In the presentation, I revealed WHY the ARV had large tanks of O2 and the O-Animator based ARV simulator verified A.C.Holt’s 1979 intergalactic drive, proposed to NASA and based on UFO study, would have worked, but is not apparently optimal. The simulator shows better options.

All Founder tier subscribers will be sent a URL to the ARV simulator in the coming days and they will be able to use their existing keys to explore it.

User can select radial phasing array from 4 to 16 Sub tors. 12 is what AC Holt proposed in a later paper to his 1979 paper, 12 is also the number of subdivisions at the bottom cut out of Mark McCandlish’s sketch, which, for copyright reasons I produced a not-very-great 3D version of below. I added in the two 24V batteries that were said to start the craft, but not included in the original schematic cutaway.

When the FTM is correctly placed - the n (root) topological monopole appears clearly below the Homopolar disk. This is very important for safe operation.

With 12 n-1 substructures the twisted ring vortex core and associated tors keep the main particle flow outside the craft skirt angle and the field intensity outside of the crews placement and, additionally, not interfering with the synthetic vision systems.

User can fly the simulator between mediums and see it change from ambient to on-board fuel when appropriate duration given. That said it is very ALPHA as cascade ratios are not known and potential room temperature superconducting influence of aggregated energy solitons in the copper rings on the centre plane are not easy to determine. I suggest that this would support un-powered mass negation for a period of uptime to 2 days.

O-Animator was designed to simulate the truth observed in witness marks, including strange radiation tracks and on video recordings of coherent matter travelling waves and plasma toroid behaviour. It was built using what had been determined as the best papers in mainstream and mainstream adjacent, the science is not settled and that is where test against observation will settle the debate.

That said, I determined it was good enough to build the ARV simulator and was surprised at how the FTM geometry supported the claimed structure of the craft.

Operators can use standard game pad controllers (like X-Box compatible) to operate the craft or control it by keyboard.

The code shipping in the web-app might reasonably form the foundation of a control system to drive a trans-medium propulsion system - and - if the claims about its operation are accurate, a craft that is able to achieve 8 x light speed.

Attend Albuquerque Conference Aug 12-16...

Preregister Call (520) 252-0374 or go to:

https://teslatech.info/ttevents/prgframe.html

Sign up for Conference Livestream:
https://events.howtube.com/teslatech-2026

O-Animator commercial ALPHA release keys issued to founder level subscribers on 8·8

Thanks to all those that came on board, it has made it possible for me to share my work in USA and Canada.

Holt, A. C., (August 1979) “Field Resonance Propulsion Concept”,

National Aeronautics & Space Administration (NASA), U.S. Department of Commerce, National Technical Information Service.

Another very interesting piece by VERSADOCO with an unexpected cameo from yours truly.

I did give myself a 2 day break in the driving, and took the family to see one of my favourite places in the south east of England, the Weald and DownlandOpen Air Museum, where rescued and reconstructed buildings from across the south east of the country as old as a 1000 years, have been moved or meticulously re-constructed and are occupied by volunteers from around the world showing you life and the craftsmanship of people from bygone eras.

A famous antique repair television programme (the Repair Shop) is filmed on one part of the site, which was both interesting and annoying, the latter because it meant the ancient village forge was not showing the iron-monger working.

A medieval house with a herb and medicinal garden

The mill pond has a lovely tea room and restaurant on it (we brought a picnic!)

Before Christopher Columbus came across America, houses like these were being built in England.

The insides of the buildings are decorated, where possible, with similar aged furniture - no prizes for guessing why the one below, found in the above building, caught my eye!

The night before

On the night before going to the museum, I was working on the Lorentz solver in O-Animator and using the most basic [2 n-2] Wheel within [2 n-1] Wheel, within [n (root)] Wheel structure, this was the output.

So imagine my surprise as I entered the last structure we visited at the museum - a wooden church. Firstly I was greeted with a top view of a 4 sub tor Wheel structure in the rug just inside the entrance. Which was essentially the subject of my “It’s a big club, and you ain’t in it!” blogpost.

But then, on the alter, I saw the following carved oak trinity candle holder with the a less than subtle ‘artistic’ O in each of the HOLY words.

Hmmm, something rang a bell

Coincidence? Synchronicity?

• Matsumoto Kickstarter books printed, first people getting their copies.

• RemoteView.ICU update

• O-Animator - The physics and observation it’s based on and the release plan

• Surprise gift for everyone!

  ---

The above image is a core in the Lorentz solver with a mainstream physics knot (side view).

O-Animator Commercial

The Fractal Toroidal Moment Simulator will be free to explore.
Producing with it is a licence.

O-Animator, the Fractal Toroidal Moment Simulator, is a physics-driven simulation instrument that runs entirely in the browser - the GPU field is verified against the repository’s numpy solvers on every page load, and nothing you see is hand-animated. With a Personal key you get all of that: every structure, every physics control, every visualisation, capture of stills and screen-quality video. Nothing about the science is ever locked. That includes the showpieces: release a structure into free flight and the Trace paints each core’s true path - as a plain line or a glowing plasma trail with sub-tor corkscrews, a Doppler-style direction glow, and tunable brightness, width and smoothing. The dressing is display-only; the paths underneath are always the derived motion, sampled finely enough to stay true at any time factor. Newest of the showpieces: Feeding - the structure eats, converting whatever matter reaches its cores into charged pair products that sustain it, with a live lifetime gauge calibrated against the two-day phantom observation and a “Fuel” preset category that walks the whole range from near-vacuum fade to condensed-matter runaway.

