Achieving quantum cloaking in electromagnetic devices for remote imaging

Abstract

To provide a quantum cloaking device that can make a specific target object invisible in a complex structure made of a large number of target objects.SOLUTION: The quantum cloaking device includes a plurality of spiral or helical arrays (11, 12, and 13) of a dielectric component or includes a plurality of concentric spiral or concentric helical arrays of a dielectric component, and expresses a cloaking of a transmission wave move function of a specific target object, which is triggered by an electric signal, a magnetic signal, an electromagnetic signal, or a mechanical signal of a specific frequency.SELECTED DRAWING: Figure 2

Description

[Technical Field]

[0001] The present invention relates to a method for achieving quantum cloaking in an electromagnetic device for use as an imager. [Background technology]

[0002] In classical cloaking, light from an image is physically split, travels around the object, and recombines in front of the object, reconstructing the image behind it (see non-patent document 1). This makes the object invisible. Creating a quantum analogue is difficult because the coordinates of matter waves are not time-invariant.

[0003] So far, there is no experimental evidence of quantum cloaking. Deriving a wave function that travels through complex paths, like classical waves, is not a purely quantum scenario. In quantum cloaking, entire matter waves can tunnel through it, ignoring their paths. [Prior art documents] [Non-patent literature]

[0004] [Non-Patent Document 1] Schurig D, Mock JJ, Justice BJ, Cummer SA, Pendry JB, Starr AF, Smith DR. "Metamaterial electromagnetic cloak at microwave frequencies", Science. 2006 Nov 10;314(5801):977-80. doi: 10.1126 / science.1133628. Epub 2006 Oct 19. PMID: 17053110. Summary of the Invention [Problem to be solved by the invention]

[0005] To date, there has been no experimental evidence for quantum cloaking. Embodiments of the present invention address this challenge, and have an exemplary object to provide an electromagnetic device capable of exhibiting quantum cloaking. [Means for solving the problem]

[0006] To achieve the above-mentioned objectives, the quantum cloaking device includes at least one of a plurality of spiral arrays or a plurality of helical arrays of dielectric components and a plurality of concentric spiral arrays or a plurality of concentric helical arrays of dielectric components, and is cloaked by an input electrical signal, an input magnetic signal, an input electromagnetic signal, or an input mechanical signal having a specific frequency, thereby exhibiting cloaking of the transmitted wave function of a specific object.

[0007] To achieve the above-mentioned objectives, an imaging device based on quantum cloaking includes a quantum tunneling current sensor having a single probe or a multiple probe arrangement for scanning, a conductive substrate for holding an imaging target between the sensor probe and the substrate, and a single or multiple antennas for emitting electromagnetic signals having specific frequencies for activating desired structural portions of the imaging target. [Effects of the Invention]

[0008] According to an embodiment of the present invention, an electromagnetic device capable of exhibiting quantum cloaking can be provided. [Brief explanation of the drawings]

[0009] [Figure 1] Schematic diagram of classical, quantum, and anomalous quantum cloaking. Classical cloaking shows the bending of electromagnetic signals, reproducing the image on the top side of the image on the bottom. With quantum cloaking, there is no tunneling path. On the right, we show an anomalous quantum cloaking imaging and multi-function operating device, where several antennas activate different parts and sense them separately. [Figure 2]Three concentric spirals assist quantum cloaking: E ​​is the electric vector and K is the wave vector. [Figure 3] Schematic of the experimental setup (left), the antenna connection (center), and the substrate inside the STM on which the sample is held (right). [Figure 4] A microtubule with an inner and outer water layer (left) and DNA with an inner and outer water layer (right). From top to bottom, there are different vibrational modes. [Figure 5] Quantum tunneling experimental results: Selective cloaking of the upper ionic layer, central protein layer, and inner water layer of a microtubule using different frequencies (left), as well as selective cloaking of DNA (right). [Figure 6] Detailed quantum tunneling images showing the various quantum cloaking transitions that occur in the interaction layer between the DNA genetic code and microtubules. [Figure 7] Schematic of the mechanism of how an external sinusoidal signal passes through a quantum cloaking device and generates magnetic, electric, or electromagnetic vortices, rings, or elements thereof, of fields from 3D phase space. DETAILED DESCRIPTION OF THE INVENTION

[0010] <<Embodiment Mode>> Hereinafter, embodiments of the present invention will be described in detail with reference to the drawings.

[0011] Historical Overview and Implementation of Embodiments Before going into the details of this embodiment, a brief historical overview and some aspects of this embodiment will be provided.

[0012] In classical cloaking, light from an image is physically split, travels around the object, and recombines in front of the object, reconstructing the image behind it (Schurig, D. et al 2006: Schurig D, Mock JJ, Justice BJ, Cummer SA, Pendry JB, Starr AF, Smith DR. Metamaterial electromagnetic cloak at microwave frequencies. Science. 2006 Nov10;314(5801):977-80. doi: 10.1126 / science.1133628. Epub 2006 Oct 19. PMID:17053110.). This result As a result, the object becomes invisible. Creating a quantum analogue of this is difficult because the coordinates of matter waves are not time-invariant. In the past decade, several creative ideas have been proposed. For example, instead of spatial coordinates (x, y, z), the quantized potential is used as the coordinates of the wave function (Vx, Vy, Vz). This transforms the localized ripples of matter waves into undulating flows of probability current densities that transport energy (Tsang, M. and Psaltis, D. 2007; Tsang, M. and Psaltis, D., 2007; Magnifying perfect lens and superlens design by coordinate transformation; arXiv:0708.0262[physics.optics]). The waves disperse without displacement. The modified wave packets then move in a classical cloak. Similarly, split and recombine.

[0013] Another approach is to reduce the scattering cross section or effective mass of the carriers to zero. This is often a core-shell layer, preferably a push-pull of carriers, where scattering tends to zero (Lee, JY, Lee, R. -K.; 2013; Hide the interior region of core-shell nanoparticles with quantum invisible cloaks; arXiv:1306.2120 [quant-ph], Ammari, H. et al., 2013; H. Ammari, G. Ciraolo, H. Kang, H. Lee, and GW Milton, Anomalous localized resonance using a folded geometry in three dimensions; Proceedings of the Royal Society A 469 (2013), no. 2154, 20130048).

[0014] So far, there is no experimental evidence of quantum cloaking. It is not possible to derive a wave function that travels through complex paths, as with classical waves, in a purely quantum scenario. In quantum cloaking, entire matter waves can tunnel through, ignoring their paths. Is it possible to go beyond ordinary invisibility and choose one of several paths, making one component of the multiplicity visible and obliterating all others? This is inverse quantum cloaking or anomalous quantum cloaking.

