IMU LLC member only YouTube links

IMU LLC weekly zoom meetings. Links to the uploaded YouTube videos that are member only access. Dates and links and summaries are given below.

IMU LLC meeting GMT20260701 213536 Recording 2256x1432

The meeting focused on discussing the practical implementation and enablement of their patent application for a quantum computing research project involving aromatic rings and entropy measurement. Amar provided updates on patent office interactions and the extension process, explaining they now have a 5-month extension after securing funding from team members. The team discussed their experimental setup using GPS systems to account for special relativity, with Keryn explaining how she would conduct chemistry experiments involving aromatic rings that generate light changes detectable through a camera system. The conversation covered technical details about using quantum sources to generate random bitstreams, with Keryn demonstrating her entropy app that can capture images and produce quantum-like randomness. Amar emphasized the importance of showing the examiner they can use genuine quantum sources rather than OS randomness, and explained their proposed system using P1, P2, P3, and P4 pointers to capture and process the quantum signals from the aromatic ring system. The discussion included detailed explanations about polarization, plasma states, and the fundamental need for two-state systems in their quantum processing approach.

GMT20260722 211353 Recording 2256x1432 IMU LLC recording Amar, John and Keryn 23/07/2026

2026-05-28 09.08.58 Keryn Johnson's Zoom Meeting

Sep 26, 2024 08:56 AM Auckland, Wellington ID: 817 4347 5354

Apr 2, 2026 0825 AM Auckland, Wellington ID 872 0581 1594

2026-04-16 06.10.09 Keryn Johnson's Zoom meeting

IU MU Discussion 2: Keryn, Amar, John 21-03-2024

Dec 5, 2025 0815 AM Auckland, Wellington ID 876 7598 5328

Dec 19, 2025 0810 AM Auckland, Wellington ID 876 7598 5328

Jan 30, 2026 1111 AM Auckland, Wellington ID 839 7024 6103

Feb 6, 2026 0707 AM Auckland, Wellington ID 890 8229 4791

Feb 12, 2026 0805 AM Auckland, Wellington ID 854 1749 7054

Feb 19, 2026 0816 AM Auckland, Wellington ID 874 1869 7760

Feb 26, 2026 0811 AM Auckland, Wellington ID 862 5665 7901

Jul 2, 2026 0912 AM Auckland, Wellington ID 880 5444 6750

NEXT STEPS

1. Amar: Send the physical address of IMU LLC in Laguna Beach, California to all team members.

2. Keryn: Set up the aromatic ring experiment with the camera and quadrupole system to generate a quantum sourced bitstream for the enablement process.

3. Keryn: Install the quantum source (QIS kit) for the entropy app to ensure it is not using OS randomness.

4. John: Code the AUP algorithm to interface with Optum CSS, including the P1, P2, P3, P4 pointer system and the logic gate engine.

5. Amar: Work on the write-up for the patent enablement, focusing on the aromatic ring as the practical implementation of the AUP process.

6. Amar: Facilitate a meeting with the patent examiner if needed.

7. Team: Conduct a structured meeting next week to start coding and integrating the AUP with Optum CSS.

8. Team: Establish the practical connection for the signal feedback loop (Keryn to Amar to John and back) as the first step towards enablement.

Summary

The meeting focused on discussing the practical implementation and enablement of their patent application for a quantum computing research project involving aromatic rings and entropy measurement. Amar provided updates on patent office interactions and the extension process, explaining they now have a 5-month extension after securing funding from team members. The team discussed their experimental setup using GPS systems to account for special relativity, with Keryn explaining how she would conduct chemistry experiments involving aromatic rings that generate light changes detectable through a camera system. The conversation covered technical details about using quantum sources to generate random bitstreams, with Keryn demonstrating her entropy app that can capture images and produce quantum-like randomness. Amar emphasized the importance of showing the examiner they can use genuine quantum sources rather than OS randomness, and explained their proposed system using P1, P2, P3, and P4 pointers to capture and process the quantum signals from the aromatic ring system. The discussion included detailed explanations about polarization, plasma states, and the fundamental need for two-state systems in their quantum processing approach.

Patent Progress and Physics Concepts

Amar provided updates on patent progress, explaining that their patent was assigned to the Simulation, Modeling, and Gaming Department and discussed practical challenges including the need to restructure their LLC due to members being unable to travel to California. The team discussed their experimental approach using GPS systems to account for special relativity, with Keryn explaining how they will use an aromatic ring system, camera, and entropy app to process signals through a quadrupole arrangement. Jane shared experiences about potential sound frequencies and anti-gravitic effects, while the team explained concepts around polarization of vacuum space-time and duality in physics.

Quantum Signal Processing System Discussion

Amar recommended a free book called "Quirky Quirks" by Springer to Jane for deeper understanding of their work. The discussion focused on developing a technological system requiring a minimum of two states to process quantum signals, with specific emphasis on using an aromatic ring to display quantum noise and implement P1 and P2 pointers in a classical computer system. Keryn and Amar discussed the technical requirements for creating a quantum interface and sampling system that would work within acceptable margins of error, though the conversation ended before concrete next steps were established.

Quantum Random Number Generation Tool

Keryn presented a research tool using NIST certification that can generate random bitstreams from 32 to 1024 bits per sample, though currently it uses OS randomness rather than a quantum source. Amar emphasized the importance of clearly establishing the use of a quantum source in future implementations to strengthen their patent claims. They discussed plans to implement the system using P1, P2, P3, and P4 pointers in John's Optum CSS software, with the ability to create clusters of different P4 positions corresponding to varying entropy levels.

Random Bit Generation System Discussion

Amar and Keryn discussed a system involving random bit generation and matching processes. They clarified that P5 selects bits based on matching with the source sequence from an aromatic ring's signal release, and that three consecutive matches cause P3 to increment, narrowing the sample range. The discussion explored how different matching patterns affect the position of P3 and P4 within defined quadrants, with specific focus on how no matches result in staying within the same sampling space.

State Space Representation Discussion

Keryn and Amar discussed the state space representation and movement between different quadrants based on match/no-match outcomes. They clarified that quadrant 3 is accessed when there are three consecutive no-match results, which increments P4 by 1, indicating increased entropy and temperature. Amar explained that the ordering of matches determines whether the system moves to quadrant 2 or 4, and that the current state can be tracked through the sequence of match/no-match results.