A Commercial key is for people taking the output somewhere: film work, publication, paid presentation, product material. It unlocks the production pipeline - the exports whose whole purpose is professional downstream use - and the right to use them commercially.

The science it stands on

O-Animator is not a particle toy: every structure and motion is computed from published physics, and the page proves it to you - the GPU field is checked against the repository’s reference solvers on every load (the badge in the header). These are the papers that built it, and what each one contributed:

• R.P. Vishnevskii, Superconductivity of the Dirac Monopole (Sochi, 2008). [1] The primary source: the Dirac monopole as a self-organised electromagnetic vortex of coherently paired electrons - superconductivity without a lattice - in which magnetic charge nucleates and grows at the flow’s phase singularity, aggregating field intensity by logarithmic-spiral pair collection onto a central rotor under the orbiting-pair kinematic law. In the app this is the amplification stage of the story, and its premises enter as clearly-labelled inputs, never as solver logic. Translated from the Russian by Bob Greenyer, with the equations transcribed from the original page images and re-verified.

• V.M. Dubovik & V.V. Tugushev, Toroid moments in electrodynamics and solid-state physics (Physics Reports 187, 1990). [2] The formal backbone: toroidal (anapole) moments - the third multipole family beside charge and magnetism. Behind the app’s far-field analysis and the anapole “dark drive”: configurations that carry energy and structure while radiating almost nothing.

• N.E. Nevessky, Electromagnetic fields of current structures(Electricity Journal, 1993). [3] The recursion law for currents nested inside currents, order by order - the mathematical seed of the app’s fractal tree of tori. Translated by Bob Greenyer.

• V.E. Zhvirblis, The Bagel Game (Chemistry and Life, 1995). [4] The observation: a three-level coiled structure with six sub-tori per level, and four handedness forms that self-assemble by chirality. The app’s canonical 6-spoke geometry, its L/R chirality modes, and the pair mode trace to this paper. Translated by Bob Greenyer.

• G. Thorner, J.-M. Kiat, C. Bogicevic & I. Kornev, Axial hypertoroidal moment in a ferroelectric nanotorus (Phys. Rev. B 89, 2014). [5] Peer-reviewed hypertoroidal “apple” structures - the winding-within-winding geometry - and the left/right enantiomer pair the app’s handedness split reproduces.

• A. Espinoza & A. Chubykalo, Mathematical Foundation of Kapitsa’s Hypothesis… (Foundations of Physics 33, 2003). [6] An exact standing solution of the free Maxwell equations - closed field cells whose energy sloshes internally and never escapes - putting hard mathematics under Kapitsa’s 1955 ball-lightning hypothesis [7]. The app’s standing-mode fields implement this solution exactly; a typo in the paper’s own radial functions (inconsistent between its two printings) was found and resolved by forcing Faraday’s law numerically before implementation.

• A.F. Rañada, M. Soler & J.L. Trueba, A model of ball lightning as a magnetic knot with linked streamers (J. Geophys. Res. 103, 1998).[8] The second free-state candidate, complementary to the standing cell: a quasi-static magnetic knot in which every pair of field lines is linked, the field is exactly zero outside the ball, and the currents run on thin linked streamers occupying a millionth of the volume (resolving the hot-object/cold-object witness contradiction) - with conservation of magnetic helicity as the stability mechanism: “without linking and helicity there will be no ball lightning”. The app’s “knot” field source implements it with a linking-number slider, all four of the paper’s analytic anchors locked down by tests.

• W.H. Bostick, Experimental Study of Plasmoids (Phys. Rev. 106, 1957; with Nature 179, 214). [9] The laboratory anchor: plasma fired across magnetic fields travels as structured tori - including a torus with a 45° helical winding - photographed in 1957. Wound toroids are an observed thing, not a rendering choice.

• V. Nardi, W.H. Bostick, J. Feugeas & W. Prior, Internal structure of electron-beam filaments (Phys. Rev. A 22, 1980). [10] The empirical source of the app’s four-fold nesting ratio: plasma-focus filament photographs showing a large ring at four times the characteristic filament scale, a core of pinched electrons at its centre, and “spokes under surface” - a two-level hierarchy read directly off the plates, corroborated by Bob Greenyer’s own experiments. In the app the ratio enters as a cited observational input, never as derived logic, and the label keeps the caveat that repeating it over four levels extrapolates beyond the two observed.

• D.N. Yue et al., Dynamics of moving electron vortices and magnetic ring in laser plasma interaction (Phys. Plasmas 28, 2021). [11] The modern mainstream anchor: particle-in-cell simulations of laser-plasma interaction in which electron-vortex pairs form a "smoke-ring-like" magnetic ring at kilotesla strength, trapped ambient electrons compose its inner current, and the ring obeys B·R = constant as it shrinks (frozen-in flux at nearly fixed tube thickness). The app's field-scaling law, collapse behaviour and capture current are implemented from this paper. Its conservation law and Vishnevskii's kinematic law [1] belong to the same scaling class - both make amplitude rise as 1/size under the similarity transform the app's Collapse control performs - but they are related, not identical: Yue's holds ampere-turns fixed, Vishnevskii's holds angular momentum fixed, and through the absolute system's B = Ω the two differ by one power of radius. Which a nested hierarchy should obey is a real open question; the app takes Yue's branch and PHYSICS.md records the choice. (Scale honesty: micron-scale plasma physics, adduced as evidence for the flow forms, not as proof of the model.)