[0015] The theory of quantum cloaking suggests that the flow of probability densities in matter waves obeying the Schrödinger equation behaves like electromagnetic waves in Maxwell's equations. Two important features of electromagnetic waves, namely the displacement of the electromagnetic vector and the field density (Poynting vector P), retain their shape even after coordinate transformations. This invariance, key to classical cloaking, requires a quantum analogue. For this, the Poynting vector is replaced by a flow of probability densities, and the displacement vector is replaced by a dispersion relation.

[0016] One problem arising from the similarity between the existing Maxwell equations and the Schrödinger equation is the need to separate two parameters (the effective mass m * and potential V) should be bent, following precise paths, bypassing the components, and then reconnecting, similar to classical cloaking.

[0017] Furthermore, matter wave entanglement requires ultra-low temperatures for a noise-free environment. In the case of electromagnetic waves, anisotropic space and time ensure that split rays of light return to their original trajectory after being bent and passing through a cloaking object. However, the quantum analogue of this is unclear.

[0018] In 1994, Milton showed that a multilayered concentric cylinder behaves like a partially resonant composite (PRC) if the sum of the dielectric constants of the constituent elements is zero. This means that some layers have a negative dielectric constant. Milton et al. also showed that the dielectric constants of the layers have a phase (-1 + iδ) at the junctions. This phase causes a non-physical singularity at a certain frequency (δ → 0). When this occurs, the electromagnetic field oscillates strongly locally, resulting in the generation of evanescent waves. When evanescent waves amplify matter waves, near-perfect tunneling occurs (Baena, JD, et al., 2005; Baena, JD, et al., 2005; Near perfect tunneling and amplification of evanescent electromagnetic waves, Phys. Rev. B., 72, 075116). When passing through a PRC, , these layers should be quantum mechanically invisible.

[0019] On the other hand, if the charge density changes in a resonant cavity or a spiral cylindrical layer, the matter waves will scatter and cloaking will not occur (Meklachi, T. et al., 2016; Sensitivity of anomalous localized resonance phenomena with respect to dissipation, Taoufik Meklachi, Graeme W. Milton, Daniel Onofrei, Andrew E. Thaler and Gregory Funchess, Journal: Quart. Appl. Math. 74 (2016), 201-234).

[0020] However, the resonator dynamics within the cavity is transferred to the top layer (Milton, 1994; Optical and dielectric properties of partially resonant composites, N.A. Nicorovici, R.C. McPhedran, and G.W. Milton, Phys. Rev. B 49, 8479, published March 15, 1994), which should be interpreted as a localized density of states in the quantum tunneling picture.

[0021] In partially resonant composites (PRC), the layers are visible. If the material surface is anisotropic, for example, a spiral, the permittivity becomes negative at a certain resonant frequency. If both the permittivity ε and the permeability μ are negative in the medium (for example, ε=-1, μ=-1), the superconducting A lens or perfect lens is obtained (Pendry, JB, 2000; Negative Refraction Makes a Perfect Lens; Phys. Rev. Lett. 85, 3966). This means that the opposite side of the lens is interconnected. This means rearranging the pair of connected photons or Poynting vectors.

[0022] As described below, we theoretically created both DNA and microtubule structures as partially resonant composites (PRCs) in a simulator and solved Maxwell's equations to find the frequency ranges where DNA and microtubules function as metamaterials (e.g., ε = -1, μ = +1 or ε = +1, μ = -1) or superlenses (i.e., exhibit anomalous dielectric resonance). When a partially resonant composite (PRC) functions as a perfect lens, matter waves pass through it. Then, when the input frequency changes the charge density, the tunneling image picks up activity in specific layers.

[0023] The inventors hope to find a general method for transforming materials into superlens constructs, allowing matter waves to tunnel through materials in an atmospheric environment, such as those routinely used in quantum optics experiments through optical lenses. Not all materials are suitable for this. Milton discussed special materials in which the elements in the composite resonate collectively, thus exerting effects far beyond their boundaries.

[0024] As described below, in spiral- or vortex-shaped composites, we discover a unique 3D phase space of energy transmission that selectively transforms the elements of the composite into a superlens, allowing matter waves to tunnel through the lens from a flat atomic surface. The singularity or hole in the phase space of transmission across the vortex acts as a quantum analogue to the anisotropic space and time seen in classical cloaking. or vortex geometric parameters. Tunneling through a superlens extracts 2D or 3D matter waves hidden deep inside the cloaking material and superimposes the extracted matter waves onto the reproduced matter waves.

[0025] In summary, we have discovered and developed quantum cloaking and anomalous quantum cloaking techniques. In classical cloaking, incoming signals are bent around the object being hidden; that is, a group of signals is split and recombined to return to the original path. This cannot be done with quantum cloaking, because if quantum entanglement is broken, the matter wave-based image cannot be recovered. Therefore, we have devised a way to transform the hidden object into a superlens by pumping an appropriate electromagnetic signal at a resonant frequency. The quantum entanglement of photons remains through optical lenses. Similarly, we have regenerated matter waves on the other side of the object, achieving obscuration (cloaking) of the object. By adjusting the geometry via electromagnetic resonance, holes or singularities in the transmission can be opened or closed (blinked). Thus, quantum It is expected that some of the material will be visible before the tunneling experiment. Such quantum cloaking is anomalous, since the user can retrieve from the outside a small portion of the quantum resonance dynamics hidden inside a large composite structure. In an embodiment, "anomalous quantum cloaking" can also be expressed as "partial quantum cloaking," and in this embodiment, "quantum cloaking" may include the concepts of "anomalous quantum cloaking" or "partial quantum cloaking."

[0026] Figure 1 provides a schematic presentation for the concepts of classical cloaking, quantum cloaking, and anomalous quantum cloaking. The cloaked object is represented by a circle. The gray arrows represent the motion of carriers or wave functions.

[0027] As shown in Figure 1, in classical cloaking, the light from the image is physically split and The object becomes invisible by moving around the object, recombining, and reconstructing an image of the back side at the front. In quantum cloaking, the entire matter wave can pass through the tunnel. In anomalous quantum cloaking, the user can externally extract a small portion of the quantum resonant dynamics hidden inside the entire matter by pumping an appropriate electromagnetic signal at the resonant frequency.

