A method and apparatus for distributed imaging based on superposition of plastic electromagnetic wave light fields

Abstract

This invention provides a method and apparatus for distributed imaging based on the superposition of plastic electromagnetic wave light fields, belonging to the field of optics and optoelectronics. The method includes: acquiring a test image; analyzing and classifying the test image to obtain effect parameter information, including electromagnetic characteristics and interference factors; determining plastic wave elements and light field control parameters based on the effect parameter information; generating a plastic wave matrix based on the plastic wave elements and light field control parameters, the plastic wave matrix being an electromagnetic matrix composed of multiple plastic wave elements used to generate a light field; focusing the plastic wave matrix according to the light field control parameters to obtain focusing parameters; and setting the plastic wave elements according to the focusing parameters to obtain an image corresponding to a regional light effect. This method enables separate imaging of different objects and specific regions of the image.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of optics and optoelectronics, in particular to a method and device for distributed imaging based on plastic electromagnetic wave light field superposition. BACKGROUND

[0002] In the field of optics and optoelectronics, precise control of light field has always been a hot and difficult topic. Electromagnetic wave as an important carrier of information transmission, its propagation characteristics are affected by many factors, among which the magnetic field distribution is a key factor, and the whole light beam as a perception mechanism of attention regulation is rarely mentioned. The existing optical control method mainly realizes the control of light field by changing the refractive index, thickness or shape of the medium, etc. These methods have the problems of limited control range and insufficient flexibility. SUMMARY

[0003] The purpose of the embodiment of the present application is to provide a method and device for distributed imaging based on plastic electromagnetic wave light field superposition, which realizes the separate imaging of different objects and partial regions of a picture.

[0004] In order to achieve the above purpose, the embodiment of the present application provides a method for distributed imaging based on plastic electromagnetic wave light field superposition, which comprises:

[0005] Obtaining a picture to be tested;

[0006] Analyzing and classifying the picture to be tested to obtain effect parameter information, the effect parameter information including electromagnetic characteristics and interference factors;

[0007] Determining plastic wave elements and light field control parameters according to the effect parameter information;

[0008] Generating a plastic wave matrix according to the plastic wave elements and the light field control parameters, the plastic wave matrix being an electromagnetic matrix composed of a plurality of plastic wave elements, used for generating a light field;

[0009] Concentrating the plastic wave matrix according to the light field control parameters to obtain focusing parameters;

[0010] Setting the plastic wave elements according to the focusing parameters to obtain a picture corresponding to a regional light effect.

[0011] Optionally, the plastic wave elements include an emitting light source, a lens and a grating for processing light;

[0012] The light field control parameters include amplitude, phase, polarization state and spatial distribution of the light field;

[0013] The effect parameter information includes amplitude, phase, frequency and polarization state.

[0014] Optionally, the step of parsing and classifying the image to be tested to obtain effect parameter information includes:

[0015] The images to be tested are non-linearly superimposed to obtain a non-linear image, and the images to be tested are linearly superimposed to obtain a linear image;

[0016] Interference, diffraction, and scattering processes are performed on the nonlinear and linear images to obtain effect parameter information.

[0017] Optionally, generating the plastic wave matrix based on the plastic wave element and the optical field modulation parameters includes:

[0018] The intensity distribution, phase distribution, and polarization state of multiple plastic wave elements can be controlled according to the optical field modulation parameters.

[0019] The target optical field is obtained by superimposing electromagnetic waves from multiple malleable wave elements, which together form a malleable wave matrix.

[0020] Optionally, the step of focusing the plastic wave matrix according to the optical field modulation parameters to obtain the focusing parameters includes:

[0021] Based on the light field modulation parameters, one of the light rays in the plastic wave matrix is ​​set as an absolutely parallel energy light; and / or...

[0022] The entire ray in the plastic wave matrix is ​​used as an attention-attracting point. The corresponding brightness and constraint energy of the entire ray cluster are adjusted according to the light field control parameters to focus and project the entire ray into a range or shape according to the attention-attracting point.

[0023] Optionally, the step of setting the plastic wave element according to the focusing parameters to obtain an image of regional light effects includes:

[0024] Multiple focusing parameters are determined based on multiple sets of images to be tested;

[0025] By adjusting multiple focusing parameters and the parameters of the plastic wave element, a regional light effect image is generated.

[0026] Each frame of the image contains different regional lighting effects.

[0027] On the other hand, the present invention also proposes a device based on distributed imaging of plastic electromagnetic wave light field superposition, the device comprising:

[0028] The acquisition module is used to acquire the image to be tested.

[0029] The first processing module is used to analyze and classify the image to be tested to obtain effect parameter information, which includes electromagnetic properties and interference factors.

[0030] The second processing module is used to determine the plastic wave element and optical field modulation parameters based on the effect parameter information.

[0031] The third processing module is used to generate a plastic wave matrix based on the plastic wave element and the optical field control parameters. The plastic wave matrix is ​​an electromagnetic matrix composed of multiple plastic wave elements and is used to generate the optical field.

[0032] The fourth processing module is used to gather the plastic wave matrix according to the optical field modulation parameters to obtain the focusing parameters;

[0033] The fifth processing module is used to set the plastic wave element according to the focusing parameters to obtain the image corresponding to the regional light effect.

[0034] Optionally, the step of focusing the plastic wave matrix according to the optical field modulation parameters to obtain the focusing parameters includes:

[0035] Based on the light field modulation parameters, one of the light rays in the plastic wave matrix is ​​set as an absolutely parallel energy light; and / or...

[0036] The entire ray in the plastic wave matrix is ​​used as an attention-attracting point. The corresponding brightness and constraint energy of the entire ray cluster are adjusted according to the light field control parameters to focus and project the entire ray into a range or shape according to the attention-attracting point.

[0037] Optionally, the step of setting the plastic wave element according to the focusing parameters to obtain an image of regional light effects includes:

[0038] Multiple focusing parameters are determined based on multiple sets of images to be tested;

[0039] By adjusting multiple focusing parameters and the parameters of the plastic wave element, a regional light effect image is generated.

[0040] Each frame of the image contains different regional lighting effects.

[0041] On the other hand, the present invention also proposes a machine-readable storage medium storing instructions that, when executed by a processor, configure the processor to perform the aforementioned method for distributed imaging based on superposition of plastic electromagnetic wave light fields.

[0042] A method for distributed imaging based on the superposition of plastic electromagnetic wave light fields according to the present invention includes: acquiring a test image; analyzing and classifying the test image to obtain effect parameter information, the effect parameter information including electromagnetic characteristics and interference factors; determining plastic wave elements and light field control parameters according to the effect parameter information; generating a plastic wave matrix according to the plastic wave elements and light field control parameters, the plastic wave matrix being an electromagnetic matrix composed of multiple plastic wave elements used to generate a light field; focusing the plastic wave matrix according to the light field control parameters to obtain focusing parameters; and setting the plastic wave elements according to the focusing parameters to obtain an image corresponding to a regional light effect. This method linearly superimposes electromagnetic wave light fields at different frequencies or in different directions in space to form a spatial distribution of the electromagnetic field. It achieves regional imaging and separate imaging of partial areas of different objects.