• D. Fryberger, A Ball Lightning Model as a Possible Explanation of Recently Reported Cavity Lights (SLAC-PUB-13583, 2009). [13] Takes on the classical no-go head on: a luminous object that stays coherent for a minute or more is an apparent violation of the virial theorem, and his analysis rules out solid, liquid, gas and ordinary plasma as what such objects could be. His answer works within the theorem, not against it: the core’s field energy exerts exactly the radial expansion force the theorem demands, and a counter-force derived from dyangular momentum (the dyality symmetry of Maxwell theory extended with magnetic charge) contains it, giving a stable, localised energy-minimum equilibrium “without violating the virial theorem”. That is the virial solution in the sense this project uses the phrase: self-coherent field structures are possible, but only with the right internal circulation to hold them - which in O-Animator’s terms is the closed-Poynting, nested configuration the simulator lets you build and probe. His 1994 companion paper (A Model for Ball Lightning, SLAC-PUB-6473, archived with the project) [15] goes further and names the energy source outright: nucleon decay catalysed by the core, at a rate proportional to the local density of matter - the seed of the app’s feeding stage.

Two more inputs are data rather than theory. The Common Species in the Interstellar Medium table [14] - abundances, masses, and gas-phase magnetic character - is reproduced verbatim in the app’s Medium panel and drives its species physics: matter in the simulator sorts not only by charge and mass but by magnetic type, to the point that neutral oxygen (which the Lorentz force cannot touch) visibly collects on the high-field cores when the susceptibility drift is switched on. And a set of overlay plates and photographs - cavitation bubbles in water, SEM displacement patterns on aluminium foil, cavitation marks on steel, a laser-cut smoke vortex in air - shows one and the same 2-D flow construction fitting all four media: the medium-independence exhibit, labelled as visual reference, not as an equation source.

Supporting reads in the same lineage - Afanasiev & Dubovik on remarkable charge-current configurations (1998) [12] - are archived with the project alongside the full source-provenance ledger (PHYSICS.md), which records for every equation whether it is derived, asserted, or observed. That distinction is the project’s discipline, and the app inherits it.

What building it found

The papers are the inputs; the tool then computed findings of its own - none assumed, several surprising, every one locked down by a test in the repository:

• The amplitude law is forced, not chosen. Requiring Yue's B·R = constant across the hierarchy forces constant ampere-turns at every level - the field intensification with depth is pure geometry, nothing tuned. Vishnevskii's kinematic law [1] and Yue's MHD conservation law [11] land in the same scaling class without being the same equation, and the difference is a genuine fork: Yue's branch (the one implemented) lets the flux per level shrink with depth, Vishnevskii's would hold it at one quantum. The app says which it took, in code and in the ledger.

• Four computations converge on the counter-rotating twin. An unexplained second core inherited from the prior artwork acquires a physical identity - the root ring’s dipole partner - because four independent calculations (dipole cancellation, far-field decay steepening, an added null direction, and phase closure becoming possible at all) all point at it.

• Toroid moments telescope. A counter-rotating pair generates the next level’s toroid moment in the moment algebra itself [2], with an exact 8/9 amplitude knob that statics and radiation minimisation discover independently.

• The closure threshold was computed, not assumed. The first radiation-dark drive appears at tor order 3 - Zhvirblis’s 1,2,3-tor [4] - and a fourth order widens the dark subspace rather than deepening it: closure at three, a fourth as a lock. The optimal phases read out Zhvirblis’s own quadrature mechanism.

• Darkness and protection trade off. Radiative quiet and topological (helicity [8]) protection cannot both be maximised by handedness alone - a computed division of labour.

• The phantom needs the medium - proved by exclusion. In vacuum the undriven field drains ballistically in one light-crossing; two-day persistence [4] cannot be vacuum electromagnetism. The amplification loop - captured electrons deposit current, current makes field, field captures more - runs live in the lab, its runaway honestly labelled as the instability it is.

• The structure can feed - and the budget closes. Fryberger’s 1994 paper [15] names the ball-lightning energy source outright: nucleon decay catalysed by the core, at a rate proportional to the local density of matter. The app carries that as a feeding budget with exactly ONE fitted constant - calibrated so ambient air sustains the phantom for Zhvirblis’s observed two days [4] - after which every prediction is a parameter-free density ratio: at equal pressure xenon (131 nucleons per atom) crosses self-sustaining where air (29) fades and helium (4) starves, and condensed-matter contact (iron, lead: ~10,000 × air) runs away, labelled the instability it is. Persistence ordered by baryon density alone - Xe > air > He - is the model’s testable signature: one gas swap separates it from every rival explanation. In the app, baryon tracers reaching a core visibly convert to relativistic lepton pairs that rejoin the medium: the amplification loop, closed with fuel. The idea’s lineage is wider than one paper: monopole-catalysed nucleon decay is mainstream theory [16], Cramer popularised its implications in 1984 [17], and a CIA-archived 1992 Moscow interview already claimed matter-conversion propulsion - one kilogram of iron for an interstellar journey [18] - kept as documentary lineage, not evidence.

What a Commercial key unlocks

Rationale for the split. Everything above the line is exploration and communication - the reasons the simulator exists - and stays complete in the Personal tier, including screen-quality recording so anyone can share what they found. Everything below the line exists only to feed a professional pipeline: bit-exact frames for an edit suite, 16-bit plates and scene-referred EXRs for grading, caches for Blender, 4K masters. Those are the Commercial tier.

How it behaves in the app

• Commercial-only controls are visible but greyed, marked “COMMERCIAL”, and inert on a Personal key; clicking one shows a short notice naming the feature and the licence it needs.

• Locked frame sizes and the Big bitrate appear in their menus, labelled, but cannot be selected.

• A Commercial key entered at the wall unlocks everything instantly - same build, no separate download. The About panel names the licensee and licence.