[0028] Our technique can be used for wireless quantum computing, creating a superposition of many circuits operating at once in one system. Medical diagnostic devices and all engineering devices requiring programmed selective invisibility can use wireless far-imaging and our anomalous quantum cloaking.

[0029] (Configuration of Electromagnetic Device 1) The electromagnetic device 1 according to this embodiment will be described below with reference to Fig. 2. Fig. 2 is a schematic diagram of an example of the configuration of the electromagnetic device 1.

[0030] As described below, electromagnetic device 1 exhibits quantum cloaking properties and, therefore, electromagnetic device 1 may be referred to as a "quantum cloaking device" or a "cloaking device."

[0031] As shown in FIG. 2, the electromagnetic device 1 includes multiple helical arrays. As a specific example, the electromagnetic device 1 includes three helical arrays (an inner array 11, a central array 12, and an outer array 13) as shown in FIG. 2. As shown in FIG. 2, each of the three arrays 11-13 is arranged on a cylindrical layer. Therefore, the arrays 11-13 may also be referred to as layers 11-13. The inner array 11, the central array 12, and the outer array 13 may also be referred to as the inner spiral (i) 11, the central spiral (c) 12, and the outer spiral (o) 13 as shown in FIG. 2.

[0032] The number of arrays or layers is not limited to this embodiment, for example, the electromagnetic device 1 may include two or more helical arrays, or four or more helical arrays.

[0033] As shown in Figure 2, in a specific example, multiple helical arrays 11 to 13 are arranged coaxially (concentrically). In this embodiment, the concept of "helical" may be expressed as "spiral," and the concept of "coaxial" may be expressed as "concentric." The helical arrays may also be expressed as coils.

[0034] As shown in FIG. 2, each of the arrays 11-13 is composed of components, at least some of which may be dielectric. As a specific example, each of the arrays 11-13 may be composed of nanoparticles, or each of the arrays 11-13 may be realized as an organic gel of microtubules, helical carbon nanotubes, or nanowires. As another specific example, the multiple helical arrays may be realized as DNA layers and / or water layers.

[0035] As described above, the electromagnetic device 1 includes a plurality of spiral or helical arrays of dielectric components and / or a plurality of concentric spiral or helical arrays of dielectric components.

[0036] As will be described in detail later, the electromagnetic device 1 has the remarkable property of exhibiting quantum cloaking, which is triggered by an input signal having a specific frequency. More specifically, the electromagnetic device 1 can be configured to detect an input electric signal, an input magnetic signal, an input electromagnetic signal, or a The cloaking is triggered by a signal, or an input mechanical signal, and has the remarkable property of manifesting a cloaking of the transmitted wave function of a particular object.

[0037] As will be explained in more detail later, the electromagnetic device 1 also has the remarkable property that the magnitude (intensity) of at least one of the electric flux and the magnetic flux emitted from the electromagnetic device 1 correlates with the magnitude of the charge stored in the electromagnetic device 1. More specifically, as will be explained in more detail later, the electromagnetic device 1 has the remarkable property that the magnetic flux emitted by the electromagnetic device 1 or the magnetic field generated by the electromagnetic device 1 has an intensity that correlates with the magnitude of the charge stored in the electromagnetic device 1. Due to this property, the electromagnetic device 1 can function as a fourth circuit element called an H-inductor.

[0038] Additionally, the electromagnetic device 1 has the useful property that when electromagnetic energy is remotely input to the electromagnetic device 1, the input electromagnetic energy triggers the emission of a magnetic flux or the generation of a magnetic field.

[0039] In other words, the magnitude of at least one of the electric flux and electric field of a specific geometric shape emitted from cloaking device 1 and the magnetic flux and magnetic field of a specific geometric shape emitted from cloaking device 1 correlates with the magnitude of the charge accumulated in cloaking device 1. Furthermore, by pumping laser light, optical vortices are generated from cloaking device 1, generating both electric flux and electric field and magnetic flux and magnetic field.

[0040] (First experimental configuration and experimental results) More detailed aspects of this embodiment will now be considered. First, the experimental setup will be described, and then initial experimental results on the electromagnetic device 1 will be described.

[0041] Figure 3 is a diagram of an experimental setup 50 for characterizing an electromagnetic device 1. The left side of Figure 3 shows a schematic diagram of the experimental setup 50. As shown on the left side of Figure 3, the experimental setup 50 includes a scanning tunneling microscope (STM) 51, a molecular rotator (MR) 52, an antenna (AN) 53, a liquid layer (LL) 54, a highly oriented pyrolytic graphite (HOPG) substrate 55, one or more Joule heaters (JH) 56, and a molecular leak (ML) 57. The center and right parts of Figure 3 show the actual experimental setup.

[0042] Molecular rotators are thermal noise (kT, k: Boltzmann constant, T: ambient temperature) driven molecular structures that rotate around parts of the structure, flip on surfaces, and move. External energy is required to regulate this movement. Molecular leaks release quanta from molecules due to structures that do not dynamically hold enough quanta.

[0043] The STM (scanning tunneling microscope) 51, the MR (molecular rotator) 52 on which an electromagnetic device is arranged, the AN (antenna) 53 that emits an electromagnetic signal of a specific frequency, the LL (liquid layer) 54, the HOPG (highly oriented pyrolytic graphite) substrate 55, the JH (Joule heater) 56, and the ML (molecular leakage part) 57 constitute the imaging device according to this embodiment (the imaging device based on quantum cloaking).

[0044] That is, the imaging device based on quantum cloaking according to this embodiment has the following features: a quantum tunneling current sensor having a scanning single probe or a multiple probe array; a conductive substrate for holding an imaging target between the conductive substrate and the sensor probe; and a single or multiple antennas that emit electromagnetic signals having specific frequencies to activate desired structural portions of the imaging subject.

[0045] As described below, the electromagnetic device 1 is disposed on a highly oriented pyrolytic graphite substrate, where the electromagnetic device 1 includes a spiral array or a helical array of dielectric elements and exhibits quantum cloaking triggered by an electromagnetic signal radiated by an antenna.

[0046] 4 shows a schematic example of an electromagnetic device 1. The top row shows a microtubule-water network as a specific example of the electromagnetic device 1, and the bottom row shows a DNA-water structure as another specific example of the electromagnetic device 1. Different combinations of water arrangements were used to theoretically discover the metamaterial properties of the composite material.