[0043] Other features and advantages of the embodiments of the present invention will be described in detail in the following detailed description section. Attached Figure Description

[0044] The accompanying drawings are provided to further illustrate embodiments of the present invention and form part of the specification. They are used together with the following detailed description to explain the embodiments of the present invention, but do not constitute a limitation thereof. In the drawings:

[0045] Figure 1 This is a flowchart illustrating a method for distributed imaging based on the superposition of plastic electromagnetic wave light fields according to the present invention.

[0046] Figure 2 This is a flowchart illustrating one embodiment of the present invention;

[0047] Figure 3 This is a schematic diagram of the multi-wave incomplete interference result in this invention;

[0048] Figure 4 This is a schematic diagram of the plastic wave matrix of the present invention;

[0049] Figure 5 This is a schematic diagram of a device for distributed imaging based on the superposition of plastic electromagnetic wave light fields according to the present invention.

[0050] Explanation of reference numerals in the attached figures

[0051] A101 - Plastic Wave Matrix;

[0052] A102 - Flexible wave element;

[0053] A103 - Emitting light source unit;

[0054] A104 - Lens or grating;

[0055] 500 - A device based on distributed imaging of plastic electromagnetic wave light field superposition;

[0056] 501 - Obtain Module;

[0057] 502 - First Processing Module;

[0058] 503 - Second Processing Module;

[0059] 504 - Third Processing Module;

[0060] 505 - Fourth Processing Module;

[0061] 506 - Fifth processing module. Detailed Implementation

[0062] The specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings. It should be understood that the specific embodiments described herein are for illustration and explanation only and are not intended to limit the scope of the present invention.

[0063] It should be noted that the acquisition, transmission, storage, use, and processing of data in the technical solution of this application all comply with the relevant provisions of national laws and regulations. In the embodiments of this application, certain existing industry solutions such as software, components, and models may be mentioned. These should be considered exemplary, intended only to illustrate the feasibility of implementing the technical solution of this application, and do not imply that the applicant has already used or necessarily used such solutions.

[0064] The inventors discovered through research that by utilizing the magnetic effect of electromagnetic waves to manipulate the light field, the propagation characteristics of electromagnetic waves, such as refractive index and phase, can be dynamically adjusted by changing the magnetic field distribution, thereby achieving precise control of the light field. This precise control of light greatly aids in the shaping and color of images, and is inextricably linked to the sensory experiences of living organisms and the emotional impact on the human brain. The influence of continuously changing light fields or precisely controlled light rays on the observer's perception of brightness and darkness is unprecedented.

[0065] Example 1

[0066] Figure 1 This is a flowchart illustrating a method for distributed imaging based on the superposition of plastic electromagnetic wave light fields according to the present invention, as shown below. Figure 1 As shown, a method for distributed imaging based on the superposition of plastic electromagnetic wave light fields according to the present invention includes:

[0067] Step S101 involves acquiring the screen to be tested. Specifically, the screen to be tested is the display screen required by the user, which can be a video, an image, etc.

[0068] Step S102 involves analyzing and classifying the image under test to obtain effect parameter information, which includes electromagnetic characteristics and interference factors. Specifically, the effect parameter information includes amplitude, phase, frequency, and polarization state.

[0069] According to a specific implementation, the step of analyzing and classifying the image to be tested to obtain effect parameter information includes: performing nonlinear superposition on the image to be tested to obtain a nonlinear image, performing linear superposition on the image to be tested to obtain a linear image; and performing interference, diffraction, and scattering processing on the nonlinear image and the linear image to obtain effect parameter information.

[0070] Specifically, this invention utilizes nonlinear optics to analyze and calculate the nonlinear superposition process of electromagnetic waves to obtain a precise optical field distribution or regional optical field distribution. It leverages interference effects in nonlinear media, such as four-wave mixing, to achieve nonlinear superposition of electromagnetic beams; it alters the propagation characteristics of electromagnetic beams through diffraction effects in nonlinear media, such as focusing and sub-divergent focusing; and it utilizes nonlinear scattering effects, such as stimulated Raman scattering and stimulated Brillouin scattering, to generate the optical field distribution.

[0071] By utilizing the principle of electromagnetic wave superposition and linear and nonlinear optical effects, the superposition and recombination of light fields can be achieved by calculating the parameters of each electromagnetic beam and the superposition method. Linear optical effects mainly involve beam interference and diffraction, while nonlinear optical effects involve the interaction between beams, such as optically induced refractive index changes and optical soliton formation. Interference can be described by calculating the intensity of the superimposed light field, while diffraction, involving the propagation characteristics of beams passing through obstacles or holes, can be described using Huygens-Fresnel's principle or Kirchhoff's diffraction formulas. To achieve a specific light field distribution, the parameters (amplitude, phase, frequency) and superposition method of each electromagnetic beam need to be calculated. The least squares method can be used to transmit electromagnetic beams to a specific region.

[0072] like Figure 3 As shown, changes in interference phenomena include: by adjusting the phase and amplitude of the electromagnetic beam, the position of interference strengthening or weakening can be controlled, thereby achieving precise control of the light field distribution. Changes in diffraction phenomena include: utilizing the diffraction effect in a nonlinear medium, the propagation path and intensity distribution of the electromagnetic beam can be altered, achieving reshaping of the light field. Changes in scattering phenomena include: by exciting nonlinear scattering effects, new scattered light and light field distributions can be generated, providing new methods for optical imaging, spectral analysis, and other fields. Achieving these changes requires constructing a reconfiguration module to precisely control the parameters and superposition method of the electromagnetic beam, as well as selecting suitable nonlinear media and excitation conditions. By continuously optimizing these parameters and conditions, more complex and precise light field control and changes in optical phenomena can be achieved.

[0073] Linear superposition refers to the superposition of multiple electromagnetic beams in space according to a linear relationship. When multiple electromagnetic beams meet in space, their amplitudes are added linearly, and their phases are superimposed according to corresponding rules. The superposition process of electromagnetic waves is described using complex number addition operations. By calculating the amplitude and phase of each electromagnetic beam, the distribution of the superimposed light field is obtained. Specifically, this includes: first, setting parameters such as amplitude, phase, and frequency for each electromagnetic beam; generating electromagnetic beams with the set parameters using an electromagnetic wave source; then, allowing multiple electromagnetic beams to meet in space so that they are superimposed according to a linear relationship; during the superposition process, the amplitudes are added linearly, and the phases are superimposed according to corresponding rules; the superposition process is described using complex number addition operations; and the distribution of the superimposed light field is obtained by calculating the amplitude and phase of each electromagnetic beam. The superposition process of electromagnetic waves is described using complex number addition or complex number addition operations. By adjusting the phase of the electromagnetic beams, the strengthening or weakening of their interference can be controlled; by adjusting the amplitude of the electromagnetic beams, the intensity distribution of the light field can be controlled. In order to enable the effective superposition of multiple electromagnetic beams for frequency matching, the frequencies should be similar or matched.