• Patron keys unlock everything Commercial does, and the patron’s name or company appears in the About panel’s patron roll, shown to every user of the app.

Pricing and availability

Licences are per seat: each key is minted against one person’s email address and works only with it (the About panel shows the address the licence was issued to). The free version releases in the fourth quarter of 2026.

Purchase page: coming soon - until then, contact Bob Greenyer (MFMP / RemoteView.ICU).

References

1. R.P. Vishnevskii, Сверхпроводимость монополя Дирака («Superconductivity of the Dirac Monopole»), Sochi, May 2008. Original (Russian): lightdynamics.narod.ru. English translation: Bob Greenyer.

2. V.M. Dubovik & V.V. Tugushev, “Toroid moments in electrodynamics and solid-state physics,” Physics Reports 187(4), 145-202 (1990).

3. N.E. Nevessky, “Electromagnetic fields of current structures,” Электричество(Electricity) 1993 №12, 49-52. English translation: Bob Greenyer.

4. V.E. Zhvirblis, «Игра в бублики» (”The Bagel Game”), Химия и жизнь(Chemistry and Life) 1995, 10-15. English translation: Bob Greenyer.

5. G. Thorner, J.-M. Kiat, C. Bogicevic & I. Kornev, “Axial hypertoroidal moment in a ferroelectric nanotorus: a way to switch local polarization,” Phys. Rev. B 89, 220103(R) (2014).

6. A.E. Espinoza & A. Chubykalo, “Mathematical Foundation of Kapitsa’s Hypothesis about the Origin and Structure of Ball Lightning,” Foundations of Physics 33(5), 863-873 (2003).

7. P.L. Kapitsa, Dokl. Akad. Nauk USSR 101, 245 (1955) - the hypothesis formalised in [6].

8. A.F. Rañada, M. Soler & J.L. Trueba, “A model of ball lightning as a magnetic knot with linked streamers,” J. Geophys. Res. 103(D18), 23309-23313 (1998), doi:10.1029/98JD01539.

9. W.H. Bostick, “Experimental Study of Plasmoids,” Phys. Rev. 106, 404 (1957); and “Simulation of Astrophysical Processes in the Laboratory,” Nature 179, 214 (1957).

10. V. Nardi, W.H. Bostick, J. Feugeas & W. Prior, “Internal structure of electron-beam filaments,” Phys. Rev. A 22, 2211 (1980).

11. D.N. Yue, M. Chen, P.F. Geng, X.H. Yuan, S.M. Weng, S.S. Bulanov, S.V. Bulanov, K. Mima, Z.M. Sheng & J. Zhang, “Dynamics of moving electron vortices and magnetic ring in laser plasma interaction,” Phys. Plasmas 28, 042303 (2021).

12. G.N. Afanasiev & V.M. Dubovik, “Some remarkable charge-current configurations,” Phys. Part. Nucl. 29(4) (1998); Russian original Fiz. Élem. Chastits At. Yadra 29, 891-945.

13. D. Fryberger, “A Ball Lightning Model as a Possible Explanation of Recently Reported Cavity Lights,” SLAC-PUB-13583, April 2009.

14. Common Species in the Interstellar Medium - abundance, mass, and gas-phase magnetic behaviour table; archived with the project and reproduced in the app’s Medium panel.

15. D. Fryberger, “A Model for Ball Lightning,” SLAC-PUB-6473, October 1994; invited talk, First Int. Workshop on the Unidentified Atmospheric Light Phenomenon in Hessdalen (March 1994). The energy-source companion to [13]; archived with the project.

16. V.A. Rubakov, JETP Lett. 33, 644 (1981); C.G. Callan, Phys. Rev. D 25, 2141 (1982) - monopole-catalysed nucleon decay, the mainstream precedent.

17. J.G. Cramer, “When Proton Meets Monopole,” The Alternate View, Analog(1984); npl.washington.edu/av/altvw01.html - popular exposition of [16].

18. V. Lagovskiy (interviewing V.D. Shabetnik), “Sensation: Flight to Alpha-Centaurus,” Rabochaya Tribuna (Moscow), 16 June 1992; JPRS translation JPRS-UEQ-92-010; CIA reading room DOC_0005516643 (released 2010). Documentary lineage only; archived with the project.

For those of you already with me

Your rate stays exactly where it is - the same monthly or yearly price you are paying now - for as long as your subscription stays active. The whole archive remains open to you, as it always has.

And I want to give something back. Starting in August, I’ll be holding a live AMA every month, just for paid subscribers. Once a month, same time each month, you and me - ask me anything about the research, the history, the Russian papers, the strange rabbit holes, whatever you like. Post your questions in advance in the subscriber chat so no timezone gets left out, and I’ll record each session so you can catch up whenever suits you.

There’s more. O-Animator - the Fractal Toroidal Moment Simulator - is coming in the fourth quarter of this year, and subscribers are first in line:

• Every subscriber, free or paid, gets a Personal key - the full simulator: every structure, every physics control, every visualisation, stills and screen-quality video capture. Nothing about the science is locked. Keys will be issued to subscribers monthly from Q4 2026.

• Annual subscribers get the Commercial licence free - the $99-per-seat production pipeline (lossless frame sequences, 16-bit deep colour, HDR EXR output, Blender scene export, 4K rendering, attribution waived) - including a fresh key with every release, for as long as you subscribe. Your annual subscription now more than pays for itself.

To my Founding Members - you know who you are. Your generosity has quite literally put me in conference halls and equipment on benches. Thank you.

