Quantum Field Detector Details

Quantum Field
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I decided to start a new category, Quantum Field, and start a discussion more directly related to the 3D Quantum Field Detector and its many applications.

I am working on a simple way to view a 3D signal from the detector. I will update results as soon as I can.

Here are some basic definitions related to the topic:
Quantum Field: A fundamental entity in quantum field theory, representing a field that permeates space and can manifest as particles and waves. Quantum fields are the underlying structures from which particles such as electrons and photons arise, and they are responsible for mediating fundamental forces in nature.
Quantum Field Disturbances: Variations or fluctuations in the quantum field that can affect the behavior of particles and systems at the quantum level.
Quantum Mechanical Influences: Effects on physical systems that arise due to the principles of quantum mechanics, including but not limited to quantum field disturbances, entanglement, and tunneling effects.

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This paper in Philosophy of Physics explores the philosophical interpretations of the wave function in quantum mechanics, examining both epistemological and ontological perspectives. It considers how interference and diffraction phenomena support the ontological view and proposes that the wave function may describe the influence of particle motion on the quantum vacuum. It presents a hypothesis that superposition may emerge from the chaotic motion of particles and a memory effect within the quantum vacuum, offering a new framework for understanding quantum theory and addressing the measurement problem.

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Here is a brief list of applications from the patent application:

Applications

The applications of the QFD3D device are vast and diverse, spanning multiple scientific, industrial and technological fields. Here are a few notable examples:

  • Artificial Intelligence Integration : By integrating with AI algorithms, the QFD3D device can be used to analyze complex signal patterns for various applications. This includes enhancing machine learning models by providing additional quantum data inputs, improving the accuracy and capabilities of AI systems.
  • Astronomical Observations : The QFD3D device can be used in astronomical observations to detect and analyze quantum disturbances from distant cosmic events. Its precise timing capabilities allow for synchronization of data from multiple devices located in different parts of the world, providing a comprehensive view of celestial phenomena.
  • Communication Systems : The QFD3D device can be applied in developing advanced communication systems that leverage quantum field variations for transmitting and receiving information. This could lead to more secure and efficient communication methods.
  • Environmental Monitoring : The device can be used to monitor environmental changes by detecting subtle quantum field variations that might correlate with specific environmental conditions or changes. This could be valuable in fields such as geology, meteorology, and oceanography.
  • Medical Diagnostics : QFD3D devices can be integrated into advanced medical diagnostic tools to non-invasively detect and analyze quantum field disturbances that might correlate with physiological processes. This could lead to new diagnostic techniques and enhance the understanding of various medical conditions.
  • Observation of Brain Activity Patterns : Information about neuronal activity can be decoded using AI algorithms to interpret the signals from one, or an array of QFD3D devices. The devices are placed in proximity to the subject’s head; this placement should be consistent during training and use. Initially, a large database of signals is acquired for training the AI. The subject is asked to think a particular thought, which can include an image, sound, smell, feeling or taste. Each repetition of these thoughts, or visualizations, is synchronized with the data collection. The patterns the AI recognizes may be unique to each individual, though there will likely be some common patterns among subjects. Specific information, such as control commands, enables hands-free control of a wide variety of devices and applications.
  • Scientific Experiments : The QFD3D device is ideal for scientific experiments that require precise measurement and analysis of quantum field disturbances. This includes experiments in quantum mechanics, such as observing entanglement or other quantum phenomena, where spacelike separation is crucial.
  • Security and Surveillance : The device can be utilized in security and surveillance applications to detect unauthorized or suspicious activities through their quantum field signatures. This application can enhance the effectiveness of security systems by providing an additional layer of detection.
  • Solar Observations : The QFD3D device can observe subtle changes in fusion or other quantum-based processes in the sun. This may allow earlier and more accurate prediction of solar storms and other event that can affect us, especially satellites and other high technology.
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This is some seriously heavy stuff. I am so grateful for your contributions to humanity.

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Very kind, thanks Joshua.

I derived a fairly comprehensive model of the quantum sensors, in this case specially selected Zener diodes. This was a challenge since the Quantum Field Detector is a non-standard use, and little or no information is available in the literature on certain specifics. I will publish when I get a chance to perfect the 15-page technical paper.

For now the model allows me to extend and perfect the design, which includes using 16 to 128 diodes per sensor direction. In a custom integrated circuit, that number could easily be pushed to 1024, or even much more.

I mentioned a recent paper by Dean Radin, et al, where they measured analog signals from Zener diodes. They “make sure” their diodes produce all noise sources: thermal noise, shot noise and avalanche noise. Thermal noise may be useful as a noise source, but it is not quantum mechanical in the sense we work with, and it is entirely unnecessary – even undesirable. However, every Zener diode has an internal series resistance, Rz (sometimes denoted Zener impedance, Zz), so there is always a thermal noise component. The diode selection includes having minimal Rz at the operating current, Iz. Likewise, avalanche noise will be present, even dominant, depending on the Zener voltage, Vz, selected. In diodes with Vz below about 4V, Iz is dominated by tunneling current, which produces quantum mechanical shot noise. When Vz is above about 7V, avalanche noise dominates. There is no distinct transition between 4 and 7 volts, rather there is a mixture of both shot and avalanche noise in this range. Avalanche noise is also not quantum mechanical for our purposes. And, it is also entirely unnecessary and undesirable. Note, the 4 and 7 volts mentioned are not precise, and vary a little between manufacturers.

I use Zeners with Vz of 1.8 or 2.0V to make sure quantum tunneling noise dominates to a high degree (about 97% of noise amplitude due to tunneling in the Zeners). The design also requires optimum bias current, Iz, and bias resistor value, Rb, and an amplifier with sufficiently low noise specifications.

Testing, improved modeling and some design tweaks are constant and ongoing.

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Fascinating I am following

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I think I have a way to produce a modulation in the quantum field, a Quantum Field Transmitter – the other half a quantum radio.

It takes a while to implement the very complex and challenging engineering tasks to embody these inventions, but the theory development and other research possibilities are very exciting. Having a transmitter and a receiver would make this field objective, rather than just opinions and disbelieved research results.

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Could you elaborate about principles of such device?

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I’m a little hesitant to disclose this before I have had a chance to test the device, though I already know exactly how to build it. If successful, it would be a revolution in scientific knowledge with staggering economic potential. I don’t care about making money on any of this, but it would be beneficial to have the resources to expand the work and not have to support everything out of my pocket.

I hope to begin testing in 2-3 months. It always seems so slow since I have to work through every detail myself. All will be revealed soon.