[0047] To experimentally verify quantum cloaking, we used a DNA solution from calf thymus and freshly reconstituted brain nerve cells as specific examples of the electromagnetic device 1. Cell-extracted microtubule nanowires and freshly cleaved HOP The HOPG substrate 55 was placed on the G plane 55. The HOPG substrate 55 was placed in an atmospheric scanning tunneling microscope (STM) 51, and the antenna 53 was placed about 5 mm away from the tip of the STM. The antenna 53 is connected to a microwave signal source and a radio wave signal source. At each radiation frequency, the surface is scanned to find the frequency at which the sample disappears from the tunneling image and the bottom HOPG substrate 55 tunnels through the sample to the top (STM tip).

[0048] Two studies were performed on triple-helical DNA (bottom panel of Figure 4, where two helices are made of molecules and the top helix is ​​made of water). First, the antenna frequency was varied in 0.001 GHz intervals (i.e., a resolution high enough to find the magic frequency, if it exists). However, no magic frequency was found. As the frequency increased, the DNA gradually disappeared, then gradually became visible. Second, to match the selective appearance of DNA segments, a database of variable-number tandem repeats (VNTRs) was obtained and STM images were theoretically generated.

[0049] By matching experimental data on blinking DNA regions, Different classes of repetitive sequences, such as palindromes, mirror repeats, and flanking repeats, could be read. Therefore, by selecting the appropriate frequency, self-similar coding patterns in DNA can be revealed. Most importantly, the revealed microsatellites and minisatellites of the genetic code suggest that silent regions of the tunnel image are not inactive but rather interact with the phenotypic code.

[0050] Because we were constantly acquiring images of microtubules by applying MHz signals using antenna 53, the tunneling image observed at GHz was striking. Neither ions nor proteins were observed. Instead, we observed spirals (i.e., dynamics that changed as a function of the AC signal applied via antenna 53). The microtubule has three distinct dielectric layers, i.e., three concentric cylinders (in other words, partially resonant composites (PRCs), which are somewhat more common than the Milton class). There is an upper ion layer, a middle protein layer, and a central water channel (top row of Figure 4). The water channel forms the core of the microtubule. But how can layers 10–12 nm deep be visible from any side? The inventors set the antenna frequency to resonate in the kHz range so that the upper layer ions on the microtubule surface resonate. Next, the dynamics of the adsorbed ions, i.e., the main water molecules in the upper layer, are captured in the quantum tunneling image. The antenna frequency was set to MHz to resonate the tubulin protein that forms the central hollow cylinder. The inventors then observed the dynamics of the tubular lattice structure in the quantum tunneling image, and observed new lattices corresponding to each resonance frequency. Finally, by changing the resonance frequency of the water channel, the inventors set the antenna frequency in the GHz range. , we visualized the dynamics of the localized density of states in the innermost water core.

[0051] Figure 5 shows the experimental results for microtubules and DNA. The upper half of Figure 5 shows that three different layers are observed in the quantum tunneling image of the microtubule at three different frequencies. The lower half of Figure 5 shows that the DNA completely disappears from the quantum tunneling image. Microtubules and DNA The NA is also on the HOPG surface.

[0052] Figure 6 shows a more complete frequency spectrum of the anomalous quantum cloaking of DNA and microtubules. Two parallel rows (one DNA, the other microtubules) form three sets of consecutive rows. The first set ends with a black arrow and the second set begins with a black arrow. The second set ends with a gray arrow and the third set begins with a gray arrow. The image scale bars are 2 nm for DNA and 12 nm for microtubules. The STM tip current was 0.2 pA for DNA and 0.4 pA for microtubules, the bias at the STM tip was 1.8 V, the surface was HOPG, and the images were acquired in an air environment using a nanosurface STM.

[0053] From the experiment, we see that there is a common resonant frequency, and we can observe the protein layer, the water layer, and the bottom surface. This is clear evidence that matter waves penetrate directly into the material when quantum cloaked. Note that we are looking at the image potential of the quantum cloak, not the actual water core or protein.

[0054] Remarkably, at frequencies where water channels in DNA appear, water channels in microtubules disappear, and vice versa. Theoretical calculations show that the metamaterial properties of microtubules and DNA are complementary to each other in two frequency regions. The ratio of the visible areas of DNA and microtubules indicates that the complementary properties of lensing or quantum cloaking appear at least twice in this frequency region (Figure 6). Furthermore, we observed that microtubules disappear around 12 GHz and 24 GHz, and the next frequency at which they disappear is thought to be 48 GHz. For DNA, disappearances occur at 8 GHz, 16 GHz, and 32 GHz. These are like harmonics of the electromagnetic resonance frequency.

[0055] As mentioned above, in electromagnetic device 1, at certain frequencies, matter waves are transported by tunneling unperturbed from one side of electromagnetic device 1 to the other. The information carried by matter waves from one side of the cloaking device to the other means that matter itself is transported, or quantum cloaking transports matter. And when quantum cloaking occurs in a classically resonant dielectric material, matter waves tunnel through the entire resonant path, regardless of the length and size of the cloaked object.

[0056] As described above, in electromagnetic device 1, at certain frequencies, matter waves propagating through electromagnetic device 1 carry information about at least a portion of electromagnetic device 1. In other words, matter waves propagating through a cloaking device may carry information about one or more portions of the cloaking device, or the matter waves may not carry information about portions of the cloaking device. Furthermore, by selecting appropriate frequencies, one or more selective portions of the cloaking device can be made visible in a tunneling current sensor-captured image of the cloaking device. Also, by selecting multiple resonant frequencies and exposing the resonant signals to the cloaking material using multiple antennas, matter waves can be selectively interacted with as they tunnel.

[0057] Experimental results show that one subcomponent of the electromagnetic device 1 interacts resonantly with other subcomponents of the electromagnetic device 1, thereby exhibiting collective properties that do not exclude any particular subcomponent of the electromagnetic device. The sub-components resonate with different fields and interact with each other, thereby exhibiting collective properties, and by sending appropriate signals using an external antenna network, it is possible to activate specific sub-components which will activate or deactivate other sub-components within the cloaking device.

[0058] (Explanation of the essential mechanisms realized in electromagnetic devices) Based on experimental data on anomalous quantum cloaking in multihelical nanowires, we developed a theory of anomalous quantum cloaking. A simplified summary is provided here. We established that by reading out the local density of states, a tunneling current image emerges that maps the matter wave profile. The quantum tunneling image is therefore a replica of the matter wave packet on the surface.

[0059] The pixel on the matter wave is measured by a scanning tunneling microscope (STM). The tunneling current at this time is expressed by the following equation (1):

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[0060] The relative group velocity between a pair of tunneling channels i and j is given by Eq. (5).