For those thinking about joining

From 15 August, new subscriptions go from $70 to $80 a year, and $7 to $8 a month. That’s a 14.3% rise since 2019 - so even at the new price, supporting this work costs less in real terms than it did when I began. That feels right to me, and I intend to keep it that way.

Here’s the thing though: subscribe before 15 August and you lock in today’s rate - $7 or $70 - for as long as you stay subscribed. If you’ve been on the fence for a while, this is a genuinely good moment to hop off it.

I’m also adding a 20% discount for groups of 5 or more. Round up some curious friends, or bring your organisation or reading group along, and save a good chunk of change.

Opening things up

Some of the articles that have sat behind the paywall over the years are important - a few quite personal - and it has never sat entirely comfortably with me that they weren’t open to everyone. From August, [those pieces will be permanently free / anyone will be able to read the full archive free for 7 days with a trial].

At the same time, the archive will change: posts older than 4 months will move behind the paywall. But I want to be very clear about what stays open, because it’s most of it:

• Every new post is free to everyone for its first 4 months. The work itself stays out in the open - that will not change.

• Subscribers see no difference at all.

• A 7-day free trial lets anyone read the entire archive before deciding.

• A handful of the foundational posts will stay permanently free, so newcomers can always find their way in.

And none of this touches the YouTube videos at @MFMP - those remain free, as they always have been and always will be.

Why now

I’ll be honest with you, because you’ve earned that. My instinct has always been to give everything away, and the heart of this work will stay open. But I’m 53 now, with no meaningful pension waiting for me. My children have reached the age where they need their own rooms, and looking after them while I carry this work to conferences in new fields has become genuinely hard to fund. The other income that used to quietly support all this has fallen away. A fair, modest subscription is simply how the work carries on.

To everyone who has supported me over these years - whether with a subscription, a kind comment, or by simply showing up to the livestreams at unreasonable hours - thank you. It means more than you know.

Prices change on 15 August 2026, the day I do my Tesla Tech presentation. Subscribe before then and today’s rate is yours for good.

Crazy 1

Crazy 2

NOTE: The core feature is emergent from the physics.

NOTE: The Non-Radiating Boundary has a thickness. Look at this.

I have added two new presets to the the app for the other big pyramids of Giza, assumed as being a solid made of 100% Calcium Carbonate

• Khafre: First harmonic 8.61 Hz, 10th harmonic 14.06Hz - Schumann second harmonic is 14.3 (varying)

• Menkaure: First harmonic 17.61 Hz, 5th harmonic 20.74 Hz - Schumann third harmonic is 20.8 (varying)

StandingWaveProject

Not just a pipe dream, but physics-based.

The science is here!

And it is really fun to play with! It’s like a galaxy builder…

With real-time animation of particles… like free electrons and protons and Fe atoms - all responding appropriately to the electrodynamics and moving as they should and aggregating where they should.

What do you know, it made, from real physics, a “hollow core” - with a hole in it.

Change a parameter…

Change an angle…

Fractal Toroidal Moment playground

Easily adjust the number of sub tors and see the particle physics update in real time.

Ever seen a “UAP” that looked a bit like this???

Can create stunning art - I call this “Angel heart”

And this one Chalice

Create art and animations with physics

O-Animator will be made available first to paid subscribers until its official open release after my Tesla Tech presentation.

UPDATE #1 - Very first animation

I have designed the software to enable simple fly through animations changing parameters as you go, however, you can also do build animations, here is the first simple one I did, you can go way more complex, showing self-organising clustering sequences and see how the structures behave as their magnetic cores get stronger as they capture more electrons and evolve.

O-Animator | UPDATE #2 - Magnetic field strength and more

There are several ways the data can be visualised, such as magnetic field strength over time (as the cores get stronger via electron coherence and phase singularity aggregation). So much fun to see the physics evolve over time.

UPDATE #2 - O-OverTime

This is a real-time capture a simple WwWwW tor with one parameter change and several kinds of sub-tors switched.

UPDATE #3 - Changing simulation data vectors

Species → Species x Speed → Speed → Field → Species

UPDATE #4 - Seeing the monopole

Planned release schedule

O-Animator will be stage released as a beta first to RemoteView.ICU subscribers in following order

1. Founder members (Patron Key - Name or Organisation in app about for all users if wanted)

2. Yearly Subscribers (Commercial Key - can use for commercial work without attribution)

3. Some time between Tesla Tech and the 4th quarter release to non-paid subscribers, I will release Personal Keys (Still full physics, need to credit Bob Greenyer at RemoteView.ICU - limited but still good export) to monthly subscribers.

4. 4th quarter 2026 to non paid subscribers (Personal Key)

UPDATE #5 - Inkblot test

This fun video is demonstrating a very powerful feature of O-Animator that will help researchers to understand interactions between linear chains of Fractal Toroidal Moment structures.

UPDATE #6 - Flight Lab

Solves strange radiation, coherent matter travelling wave paths and more!

Realtime collisions between clusters are not hand keyed for effect, they are calculated real-time based on the best mainstream physics for both classical hydrodynamics and the nature of Fractal Toroidal Moment structures.

You can witness “crazy tracks” and traces appear in realtime, test impacts between different cluster self-similarity and handedness. You can even see how interlinking tors we found in Huang cavitation core would be formed.

UPDATE #7 - Interaction Traces

UPDATE#8 - Linear cluster chain modelling and animation

Modelling organic nature and its dynamics in a radically new way.

UPDATE#9 - Core species visualisation

Interstellar O is Green - Fe+ is Orange

Standing Wave Project

Let me know if you find any bugs or you want any materials / features added.