Quadrant Match System Analysis

Keryn and Amar discussed a mathematical system involving matches and no-matches in different quadrants, determining that there are 8 total states with 6 possibilities each for quadrants 2 and 4. They explored how the positioning of matches and no-matches affects the movement of P3 and P4 values, with certain configurations keeping P3 and P4 stable while others result in movement to different quadrants. Amar explained how this system relates to Minkowski geometry and deterministic exploration, describing how it can be used for classification and data analysis with varying levels of precision based on P3 and P4 values.

Quantum Phenomena Patent Enablement

Amar and Keryn discussed the enablement of a patent related to quantum phenomena involving aromatic rings. They explored how classical recordings could correspond to quantum phenomena, using concepts like holographic imaging and matter-antimatter annihilation to explain signal production. The conversation focused on modeling the aromatic ring as a 4π system and using natural processes within the ring to enable the AUP without disclosing its full instruction set. They also discussed the need for a machinery to bridge quantum and classical systems for comprehension of the resulting effects.

Quantum Aromatic Rings Output Generation

Amar explained to Keryn how AUP generates output for quantum aromatic rings, describing how N represents real-valued numbers between 0 and 1 that fluctuate between two power sets of 2 (2 to the power of n-1 and 2 to the power of n). Amar clarified that John would receive a cluster of N values rather than a single number, with the distribution depending on entropy levels and margin of error. The discussion focused on how these N clusters serve as fingerprints for classifying events, with higher precision and accuracy leading to more tightly clustered values.

AUP-OPMCSS System Integration Discussion

Amar and Keryn discussed the technical aspects of their project involving AUP and OPMCSS systems, focusing on how to enable the patent application. They explored the relationship between aromatic rings, entropy, and the AUP system, with Amar explaining how complex entropy and confidence intervals work in their framework. The discussion centered on practical implementation steps needed to create a working machine that can send signals between different components, with Keryn emphasizing the need to establish connectivity between AUP and OPMCSS systems. They agreed to focus on enablement documentation and plan a structured meeting next week to begin coding the system once Keryn provides the necessary bits.

Jul 9, 2026 08:55 AM Auckland, Wellington ID: 830 5427 4693

Next Steps

1. Keryn: Rewrite Section 5 of the paper to incorporate her theory and relate it to the current research. 2. John: Continue working on integrating the December paper content into the current paper, particularly the abstract and introduction. 3. John: Investigate and implement a method for OpenCSIS to produce a color signal on a screen, which will act as the photon input to the condensed matter sensing medium. 4. Keryn: Obtain a copy of Optum CSIS (OpenCSIS) for practical experimentation. 5. Amar: Work on the AUP software to enable it to process the entropy signal from the aromatic ring, focusing on the connection between physical wavelength and information content. 6. Amar: Coordinate with John regarding the patent application process and the returned funds. 7. Amar: Continue daily work on the project to meet the September 30th deadline.

Summary

The meeting focused on discussing the integration of AUP (Autonomous Universal Predictor) and OPM-CSS (Optum CSS) systems with an aromatic ring-based quantum processing framework. John and Keryn discussed rewriting sections of their paper to better incorporate Keryn's theoretical framework about aromatic rings as time-dimensional boundary layers and information storage systems. They explored how to map entropy measurements to wavelength correlations within hydrogen's S orbital boundary layers, with Keryn proposing specific photon wavelengths corresponding to different quantum states and processes. Amar explained AUP's role in detecting entropy changes and distinguishing signal from noise in a quasi-quantum state space, using P3 and P4 estimators to track matches and mismatches in binary sequences representing different entropy levels. The group discussed how to implement an optical interface where OPM-CSS could generate color outputs corresponding to specific hydrogen-related wavelengths to input into the condensed matter sensing medium, potentially using a screen-based transducer system. They also examined the connection between ionization energies of different elements and the state spaces AUP would need to monitor, considering materials like hydrogen, helium, and neodymium in their discussion of quantum boundary layers and information processing.

Paper Revision and Theory Alignment

John and Keryn discussed rewriting sections of their paper to better align with current literature and incorporate Keryn's theoretical insights about aromatic rings as time-dimensional boundaries in space-time. John had rewritten the abstract to emphasize the need for mathematical models of control signals and feedback in their simulation system. They identified that Section 5 needed significant revision to properly incorporate Keryn's 3D aromatic ring theory, as the current literature missed the fundamental connection between aromatic rings and subatomic processes that Keryn described.

Palladium-Deuterium Fusion Architecture Discussion

John and Keryn discussed a theoretical architecture involving palladium and deuterium in a crystalline structure, which aims to increase fusion rates by 15% through controlled processes. They explored the concept of information layers and aromatic ring systems as potential quantum mechanical fields for encoding and processing information. Keryn explained how varying parameters in a four-quadrant system could help analyze wavelengths and select specific outcomes, potentially matching absorbed wavelengths and adjusting parameters like P3 and P4 to affect the aromatic ring's functional states.

Quantum Wavelength Measurement Approach

Amar and Keryn discussed a quantum phenomena approach involving wavelength boundaries and electromagnetic fields within atomic structures. Keryn explained their method of using adjustable quadrant depths and pointer systems (P1-P5) to identify matching wavelengths in a spectrum, particularly focusing on quantum tunneling between electromagnetic boundaries in hydrogen atoms. The discussion centered on how their instrumentation could enable matching specific wavelengths by adjusting P3 and P4 positions to narrow down the search space and identify matches in different cycles.

AUP Implementation and Signal Processing

Keryn and Amar discussed the implementation of AUP (Acceptable Use Policy) within a technology system, focusing on how to handle quantum signals and noise in a state space. Amar explained his approach of using P3 and P4 as sampling estimators to separate signals from noise, with the state space determined by N (2 to the n). The conversation ended with Keryn raising practical concerns about signal transmission to the aromatic ring and the specific wavelengths of hydrogen photons needed for communication.