[0074] The nonlinear superposition refers to the superposition of multiple electromagnetic beams in space according to a nonlinear relationship. When the amplitude of the electromagnetic beams is large enough, their interaction may lead to nonlinear effects, such as light interference, diffraction, and scattering. These nonlinear effects change the superposition method of the electromagnetic beams. The nonlinear superposition process of electromagnetic waves is described using nonlinear optics theory, and the resulting optical field distribution is obtained by calculating the impact of nonlinear effects on the electromagnetic beams. In the system modules of this invention, media with nonlinear optical properties are present, and these media will produce nonlinear effects under the influence of electromagnetic waves. The nonlinear superposition is similar to linear superposition. Parameters for each electromagnetic beam are set and a corresponding beam is generated. Electromagnetic waves are introduced into the nonlinear medium to excite nonlinear effects. These nonlinear effects change the superposition method of the electromagnetic beams, producing a new optical field distribution. The precise optical field distribution or regional optical field distribution is obtained by analyzing and calculating the nonlinear superposition process of electromagnetic waves using nonlinear optics. Nonlinear superposition of electromagnetic beams can be achieved by utilizing interference effects in nonlinear media, such as four-wave mixing; the propagation characteristics of electromagnetic beams can be changed by using diffraction effects in nonlinear media, such as focusing and sub-divergent focusing; and the optical field distribution can be generated by utilizing nonlinear scattering effects, such as stimulated Raman scattering and stimulated Brillouin scattering.

[0075] Step S103 involves determining the plastic wave element and optical field modulation parameters based on the effect parameter information.

[0076] Specifically, the malleable wave element includes a emitting light source, a lens, and a grating; the light field modulation parameters include the amplitude, phase, polarization state, and spatial distribution of the light field. The effect parameter information includes amplitude, phase, frequency, and polarization state. The amplitude, phase, polarization state, and spatial distribution of the emitting light source, lens, grating, and light field are determined based on the amplitude, phase, frequency, and polarization state.

[0077] In one specific implementation, the parameters of the malleable wave element (such as an emitting light source unit, lens, grating, etc.) are precisely adjusted according to the focusing parameters. These adjustments may include changes in amplitude, phase, frequency, polarization state, etc., to achieve precise control of the light field. The method for generating regional light effects involves adjusting the malleable wave element to generate specific light effects within a specific spatial region. These light effects may include changes in brightness, color, and contrast, thereby creating an image with regional characteristics. When the regional light is black, the regional light source of the emitting light source unit will be turned off.

[0078] In this invention, a malleable wave element refers to a special device capable of adjusting and changing the characteristics of electromagnetic waves. The malleable wave element can control parameters such as frequency, amplitude, and phase of electromagnetic waves as needed to achieve the malleability of the electromagnetic waves.

[0079] By controlling and adjusting the internal physical structure or electrical parameters of a plastic wave element (physical structure includes resonator size, formation, and materials; electrical parameters include capacitance, inductance, and resistance), the propagation characteristics of electromagnetic waves within the element can be altered, adjusting the plastic wave element's response to electromagnetic waves of specific frequencies. This can be achieved through resonance enhancement, filtering, or frequency conversion to achieve the desired effect. Maxwell's equations describe the propagation of electromagnetic waves, and the characteristics of electromagnetic waves can be modulated by changing boundary conditions or medium parameters. Frequency is related to the time derivative; the frequency of electromagnetic waves can be controlled by adjusting the rate of change of the electric and magnetic fields. Amplitude modulation involves controlling the energy of electromagnetic waves, which can be achieved by adjusting the gain or attenuation of the plastic wave element. In Maxwell's equations, amplitude is related to the strength of the electric and magnetic fields; amplitude modulation can be achieved by changing the reflection coefficient, projection coefficient, and medium parameters such as dielectric constant and permeability of the boundary conditions, thus affecting the propagation intensity of the plastic wave element. Phase modulation refers to the control of the corresponding angle of electromagnetic waves. Precise control of electromagnetic waves can be achieved by adjusting the phase delay or phase lead characteristics of the plastic wave element. In Maxwell's equations, phase is related to the propagation distance of electromagnetic waves and the wave speed in the medium. Phase modulation is achieved by changing the refractive index of the medium and the physical length of the malleable wave element to determine the propagation path and phase angle of the electromagnetic wave. Unlike traditional projector components, the malleable wave element in this invention has a wider spatial range, enhancing its controllability.

[0080] The optical field modulation parameters are a series of parameters generated through the collaborative operation of the beamforming module and the stacking module. These parameters describe the amplitude, phase, polarization state, spatial distribution, and other characteristics of the final optical field, and they are crucial for achieving high-quality images or specific optical functions in this invention.

[0081] Step S104 involves generating a plastic wave matrix based on the plastic wave element and the optical field control parameters. The plastic wave matrix is ​​an electromagnetic matrix composed of multiple plastic wave elements, used to generate the optical field.

[0082] According to one specific implementation, generating a plastic wave matrix based on the plastic wave element and the optical field control parameters includes: controlling the intensity distribution, phase distribution, and polarization state of multiple plastic wave elements according to the optical field control parameters; obtaining a target optical field by superimposing the electromagnetic waves of the multiple plastic wave elements, wherein the multiple plastic wave elements form a plastic wave matrix.

[0083] By adjusting the malleable wave element, the system can generate specific light effects within a specific spatial region. These light effects may include changes in brightness, color, and contrast, thereby creating an image with regional characteristics. When the regional light is black, the regional light source of the emitting light source unit will be turned off.

[0084] Specifically, electromagnetic waves, arranged and superimposed in space according to certain rules, form a light field with specific properties. A plastic wave matrix is ​​an array composed of multiple plastic wave elements arranged according to certain rules, capable of forming a light field with specific properties. By precisely controlling the parameters of each plastic wave element through an optoelectronic electromagnetic weaving system, the electromagnetic waves emitted by the entire matrix are arranged and superimposed in space according to certain rules to form the desired light field. Utilizing matrix operations and the principle of electromagnetic wave superposition, the parameters of each element are calculated to ensure that the radiation field of the entire matrix satisfies a specific spatial distribution. This involves determining the intensity distribution, phase distribution, and polarization state of the elements of the plastic wave matrix. The design of the plastic wave matrix consists of multiple plastic wave elements arranged in an array according to certain requirements. Each plastic wave element can independently adjust its parameters (such as amplitude, phase, and frequency). The parameters of each plastic wave element can also be calculated using matrix operations and the principle of electromagnetic wave superposition. Different parameters for each element ensure that the electromagnetic waves emitted by the entire plastic wave matrix are arranged and superimposed in space according to certain rules, thus achieving different effects. The operation of the optoelectronic electromagnetic weaving system allows for precise control of the parameters of each plastic wave element. The system can adjust the element parameters in real time to adapt to changes in the environment or application requirements. Once the parameters of all plastic wave elements in the plastic wave matrix are precisely set, the electromagnetic waves emitted by the entire plastic wave matrix superimpose in space to form the desired light field, thereby achieving consistency between the properties of the light field and the set target light field.