Enjoy the tool - Share widely - send me what you make with it; images, 3d print meshes, videos, presets.

• Cylinder tool v2 - diameter gauge locked orthogonal to and symmetric about the centre-line (drag either handle to set radius, a square slides it along the axis), a kink-free centripetal Catmull-Rom axis spline with true offset walls (no more self-intersections on tight bends), and per-node tangent handles to steer the curve. Recorded data measures bit-identically; CSV schema untouched.

  

• True ellipse - the Circle’s two diameter handles now act as the major axis (drag to rotate + resize) with a teal compression handle that squashes the minor axis. Labels show major × minor plus ellipse area/perimeter/volume; stored as minorRatio (1 = plain circle, fully backward-compatible).

  

• Point callouts - a point recorded “as callout” pins its name as an always-visible on-image label, independent of the Markers toggle.

  

• Polygon integrity - rotating or scaling a regular polygon keeps it a clean N-gon when the node count later changes (genuine vertex edits still resample).

Magic-wand / annotation workflow

• Wand ink annotation - a freehand stroke becomes a named, persistent on-image mark: open strokes render as a measured polyline (length), closed loops as a region (area). New ink measurement type end-to-end; nodes hidden by default, revealed by the ◌ toggle for correction.

  

• Shared ✦ Select / ✎ Ink controls - both apps present a consistent
  [✦ Select | ✎ Ink | ◌] row with a matched colour palette;
  inapplicable sliders and Boolean modes grey out in ink mode.

  

• Touch wand gestures (tablet) - one tap on the wand opens straight in Select; with Select on, tap = flood-fill, drag = lasso; New/＋Add/−Sub re-arm Select so you can keep selecting without re-tapping.

Viewing, overlays & classes

• Class colouring - assignable per-class colours plus a Status ↔ Class marker “colour-by” toggle.

• Live overlay toggles - each Filters checkbox now controls both the on-screen overlay and its inclusion in a capture (Scale bar / X·Y·Zoom · FOV / Annotations / Measurement / Description ).

• Review mode - hides the editing furniture (vertices, rotate/scale, cylinder tangents + gauge) on the active shape while keeping the outline + label; body-drag and label-drag still work. The ◌ toggle can still reveal an ink/wand shape’s nodes for editing even in Review mode.

  

• Classifier “view moved since analysis” warning - flags when the pixel-classification map no longer aligns with the current view.

Tablet ↔ desktop parity (tablet gained)

• Time sequences - a floating touch frame bar (prev/slider/next/play), per-frame ⊹ Align (nudge pad + copyable align JSON) and ⇄ Compare (swipe/fade vs an adjacent frame); the camera stays on the same region through time.

• COL as main image - make the colour image the primary tile source, with all coordinates remapped through the registration affine (scale bar stays physically correct; analyses force SEM).

• Anisotropic local calibration - calibrate different X and Y scales from two reference lines.

• Pinch-zoom/pan while drawing, and a filter-aware live 👁 in-view count.

Platform & UI

• Tablet dock redesign - desktop-style split panes (fixed header/footer, scrolling list), uniform 40 px controls, and active-row centring/highlight when stepping or recalling.

And.. ?dzi deep links!

You can now directly go to specific datasets and desktop/tablet viewer version using the following link structure

Direct to the desktop app

• https://starfire.tech/Patricia-2001/desktop/?dzi=Patricia-2001

• https://starfire.tech/Patricia-2001/desktop/?dzi=DHX-2

• https://starfire.tech/Patricia-2001/desktop/?dzi=Matsumoto-S71-Replication-2025

• https://starfire.tech/Patricia-2001/desktop/?dzi=Brock_Electrode

Direct to the tablet app

• https://starfire.tech/Patricia-2001/tablet/?dzi=Patricia-2001

• https://starfire.tech/Patricia-2001/tablet/?dzi=DHX-2

• https://starfire.tech/Patricia-2001/tablet/?dzi=Matsumoto-S71-Replication-2025

• https://starfire.tech/Patricia-2001/tablet/?dzi=Brock_Electrode

Via the root redirector (auto-picks desktop/tablet by device, remembers a ?app= choice)

• https://starfire.tech/Patricia-2001/?dzi=Patricia-2001 — device-detected app

• https://starfire.tech/Patricia-2001/?dzi=DHX-2

• https://starfire.tech/Patricia-2001/?dzi=Matsumoto-S71-Replication-2025

• https://starfire.tech/Patricia-2001/?dzi=Brock_Electrode

Force an app: https://starfire.tech/Patricia-2001/?app=desktop&dzi=DHX-2 or ...?app=tablet&dzi=Brock_Electrode (any dataset combines with either app value)

Bug testing welcome!

Give it a try and let me know if you find any show stoppers or even niggles.

I would really appreciate it if people could do a little bug testing and get back to me with their findings and suggestions ASAP.

Android

If you want to see this nearly full screen on an Android tablet, download Opera browser and run it through there using the following link https://starfire.tech/Patricia-2001/tablet/ (switch on full screen mode).

iOS

To make this look like an app using safari on iOS tablet, do the following.

1. Open Safari on the iPad and go to your server’s viewer URL (e.g. https://starfire.tech/Patricia-2001/tablet/)

2. Tap the Share button (square with the up-arrow).

3. Tap Add to Home Screen, then Add.

If you launch it from the new home-screen icon - it will open truly full screen: no address bar, no tabs, its own entry in the app switcher. (It must be Safari; other iOS browsers can’t do this.)

One caveat worth remembering: the home-screen app has its own storage, separate from Safari’s - so if you’ve been working in the Safari tab, export via CSV Out there and CSV In inside the installed app; autosaves don’t carry across.