RGB Communication System for Quarks

Keryn explained a system using color communication signals (RGB) to interact with a process associated with down quarks, where different wavelengths correspond to specific pathways and boundary layers in the hydrogen atom lattice structure. The system could be implemented through a screen that displays colors corresponding to input signals, which would then impact the aromatic ring system and allow monitoring of functional impacts. Amar discussed the broader context of using this optical input system within the AUP (Autonomous Universal Predictor) framework, which addresses signal-to-noise problems using deterministic rather than probabilistic methods, involving both classical and quantum noise features.

Photo-Fenton Chemistry Signal Processing System

Keryn and Amar discussed the technical aspects of their system, focusing on how to capture and process signals from photo-Fenton chemistry reactions using a camera and screen. They explored using entropy-based signals and binary representations (umbras and penumbras) to detect changes in light intensity. John confirmed that OpenCSC could potentially control a screen to generate different colors as input signals for the system, with the option to run the program remotely.

AUP Signal Processing Implementation

The team discussed implementing a program to receive AUP signals, characterize them, and generate color signals corresponding to hydrogen wavelengths. Amar explained that the system would convert data streams to binary/hexadecimal format and use P5 to analyze previous bits for matching patterns to determine entropy and state space. The discussion focused on how to track matches to wavelength choice and how AUP would detect disturbance state spaces, with Keryn noting that helium's ground state has zero entropy and thermodynamic aspects could help identify fluid system disturbances.

Quantum Entropy Measurement Approach

Amar explained his approach to measuring entropy using a quantum random source, describing how multiple batches with varying P3 and P4 values help account for random variability while honing in on specific measurements. He clarified that the system uses deterministic thinking rather than traditional probabilistic models, with entropy increases representing higher energy states and decreases indicating more predictable, regulated systems. Amar positioned his work as a sensing capability between IU and MU to help optimize quantum state superpositioning and reduce disturbances in aromatic ring energy release.

Quantum Control System Development

Amar and Keryn discussed using boundary layer thicknesses of S orbitals as state spaces for a quantum control system. They explored how different orbital layers in hydrogen atoms have varying boundary thicknesses that correlate with ionization energies and entropy levels. Amar explained his mathematical work showing connections between Planck's constant, time, and matter density, while Keryn suggested using boundary features to determine information levels and entropy. They aligned on developing a feedback control system using optical inputs from Optum CSIS to detect entropy changes and adjust system parameters accordingly, with the goal of securing a patent for this approach.

Minkowski-Superfluid Geometry Research Discussion

Keryn and Amar discussed the relationship between Minkowski geometry and superfluid geometry in their work involving aromatic rings and quantum processes. They explored how different wavelength inputs could affect system outputs, with Keryn explaining the connection between helium's 30.4 nanometer wavelength and the quantization features of the ring system. Amar clarified that their approach involves managing random variability through batch measurements rather than averaging, allowing them to identify patterns and correlations despite measurement errors.

Quantum Variability and Ionization Energies

Amar and Keryn discussed the challenges of dealing with random variability in quantum systems, particularly focusing on ionization energies and their relationship to phenomena like LENR and dark matter. They explored how different materials like hydrogen, helium, and neodymium have varying ionization energies, with neodymium being easier to ionize than hydrogen. Amar explained his approach to binary numbers and how physical wavelengths can correspond to the size of binary bits while also carrying information content. The discussion concluded with Amar describing his unique software that can measure quantum fluctuations and capture both classical and quantum phenomena simultaneously.

Mathematical Entropy Research Discussion

Amar and Keryn discussed mathematical calculations related to entropy, wavelength, and compositional information in their research. They explored how to determine information content using natural logarithms and binary systems, with Keryn calculating specific values for different N values. Amar shared that the patent office extended their deadline to September 30th and mentioned ongoing discussions with John about signal generation and color palette implementation. The conversation concluded with both agreeing to continue working on their respective aspects of the project while focusing on practical implementation rather than getting distracted by external issues in the research community.

Jul 23, 2026 0913 AM Auckland, Wellington ID 879 6935 3213

Notes

1. John: Continue working on the co-op/Copilot paper, incorporating references to Keryn's book, the Winter Sim paper, and Keryn's "Revision of quark charge calculations" paper, and clarifying the distinction between subatomic and nuclear level processes.

2. Keryn: Read the Boyens paper shared by Amar to see the alignment with the aromatic ring framework.

3. Keryn: Finalize and document the process diagram for Section 5 of the paper, showing the conceptual model of the aromatic ring and the pathway of nuclear and electromagnetic portions.

4. Keryn: Complete the development and demonstration of the "Quantum Spectrum FFT Analyzer 9" software for the patent enabling part, including the integration of the gamma ray detector (Radio Code) and the feedback control system.

5. Amar: Follow up with the examiner regarding the patent enabling part, potentially arranging a meeting.

6. Amar: Send the book by Joel Wallach (on chakra, energy, and intimacy) to Keryn for review.

7. Amar: Look into the neuromorphic photonics video sent by Keryn regarding millimeter silicon microcavity systems.

8. Amar: Work on getting Keryn's products presented at Yongevity in the future.

9. Keryn: Proceed with getting the products manufactured under GMP, utilizing the IANTS accreditation for manufacturing in China.

Summary

The meeting focused on integrating Keryn’s aromatic ring model with AUP and OPM CSS concepts to demonstrate experimental enablement for a patent. Keryn explained the aromatic ring as a structured subatomic framework linking hydrogen tunnelling, half-life timings, matter-antimatter symmetry, and photon emission, and showed how this connects to space-time, entropy, and isotope transitions. Amar highlighted a paper by Jan C. Boyens that aligned with Keryn’s framework, especially regarding Fibonacci spirals, golden ratios, and space-time topology. Keryn demonstrated a Python-based instrument using ChatGPT, FFT, and camera capture to analyze photon emissions from aromatic ring samples, track coherence, and implement feedback control via AUP and OPM CSS, including integration with a gamma ray detector. John discussed the need for a clear process diagram and utility function for learning and tracking optimal signals, and noted that the model guides the problem structure while solutions can vary. The group also discussed broader implications for biology, energy from the vacuum, and the role of AI as a responsible tool, as well as potential connections to products and outreach.

