A spatiotemporal field construction intelligent agent based on external field programming and an information processing method

Abstract

The application discloses a kind of space-time field configuration intelligent agent and information processing method based on external field programming, belong to intelligent computing and physical field regulation technical field.The application discards traditional solid-state computing hardware paradigm, and realizes the intelligent space, software definition and unlimited reconfiguration by programmable external physical field in intelligent field medium dynamically constructs "space-time field configuration as computing ontology.Combined with high-dimensional scheduling protocol, concurrent, conflict-free processing of information in space-time dimension can be efficiently completed.The intelligent agent has the characteristics of flexible variable function, open performance boundary, endogenous security, etc., which provides a new infrastructure paradigm for breaking through the computing power bottleneck in the post-moore era.

Description

Technical Field

[0001] This invention belongs to the fields of intelligent computing, physical field control and information processing technology. Specifically, it relates to an intelligent agent and its method that utilizes a programmable external physical field to dynamically construct and manipulate spatiotemporal structures in an intelligent field medium, thereby realizing information processing, storage and transmission. Background Technology

[0002] Currently, traditional computing technologies centered on specific physical structures (such as transistors and optical waveguides) have their information processing capabilities fixed within rigid carriers and fixed architectures, leading to three fundamental limitations: 1) Once manufactured, the computing architecture cannot be changed, lacking dynamic adaptability; 2) The physical characteristics of the carrier itself (such as quantum tunneling, heat dissipation, and crosstalk) constitute the ultimate bottleneck for continuous performance improvement; 3) The separation of computing units, storage units, and interconnection units prevents the natural diffusion, dynamic reconstruction, and intrinsic evolution of intelligence in space. Therefore, the industry urgently needs a revolutionary technological paradigm that can completely break free from the constraints of fixed physical carriers, achieve deep integration of intelligent entities and information space, be software-defined, and possess endogenous evolutionary capabilities. Summary of the Invention

[0003] This invention aims to overturn the old paradigm of "physical carrier computing" and establish a new paradigm of "field-structured spatial intelligence." Its core lies in: abandoning all fixed computing, storage, and interconnection hardware units, and globally programming the intelligent field medium through a programmable external physical field, dynamically "carving" within it a "spatiotemporal field structure" that carries, stores, processes, and routes information; and achieving autonomous, concurrent, and conflict-free intelligent processing of information in the spatiotemporal dimension through a high-dimensional scheduling protocol.

[0004] 1. Spatiotemporal field constructs intelligent agents This intelligent agent is the ontological existence of intelligence in physical space, characterized by including: Intelligent field medium: a continuous or quasi-continuous medium whose macroscopic physical properties (such as refractive index, polar susceptibility, and magnetic susceptibility) can be controlled by an external physical field to undergo expected nonlinear changes.

[0005] External field programmer: Spatially coupled to the intelligent field medium, used to generate a programmable external physical field (such as a gradient magnetic field or structured light field) with a specific spatiotemporal distribution according to software instructions. This field acts directly on the medium as a "programming tool".

[0006] Scheduling controller: Used to allocate mutually orthogonal spatiotemporal resource channels in the resource pool formed by the intelligent field medium for concurrent input multi-channel information streams or heterogeneous computing tasks.

[0007] 2. Information Processing Methods This method is the implementation logic of intelligent agent functions, characterized by the following steps: Spatial configuration programming: By applying a programming field with a specific spatial distribution through the external field programmer, an initial spatiotemporal field structure that meets the requirements of the current task is induced to form in the intelligent field medium. This field structure itself integrates information carrier, processor, and memory.

[0008] Spatiotemporal resource scheduling: By running a high-dimensional scheduling protocol (e.g., combining time division, wavelength division, and space division multiplexing) through the scheduling controller, different tasks are assigned their independent "tracks" in the spatiotemporal field, ensuring global parallelism without conflict.

[0009] Dynamic Reconstruction and Adaptation: In response to changes in the task scenario or environment, the programming field mode is changed by driving the field programmer through software instructions. This allows the spatiotemporal field structure to be dynamically and continuously reconstructed from its current topology and function to another target topology and function within milliseconds, enabling the agent to self-optimize and switch functions. Detailed Implementation

[0010] 1. Dielectric preparation: Select functional materials with high responsiveness and low loss to the target external field (such as cerium-doped yttrium iron garnet single crystal for magneto-optical modulation, and lithium niobate for electro-optical modulation), and process them into the required shapes (such as spheres, thin films, and three-dimensional waveguide structures) to optimize field coupling efficiency and functional density.