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[0061] where a and b refer to two concentric cylindrical layers of Milton class partially resonant composite (PRC). Here, the tensor product (Equation (6)) represents tunneling from the surface s to the concentric cylindrical layer a (Equation (7)), scattering within the region from the concentric cylindrical layer a to the concentric cylindrical layer b (Equation (8)), and tunneling from the measurement object ab to the tip (Equation (9)).

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[0062] Scattering allows the matter waves on the surface to disappear, printing the atomic-scale dynamics of the object being measured. The matter waves on the surface are printed on the image scanned by the STM tip. It is necessary to neutralize factors such as

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[0063] Under electromagnetic waves, the composite layer vibrates resonantly. The STM image of the dielectric resonator changes significantly when the antenna pumps an AC signal with frequency (Eq. (11)).

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[0064] That is, the phase space of energy transmission contains multiple phase singularities that can be adjusted by selecting the geometric parameters of the electromagnetic device (the combination of length L, diameter D, and ratio (P / ab)). Such singularity bursts exhibit negative S21, i.e., negative resonances Sij (Equation (17)).

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[0065] The matter wave observed in the STM image (Eq. (20)) is a superposition of four matter waves, which are quaternions.

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[0066] The experimentally measured lossless transmission (P db >1) satisfies the following equation (27).

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[0067] In the singularity channel, only the phase changes according to equation (29).

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[0068] Plots of magnetic permeability (Eq. (32)) and electric susceptibility (Eq. (33)) as a function of frequency show that both microtubules and DNA transform into metamaterials over multiple AC frequency ranges (Eq. (34)).

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[0069] Maxwell's equations for the microtubule organization are given by the tubular layer Tu, the central water channel Wc, and By solving the upper and lower ion channels Ic, jointly and separately, it is shown that in the various configurations Tu + Wc, Wc + Ic, Tu + Ic, and Wc + Tu + Ic, in the vicinity of the AC frequency domain (Eq. (35)), both electric and magnetic fields are exchanged synchronously between the elements.

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[0070] The dielectric constant (Eq. (36)) is a function of electromagnetic frequency. For isolated structures, the dielectric constant (Eq. (37)) was theoretically simulated and measured, and the frequencies at which Eqs. (38) and (39) were satisfied for microtubules were found.

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[0071] The inversion of the permittivity when coupled together implies a core characteristic (H2O layer) extending to the outermost layer. The transmission path through the singularity channel is given by the following equation (40):

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[0072] Here, we extend equation (41) for the three layers of microtubules, but the material of the cluster of helices of equation (43) (i.e., alpha) of the tubulin protein (tub) If we want to read, write, and erase waves, we can further expand it to the following equation (42):

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[0073] As already mentioned, classical cloaking is observed at frequencies where the properties of a material change sign. These frequency bands are also susceptible to quantum cloaking.

[0074] The inventors designed, synthesized, and self-assembled 12-layer helical nanowires as tunable quantum cloaking devices.

[0075] (Additional information) The group of accumulated charges Q dispersed by noise couples the lattice spin waves (a and b are the lattice constants) by addition (classical) or multiplication (quantum) of the locally oscillating (equation (45)) phase (equation (44)).

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[0076] Due to global topological constraints that extend in three directions (diameter D; pitch P; length L), the local waves interfere, thereby causing a re-oscillation. The oscillation is given by Eq. (46):

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[0077] where:

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[0078] The key parameter for integrating classical and quantum factors in phase space is the ratio 1:1.0205, i.e., the ratio 3:3.0615, where the ratio 3:3.0615 is the critical point where the singularity occurs. We kept the quantum capacitance-induced phase factor at 3:4 to make the area of ​​the hole formed at the singularity proportional to the area covered by the phase space continuum.

[0079] The accumulated spatial phase factor (Eq. (48)) of the charge composed of a sine wave (Eq. (49)) per unit velocity of a photon in a medium is the magnetic flux.

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[0080] Here, equation (52) holds.

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[0081] The nth period is an important factor in magnetic waves. As n increases, the phase oscillation slope increases approximately exponentially. H is given by the following equation (53):

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[0082] Equation (54) refers to unpolarized light.

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[0083] Equation (55) represents the edge dislocation.

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[0084] As shown in part b of Figure 7, when the surface of the electromagnetic device 1 changes into a lattice profile due to external resonance, the dislocations also oscillate, and the polarization also oscillates, forming spiral dynamics of dislocations.

[0085] As shown in part c of Figure 7, three sources S1, S2, and S3 from three layers form S2 and S3 from the inner and outer layers, which perturb the central layer S1. The dark lines formed on the 2D surface of the electromagnetic device 1 deform to generate rings. The rings formed on the surface of the electromagnetic device 1 are projected onto the screen in 4095 ways. On the surface of the electromagnetic device 1, dynamic spiral knots rotate clockwise or counterclockwise.

[0086] As shown in part d of Figure 7, loops and knots are shown to form between the S1-S2 interface and the S1-S3 interface, eventually releasing particle-like magnetic structures as shown in part e of Figure 7.

[0087] As shown in part e of Figure 7, four periodically oscillating magnetic loops are coupled to the 3D particle as a magnetic flux distribution.

[0088] If a hole or group of holes in 1 periodically opens and closes, i.e., behaves like a clock, and the clock in 1 is itself a memory state, then the opening and closing of 12 phase singularities will be 2 12 In the complex matrix of H, the geometric orientation of H determines the partial contribution to the collective resonant communication of Milton. We envision a supramolecular matrix of H. That is, it is a jelly in which countless H devices open and close their lenses to build a circuit superposition in the ambient atmosphere. Only H devices that communicate with each other are visible to each other, and the remaining H devices are invisible. In the H jelly, the phase space of countless H devices opens and closes, and other H devices can enter and self-assemble into the holes. According to the argument of Milton-Mansfield, the elements H in the composite material can be arranged under stress. Therefore, jelly is capable of rewiring, i.e., plastic learning.

[0089] As described above, the 3D configuration formed from the phase of the resonant frequencies of the cloaking object is determined as the phase space that defines tunneling for quantum cloaking. The 3D phase structure is formed by the static or dynamic resonant oscillation of the length, pitch, and diameter of a helical or spiral structure. The phase space of energy transfer contains multiple phase singularities that can be adjusted by selecting the geometric parameters of the cloaking device 1. By varying the geometric parameters of the cloaking device 1 as a function of time, the void space created in the phase space can be closed and opened as a function of time.