QBRI and LLC Product Planning

Amar visited Yongevity and discussed plans to present QBRI and LLC products there, which he believes could generate significant traction and revenue for their company. Keryn and John discussed their work on subatomic processes and aromatic rings, with Keryn explaining his piecemeal approach to examining atomic processes one atom at a time. John mentioned working on a co-op paper that explores manipulating subatomic quantum processes through life signals, and Keryn emphasized the importance of including positrons and matter-antimatter symmetry in their work, suggesting they need to better structure their approach by separating nuclear and electromagnetic portions.

Aromatic Rings and Hydrogen Interactions

John explained the natural subatomic process involving aromatic rings and hydrogen, emphasizing how introducing external signals like light can interfere with this natural system. Keryn discussed the ionization boundary where electrons are removed from hydrogen through tunnelling into aromatic rings, explaining the relationship between wavelengths, photon energy, and timing calculations. The discussion covered how aromatic rings function as timing systems using half-lives of unstable atoms, with Keryn comparing the process to a "snakes and ladders" game where isotopes transition deterministically through the periodic table.

Aromatic Rings and Quantum Processes

Keryn and Amar discussed the properties of aromatic rings and their potential connection to universal patterns and quantum processes. Keryn explained how aromatic rings can have different configurations and how hydrogen tunnelling plays a key role in controlling subatomic processes within them. Amar shared a paper by Boyens that describes similar concepts using a different model, emphasizing the connection between aromatic rings, the golden ratio, and universal patterns. They also discussed the potential for using pH to modulate hydrogen tunnelling and the role of aromatic rings in modelling quantum-to-classical boundary phenomena.

Aromatic Rings and Molecular Structures

Amar and Keryn discussed connections between Keryn's work on aromatic rings and molecular structures with a scientific paper they were reviewing together. Keryn explained how the aromatic ring's properties align with concepts in the paper, including Fibonacci spirals, the golden ratio, and connections to Planck's constant through time and dimensional relationships. They explored how positrons and gravitational wells might be involved in the molecular modelling, and discussed the challenge of demonstrating time-reversed photon phenomena in their patent application, particularly regarding how to show these concepts to patent examiners through detectable features in the enabling part of their patent.

Photophantine Chemistry Analysis System

Keryn demonstrated a breakthrough photophantine chemistry analysis system that tracks photon emissions and coherence levels from aromatic rings using modified microscope equipment and custom software built with Python and ChatGPT assistance. The system can analyze video footage of ring emissions and provides real-time monitoring of chaotic processes, with potential applications for tracking subatomic processes and understanding spontaneous chemical reactions. The team discussed the need to create a simplified process diagram to explain the feedback system to examiners, which Keryn confirmed would be included in their documentation.

Quantum Spectrum FFT Analyzer Demo

Keryn demonstrated a Quantum Spectrum FFT Analyzer program that can analyze electromagnetic spectra, track photon motion, and perform real-time analysis using camera inputs or video files. The system combines AUP (Adaptive Unconscious Processing) with OPMCSS to generate feedback control for stimulating spectra, with the pink line showing tracking of photon emissions and their orientation. Amar asked questions about thermal contamination and the relationship between AUP entropy and OPMCSS selection, with Keryn explaining that the system uses pseudo-random number generation to select from a sample space of N items based on photon wavelength information.

Light System Learning Algorithm

The group discussed a system's ability to learn and modulate light properties, including wavelength, duration, and frequency, to analyze samples. Keryn explained that the system uses an entropy sequence learner and Bayesian wavelength selection algorithm with evolutionization to optimize its parameters based on a utility function. John emphasized the importance of having a clear utility function to guide the learning process and noted that the system performs a random search of a large state space to find the best settings quickly.

AUP System Functionality Discussion

The team discussed AUP's functionality in creating physical wavelengths and manipulating material processes to minimize entropy. Keryn demonstrated the system's ability to achieve high agreement (0.938) in matching zero and one sequences, with the system capturing and recording the optimal signal sequences for potential replay and validation. John emphasized the importance of the system's ability to track and adapt to optimal processes, noting that it effectively duplicates an OPMCSS feedback system without requiring learned rules.

AI Feedback System Implementation Discussion

The team discussed Keryn's implementation of a solution using AI to enable a feedback system for their fluid-based project, which demonstrates how space-time continuum can function as an Ashby's law of requisite variety to handle disturbances through entangled past and future states. John emphasized that while the Winter Sim paper provides a framework for understanding the problem, different implementation approaches are valid, and Keryn's practical solution using USB-to-serial microcontroller devices effectively solves the same underlying issue. The discussion also covered connections between their work and Joe Wallach's approaches to health and longevity, with plans to explore how their technology might integrate with existing products that utilize space-time vacuum engine principles.

Jun 25, 2026 0855 AM Auckland, Wellington ID 892 5904 9481

Summary

The meeting focused on developing a patent application for an IUMU transducer platform that combines quantum biology, systems engineering, and advanced physics concepts. Keryn, John, and Amar discussed their theoretical framework involving aromatic rings, boson superfluids, and condensed matter sensing media, with particular emphasis on how the system could regulate subatomic processes through controlled electromagnetic fields. They explored how reinforcement learning could be used to learn the rules necessary to control atomic structures, with John planning to use Copilot to analyse their model and incorporate Keryn's theoretical paper on SUSI inversion quark charge calculations. The team discussed the patent examiner's requirements for enablement, including the need for specific composition ranges, preparation methods, and a worked experimental example demonstrating the complete system functionality. They also noted progress with company registration and online presence through IMULLC.com, which was being recognized positively by technology platforms.

Physics Model Analysis with Copilot

Keryn and John discussed using Copilot to analyse a physics model that incorporates Keryn's paper on SUSI inversion quark charge calculations. They identified the need to constrain the model to baryonic symmetry through revision of quark charge calculations, including the introduction of positrons to neutralize the negative charge of the neutron. Keryn explained how this approach leads to a zero-charge state in the alpha particle, distinguishing it from the standard model. The conversation concluded with Keryn highlighting a key question in patent examination about how to distinguish IU signals from normal signals, given the vast difference in photon counts between cosmic microwave background and potential signals.