[0011] 2. Programmer integration: High-density, independently addressable field source arrays (such as micro superconducting coil arrays and optical phased arrays) are integrated on the surface, inside or adjacent to the package using micro-nano fabrication processes.

[0012] 3. Field structure programming implementation: Connect the field source array to a high-speed digital control system (such as FPGA), and generate multi-channel control signals in real time by running the field structure synthesis algorithm. Drive the array to generate a dynamically changing two-dimensional or three-dimensional programmable field, and accurately "carve" the target spatiotemporal field structure in the medium.

[0013] 4. Information injection and extraction: Integrate micro transducers (such as grating couplers or superconducting quantum interference devices) at specific locations in the medium to inject electronic or optical information into a form that can directly interact with the spacetime field structure (such as photons with specific polarization and orbital angular momentum) and simultaneously receive and decode the response signal after the field structure is processed.

[0014] Beneficial effects of the present invention 1. Paradigm revolution: It has achieved a fundamental leap from “designing and manufacturing hardware” to “programming and building intelligence”. For the first time, intelligence has become an inherent attribute of space in the form of “field structure” rather than an external device.

[0015] 2. Unlimited and reconfigurable functionality: The same physical hardware can be reprogrammed through software and switched to any computing architecture such as CPU, GPU, memory or dedicated accelerator within microseconds, achieving true "one-stop shop" and elastic computing power.

[0016] 3. Open performance boundaries: The theoretical performance limit is only limited by fundamental physical laws (such as material response speed and field control accuracy) and algorithms, completely breaking free from the physical constraints of semiconductor process technology and the end of Moore's Law.

[0017] 4. Intrinsic security and high robustness: The dynamic, distributed nature and software-defined nature of spatiotemporal field structures give them the inherent potential to resist local damage, resist side-channel attacks, and rapidly reconstruct faults.

[0018] 5. Strategic positioning: This invention defines the underlying paradigm of next-generation general-purpose intelligent computing, possessing foundational and monopolistic potential, and can form a strong patent barrier and ecosystem around "field-structured spatial intelligence". Attached Figure Description

[0019] Figure 1 The schematic diagram of the overall architecture of the spatiotemporal field-structured intelligent agent shows the overall structure and coupling relationship of the magneto-optical medium substrate (intelligent field medium), the programmable coil array (outer field programmer), and the virtual optical path inside the medium.

[0020] Figure 2 The diagram illustrates the principle of the formation of a spacetime field structure induced by external field programming. It shows how the magnetic field gradient distribution induces a refractive index gradient region in a medium, thereby forming a virtual optical waveguide (spacetime field structure).

[0021] Figure 3 A schematic diagram of information spatiotemporal routing based on a high-dimensional scheduling protocol. It shows the process of parallel and conflict-free transmission and processing of multiple information streams in a shared spatiotemporal field through time-division multiplexing in the form of a time sequence diagram.

Claims

1. A spatiotemporal field construct agent, characterized in that, include: Intelligent field medium; external field programmer for applying a programmable external physical field to the intelligent field medium; A scheduling controller is used to allocate spatiotemporal resources for information processing tasks; wherein, the programmable external physical field dynamically constructs a spatiotemporal field structure for carrying and processing information within the intelligent field medium, and the scheduling controller ensures that multiple tasks run in parallel without conflict within the spatiotemporal field structure.

2. The agent of claim 1, wherein, The intelligent field medium is a magneto-optical material, an electro-optical material, an acousto-optical material, or a composite material thereof.

3. The agent of claim 1, wherein, The programmable external physical field generated by the external field programmer is at least one of magnetic field, light field, electric field, and sound field, and its spatial distribution can be dynamically adjusted in real time.

4. The agent of claim 1, wherein, The scheduling controller uses time-division multiplexing, frequency-division multiplexing, space-division multiplexing, or a combination thereof to schedule spatiotemporal resources.

5. A method for information processing based on the agent constructed according to any one of claims 1-4, characterized in that, Including the following steps: The external physical field of the first programming mode is applied by the external field programmer to form a first spatiotemporal field structure in the intelligent field medium to process the first type of information task; In response to a task change, the external physical field of the second programming mode is applied through the external field programmer to dynamically reconstruct the first spatiotemporal field structure into the second spatiotemporal field structure in order to process the second type of information task; The scheduling controller allocates non-interfering spatiotemporal channels for the first and second types of information tasks throughout the entire process.

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