[0085] Step S105 involves focusing the plastic wave matrix according to the light field control parameters to obtain focusing parameters.

[0086] According to one specific implementation, the step of focusing the plastic wave matrix according to the light field control parameters to obtain focusing parameters includes: setting one beam of light in the plastic wave matrix as an absolutely parallel energy light according to the light field control parameters; and / or, using the entire light beam in the plastic wave matrix as an attention-attracting point, adjusting the corresponding brightness and constraint energy level of the entire light beam cluster according to the light field control parameters, for focusing and projecting the entire light beam in range or shape according to the attention-attracting point.

[0087] Specifically, during the focusing process, the system records key parameters such as the position of the focal point, focal length, and spot size (these parameters are called focusing parameters). These focusing parameters determine the specific location and shape of the regional light effect.

[0088] Electromagnetic waves can be focused onto a specific spatial location or area using focusing devices such as lenses, mirrors, or gratings. Precise focusing of the electromagnetic beam can be achieved by precisely adjusting the position and parameters of these devices.

[0089] By utilizing malleable wave optical elements, the energy of an electromagnetic beam is concentrated into a smaller area, creating a focusing effect. Focusing of the electromagnetic beam is achieved by calculating the parameters and position of the optical elements using principles of geometric and physical optics. Optoelectronic electromagnetic weaving systems manipulate electromagnetic waves using electromagnetic fields. This includes using magnetic fields to change the polarization state, refractive index, or propagation direction of light waves, and using electric fields to guide and accelerate charged particles (such as electron beams). Optoelectronic electromagnetic weaving systems can be used to adjust the propagation path of electromagnetic waves so that they can be accurately captured by the focusing device.

[0090] Step S106 involves setting the plastic wave element according to the focusing parameters to obtain the image corresponding to the regional light effect.

[0091] According to one specific implementation, the step of setting the plastic wave element according to the focusing parameters to obtain an image of regional light effects includes: determining multiple focusing parameters based on multiple sets of images to be tested; generating an image of regional light effects by adjusting the multiple focusing parameters and the parameters of the plastic wave element; each frame of the image includes different regional light effects.

[0092] By adjusting the focusing parameters of the plastic wave element, an image with a regional light effect is obtained. Specifically, the parameters of the plastic wave element are adjusted according to the acquired focusing parameters to obtain an image with a regional light effect.

[0093] By adjusting the parameters of the plastic wave elements based on the acquired focusing parameters, an image with regional optical effects can be obtained. Therefore, the plastic wave matrix composed of plastic wave elements also has a wider spatial range and greater controllability.

[0094] The method also includes repeating steps S101-S106 to obtain the regional light effect changes in the continuous image frames. Specifically, the method for generating continuous image frames includes: by continuously adjusting the focus parameters and the parameters of the plastic wave element, the system can generate continuous image frames. Each frame in these frames may contain different regional light effects, thus creating a dynamically changing visual effect. The continuous change of regional light effects includes: the regional light effects will change in the continuous image frames over time. These changes may include changes in the position, shape, intensity, etc., of the light effects, thereby creating rich visual effects and a dynamic experience.

[0095] This invention enables customized control and display of the light field by precisely controlling the parameters and states of each component, providing strong technical support and application prospects for fields such as optical engineering, communication, microscopic imaging, and biomedicine.

[0096] Example 2

[0097] Figure 2 This is a flowchart illustrating one embodiment of the present invention, as shown below. Figure 2 As shown, the principle of electromagnetic wave superposition refers to the fact that under certain conditions, electromagnetic beams of different frequencies or directions can be linearly superimposed in space to form a complex spatial distribution of electromagnetic fields, thereby achieving regional imaging and separate imaging of different parts of different objects.

[0098] First, the desired display image is obtained from the effect module. The desired display image is imported via network communication or other means and transmitted to the effect module of this device. The effect module needs to extract the first parameter information of the desired display image. The first parameter information includes the intensity, brightness, and saturation of the light field of the image pixels. The effect module uses electromagnetic waves and the extracted first parameter information to control the light field. In this invention, the effect module is a device that uses the magnetic effect of electromagnetic waves to control the light field. By changing the magnetic field distribution of the electromagnetic beam, the propagation characteristics of the electromagnetic wave, such as refractive index, phase, and energy, are affected, thereby achieving control of the light field. The propagation characteristics of electromagnetic waves are described using the magnetic field part of Maxwell's equations, and the light field is controlled by changing the magnetic field distribution. In this invention, to achieve the electromagnetic field effect, the magnetic field distribution of the electromagnetic beam is changed by altering the current change and the movement of the magnet. The change in the magnetic field affects the refractive index of the medium, thereby changing the propagation path of the electromagnetic wave. The change in the magnetic field is used to affect the phase of the electromagnetic wave, achieving precise phase control. This embodiment utilizes the magnetic field component to describe the propagation characteristics of electromagnetic waves, and alters the magnetic field distribution to affect these propagation characteristics. The magnetic field of a material interacts with the performance of the acoustic, optical, and electrical modules in this invention. This method utilizes the ability to dynamically adjust the propagation characteristics of electromagnetic waves and change the distribution of the light field by altering the magnetic field distribution.

[0099] The effect module analyzes and classifies the displayed image to obtain effect parameter information, which is then transmitted to the beamforming module and the overlay module. The effect module, the core device of this system, analyzes and classifies the input displayed image. The analysis process includes identifying and extracting key parameter information affecting the quality of the displayed image based on the (visual) magnetic effect and physical characteristics of perceptible electromagnetic waves; these are called effect parameters. Specifically, the effect module analyzes each pixel or pixel region in the displayed image one by one. For attributes such as brightness, color, contrast, and intensity, the effect module also utilizes the magnetic effect of electromagnetic waves (refractive index change, magneto-optical effect, etc.) to detect and quantify potential interference and distortion factors in the image. The effect module reduces the interaction of electromagnetic waves and interference from the non-uniform external environment. After analysis and classification, the effect module generates a series of effect parameter information. These effect parameters describe the electromagnetic characteristics of each pixel or pixel region in the displayed image and how they are affected by magnetic effects or other physical factors. This effect parameter information is crucial for the subsequent beamforming and overlay modules, directly guiding the precise control of the image. The effect parameter information is transmitted to the beamforming module and the stacking module. In this invention, the beamforming module is a device used to simulate and generate specific pixel light fields. By precisely controlling the electromagnetic beam through the magneto-woven wave effect module, it is divided into multiple pixels, and the light intensity, phase, and other parameters of each pixel are adjusted to form the desired light field. Utilizing the wave nature and diffraction principle of light, the precise simulation and generation of the light field are achieved by calculating the radiation intensity, phase, and other parameters of each pixel.