Cosmic Physics and Spacetime Dilation

Keryn explained the model showing matter-antimatter annihilation generating the cosmic microwave background at specific frequencies corresponding to Standard Model particles, with processes occurring across a vast range from Planck to cosmic microwave background scales. Amar described discovering that regulating disturbances in the system creates spacetime dilation, where mass and time dilate when entropy is reduced, similar to how the body operates on a smaller scale. Amar's mathematical analysis using kilogram meters cubed per second units showed connections to existing physics concepts like black hole radiation and quantum mass fluctuation, suggesting that micro-wormholes could be key to achieving thrust without propellant.

Sample Reactor Core Setup Discussion

Keryn explained the setup of the Sample Reactor Core containing a condensed matter sensing medium that interacts with electromagnetic signals from quadrupole coils to generate photonic signals captured by a spectrophotometer. Amar and John discussed the control theory aspects of the system and how the geometric setup creates an inversion boson framework similar to Searle's concept. Amar further elaborated on the mathematical framework involving Planck's constant and a closed manifold spacetime with an information dimension system for regulation.

Subatomic Physics and Thermal Processes

Keryn and Amar discussed the replication cycles of subatomic particles and their connection to thermal properties in the universe. Keryn explained how superfluid dynamics and compression relate to cooling, and how these processes can be modelled using Boltzmann's law and the cosmic microwave background. Amar emphasized the importance of understanding these fundamental processes in explaining life and consciousness, suggesting that biology utilizes plasma and electron transport to generate energy and maintain temperature regulation. They agreed that explaining these concepts in terms familiar to mainstream physics would be crucial for further understanding and acceptance.

Subatomic Process Control Modelling

The team discussed a mathematical model that demonstrates how subatomic processes can be controlled through specific frequencies and timings, similar to how a PLC regulates temperature. John explained that reinforcement learning could learn the rules to control these processes without needing to know the underlying model, provided the nature of the control signal and measurement of progress toward goals are understood. The discussion included details about how aromatic rings and helium-2 fluid might be involved in atom construction, with specific numerical relationships between various physical constants discussed by Keryn.

Physics Research and Patent Progress

The team discussed progress on their physics research and company development. Amar shared positive feedback from IMULLC.com being listed as a deep tech company on search engines, while Keryn reported making significant progress with the company secretary to establish legal structure and patent processes. The main focus was on addressing patent examiner requirements for enablement, specifically the need to create a worked experimental example demonstrating the full system functionality including the AUP connected to OPMCSS. John suggested using reinforcement learning to optimize the subatomic process and signal generation, which would involve searching through possible sequences to find the most effective approach.

Neodymium Emission Frequency Modelling Discussion

The team discussed using a model to determine appropriate frequencies for triggering alpha particle emissions from neodymium atoms, with Keryn explaining the technical details about half-lives, thermal properties, and gravitational aspects of the process. John mentioned having existing C++ software including a reinforcement learning classifier system and an information wave generator that could support their experimental approach. Amar shared experience using LabVIEW for continuous monitoring of excess heat generation and suggested using Base44 for the project. The discussion concluded with Amar requesting quantum-generated random bits for his system, which would serve as a repository of quantum noise for their patent enabling work.

Quantum Data Stream Generation Discussion

Amar discussed generating a random binary data stream using quantum methods, with Keryn proposing to use aromatic ring breaking to create a stream of ones and zeros. Amar explained his AUP (Adaptive Unbiased Estimator) system that analyzes patterns in the data stream to measure information content rather than just the physical bits themselves. John suggested modelling the evolutionary growth of the IUMU system starting with helium, which could study how the system learns and makes decisions about processes. The discussion concluded with Keryn proposing to model the hydrogen spherical bubble system with internal and external image comparisons to study energy differences and system responses.

Quantum Random Number Generation

The team discussed generating truly random bits using a quantum system from an aromatic ring rather than classical random number generators to avoid thermal pollution. John agreed to handle the coding implementation once Amar provides the specifications, while Amar emphasized the need for a system that maintains 50% zeros and ones when split in half. Keryn presented visualizations showing quantized wave patterns and signal correlations in hydrogen atom boundary layers, demonstrating how the system produces different wave signal patterns through various mathematical operations on the quantized data.

Aromatic Ring Signal Analysis Planning

Keryn and Amar discussed analysing signals from aromatic rings using AUP (Anomalous Unidentified Pattern) software. Keryn explained that modelling would be needed to multiply signals together and show how complex signals appear when combined, potentially looking like sine waves. Amar requested that Keryn explain the findings to John, who missed part of the meeting, and discussed plans to analyse mud data by collecting measures of entropy clusters using different AUPs for various break types. They also discussed technical requirements for data format, with Amar specifying that the bitstream data should be in pure binary format (ones and zeros) with at least 3 bits for meaningful analysis.

Ensemble Entropy Method Discussion

Amar explained his method of generating ensemble entropies as real-valued numbers between 0 and 1, which can be adjusted for different levels of resolution depending on the required finesse. He described how these measures provide a unique "forensic thumbprint" similar to a Bitcoin stream, allowing for identification and analysis of patterns. Amar noted that while the recordings can be used for simulation, the measures generated are deterministic rather than probabilistic, involving complex plane geometry and Minkowski geometry.

Ensemble Generation and Quantum Analysis

Amar and Keryn discussed using ensemble generation and quantum random walks to analyse data, with Amar explaining how the system can create ensembles of measurements that can be used for offline analysis similar to forensic investigation. They explored the potential to generate both forward and backward time ensembles, with P1 and P2 serving as the main playground parameters while P3 and P4 could be tailored for specific frequency selections. The discussion touched on how this approach could be applied to studying aromatic systems and potentially relate to element formation in the universe, particularly regarding helium's role in creating hydrogen and other elements.

Aharanov-inspired Research Method Discussion

Amar and Keryn discussed similarities between their work and Aharanov's approach, particularly regarding reciprocal perspectives and mirror universes in their research. Amar explained how his ensemble method using AUP could potentially detect signals from both forward and backward time directions, similar to how Aharanov's work operates with electric and magnetic fields. They explored how clustering techniques could be used to analyze multiple ensembles and identify meaningful patterns, with the Optum CSS system potentially providing priority grades for different clusters to determine which are most significant for further investigation.