UPDATE #1: Huge improvement to Cylinder tool and more

The cylinder tool spline now has adjustable curve controls and more logical width setting. Furthermore, the tablet version has significantly better layout.

Premiere Sunday the 21st June 2026 at 22:00 CET

Materials from this fantastic effort will be shared here after the video presentation.

Download Presentation

Mats has uploaded extensive resources which can be downloaded from the following links (please be patient) First set | Second Set | Third Set

A huge thank you to Mats for this work and I hope there are those that will join him on this journey.

1. Show to the world there is a new practical primary energy source we call the New Fire

2. Once shown, help develop peoples understanding of what the New Fire is

3. Help promote the development and uptake of the New Fire in all its various guises

I think it’s time to state we are on aim three and discuss what that will involve.

Join the LIVESTREAM today, Sunday the 14th of June 2026 CET to see what has been going on and join the conversation regarding the next steps

LIVESTREAM at 23:00 CET Sun 31st May 2026

You can see the development progress here

New Features will be previewed

Distribution charts

Greyscale and Particle Analysis

As part of that process, I have worked absurd hours to develop a tool I have wanted for nearly half a decade to make rich scientific microscopy data available for public review. You can see the on-going effort which receive huge updates today also (Sun 24th May 2026), by clicking on the button below.

SEM/ Macro Image Viewer

This tool, which I am nearly happy with, will, I hope, inspire people to directly participate in the analysis process of samples in the future.

I will have a zoom call with subscribers at 23:00 CET for 1 hour this evening.

Read more

Read more

This is becoming a process whereby it will be far easier to let a much wider audience delve into data on any device that they have. It is especially nice to use on a tablet. Here is a close up of a few features on the two demonstration pieces.

The problem is, it will take a HUGE amount of storage, the SEM takes 23.19GB on the server - I cannot host many of these before I start having to pay monthly for a lot more space!

Check out the SEM / Macro photograph Deep Zoom Images of the ‘Patricia 2001 Sample’

SEM Viewer

I hope you enjoy it, tell me what you think you find …

UPDATE#1 - Save and Copy Positions!

I have implemented the ability to save x, y, and zoom positions as well as contrast /brightness settings. There is also a ‘Copy Position’ button so that people can record and share locations of features inside these large images for discussion and analysis.

UPDATE#2 - Points of Interest System

I have now built a point of interest selector that allows you to immediately go to one of these areas and see a near full-screen panel of analysis and/or other information related to that part of the sample. Clicking on the window removes it. This is very powerful and flexible and will be of great use in future deep zoom image analysis allowing all kinds of people to really understand what they are looking at.

UPDATE#3 - Comprehensive Measurements

Today I designed and developed a simple to use but comprehensive measurement system including:

• line length

• circle; diameter, perimeter, area as well as volume of a sphere

• area of a irregular polygon

• angle

• curved cylinder; length, diameter and the volume

UPDATE#4 - Points of Interest Overlay Toggle!

I have added overlay clickable markers to the points of interest panel (which now appears first and populated), which can be toggled on and off, making it even easier to review the data.

UPDATE#5 - Raw Analysis Panel With Markers

I developed some Python scripts to process the raw microscope analysis files into clean easy-to-read HTML files. I then built a new panel with an associated marker toggle, to allow the user easily access and reference where these various analyses took place.

UPDATE#6 - Raw Analysis Panel With Markers!

his is a major update that allows people to find things in the dust, investigate them, and record measurements and considerations, including reference links (make sure you have space after the link), into easily accessible buttons that can be exported as small CSV files for sharing. Any new measurements added can be made viewable on the overall map by turning on the markers for the measurements

I have even made a little sample CSV for you to load in (it actually pre-loads now), which you can download here:

Download sample CSV

See what you can find and send me the CSV of your analysis. Perhaps I will include it in a presentation.

UPDATE#7 - MASSIVE UPDATE!

• Completely overhauled interface with consistency across the board.

• Keyboard shortcuts with help

• Capture images now allows for choice of overlays

and…

you can SWITCH between SEM and Colour Macro Photography - this makes it much easier to see what is what.

UPDATE#8 - Global improvements

Huge amount of work improving the functionality, usability, and appearance of the overall web application. Many improvements to how simple text entered into the description, will appear as rich layout in the viewer.

Here are just some of the updates.

Description popup

• Tab-separated CSV data now renders as a proper HTML table with header row, borders, and alternating row shading

• Numeric columns (Atomic %, Weight %, etc.) right-aligned with tabular figure spacing so decimal points line up

• Relative image paths (e.g. P/image.jpg) are now detected and embedded, not just https:// URLs

Canvas screen capture

• Tables, embedded images, and links all render correctly in captures (previously showed as raw CSV text or were missing)

  

• YouTube embeds show their thumbnail plus the URL printed below it in green for later reference

  

Measurement markers

• Type badge (LINE / CIRCLE etc.) is now the same height as the orange name button in all browsers.

Marker SVG style

• Measurement markers now use the same pin/circle SVG style as POI and Analysis markers, retaining their blue/white colour scheme

Scrollbars

• Global thin scrollbar applied across all browsers

Filters panel

• Brightness and Contrast slider tracks explicitly styled (custom track + thumb pseudo-elements) so they are clearly visible against the dark panel background in all browsers

Measurements panel

• Ability to filter measurements by type or name by just typing into a box.

• Ability to edit name and content of the description for measurements

• Ability to not just input previously captured CSVs and append them to the list, but also to replace the list with the CSV that you are loading in

• Ability to name and choose where you save the CSV output.

