. Travkin, V.S., "Electromagnetic Fields of Electrons and Atoms of Fe, Cu, and Ni at the Sub-Atomic and a Single Site of Perfect Crystal Lattice," http://travkin-hspt.com/fermag/abstracts/emelectronfecuni-ab.htm, (2013)

50. Travkin, V.S., "Rotation of Fe and Cu Atoms in a Crystal Lattice Induced by External Electromagnetic Fields ," http://travkin-hspt.com/fermag/abstracts/rotationfecu-ab.htm, (2013)

51. Travkin, V.S., "Evaluation of Magnetic Fields and Magnetization of Fe and Cu Atoms and Their Continuum Solid State Plates at Various Temperatures," http://travkin-hspt.com/fermag/abstracts/magnetizfecu-ab.htm, (2013)

52. Travkin, V.S., Catton, I., Porous Media Transport Descriptions - Non-Local, Linear and Nonlinear Against Effective Thermal/Fluid Properties, in Advances in Colloid and Interface Science, Vol. 76-77, pp. 389-443, (1998)

53. Travkin, V.S. and Bolotina, N.N.,Biology and Ecology as Hierarchical, Heterogeneous, Multiscale Sciences and their Applications, http://travkin-hspt.com/bio/index.htm, (2006)

54. Travkin, V.S. and Bolotina, N.N., How not to Scale-Down...or -Up.. ..Analysis of Current Studies on Scaled, Collective Phenomena in Biology Fields Presented as the One-Scale Concepts, http://travkin-hspt.com/bio/biopapersop.htm, (2009)

55. Travkin, V.S., "Concepts: HSP-VAT Conceptual Vision and Methods Applied to Biology," "http://travkin-hspt.com/bio/conceptsbio/conceptsbio.htm, (2013)

56. Travkin, V.S. and Bolotina, N.N., "The Tool Biologists Have Been Craving For Does Exist. The Issue Is Who Can Use It?" "http://travkin-hspt.com/bio/thetool/thetool.htm, (2013)

"The Tool Biologists Have Been Craving For Does Exist. The Issue Is Who Can Use It?"(938K)

57. Travkin, V.S. and Bolotina, N.N., "Principles, Biological and Mathematical Modeling For Elasticity, Poroelasticity of Soft Biomedia, Polymers with Fluids Mechanics in the Bioporous Two-scale Media," "http://travkin-hspt.com/biophysics/poroelastic/poroelastic.htm (2011-2013)

"Principles, Biological and Mathematical Modeling For Elasticity, Poroelasticity of Soft Biomedia, Polymers with Fluids Mechanics in the Bioporous Two-scale Media"(785K)

58. Travkin, V.S., Bolotina, N.N., and Gusev, A.L., "Presentation of Continuum Mechanics Elasticity Models for Heterogeneous Media. The Polyphase and Polydefect Scale Physics, Hierarchical Mathematics Applied," IS Journal of Alternative Energy and Ecology, No. 2, pp. 19-41, (2012)

59. Travkin, V.S. and Bolotina, N.N., "Quantum Chemistry, Physical Chemistry, Molecular Dynamics Simulation, DFT (Density Functional Theory), and Coarse-Graining Techniques Applied in Structural, Cellular Biology, Polymer Science and Implication for Scaleportation," Journal of Alternative Energy and Ecology, No. 2, pp. 58-75, (2011a)

"Quantum Chemistry, Physical Chemistry, Molecular Dynamics Simulation, DFT (Density Functional Theory), and Coarse-Graining Techniques Applied in Structural, Cellular Biology, Polymer Science and Implication for Scaleportation"(757K)

60. Travkin, V.S. and Bolotina, N.N., "Pseudo-Scaled and Scaled Description and Scaleportation of Inorganic and Organic Polymer and Polymer Composites Properties," Journal of Alternative Energy and Ecology, No. 1, pp. 62-77, (2011b)

"Pseudo-Scaled and Scaled Description and Scaleportation of Inorganic and Organic Polymer and Polymer Composites Properties"(818K)