AUP System Implementation Discussion

Amar and Keryn discussed the technical implementation of their system, focusing on the AUP (Automated Unit Process) and its role in testing and controlling the system's behavior. Amar explained the mathematical framework involving P3 and P4 parameters across different quadrants, which ties into Minkowski geometry and information theory. They agreed to proceed with developing the enablement system that can incorporate AUP, Occam CSS, and feedback signal generation, with the functionality designed to work remotely over the internet as a non-disturbing aspect of the technology.

General Relativity Integration Discussion

Amar and Keryn discussed integrating General Relativity (GR) concepts into their temporal piping framework, with Keryn proposing to incorporate GR elements into three locations. Amar explained his intuitive understanding of time and matter density being equivalent, and how this relates to GPS systems and space-time dilation. They explored personal experiences with timing and isotope decay, with Keryn sharing details about his own experiences with nuclear decay and how these connect to life events and aromatic ring systems. The conversation touched on concepts of parallel universes, memory processes, and the role of the aromatic ring in determining choices and conscious awareness.

Mar 5, 2026 0810 AM Auckland, Wellington ID 849 1288 9796

Feb 25, 2026 0810 AM Auckland, Wellington ID 849 1288 9796

Mar 12, 2026 0811 AM Auckland, Wellington ID 833 4084 5138

Mar 12, 2026 0811 AM Auckland, Wellington ID 833 4084 5138

Mar 19, 2026 0811 AM Auckland, Wellington ID 885 7013 0460

Mar 20, 2026 0811 AM Auckland, Wellington ID 843 2832 0736

Mar 26, 2026 0817 AM Auckland, Wellington ID 895 2608 4832

May 7, 2026 0902 AM Auckland, Wellington ID 824 9205 7499

1. Amar: Contact the patent office to find out the cost and process for getting a 3-month extension for responding to the examiner's feedback

2. Amar: Play with Copilot AI to assist with drafting responses to the patent examiner's feedback

3. John: Review the examiner's feedback document when received

4. Keryn: Experiment with using GPT/Copilot to address the examiner's comments

5. Amar: Talk to Jane about approaching potential funders, ensuring patent work is priority before engaging with agencies

6. John: Send the document/generated proposal to team members to demonstrate how Copilot can be used for patent response

7. Team: Use Copilot to help organize patent claims and address examiner's comments

8. Amar: Resend examiner's feedback document to John

9. Keryn: Send patent specification document to John

10. Team: Focus on completing patent response before pursuing RFP/ARPA proposal

Summary

The meeting focused on discussing a patent application and related research involving quantum physics concepts, particularly around aromatic rings, Bose-Einstein condensates, and the IU-MU system. The team, including John, Keryn, and Amar, explored how to structure their patent documentation using AI tools like Copilot to address examiner feedback and organize their claims. They discussed the technical aspects of their system design, including the role of aromatic rings as quantum processors and the coordination of these rings through an information universe (IU) framework. The group also considered how to present their work to potential investors and agencies, with particular caution about timing the release of their RFP and patent information. Throughout the discussion, they emphasized the importance of protecting their intellectual property while leveraging AI tools to accelerate their documentation process.

Atomic Structure and Energy Models

The group discussed theories about atomic structure and energy, with Keryn explaining a layered approach to understanding atomic processes using analogies like an iceberg. Amar built on this by proposing a model involving space-time curvature and an agent network operating outside of space-time, which could edit and interact with space-time. The discussion touched on concepts like Bose-Einstein condensate, dark matter and energy, and conservation rules, with Keryn and Amar exploring how these might work together in a framework that could explain particle formation and energy.

Atomic Structure and Energy Models

The group discussed theories about atomic structure and energy, with Keryn explaining a layered approach to understanding atomic processes using analogies like an iceberg. Amar built on this by proposing a model involving space-time curvature and an agent network operating outside of space-time, which could edit and interact with space-time. The discussion touched on concepts like Bose-Einstein condensate, dark matter and energy, and conservation rules, with Keryn and Amar exploring how these might work together in a framework that could explain particle formation and energy.

Feedback Control System Discussion

The group discussed a feedback control system involving two different worlds (World 1 and World 2) interacting with each other. They explored the mathematical formalism of reciprocals and how it relates to entangled particles and black holes. Keryn explained the role of the Bose-Einstein condensate in generating dark energy, dark matter, and Planck scales over time, while John asked about the convex/concave nature of the information universe. The discussion concluded with Keryn describing how compression and expansion in the Bose-Einstein condensate lead to the formation of matter and antimatter through a process similar to hydrogen atom tunnelling.

Aromatic Rings and Universe Connection

The group discussed the role of aromatic rings in connecting the IU (information universe) and MU (material universe), with John explaining that aromatic rings in a lattice serve as individual engines coordinated by the IU to minimize entropy and maintain system efficiency. Amar proposed that the Bose condensate acts as a negotiation place for space-time curvature engines, while Keryn clarified that the aromatic ring contains the Compton wavelengths of particles and serves as the doorway between IU and MU. The discussion also covered how the aromatic ring system provides the charge calculations necessary for creating matter-antimatter asymmetry through supersymmetric structuring and hydroxy radical processes.

Quantum Simulation of Aromatic Rings

The team discussed a proposal about simulation models and aromatic rings, with John explaining how the simulation helps determine how individual aromatic rings coordinate to function efficiently. John detailed complex mathematical connections between Bose-Einstein condensate, Compton wavelengths, and up quarks, describing how these elements work together in the aromatic ring system. Amar connected these concepts to Heisenberg's mathematics and mentioned plans to pitch the work to Aharonov, emphasizing how the proposed transducer incorporates multiple quantum phenomena into a unified system.

Quantum Research Investor Presentation Strategy

The team discussed their approach to explaining their research to investors, focusing on presenting an open system framework that uses Ashby's Law of Requisite variety. They described how their work involves the fifth state of matter, Bose Condensate, as a negotiation room for spacetime curvature engines that can transduce information into energy. John explained his model of intelligent agents that learn and coordinate rules across a system, with these agents sharing information to maintain consistent operation throughout the MU. The discussion highlighted the need to simplify complex concepts for investors while demonstrating the broad applications of their quantum sensing system beyond their specialized focus.