[0090] As described above, when the electromagnetic device receives a signal, at least one phase singularity opens and closes as a function of time, and the opening and closing of the phase singularity releases energy in a pattern. More specifically, at least one of the phase singularities or null phase regions in phase space opens, closes, or opens and closes as a function of time in free phase space when the cloaking device 1 receives a signal. The opening and closing of similar singularities releases energy in a pattern of energy or field vortices. Multiple phase singularities or multiple null phase space regions may open or close at once, releasing multiple energy or field vortices.

[0091] From the above discussion, it can be seen that subcomponents of the electromagnetic device 1 interact resonantly with other subcomponents of the electromagnetic device 1, thereby exhibiting collective properties that do not exclude any particular subcomponent of the electromagnetic device. In other words, subcomponents of the cloaking device 1 interact resonantly with other subcomponents of the cloaking device 1, thereby exhibiting collective properties that do not exclude any particular subcomponent of the cloaking device 1. Multiple subcomponents resonate with different fields and interact with each other, thereby exhibiting collective properties. By sending appropriate signals using an external antenna network, specific subcomponents can be activated, which activates or deactivates other subcomponents in the cloaking device.

[0092] (summary) The electromagnetic device 1 can be summarized as follows: First, while quantum effects are usually observed over very short distances, the electromagnetic wave-induced quantum cloaking introduced here enables quantum phenomena to operate over large distances. Furthermore, instead of ultra-low temperatures, quantum effects are visible at room temperature and in air.

[0093] Second, quantum cloaking is not like classical cloaking, where photons travel. Here, matter waves or mass equivalents travel from one side of an object to the other. This means that actual physical objects travel. Third, by tuning the electromagnetic resonant frequency, small objects located deep inside large complex structures can be made to resonate. As a result, the objects become visible from the outside. Anomalous quantum cloaking is a new kind of quantum imaging technique developed by the inventors, which may have great applications in detecting various diseases.

[0094] There have been no reports of quantum cloaking or anomalous quantum cloaking since 2006 Although there have been many theoretical predictions, there has been no experimental evidence. By providing a wide range of examples, the inventors have found that spiral or helical symmetry is suitable for such quantum cloaking. Previous theoretical studies have not even mentioned the need for three concentric helices. The inventors not only found the key geometric features that a device must possess to demonstrate quantum cloaking, but also synthesized artificial materials that largely demonstrate the characteristics of quantum cloaking.

[0095] Previous theories of quantum cloaking mimicked the classical concept of bending a beam of light. Our experimental results suggest that light does not bend as in classical cloaking. Quantum cloaking occurs when matter waves replace photons in classical cloaking, and the matter waves do not propagate along a curved path but instead tunnel through. The concept of a path is very classical and has no equivalent in quantum mechanics. Splitting a wave function into many parts and then mixing them together is incorrect from a true quantum perspective. Thus, the quantum cloaking and anomalous quantum cloaking reported here are based on a different theory than those previously proposed.

[0096] (How quantum cloaking is realized) As described above, the method for realizing quantum cloaking according to this embodiment is as follows: A step A of providing an electromagnetic device 1 including a plurality of spiral arrays or a plurality of helical arrays of dielectric components; and Step B: providing a specific frequency signal to the electromagnetic device, thereby causing the electromagnetic device 1 to exhibit quantum cloaking. Includes:

[0097] Here, in step A, preparing the electromagnetic device 1 includes: Manufacturing an electromagnetic device 1; Operating an electromagnetic device 1; and Placing the electromagnetic device 1 on the HOPG substrate 55 It can include at least one of the following.

[0098] The method for realizing quantum cloaking according to this embodiment further includes the steps described above, and the configuration of the electromagnetic device 1 may be modified as described above.

[0099] <<Various Aspects of the Embodiments>> The embodiments have various aspects. The aspects described in the embodiments can be expressed as follows.

[0100] <Aspect 1-1> The quantum cloaking device H-inductor (electromagnetic device 1) takes a single wave function, or a composite of wave functions, or multiple wave functions, passes them through the device (electromagnetic device 1), and as they pass through, it encodes information about a portion of the hardware of the resonating device (electromagnetic device 1) using an electromagnetic antenna (antenna 53).

[0101] <Aspect 1-2> In a quantum cloaking device, an H-inductor (electromagnetic device 1), the magnitude of the electric and / or magnetic parts and / or wave functions emitted from the device (electromagnetic device 1) vary linearly or nonlinearly according to a mathematically defined function of the charge accumulated in the local area.

[0102] <Aspect 1-3> In a quantum cloaking device H-inductor (electromagnetic device 1), single or multiple pieces of multi-element hardware (electromagnetic device 1) are excited by dielectric resonance triggered by external energy in the form of electric, magnetic, electromagnetic or mechanical waves.

[0103] <Aspect 1-4> In a quantum cloaking device H-inductor (electromagnetic device 1), by selecting an appropriate external signal frequency to a scanner (the imaging device of this embodiment) that measures the tunneling of a quantum object through the quantum cloaking device (electromagnetic device 1), single or multiple parts of the multi-element hardware in the quantum cloaking device or the entire quantum cloaking device (electromagnetic device 1) are selectively made invisible.

[0104] <Aspect 2-1> The quantum cloaking device H-inductor (electromagnetic device 1) can be in the form of a single spiral or helical shape, or a 1D, 2D, or 3D collection of said spiral or helical shapes formed by combining basic dielectric resonant units.

[0105] <Aspect 2-2> As can be seen from the above explanation, in the quantum cloaking device H-inductor (electromagnetic device 1), self-similar geometries of various spatial scales are simply They resonate on one or more time scales, thereby creating spatiotemporal dynamics.

[0106] <Aspect 2-3> In the quantum cloaking device H-inductor (electromagnetic device 1), as described above, single or multiple concentric spirals or helices are arranged in 2D or 3D, following any conical or spherical form of variable size.

[0107] <Aspect 2-4> In quantum cloaking devices, H-inductors (electromagnetic devices 1), as described above, the three layers are formed from separate, similar, or pairs of similar dielectric materials in double or triple concentric cylindrical or conical shapes. <Aspect 2-5> In the quantum cloaking device H-inductor (electromagnetic device 1), as described above, the dielectric resonant unit that constructs the spiral or helical structure is a 3D assembly of spirals or helices of similar or distinct shapes. <Aspect 3-1> In the quantum cloaking device H-inductor (electromagnetic device 1), matter waves are transported by tunneling to the other side of the quantum cloaking device without being perturbed by the quantum cloaking device, or matter waves carry information in the hardware part of the quantum cloaking device.