UPDATE#9 - Report Printing and User Guide

Report Production

• Filter-aware output — the report now only includes measurements matching the active search or tag filter, with a note in the header showing how many were filtered from the total

• Statistics table — the overview report now includes a table at the bottom showing count, mean, min, max, and standard deviation grouped by measurement type

• Title above image - in individual mode, each measurement’s name now appears prominently above its viewport capture rather than below

• Colour captures - new Include colour captures checkbox; when ticked, each measurement is shown with SEM and colour images side by side

• Exclude overlays - new Exclude overlays checkbox; captures can be taken as clean images without SVG measurement markers

• A4 pagination - images are now prevented from splitting across page breaks; they push to a new page if they would otherwise be cut

Measurement Panel

• Clear filter button - a × button sits to the right of the search input and clears it in one click

Overlay Markers

• Filter-aware measurement markers - when a search or tag filter is active, only matching measurements show their blue overlay markers; the rest are hidden

• Filter-aware POI markers - the same behaviour applies to green POI markers when filtering in the P panel

• Filter-aware Analysis markers - same for purple Analysis Point markers when filtering in the A panel

User Guide

• New comprehensive guide - a full 17-section HTML user guide replaces the old image-insertion guide, opened with the T key; covers all panels, tools, keyboard shortcuts, measurement types, and workflows

Keyboard Shortcuts

• p / P swap - lowercase p now opens the Points of Interest panel; uppercase P activates the Polygon tool (previously reversed, which was counterintuitive)

UPDATE#10 - Advanced tools for data analysis + usability improvements

Intensity Profile Panel - Floating panel plots a live pixel-intensity graph along any Line measurement; auto-updates when switching between SEM and colour images.

Classification tags - For people reviewing bulk raw analysis, it is now easy to specify things as unclassified, confirmed, suspect, or rejected. This is a key and powerful tool that will allow experts to confirm validity of particular types of features.

Statistics Script Plots - Found under the statistics drop down, these display every cylinder measurement as a status-coloured dot on a calibrated axis, instantly showing which fibres pass the WHO diameter (≤ 3 µm) and aspect-ratio (≥ 3:1) thresholds required for asbestos identification.

Measurement body drag - Any measurement can be moved as a whole by dragging directly on its line, filled area, or shape geometry.

Polygon/cylinder nodes - You can have anywhere from 2 to 9 nodes on polygons and cylinders now. User adjustable.

Handle precision - Endpoint and label handles no longer jump on grab; the cursor stays exactly where you clicked.

Measurement body drag - Measurements can now be repositioned by clicking and dragging anywhere on green lines or in the area enclosed by Circle or Polygon

Marker pulse on hover - Hovering over any row in the Measurements, POI, or Analysis panels brings to the top and pulses its corresponding map marker with a smooth one-second sine-wave animation, ±25% in size.

User guide updated - Guide (T) expanded to cover all new features and added new troubleshooting entries

UPDATE#11 - Now packs native 16-bit Phenom support, multi-dataset switching including your local assets!

Firstly, I’m going to call this Deep Zoom Image Viewer and Data Analysis tool

Patricia-2001

after the person and sample that inspired me to produce it.

MASSIVE KEY FEATURE!

Loading other datasets - including your own off-line ones!

• You can now load any of several different datasets from a single file chooser button (📂 or I key) - the viewer adapts automatically, showing or hiding the Colour, POI, and Analysis buttons and calibrated scale, only when that data actually exists for the chosen dataset.

• DZI files exported directly from a Thermo Fisher Scientific microscope, like the Phenom XL in native 16-bit TIFF format, load without any conversion or pre-processing - just point the manifest at the exported file and it just works, including pixel width/height calibration, exposure settings and map name!

• The N / P / A panel buttons in the corner now stack neatly together with no gaps when some panels aren’t available for the current dataset.

Measurements

• Rectangle rotation - rectangles can now be rotated freely using red corner handles (blue handles still resize).

• Side/arm length labels and outer angles (L button) - toggle on-screen measurements showing the length of each edge of a rectangle, each side of a polygon, the arms of an angle measurement and outer angels on polygons.

  

• Three-state tool toggle - clicking a measurement tool again deactivates it cleanly, hiding the drawing overlay. Clicking it a third time brings everything back, including the intensity profile if you were using the line tool.

• Starter measurements - a dataset can now ship with a pre-loaded set of reference measurements that appear automatically when you open it the DZI in the viewer, without needing a full Points of Interest folder set up.

Interface polish

• The keyboard shortcuts popup (? button) now auto-dismisses after 10 seconds, and pressing ? again closes it immediately.

• Copyright notice and support links added to the shortcuts popup.

  ---

UPDATE#12 - Selection of pro features added and better navigation

• Grey level analysis with upper and lower bounds, inside and out of selected range

• Measurement Distribution Charts with Statistics (Prints on dedicated report)

• Particle analysis tool with export

• Real time intensity profile width-averaged cross-section in Rectangle tool

• Sub-pixel bilinear interpolation overlay for smooth rendering at high zoom levels

• Shift+drag rubber-band zoom for fast navigation to a specific region of interest

• Registration between SEM and COL now near perfect

• Bug identified in live presentation fixed

User guide updated

Grey level analysis with upper and lower bounds

Measurement Distribution Charts with Statistics

UPDATE#13 - AI Assisted Feature Classifier

Huge feature, allows you to train the tool with a user defined and hand picked collection of SEM features and then, with the use of the Grey Level and Particle Analysis tools, you can detect similar features in the data.

Training data can be saved to use in the analysis of future samples of a similar type, to compare and contrast.