Energy Technology Patent Strategy

The team discussed their energy technology project and patent application. Amar emphasized the importance of securing their patent before approaching agencies like ARPA-E, warning against rushing into partnerships that could compromise their independence. John presented a proposal that could attract ARPA-E's attention, highlighting the technology's potential for controlled energy extraction and simulation capabilities. The group agreed to focus on finalizing their patent and establishing their company as a bona fide entity before pursuing external partnerships or funding opportunities.

AI Copilot for Patent Documentation

The team discussed using AI Copilot to help with patent documentation, with John suggesting they list their claims and let Copilot organize them into a coherent structure. They explored how to address patent examiner concerns about their IUMU transducer toolbox, with John explaining that their simulation-based system design methodology could be applied to various systems including quadrupole designs and sensor-based approaches. The team agreed to focus on using Copilot to help with the patent process during the current patent examiner month, with Amar planning to investigate the fee for extending their patent timeline.

AI Co-pilot for Patent Work

The team discussed using AI co-pilot to help with patent work and system design, with John suggesting it could speed up the process significantly. Amar expressed concern about involving others with financial aspects until they consult with their patent examiner first, and mentioned he would discuss this with Jane. The group also discussed reviewing patent examiner feedback and addressing their comments, with John suggesting he would examine the claims and examiner's comments to incorporate them into the instructions.

Patent Document Organization with Copilot

The team discussed using Copilot to help organize and structure a 35-page patent document. John suggested uploading the entire document along with key ideas into Copilot and asking it to organize them into a structured format. The group explored the possibility of using Copilot to generate a patent document or address specific examiner concerns. Amar emphasized the significance of obtaining this patent for the university, as it would demonstrate the seriousness of their work in the field.

AI Tools in Patent Work

John discussed using AI tools like Copilot to assist with patent work, explaining that the system can generate patent formats and handle claims automatically. Keryn mentioned using GPT to create imagery and noted that while AI tools can accelerate existing work, they may impact traditional illustrators. Amar raised concerns about AI regulations and compliance, emphasizing that their current use of AI aligns with legal requirements established through previous approvals. The discussion concluded with a conversation about the limitations and complexities of AI models in understanding and generating detailed content.

Copilot Experience and Patent Plans

Amar shared his experience using Copilot to explore complex concepts, particularly around AUP and duality, which helped him see connections he hadn't noticed before. He noted how the project naturally keeps them ahead of current developments due to its complexity. The discussion also touched on how using the Muon system provides a temporary advantage over the electron system, allowing for deeper insights. The conversation concluded with a brief mention of plans to contact the patent office regarding an extension, likely related to a patent application due in June.

Patent Strategy and Technical Discussion

Amar and Keryn discussed their patent application timeline and strategy, with Amar planning to seek a 3-month extension. They explored technical concepts related to spacetime, superfluids, and information storage, with Keryn explaining how bosonic systems could enable slow light and temporal control. The conversation concluded with both acknowledging the complexity and significance of their work, with Amar planning to discuss next steps with Jane regarding potential funding opportunities beyond traditional government channels.

May 14, 2026 0902 AM Auckland, Wellington ID 810 7318 7791

1. Keryn: Update the patent specification to include detailed implementation of the IUMU transducer, including hardware blocks, signal flow, operational steps, control loops, software architecture, and concrete working examples with specific setup parameters, and provide a rebuttal to the examiner addressing enablement and claim scope.

2. Amar: Contact the patent office to request an extension (determine cost and process for 3-month extension).

3. Keryn: Complete and submit the updated patent materials by around the 21st of the month to meet the response deadline.

4. Amar: Copy and paste ChatGPT/Copilot session outputs into a Word document and send to team for review.

5. Keryn: Consider preparing a new provisional patent application focused on traversable wormhole generation, if deemed strategically necessary after further discussion.

6. Amar: Coordinate with Jane (and potentially Feder, Sergey, and others) to update the website with relevant team members, documentation, and Trump letters.

7. Amar: Schedule/coordinate a future meeting with Bradley, John, and Keryn to discuss consortium and next steps after patent filing.

8. Keryn: Provide access to the website to additional team members so they can assist with updates.

The meeting focused on discussing patent strategy and improvements for an IMU transducer technology. Keryn provided detailed analysis of the patent examiner's feedback, identifying key issues around enablement, definiteness, and abstract idea concerns. The team discussed how to better define the IUMU transducer's construction using a rudimentary setup involving a CRT screen, video camera, and quantum fluid in a beaker. They explored connections between their technology and potential applications in exotic space-time engineering and wormhole creation, though Keryn advised against making specific claims about wormholes in the current patent application. The group debated the timing of pursuing an RFP versus focusing on finalizing the patent, with Amar expressing concern about potential distractions and the need to complete the patent application within the remaining month deadline.

Patent Development Progress Discussion

The team discussed progress on patent development, with Keryn reporting she had made progress using ChatGPT to analyze examiner feedback. The main issues identified by the examiner included enablement, indefiniteness, and abstract idea concerns, with the examiner noting the claims were too broad and not sufficiently tied to concrete apparatus steps. John mentioned he had prepared a proposal describing the IMU transducer, which appears to involve a setup using a TV screen, video camera, and beaker with aromatic fluid. The team agreed the patent is currently too broad and needs to focus on specific novel aspects that would be commercially viable and non-obvious to qualify for patent protection.

Quantum Gravity Transducer Design Proposal

Keryn explained the design of a rudimentary transducer using an old CRT screen, a 45-degree mirror, a video camera, and a quantum fluid system. The setup aims to study gravity through specific isotope transitions, including the 3-1 to 3-2 decay of tritium and helium, and utilizes a 180-degree rotation to model electron behavior. Keryn outlined the components needed for the transducer, emphasizing its potential applications in studying quantum gravity and various input/output signal functionalities.

Room Temperature Bosonic Superfluid Demonstration

Keryn explained the concept of a bosonic superfluid and demonstrated how it can be observed using a CRT setup with light feedback. The discussion focused on the properties of this room temperature superfluid, including its creation through photo Fenton chemistry and its connection to mu naught and the lambda point of helium. Amar emphasized the importance of establishing that they have a room temperature superfluid for their examiner, noting its potential to function as a room temperature quantum computer without requiring cryo-cooling.