[0100] This invention emphasizes the crucial role of electromagnetic wave superposition in forming light fields and projection effects. The term "superposition" signifies construction and shaping, indicating that this technology involves a highly precise and complex construction process. The superposition module is responsible for superimposing and recombinating multiple electromagnetic beams to form more complex light fields. Through a magneto-weaving effect module, the parameters of each electromagnetic beam, such as amplitude, phase, and frequency, are precisely controlled, and they are superimposed to form a light field with specific cluster properties. Simultaneously, by allocating different electromagnetic beams to different regions, the recombination of the light field is achieved. Utilizing the principle of electromagnetic wave superposition and linear / nonlinear optical effects, the superposition and recombination of the light field are realized by calculating the parameters of each electromagnetic beam and the superposition method.

[0101] This module superimposes and recombines multiple electromagnetic beams to form a more complex emitted light field. When multiple electromagnetic beams meet at a point in space, they interfere with each other, creating regions of reinforcement or weakening. This interference phenomenon is the fundamental principle of electromagnetic wave superposition. By precisely controlling the amplitude, phase, and frequency of each electromagnetic beam, the superposition module enables these beams to form specific intensity distributions at specific locations. This module is used to precisely control the parameters of each electromagnetic wave, such as amplitude, phase, and frequency. By adjusting the parameters of the electromagnetic beams, the magneto-woven wave effect module and the superposition module work together to change the interference between them, thereby achieving precise control. By adjusting the phase, the position of beam interference reinforcement or weakening can be changed; the interaction between electromagnetic beams of different frequencies, sum-frequency or difference-frequency effects, can be achieved. Utilizing the linear and nonlinear optical effects of the electromagnetic wave superposition principle, by calculating the parameters of each electromagnetic beam and the superposition method, the superposition and recombination of the light field can be achieved. Linear optical effects mainly involve beam interference and diffraction, while nonlinear optical effects involve the interaction between beams, such as photoinduced refractive index changes and optical soliton formation. Interference can be described by calculating the intensity of the superimposed light field. Diffraction, involving the propagation characteristics of a beam through obstacles or holes, can be described by Huygens-Fresnel's principle or Kirchhoff's diffraction formulas. To achieve a specific light field distribution, the parameters (amplitude, phase, frequency) and superposition method of each electromagnetic beam need to be calculated. The least squares method can be used to project electromagnetic beams into a specific region. By continuously optimizing these parameters and conditions, more complex and precise control of the light field and alteration of optical phenomena can be achieved.

[0102] The beamforming module receives effect parameter information transmitted by the effect module and precisely controls the electromagnetic beam based on this information. The control process may include changing parameters such as the amplitude, phase, and frequency of the electromagnetic beam to optimize the final image.

[0103] The superposition module is the final output stage of the system. It is responsible for superimposing the electromagnetic beams, which have been modulated by the beamforming module, to form the final image. By adjusting the phase of the electromagnetic beams, the interference between them can be controlled to strengthen or weaken, and by adjusting the amplitude of the electromagnetic beams, the intensity distribution of the light field can be controlled. Frequency matching is performed to ensure that the frequencies of multiple electromagnetic beams are similar or nearly matched.

[0104] The beamforming module extracts and processes the first parameter information obtained by the effect module, and then segments the first parameter information to obtain light field distribution data such as light intensity, phase, and radiation intensity of the pixels. The superposition module performs linear and nonlinear superposition on the first parameter information, utilizing the superposition characteristics of electromagnetic waves such as interference, diffraction, and scattering, and inputs it into a distributed superposition device. In this invention, the distributed superposition device refers to a device that disperses multiple electromagnetic beams at different locations for superposition. By changing multiple emitting elements at different locations, the electromagnetic beams emitted by them are superimposed in space to form the desired light field. Utilizing the principle of electromagnetic wave superposition and spatial distribution characteristics, the distributed superposition of the light field is achieved by calculating the position and parameters of each emitting element, thus obtaining the spatial distribution characteristics of the electromagnetic waves. The desired display image is obtained by acquiring signals through an acquisition device, which is used to capture and record light field information.

[0105] Optical field information is converted into electrical or digital signals using malleable wave elements, and then stored and processed. The optical field information is converted into a processable signal form using photoelectric conversion principles and signal processing technology. A high-light field simulation device is then constructed to simulate and extrapolate the distribution of high-light fields. By utilizing photomagnetic electromagnetic weaving system simulation technology and optical principles, the distribution of the optical field is accurately calculated and extrapolated to predict its changing trends and characteristics. Using photomagnetic electromagnetic weaving system simulation and algorithms, the propagation and diffraction processes of the optical field are calculated to extrapolate and simulate the high-light field, thereby obtaining the predicted trends and characteristics of the optical field.

[0106] In summary, the effect module, beamforming module, and overlay module together constitute a complete image control system. By precisely analyzing and classifying the displayed image, extracting effect parameter information, controlling the electromagnetic beam, and accurately overlaying the images to form the final image, the system obtains the light intensity, phase, and on / off control data of each pixel, as well as the spatial distribution data of the light field and the spatial distribution characteristics of the electromagnetic waves, and predicts the trend of light field changes. These characteristics are referred to as effect parameters.

[0107] According to the processing of the beam wave module and the superposition module, the beam wave module can adjust the parameters of the plastic wave element in the plastic wave matrix, and the superposition module superimposes the electromagnetic waves through the photoelectric and magnetic weaving system to realize the optical field control and obtain the optical field control parameters. In the photoelectric magnetic weaving system of the present invention, it involves the precise control and superposition of electromagnetic waves (such as light waves) by the beam wave module and the superposition module to realize the customized control of the optical field.

[0108] like Figure 4As shown, the beamforming module is mainly used to control the parameters of the plastic wave elements in the plastic wave matrix. These plastic wave elements A102 are the emitting light source unit A103, microelectromechanical system lenses or gratings A104, or other devices capable of dynamically adjusting the electromagnetic wave characteristics. Based on the effect parameter information provided by the effect module (used to describe the electromagnetic characteristics and potential interference factors of the displayed image), the beamforming module adjusts the parameters of the plastic wave element A102, including amplitude, phase, frequency, polarization state, etc., depending on the type of plastic wave element A102 used and the control target. The control mechanism includes: the control process may involve changes in physical quantities such as electronic signals, voltage, current, or magnetic fields, which directly affect the physical state of the plastic wave elements, thereby changing their effect on electromagnetic waves. The superposition module's task is to superimpose the electromagnetic waves controlled by the beamforming module through photoelectric and magnetic weaving systems to form the final light field control effect.