[0108] <Aspect 3-2> Quantum Cloaking Devices H-Inductors (Electromagnetic Devices 1) transport matter waves or their complexes from one location to another without interaction through wirelessly arranged 3D or 2D networks.

[0109] <Aspect 3-3> In the quantum cloaking device H-inductor (electromagnetic device 1), matter waves (doped) are transported from outside the device to a desired location within the device hardware. It acts as a doping material that modifies the fundamental properties of the device (electromagnetic device 1).

[0110] <Aspect 3-4> According to this embodiment, the quantum cloaking device H inductor (electromagnetic device 1) exhibits metamaterial properties, which disappear under electromagnetic waves of a specific frequency combined as described above, and classical cloaking, which disappears under electromagnetic frequencies, completes the frequency space and can collide, coexist, or occur together by exerting negative influences on each other. <Aspect 4-1> A quantum cloaking device H-inductor (electromagnetic device 1) in which, as described above, subcomponents of the device hardware (electromagnetic device 1) interact resonantly with different parts of the same hardware to build a collective property in which no particular region is excluded.

[0111] <Aspect 4-2> In the quantum cloaking device H-inductor (electromagnetic device 1), as explained above, the evanescent wave generated by the local oscillator is encoded into the tunneling output by the quantum cloaking device (electromagnetic device 1), which allows the evanescent wave to interact with a waveform larger than the local region (one whose component order follows a specific symmetry).

[0112] <Aspect 4-3> In the quantum cloaking device H-inductor (electromagnetic device 1), the length, pitch, and diameter of the helical arrangement are varied so that their combined resonant vibration phase diagram is a 3D sphere with 12 holes; when the device introduces noise, these holes open and close as a function of time, and this opening and closing releases energy in a pattern that can be read by an external user.

[0113] <Aspect 4-4> In quantum cloaking devices, H-inductors (electromagnetic devices 1), classical and / or quantum resonant coupling between domains creates, modifies, or destroys quantum mechanical objects such as matter waves and compositions of matter waves present within the device.

[0114] <Aspect 5-1> According to this embodiment, the quantum cloaking devices form a circuit in which the quantum cloaking devices are arranged within a 3D ensemble, where selected different localized portions of the quantum cloaking devices are visible to external energy exposure and transmit the collective radiation of the 3D field ensemble.

[0115] <Aspect 5-1> The quantum cloaking device forming circuit may include a 3D ensemble of quantum cloaking devices (electromagnetic devices 1). Each device is formed from separate single or multiple portions that disappear or appear at specific external signal frequencies and are selectively visible. Selected combinations of the spaced apart portions of the quantum cloaking device form a working circuit. The 3D ensemble acts as a combination of many separate circuits, each visible and operational in a different time domain at a time.

[0116] <Aspect 5-2> The quantum cloaking device forming circuit may include a self-similar or fractal ensemble of quantum cloaking devices. The ensemble of quantum cloaking devices (devices 1) are repeatedly arranged in space, time, or time-space in two possible configurations. and the other are placed side by side, or one inside the other, with varying numbers of repetitions. <Aspect 5-3> In quantum cloaking devices forming circuits, a 3D collection of devices functioning as circuits self-assembles as a single unit to form a hierarchical network of multiple circuits placed side by side or one inside the other, creating circuits within circuits within circuits in a chain of networks.

[0117] [Supplementary Note 1] The present invention is not limited to the above-described exemplary embodiments, and can be modified in various ways by those skilled in the art within the scope of the claims. As an example, the present invention includes within its technical scope an exemplary embodiment that appropriately combines the technical means disclosed in the above exemplary embodiments.

[0118] [Supplementary Note 2] Some or all of the embodiments of the above-disclosed examples will be described below. However, it should be noted that the present invention is not limited to the following examples.

[0119] (Aspect A1) A quantum cloaking device, Multiple spiral or multiple helical arrays of dielectric components and multiple concentric spiral or multiple concentric helical arrays of dielectric components and A quantum cloaking device in which cloaking is triggered by an input electrical, magnetic, electromagnetic, or mechanical signal having a specific frequency, and which manifests as cloaking of the transmitted wave function of a specific object.

[0120] (Aspect A2) the frequency of the signal that triggers cloaking is determined by the length, pitch, and diameter of the helical nanowires that are at least one of the spiral array, the helical array, the concentric spiral array, and the concentric helical array that constitute the quantum cloaking device; a plurality of frequencies for application to the object of said cloaking, the plurality of frequencies being selected to partially or totally disable the object; If the object of cloaking oscillates resonantly at a particular frequency, that resonant frequency is applied to achieve quantum cloaking of the object. 2. The quantum cloaking device according to embodiment 1.

[0121] (Aspect A3) a 3D structure composed of phases of resonant frequencies of the object of cloaking is determined as a phase space defining tunneling for quantum cloaking; the 3D phase structure is generated by a static or dynamic resonant vibration of the length, pitch, and diameter of the helical or spiral structure; the phase space of energy transfer comprises a plurality of phase singularities that can be tuned by selecting geometric parameters of said cloaking device; By changing the geometric parameters of said cloaking device as a function of time, the empty space created in said phase space can be opened and closed as a function of time, 3. The quantum cloaking device according to embodiment 1 or 2.

[0122] (Aspect A4) when the cloaking device receives a signal, at least one of the phase singularities or null phase regions in the phase space opens, closes, or opens and closes as a function of time in the empty phase space; Similar opening and closing of the phase singularities releases energy in patterns of energy or field vortices, At one time, multiple phase singularities or multiple null phase space regions can open or close, releasing multiple vortices of energy or fields. 5. The quantum cloaking device according to embodiment 4.

[0123] (Aspect A5) matter waves are transported by tunneling from one side of the cloaking device to the other without perturbation; Matter waves carry information (and matter itself) from one side of the cloaking device to the other, or quantum cloaking also means transporting matter, When quantum cloaking occurs in a classically resonant dielectric material, the size of the object being cloaked is irrelevant and the matter wave tunnels through the entire resonant path, regardless of the length and size of the resonant path. 5. The quantum cloaking device according to any one of embodiments 1 to 4.

[0124] (Aspect A6) matter waves transported through the cloaking device may carry information about a portion, or portions, of the cloaking device, or may not carry information about a portion of the cloaking device; selecting an appropriate resonant frequency such that a portion or selected portions of the cloaking device are visible in a tunneling current sensor captured image of the cloaking device; By selecting multiple resonant frequencies and exposing the object of the cloaking to the resonant signals using multiple antennas, matter waves can selectively interact as they pass through the tunnel. 5. The quantum cloaking device according to any one of aspects 1 to 4.