IUMU Transducer Patent Application Discussion

Amar and Keryn discussed the challenges with their patent application for an IUMU transducer, focusing on how to clearly define the operational structure and components needed to build the device. Keryn identified that the current application mixes various concepts, making it difficult for the examiner to determine what is required versus optional, and suggested splitting the patent into separate engineering and theoretical sections. They agreed that while they cannot patent existing technologies like the homopolar machine, they should focus on describing a simple, functional version of the IUMU transducer using basic components like a CRT and video camera, rather than providing detailed engineering specifications for established quadrupole systems.

IUMU Transducer Patent Development

Keryn and Amar discussed the development of a basic IEUMU transducer model to establish a foundation for patenting purposes, with plans to iterate on higher-quality components later. Keryn emphasized the need to add a detailed implementation section to the patent, including hardware blocks, signal flow, operational steps, control loops, and software architecture. They also discussed strengthening the patent's scientific claims by focusing on the transducer's ability to analyze temporal, electromagnetic, and photonic behavior associated with proton tunneling and condensed matter interaction systems, rather than abstract concepts like consciousness or unstable atoms. Keryn suggested reframing certain claims to be more defensible within the physics community and highlighted the need for concrete examples to address the examiner's concerns.

Patent Technical Information Organization

Keryn and Amar discussed the need to better organize and present technical information in their patent, particularly regarding sensor types, sample types, and spectroscopic outputs, to make it more accessible for examiners. Keryn emphasized the importance of clearly disclosing their methods so others could replicate their work. They identified the most valuable IP as the closed-loop transducer architecture and spectroscopic systems, rather than DEDM or mass reduction. Keryn shared his use of AI, specifically ChatGPT, to assist with their scientific work, particularly in understanding bosonic superfluid and dark energy interactions through aromatic rings. The discussion concluded with a reminder about an upcoming deadline and the need to specify key components like cameras and screens in their system.

Camera System Patent Modification Discussion

The team discussed modifying a patent application to include new technical details about a camera system that uses light at the speed of light to traverse distances beyond current measurement limitations. Keryn explained how the system could help visualize subatomic processes through macroscopic observations using magnetic fields and RGB screens. Amar emphasized the importance of sorting out the patent before proceeding with an RFP, to avoid potential conflicts with patent examiners. The discussion concluded with a question about potential connections between their work and Aharanov's two-state vector formulas, particularly regarding interferometry applications.

Aromatic Rings and Quantum Fields

Keryn and Amar discussed the potential correlation between aromatic ring currents and macroscopic feedback systems, exploring the possibility of creating exotic space-time engineering and quantum field manipulation. Keryn explained how the layering of electrons in aromatic rings could lead to wavelength-specific absorption and the potential for creating a "squeezed vacuum state" similar to a laser system. Amar inquired about the possibility of creating a warp bubble by engineering quantum fields and contracting/expanding space within a device. Keryn responded that the effectiveness would depend on factors such as the number of electrons in the ring current and the wavelength involved.

Space-Time Curvature Engine Patent Discussion

Amar and Keryn discussed patenting a space-time curvature engine and its potential applications. They explored the possibility of creating an Einstein-Rosen bridge using aromatic rings and transducers, but Keryn noted that demonstrating a functional temporal wormhole would be necessary for patent claims. Amar emphasized the importance of having a broad patent that could prevent others from infringing on their technology and potentially enable collaboration with various sectors, including government and private industries.

Patent Timing vs RFP Strategy

The team discussed concerns about timing between pursuing a patent and an RFP (Request for Proposal). John clarified that his simulation-based design proposal using AI and systems engineering methodology was separate from the current patent focused on a working transducer. Amar expressed concern about being vulnerable if they don't have their patent documentation complete, arguing they should focus on finishing the patent application first before pursuing the RFP. Keryn suggested getting an extension for the patent application and noted that John's software could potentially be integrated into the transducer development. The team agreed to prioritize completing the patent application within their one-month deadline before moving forward with the RFP.

Wormhole Technology Patent Strategy

Amar and Keryn discussed patent strategy regarding wormhole technology. They determined that while they cannot patent natural wormholes, they could potentially patent an instrument that creates wormholes. Amar suggested filing a provisional patent to establish priority in this area. Keryn noted that while their current patent application doesn't include wormhole creation, they could file a separate provisional patent to cover this technology, though this would require additional security clearance for certain aspects. The discussion also touched on the potential for achieving a COP greater than 1 in their technology and the energy implications of their system involving matter-antimatter annihilation.

Patent Consortium Strategy Discussion

Amar and Keryn discussed the potential to use their patent application in combination with other patents, including Spintronics and Kepler's work, to develop a consortium for creating a Searle machine engine. Amar proposed forming a provisional patent through a consortium involving their company, Spintronics, and Kepler, which could lead to security clearance opportunities with the Department of War. Keryn expressed concerns about the practicalities and costs of developing such technology, suggesting more sustainable and environmentally aligned approaches might be worth considering. Amar emphasized the importance of securing their current patent first before considering further collaboration and highlighted the potential for creating a business model that balances deep tech research with public work.

Technology Consortium Planning Discussion

Amar and Keryn discussed building a consortium of companies focused on their technology, emphasizing the importance of establishing credibility and sustainability before approaching larger institutions like Chapman University. They agreed on the need to update their website and involve team members like Feder and Sergey, while also considering potential applications of their technology in materials science and drug development. Keryn suggested focusing on demonstrating the technology's unique capabilities in analyzing superfluids and entanglement before approaching potential markets. The conversation also touched on the broader implications of their research, including its potential impact on cosmology and understanding the universe's structure through isotope decay processes.

Physics Concepts and Patent Discussion

Amar and Keryn discussed fundamental physics concepts including energy, information, and mass, with particular focus on how particles can be described as space-time curvature engines. They explored the relationship between energy, time, and mass, with Amar explaining that mass represents trapped energy in space compressed by C squared, while time represents energy compressed in the temporal domain. The conversation concluded with them confirming that their technology involves micro-wormhole generation at the superfluid boundary, which they plan to incorporate into their patent claims. Amar agreed to contact the patent office the next morning to inquire about extending their filing deadline.