[0109] In the aforementioned optoelectronic weaving system, the photoelectric system may include optical elements such as lenses, mirrors, and gratings, which can guide, focus, or disperse electromagnetic waves. The magnetic weaving system may utilize magnetic fields to manipulate electromagnetic waves, such as changing the polarization state or refractive index of electromagnetic waves through magneto-optical effects. This invention combines the two core concepts of "light" and "electromagnetic waves," and uses the word "weaving" to vividly depict the scene of electromagnetic waves intertwining like threads to form a complex light field. "Electromagnetic" directly refers to the physical basis of the technology—electromagnetic waves, while "weaving shadows" continues to use figurative language to depict the scene of electromagnetic waves intertwining to form light and shadow, emphasizing the close connection between light and electromagnetic waves. The optoelectronic weaving system is a comprehensive system combining light, electromagnetic waves, and precision control technology. By utilizing devices such as malleable wave elements and malleable wave matrices, electromagnetic waves are intertwined like threads to form a complex light field. Simultaneously, by precisely controlling the parameters and superposition methods of each electromagnetic wave beam, precise control and regulation of the light field are achieved. By utilizing Maxwell's equations, optical principles, and precision control techniques, the precise design and control of the optoelectronic electromagnetic weaving system can be achieved by calculating the parameters and superposition methods of each electromagnetic beam.

[0110] Customized control of the light field is achieved through precise adjustment of the parameters of the plastic wave element by the beam wave module and superposition processing of electromagnetic waves by the stacking module. The combination of the optoelectronic electromagnetic weaving system and the steady-state system transmits the parameters to the plastic wave matrix A101. By continuously optimizing these parameters and mechanisms, the system can generate light field manipulation effects with excellent visual effects and specific functions.

[0111] Focusing parameters are obtained by concentrating electromagnetic wave energy using the aforementioned optical field control parameters, a stabilization system, an optoelectronic weaving system, and a focusing device. The optoelectronic weaving system, based on these focusing parameters, involves precisely concentrating electromagnetic wave energy using a stabilization system, an optoelectronic weaving system, and a focusing device to obtain the focusing parameters. The stabilization system ensures the stability and continuity of the entire optical field control process. It may include a stable power supply, a temperature control system, and mechanical stabilization devices to ensure the stable performance of all components during long-term operation.

[0112] A steady-state system refers to a device or method used to maintain the stable state of a system. By utilizing feedback control principles, adaptive algorithms, and other techniques, the system's state is monitored and adjusted in real time to maintain stability and accuracy. Precise control of the steady-state system is achieved by calculating the system's state deviation and adjusting control parameters using control theory and signal processing techniques. This typically involves the application of mathematical tools such as differential equations and stability analysis.

[0113] The element focusing device is used to focus an electromagnetic beam to a specific location. By utilizing malleable wave optical elements, the energy of the electromagnetic beam is concentrated into a small area, creating a focusing effect. Focusing of the electromagnetic beam is achieved by calculating the parameters and positions of the optical elements using principles of geometric and physical optics. Optoelectronic electromagnetic weaving systems manipulate electromagnetic waves using electromagnetic fields. This includes using magnetic fields to change the polarization state, refractive index, or propagation direction of light waves, and using electric fields to guide and accelerate charged particles (such as electron beams). Optoelectronic electromagnetic weaving systems may be used to adjust the propagation path of electromagnetic waves so that they can be accurately captured by the element focusing device.

[0114] The focusing devices (such as lenses, mirrors, or gratings) are used to focus electromagnetic waves onto a specific spatial location or region. Precise focusing of the electromagnetic beam can be achieved by precisely adjusting the position and parameters of these malleable wave matrices. Methods for obtaining focusing parameters include: during the focusing process, the system records key parameters such as the position of the focal point, focal length, and spot size; these parameters are called focusing parameters. These focusing parameters determine the specific location and shape of the regional optical effect.

[0115] By changing the focusing parameters of the plastic wave element, an image with regional light effects can be obtained.

[0116] The parameters of the plastic wave element are adjusted according to the focusing parameters to obtain an image with a regional optical effect. In this invention, the plastic wave element refers to a special device capable of adjusting and changing the characteristics of electromagnetic waves. The plastic wave element can control the frequency, amplitude, phase, and other parameters of electromagnetic waves as needed to achieve the plasticity of electromagnetic waves. The physical structure or electrical parameters (physical structure: resonator size, formation, material; electrical parameters: capacitance, inductance, resistance) inside the plastic wave element are controlled and adjusted through the magneto-woven wave effect module. Changing the propagation characteristics of electromagnetic waves in the element and adjusting the response of the plastic wave element to electromagnetic waves of a specific frequency can be achieved through resonance enhancement, filtering, or frequency conversion to achieve the desired effect. The propagation of electromagnetic waves is described using Maxwell's equations, and the characteristics of electromagnetic waves are controlled by changing the boundary conditions or medium parameters. Frequency is related to the time derivative, and the frequency of electromagnetic waves is controlled by adjusting the rate of change of the electric and magnetic fields. Amplitude control involves the energy control of electromagnetic waves, which can be achieved by adjusting the gain or attenuation of the plastic wave element. In Maxwell's equations, amplitude is related to the strength of the electric and magnetic fields. Amplitude modulation is achieved by influencing the propagation intensity of the plastic wave element by changing the reflection coefficient, projection coefficient, and dielectric constant and permeability of the medium. Phase modulation refers to the control of the corresponding angle of the electromagnetic wave. Precise control of the electromagnetic wave is achieved by adjusting the phase delay or phase lead characteristics of the plastic wave element. In Maxwell's equations, phase is related to the propagation distance of the electromagnetic wave and the wave speed in the medium. Phase modulation is achieved by changing the refractive index of the medium and the physical length of the plastic wave element to determine the propagation path and phase angle of the electromagnetic wave. Unlike traditional projector components, the plastic wave element has a wider spatial range, enhancing its controllability. Therefore, the plastic wave matrix composed of plastic wave elements also has a wider spatial range and greater controllability. In this invention, electromagnetic waves are arranged and superimposed in space according to certain rules to form a light field with specific properties. The plastic wave matrix is ​​an array composed of multiple plastic wave elements arranged according to certain rules, capable of forming a light field with specific properties. By precisely controlling the parameters of each malleable wave element through an optoelectronic electromagnetic weaving system, the electromagnetic waves emitted by the entire matrix are arranged and superimposed in space according to a certain pattern, forming the desired light field. Utilizing matrix operations and the principle of electromagnetic wave superposition, the parameters of each element are calculated to ensure that the radiation field of the entire matrix satisfies a specific spatial distribution. This involves determining the intensity distribution, phase distribution, and polarization state of the malleable wave matrix elements. The malleable wave matrix is ​​designed by arranging multiple malleable wave elements into an array according to certain requirements. Each malleable wave element can have its parameters (e.g., amplitude, phase, frequency) adjusted independently. The parameters of each malleable wave element can also be calculated using matrix operations and the principle of electromagnetic wave superposition. Different parameters for each element ensure that the electromagnetic waves emitted by the entire malleable wave matrix are arranged and superimposed in space according to a certain pattern, thus achieving different effects.The operation of the optoelectronic electromagnetic weaving system allows for precise control of the parameters of each plastic wave element. The system can adjust the element parameters in real time to adapt to changes in the environment or application requirements. Once the parameters of all plastic wave elements in the plastic wave matrix are precisely set, the electromagnetic waves emitted by the entire plastic wave matrix superimpose in space to form the desired light field, thereby achieving consistency between the properties of the light field and the set target light field.