61. Travkin, V.S. and Bolotina, N.N., Heterogeneous Scaled Biophysics (HtScBp). Fundamentals, "http://travkin-hspt.com/biophysics/index.htm (2010)

62. Travkin, V.S. and Bolotina, N.N., Bacteriology Heterogeneous PolyScale (BHS), "http://travkin-hspt.com/biobact/index.htm (2005)

63. Travkin, V.S. and Bolotina, N.N., Cellular Biology HS ↑↓ , "http://travkin-hspt.com/biocell/index.htm (2009)

64. Travkin, V.S., Structural Biology Based on Homogeneous Physics (SBH) and Elements 3P (Polyphase-Polyscale-Polyphysics) of Structural Biology 2 (SB3P) - as Hierarchical, Heterogeneous, Multiscale Science, "http://travkin-hspt.com/biostruc2/index.htm (2014)

65. Travkin, V.S. and Bolotina, N.N., Virology - is the Heterogeneous Hierarchical Science ↑↓, "http://travkin-hspt.com/virology/index.htm (2011)

66. Travkin, V.S., "Nuclear Energy, Polyscale Polyphase Structure of Heat Generation. HtHr Modeling," http://travkin-hspt.com/nuclearen/index.htm, (2009)

67. Travkin, V.S., "Scaled Heat Transport in Composite Media of Fuel Rods, Pebble Beds in LWR and HGCR," http://travkin-hspt.com/nuclearen/fuelrods/fuelrods.htm, (2011)

68. Travkin, V.S., "Reactor Physics Transport Equations Currently are Accepted and Modeled as for Homogeneous Media!" http://travkin-hspt.com/nuclearen/reactor/reactor.htm, (2011)

69. Travkin, V.S., "Thermal-Hydraulic Coolant Transport, Reactor's Fuel Assemblies and Heat Exchanger's Transport Models are also Accepted as Homogeneous (Wrongly)," http://travkin-hspt.com/nuclearen/lwrmodels/lwrmodels.htm, (2011)

70. Travkin, V.S., "Fast Nuclear Reactors 3P Theory in HSNP and Engineering," http://travkin-hspt.com/nuclearen/fastnucleartheor/fastnucleartheor.htm, (2015)

71. Travkin, V.S., "Hierarchical Scaled Physics (HSP) Polyphase Energy and Heat Transport in LWR, HW, Tritium, and Deuterium," http://travkin-hspt.com/nuclearen/heatincoolant/heatincoolant.htm, (2015)

72. Travkin, V.S., "Hierarchical Scaled (HS) Particle Physics in Rossi's E-Cat Nuclear Reactor," http://travkin-hspt.com/parphys/abstracts/particlephysecat-ab.htm, (2012)

73. Travkin, V.S., "Two- and Three-Scale Polyphase (Local (Sub--Atomic) - Nonlocal) Galilean Electric and Magnetic Fields in a Solid and Nano-powdered Cu and Ni (Copper and Nickel)," http://travkin-hspt.com/parphys/abstracts/elmagincupnickel-ab.htm, (2012)

74. Travkin, V.S., "Gamma Photons in Rossi's E-Cat Nuclear Reactor and Real Heating Particles and Effects," http://travkin-hspt.com/parphys/abstracts/rossigammafun-ab.htm, (2012)

75. Travkin, V.S., "Top-Down and Bottom-Up Hierarchical Processes in the E-Cat Nuclear Reactor. Physics 2," http://travkin-hspt.com/coldlenr/ecathier1/ecathier1-ab.htm, (2012-2013)

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"Physics of Many-body Continuum Media Problems. Not Only Mathematics. Physics 2"

This is also the well known problem - can not be stated in any correct form in COHP - still can not be resolved within the Homogeneous One-Scale General physics, Spinning physics, nuclear, particle and atomic physics, electromagnetism, Gravidynamics and astrophysics.

UNDER CONTINUING DEVELOPMENT