The Wave Genome Quantum Holography of Dna challenges the traditional biochemical view of genetic material by proposing an immaterial and field-based paradigm for information storage and transfer. DNA interacts with zero-point fluctuations to teleport it as a waveform through quantum spin interference patterns; cells communicate using light signals; and DNA-modulated lasers have even been shown to restore motor functions in paralyzed patients.
1. Quantum holograms
Holograms are two-dimensional renderings of three-dimensional objects that can be seen without actually possessing them. Scientists recently discovered that DNA encodes a quantum hologram, suggesting a new paradigm of information storage and transfer that could have significant ramifications for medical diagnostics as well as developments in quantum information science.
Classical holography employs laser light to produce its images. The light splits into two paths; one illuminates an object while the other reflects off it and back into two more paths before being collected by either a camera or special holographic film. Finally, its image can then be projected onto a screen and seen by its viewers as an illusory projection.
Quantum holograms utilize entangled photons to encode an object’s information, similar to how entangled particles have the property of being linked together and any change to one affects both, even from distant places. To create one, scientists begin by passing a high-energy violet-blue laser through two beta barium borate crystal plates containing beta barium borate crystal plates. This splits the laser light into two beams composed of pairs of entangled photons that travel in opposite directions – one beam passes through an object while the other goes through spatial light modulators which slightly slows them down the passageway of passing photons as it passes through it – to produce their quantum holographic effect.
Recombining these photons produces an image of whatever object was captured initially, creating a quantum hologram of it. This technique can be applied to creating quantum holograms of any object imaginable including cell structures like mitochondria and DNA; however, note that most biological applications would require infrared wavelengths as part of their experiments.
This work is notable because it suggests a way of detecting DNA using light signals, and subsequently using these to detect changes in genetic material. This could provide an important step toward understanding DNA’s role in morphogenesis – creating and storing electromagnetic waves as signals for development in organisms – using Karen Barad’s theory which emphasizes “ontologically primitive relations – relationships without preexisting relata” (Barad 2007: 333) as indicators. These signals could serve as quantum equivalents of holographic diffraction patterns which do not depend on particular matter or object.
2. Optical holograms
Simple optical holograms can create three dimensional images of people, objects or scenes using only an appropriate light beam to illuminate its subject matter. Such devices can be used for security markings on bank notes and credit cards as well as optical communications between smart watch displays or data storage facilities.
Optic holograms operate according to interference and diffraction principles, similar to any waveform. When recording an optical hologram, two images – the reference wave and sample wave – are superimposed; these result in an interference pattern which can be separated off by offsetting their waveforms; for the sample wave this creates fringes which depend on wavelength of the light source and plate orientation.
Holograms provide another means of transmitting spatially encoded information over long distances, much like radio waves do. Optical holograms utilize this technique by modulating transmission of plane electromagnetic fields as in diffraction gratings; this allows beam transmission through the hologram with equal intensity either side of its grating.
Not like typical holograms that rely on lasers, these new holograms can be recorded directly onto photosensitive materials like photographic film. Furthermore, the signal transmitted can be projected like any normal light beam.
Researchers from Missouri S&T have come up with an innovative method for recording optical holograms that is both stable and user-friendly. It involves layering metamaterials, each fitted with its own phase mask, so as to form one coherent image. This method is particularly beneficial when recording complex objects such as an entire landscape or person; multiple images can be captured without moving around them manually. Furthermore, vibrations do not disrupt its effectiveness – meaning you can store it safely on any medium that allows light transmission through it.
3. Microwave holograms
Microwave holography enables direct recording of an interference pattern between coherent microwaves and a coherent reference wave, which allows direct reconstruction of original sources and intensity distribution patterns similar to optical holography’s optical image creation process.
Bell Telephone Laboratories produced the initial microwave holograms during the 1950s as photographic records of interference patterns between two coherent microwave beams generated by each transmitter used to create the original source system, thus permitting experimental reconstruction of point sources that were predicted by theory, such as those at one end of radiating monopoles with flat surfaces at either end.
More recently, researchers have been developing metasurface holography using different geometries. Plasma-doped nanoantennas have been demonstrated to independently modulate both the amplitude and phase of cross-polarized electromagnetic waves at visible wavelengths – this makes it possible to create metasurface holograms using just one antenna.
Researchers have recently made significant strides toward designing metasurfaces with Fourier transform properties, which is crucial as Fourier transformation of periodic structures generates their spatial rotational hologram. By coupling it with phase-sensitive reflectors, researchers have successfully created metasurfaces capable of producing 3D holograms with only one step.
These developments are significant because they suggest that DNA’s wave nature can be utilized for holographic applications, enabling genetic information transmission on both material and field levels, permitting cells to communicate as light-based fields, providing quantum mechanical paradigm of information storage and transfer in DNA. Biophoton emissions suggest the brain functions like a “light computer”, cells communicate using light signals, and DNA leaves imprints in empty space – evidence pointing toward an interdependent universe, with life leaving imprints all across space-time – an indication that life may exist within quantum holographic natures holograms of consciousness originating within DNA itself.
4. Electron holograms
Electron holograms are created by the interference between two distinct kinds of electron waves: reference and signal waves. Reference waves do not interact with an ion directly while signal waves encode information about its structure. When these two waves collide on a detector, an image of its three-dimensional shape emerges.
This technique, newly optimized for cellular biology, promises to open up a whole new dimension in molecular imaging. Scientists have already been using it to produce holograms of several proteins which demonstrate how their subunits come together as complex molecules.
Reconstructing holograms involves quantitative analyses of distortions in interference fringes. More specifically, scientists compare multiple holograms that have been recorded at different angles of incidence so as to establish phase shift of object waves within each. Reconstructed holograms then contain all necessary information needed to reconstruct an actual specimen image.
Researchers employed low-energy electron holography (LEEH) to produce the first ever holograms of individual proteins using LEEH, as well as to establish their three-dimensional structures using this technique. Thanks to careful handling and cleanliness from scientists handling samples, this was possible. Result showed holograms that were extremely detailed despite small proteins like cytochrome C or albumin being measured using this technique.
Holograms provide important insights into how proteins assemble into larger complexes. For instance, these images reveal that proteins with similar functions tend to cluster close together on one layer. This may suggest they interact via similar mechanisms such as sharing an identical polarization state.
This research marks an essential step toward the creation of a new class of electron microscopes that could enable us to observe and comprehend the inner workings of life on earth. Up until now, most biological images were obtained using optical microscopy; however, optical microscopes are limited in terms of resolution and sensitivity they provide.