[0117] By continuously adjusting the focus parameters and the parameters of the plastic wave element, the system can generate a continuous series of images. Each frame in these images may contain different regional lighting effects, thus creating a dynamically changing visual effect. Continuous changes in regional lighting effects: Over time, the regional lighting effects will change within the continuous series of images. These changes may include variations in the position, shape, and intensity of the lighting effects, thereby creating rich visual effects and a dynamic experience.

[0118] Example 3

[0119] On the other hand, the present invention also proposes a device based on distributed imaging of plastic electromagnetic wave light field superposition, such as... Figure 5 As shown, the device 500 based on distributed imaging of plastic electromagnetic wave light field superposition includes: an acquisition module 501 for acquiring a test image; a first processing module 502 for analyzing and classifying the test image to obtain effect parameter information, the effect parameter information including electromagnetic characteristics and interference factors; a second processing module 503 for determining plastic wave elements and light field control parameters according to the effect parameter information; a third processing module 504 for generating a plastic wave matrix according to the plastic wave elements and light field control parameters, the plastic wave matrix being an electromagnetic matrix composed of multiple plastic wave elements, used to generate a light field; a fourth processing module 505 for focusing the plastic wave matrix according to the light field control parameters to obtain focusing parameters; and a fifth processing module 506 for setting the plastic wave elements according to the focusing parameters to obtain an image corresponding to a regional light effect.

[0120] Specifically, the step of focusing the plastic wave matrix according to the light field control parameters to obtain focusing parameters includes: setting one beam of light in the plastic wave matrix as an absolutely parallel energy light according to the light field control parameters; and / or, using the entire light beam in the plastic wave matrix as an attention-attracting point, adjusting the corresponding brightness and constraint energy level of the entire light beam cluster according to the light field control parameters, for focusing and projecting the entire light beam in range or shape according to the attention-attracting point.

[0121] The process of obtaining an image of a regional optical effect by setting the plastic wave element according to the focusing parameters includes: determining multiple focusing parameters based on multiple sets of images to be tested; generating an image of a regional optical effect by adjusting the multiple focusing parameters and the parameters of the plastic wave element; each frame of the image includes a different regional optical effect. This device linearly superimposes electromagnetic wave beams of different frequencies or directions in space to form a spatial distribution of the electromagnetic field. It achieves regional imaging and separate imaging of partial regions of different objects.

[0122] A method for distributed imaging based on the superposition of plastic electromagnetic wave light fields according to the present invention includes: acquiring a test image; analyzing and classifying the test image to obtain effect parameter information, the effect parameter information including electromagnetic characteristics and interference factors; determining plastic wave elements and light field control parameters according to the effect parameter information; generating a plastic wave matrix according to the plastic wave elements and light field control parameters, the plastic wave matrix being an electromagnetic matrix composed of multiple plastic wave elements used to generate a light field; focusing the plastic wave matrix according to the light field control parameters to obtain focusing parameters; and setting the plastic wave elements according to the focusing parameters to obtain an image corresponding to a regional light effect. This method linearly superimposes electromagnetic wave light fields at different frequencies or in different directions in space to form a spatial distribution of the electromagnetic field. It achieves regional imaging and separate imaging of partial areas of different objects.

[0123] On the other hand, embodiments of the present invention provide a storage medium on which a program is stored, which, when executed by a processor, implements the method of distributed imaging based on superposition of plastic electromagnetic wave light fields.

[0124] This invention provides a processor for running a program, wherein the program executes the method for distributed imaging based on superposition of plastic electromagnetic wave light fields.

[0125] This invention provides a device including a processor, a memory, and a program stored in the memory and executable on the processor. When the processor executes the program, it performs the following steps: acquiring entity data of a physical entity, the entity data including entity motion data and entity graphics; establishing a data library based on the entity motion data; establishing a model library based on the entity graphics; setting an index identifier for the physical entity based on the data library; and setting the same index identifier for the physical entity based on the model library. The index identifier is used to retrieve whether the model library contains an entity graphics of the physical entity to be tested. The device described herein can be a server, PC, PAD, mobile phone, etc.

[0126] This application also provides a computer program product, which, when executed on a data processing device, is suitable for executing an initialization program with the following method steps: acquiring a test image; parsing and classifying the test image to obtain effect parameter information, the effect parameter information including electromagnetic characteristics and interference factors; determining plastic wave elements and optical field control parameters based on the effect parameter information; generating a plastic wave matrix based on the plastic wave elements and optical field control parameters, the plastic wave matrix being an electromagnetic matrix composed of multiple plastic wave elements used to generate an optical field; focusing the plastic wave matrix based on the optical field control parameters to obtain focusing parameters; and setting the plastic wave elements according to the focusing parameters to obtain an image of a regional optical effect.

[0127] Those skilled in the art will understand that embodiments of this application can be provided as methods, systems, or computer program products. Therefore, this application can take the form of a completely hardware embodiment, a completely software embodiment, or an embodiment combining software and hardware aspects. Furthermore, this application can take the form of a computer program product embodied on one or more computer-usable storage media (including but not limited to disk storage, CD-ROM, optical storage, etc.) containing computer-usable program code.

[0128] This application is described with reference to flowchart illustrations and / or block diagrams of methods, apparatus (systems), and computer program products according to embodiments of this application. It will be understood that each block of the flowchart illustrations and / or block diagrams, and combinations of blocks in the flowchart illustrations and / or block diagrams, can be implemented by computer program instructions. These computer program instructions can be provided to a processor of a general-purpose computer, special-purpose computer, embedded processor, or other programmable data processing apparatus to produce a machine, such that the instructions, which execute via the processor of the computer or other programmable data processing apparatus, generate instructions for implementing the flowchart... Figure 1 One or more processes and / or boxes Figure 1 A device that provides the functions specified in one or more boxes.

[0129] These computer program instructions may also be stored in a computer-readable storage medium that can direct a computer or other programmable data processing device to function in a particular manner, such that the instructions stored in the computer-readable storage medium produce an article of manufacture including instruction means, which are implemented in a process Figure 1 One or more processes and / or boxes Figure 1 The function specified in one or more boxes.

[0130] These computer program instructions may also be loaded onto a computer or other programmable data processing equipment to cause a series of operational steps to be performed on the computer or other programmable equipment to produce a computer-implemented process, thereby providing instructions that execute on the computer or other programmable equipment for implementing the process.Figure 1 One or more processes and / or boxes Figure 1 The steps of the function specified in one or more boxes.