[0125] (Aspect A7) a subcomponent of the cloaking device interacts resonantly with other subcomponents of the cloaking device, thereby exhibiting collective properties that are not limited to any particular subcomponent of the cloaking device; The multiple subcomponents resonate with different fields and interact with each other, thereby exhibiting collective properties. By transmitting a suitable signal using an external antenna network, certain subcomponents may be activated which activate or deactivate other subcomponents within the cloaking device; 7. The quantum cloaking device according to any one of embodiments 1 to 6.

[0126] (Aspect A8) the magnitude of at least one of the electric flux and electric field of a particular geometric shape emitted from the cloaking device and the magnetic flux and magnetic field of a particular geometric shape emitted from the cloaking device is related to the magnitude of the charge stored in the cloaking device; By pumping with laser light, an optical vortex is generated from the cloaking device, generating both electric flux and electric field and magnetic flux and magnetic field. 7. The quantum cloaking device according to any one of embodiments 1 to 6.

[0127] (Aspect A9) 1. An imaging device based on quantum cloaking, comprising: a quantum tunneling current sensor having a scanning single probe or a multiple probe arrangement; a conductive substrate for holding an imaging target between the conductive substrate and the sensor probe; a single or multiple antennas that emit electromagnetic signals having specific frequencies to activate desired structural portions of the imaging subject; An imaging device comprising: [Explanation of symbols]

[0128] 1. Electromagnetic Devices 11 Internal array of electromagnetic devices 12 Central Array of Electromagnetic Devices 13 Outer Array of Electromagnetic Devices 50, 100 Experimental configuration 51 Scanning Tunneling Microscope (STM) 52 Molecular Rotator (MR) 53 Antenna (AN) 54 Liquid layer (LL) 55 Highly oriented pyrolytic graphite (HOPG) substrate 56 Joule heater (JH) 57 Molecular leakage part (ML)

Claims

1. A quantum cloaking device for quantum cloaking an object including at least one of (a) a plurality of spiral arrays or a plurality of helical arrays, and (b) a plurality of concentric spiral arrays or a plurality of concentric helical arrays, comprising: the spiral array, the helical array, the concentric spiral array, and the concentric helical array each comprise an arrangement of dielectric components; Quantum cloaking triggered by applying an input electric, magnetic, or electromagnetic signal having a specific frequency to the object, thereby manifesting quantum cloaking of the transmitted wave function of the object; the specific frequency is defined by a length, a pitch, and a diameter of the helical nanowires of the spiral array, the helical array, the concentric spiral array, and / or the concentric helical array; Quantum cloaking device.

2. A plurality of frequencies for application to the object, the plurality of frequencies being selected to partially or totally render the object invisible; When the object vibrates resonantly at a specific frequency, the specific frequency is applied to achieve quantum cloaking of the object.

10. The quantum cloaking device of claim 1.

3. A 3D phase structure composed of phases of resonant frequencies of the object is determined as a phase space that defines tunneling for quantum cloaking; the 3D phase structure is generated by static or dynamic resonant vibration of the length, pitch, and diameter of the helical nanowires of the spiral array, the helical array, the concentric spiral array, and / or the concentric helical array; the phase space of energy transfer comprises a plurality of phase singularities that can be tuned by selecting geometric parameters of said quantum cloaking device; By changing the geometric parameters of the quantum cloaking device as a function of time, free phase spaces created in the phase space can be opened and closed as a function of time.

3. The quantum cloaking device according to claim 1 or 2.

4. when the quantum cloaking device receives a signal, at least one of the phase singularities or null phase regions in the phase space opens or closes the free phase space, or opens or closes as a function of time; the same opening and closing of said phase singularities releases energy in patterns of energy vortices or patterns of field vortices; Multiple phase singularities or multiple null phase space regions may open or close at once, shedding multiple vortices of energy or multiple vortices of field. The quantum cloaking device of claim 3 .

5. matter waves are transported by tunneling from one side of the quantum cloaking device to the other side without perturbation; The matter wave transporting information from one side of the quantum cloaking device to the other side also means transporting the matter itself, or that the quantum cloaking transports matter; When quantum cloaking occurs in a classically resonant dielectric material, the object is of any size and the matter wave tunnels through the entire resonant path, regardless of its length and size. The quantum cloaking device according to any one of claims 1 to 4.

6. matter waves transported through the quantum cloaking device carry information of a portion or portions of the quantum cloaking device, or carry no information of a portion of the quantum cloaking device; selecting an appropriate frequency so that a portion or selected portions of the quantum cloaking device are visible in a tunneling current sensor captured image of the quantum cloaking device; By selecting multiple resonant frequencies and exposing the object to the resonant signals using multiple antennas, matter waves can selectively interact as they pass through the tunnel. The quantum cloaking device according to any one of claims 1 to 4.

7. a subcomponent of the quantum cloaking device interacts resonantly with other subcomponents of the quantum cloaking device, thereby exhibiting collective properties that are not limited to any particular subcomponent of the quantum cloaking device; The multiple subcomponents resonate with different fields and interact with each other, thereby manifesting collective properties. an external antenna network may be used to transmit suitable signals to activate specific sub-components which activate or deactivate other sub-components within the quantum cloaking device; 7. A quantum cloaking device according to any one of claims 1 to 6.

8. the magnitude of at least one of the electric flux and electric field of a specific geometric shape emitted from the quantum cloaking device and the magnetic flux and magnetic field of a specific geometric shape emitted from the quantum cloaking device is related to the magnitude of the charge stored in the quantum cloaking device; By pumping with laser light, an optical vortex is generated from the quantum cloaking device, generating both electric flux and electric field and magnetic flux and magnetic field. The quantum cloaking device according to any one of claims 1 to 6.

9. An imaging device based on quantum cloaking of an object, comprising: the object includes at least one of: (a) a plurality of spiral arrays or a plurality of helical arrays; and (b) a plurality of concentric spiral arrays or a plurality of concentric helical arrays; The imaging device is a quantum tunneling current sensor having a scanning single probe or a multiple probe arrangement; a conductive substrate for holding the object between the conductive substrate and the sensor probe; and a single or multiple antennas that emit electromagnetic signals having specific frequencies for activating at least a portion of the object; the specific frequency is defined by a length, a pitch, and a diameter of the helical nanowires of the spiral array, the helical array, the concentric spiral array, and / or the concentric helical array; Imaging device.

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