[0131] In a typical configuration, a computing device includes one or more processors (CPU), input / output interfaces, network interfaces, and memory.

[0132] Memory may include non-persistent memory in computer-readable media, such as random access memory (RAM) and / or non-volatile memory, such as read-only memory (ROM) or flash RAM. Memory is an example of computer-readable media.

[0133] Computer-readable media includes both permanent and non-permanent, removable and non-removable media that can store information using any method or technology. Information can be computer-readable instructions, data structures, modules of programs, or other data. Examples of computer storage media include, but are not limited to, phase-change memory (PRAM), static random access memory (SRAM), dynamic random access memory (DRAM), other types of random access memory (RAM), read-only memory (ROM), electrically erasable programmable read-only memory (EEPROM), flash memory or other memory technologies, CD-ROM, digital versatile optical disc (DVD) or other optical storage, magnetic tape, magnetic disk storage or other magnetic storage devices, or any other non-transferable medium that can be used to store information accessible by a computing device. As defined herein, computer-readable media does not include transient computer-readable media, such as modulated data signals and carrier waves.

[0134] It should also be noted that the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus. Unless otherwise specified, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes that element.

[0135] The above are merely embodiments of this application and are not intended to limit the scope of this application. Various modifications and variations can be made to this application by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this application should be included within the scope of the claims of this application.

Claims

1. A method based on plasmonic electromagnetic wave light field superposition distributed imaging, characterized in that, The method comprises: acquiring a to-be-tested picture; performing analysis and classification on the to-be-tested picture to obtain effect parameter information, the effect parameter information comprising electromagnetic characteristics and interference factors; determining a plastic wave element and a light field regulation parameter according to the effect parameter information; generating a plastic wave matrix according to the plastic wave element and the light field regulation parameter, the plastic wave matrix being an electromagnetic matrix composed of a plurality of plastic wave elements and used for generating a light field; performing aggregation on the plastic wave matrix according to the light field regulation parameter to obtain a focusing parameter, the focusing parameter being a position, a focal length and a spot size of a focal point; setting the plastic wave element according to the focusing parameter to obtain a picture corresponding to a regional light effect; the plastic wave element comprising a light emitting source, a lens and a grating used for processing light; the light field regulation parameter comprising an amplitude, a phase, a polarization state and a spatial distribution of the light field; the effect parameter information comprising an amplitude, a phase, a frequency and a polarization state; the generating of the plastic wave matrix according to the plastic wave element and the light field regulation parameter comprises: regulating intensity distribution, phase distribution and polarization state of a plurality of plastic wave elements according to the light field regulation parameter; superimposing electromagnetic waves of the plurality of plastic wave elements to obtain a target light field, the plurality of plastic wave elements composing the plastic wave matrix.

2. The method of claim 1, wherein, the performing of the analysis and classification on the to-be-tested picture to obtain the effect parameter information comprises: performing nonlinear superposition on the to-be-tested picture to obtain a nonlinear picture and performing linear superposition on the to-be-tested picture to obtain a linear picture; performing interference, diffraction and scattering processing on the nonlinear picture and the linear picture to obtain the effect parameter information.

3. The method of claim 1, wherein, the performing of the aggregation on the plastic wave matrix according to the light field regulation parameter to obtain the focusing parameter comprises: setting one light ray in the plastic wave matrix as an absolutely parallel energy light according to the light field regulation parameter; and / or regulating corresponding brightness and constraint energy degree of a whole light ray set according to the light field regulation parameter, so as to perform range or shape focusing projection of the whole light ray according to an attention attracting point.

4. The method of claim 1, wherein, the setting of the plastic wave element according to the focusing parameter to obtain the image picture of the regional light effect comprises: determining a plurality of focusing parameters according to a plurality of to-be-tested pictures; generating the image picture of the regional light effect by adjusting the plurality of focusing parameters and parameters of the plastic wave element; each frame of the image picture comprises different regional light effects.

5. A device for distributed imaging based on the superposition of plastic electromagnetic wave light fields, characterized in that, The device comprises: an acquisition module configured to acquire a to-be-tested picture; a first processing module configured to perform analysis and classification on the to-be-tested picture to obtain effect parameter information, the effect parameter information comprising electromagnetic characteristics and interference factors; a second processing module configured to determine a plastic wave element and a light field regulation parameter according to the effect parameter information; a third processing module configured to generate a plastic wave matrix according to the plastic wave element and the light field regulation parameter, the plastic wave matrix being an electromagnetic matrix composed of a plurality of plastic wave elements and used for generating a light field; a fourth processing module configured to perform aggregation on the plastic wave matrix according to the light field regulation parameter to obtain a focusing parameter, the focusing parameter being a position, a focal length and a spot size of a focal point. The fifth processing module is configured to set the plastic wave element according to the focusing parameter to obtain a picture corresponding to a regional light effect. The plastic wave element comprises a light emitting source, a lens, and a grating for processing light. The light field regulation parameter comprises an amplitude, a phase, a polarization state, and a spatial distribution of the light field. The effect parameter information comprises an amplitude, a phase, a frequency, and a polarization state. The plastic wave matrix is generated according to the plastic wave element and the light field regulation parameter, comprising: The intensity distribution, the phase distribution, and the polarization state of the plurality of plastic wave elements are regulated according to the light field regulation parameter. The target light field is obtained by superimposing electromagnetic waves of the plurality of plastic wave elements, and the plurality of plastic wave elements form the plastic wave matrix.

6. The apparatus of claim 5, wherein, The focusing parameter is obtained by aggregating the plastic wave matrix according to the light field regulation parameter, comprising: According to the light field regulation parameter, one of the light rays in the plastic wave matrix is set as an absolute parallel energy light; and / or, The entire light rays in the plastic wave matrix are regarded as an attention attracting point, and the corresponding brightness and the constraint energy degree of the entire light ray cluster are adjusted according to the light field regulation parameter, so as to focus and project the entire light rays according to the range or shape of the attention attracting point.

7. The apparatus of claim 5, wherein, The image picture of the regional light effect is obtained by setting the plastic wave element according to the focusing parameter, comprising: A plurality of focusing parameters are determined according to a plurality of test images. The image picture of the regional light effect is generated by adjusting the plurality of focusing parameters and the parameters of the plastic wave element. Each frame of the image picture comprises different regional light effects.

8. The apparatus of claim 5, wherein, The effect parameter information is obtained by analyzing and classifying the test picture, comprising: The test picture is subjected to nonlinear superposition to obtain a nonlinear picture, and linear superposition to obtain a linear picture. The nonlinear picture and the linear picture are subjected to interference, diffraction, and scattering processing to obtain the effect parameter information.

9. A machine-readable storage medium having stored thereon instructions, the instructions being executable by a machine to cause the machine to perform operations comprising: The instruction, when executed by the processor, causes the processor to be configured to perform the method of claim 1 to 4 based on the plastic electromagnetic wave light field superposition distributed imaging.

Images