A cognitive remodelling system based on cross-modal synaesthesia

Abstract

The application relates to an image implantation and cognitive remodeling system based on cross-modal synesthesia, and belongs to the technical field of cognitive neuroscience and language teaching. The application solves the defects of traditional cognitive remodeling schemes, such as dependence on logical defense, single sensory channel, lack of identity anchoring, and difficulty in long-term maintenance of intervention effect. The technical scheme is as follows: the system collects user voice, and a processor identifies individual restrictive beliefs and negative self-image; for the negative self-image, a positive sensory script containing visual, auditory, tactile and other multi-modal elements is called, the user is guided to immerse in the experience to form new neural connections, replace the original negative image, and then the effect is consolidated through situation generalization and behavior anchoring, so that the user reconstructs a positive life narrative and adapts to the corresponding living environment. The system can also build a cross-symbol translation image library to realize cognitive translation between different symbol systems, eliminate group cognitive barriers, and be used for improving negative psychology such as traumatic memory and learned helplessness, and remodeling individual core beliefs and second language pronunciation personality.

Description

Technical Field

[0001] This invention belongs to the fields of cognitive neuroscience, psychology and language teaching technology. Specifically, it relates to a system that utilizes cross-modal synesthesia to reshape an individual's internal cognition, emotional memory and language personality by constructing and implanting multi-sensory images. Background Technology

[0002] Traditional methods of cognitive restructuring and psychological healing have the following limitations: 1. Reliance on explicit logic and verbal defenses: Traditional talk therapy (such as CBT) relies on individuals to identify and refute irrational beliefs through logical introspection. However, traumatic memories and limiting beliefs rooted in the unconscious are often enveloped and protected by highly developed verbal defenses. Individuals can skillfully "talk" about trauma, but they cannot touch or modify the core of the traumatic experience—the pre-linguistic "image gap" composed of sensory fragments and bodily sensations. 2. Limited Sensory Activation and Insufficient Emotional Activation: Current technologies largely rely on verbal communication, failing to effectively activate the multimodal sensory network—including visual, auditory, and tactile senses—closely linked to traumatic memories. Therefore, it is difficult to allow individuals to re-enter the "frozen" traumatic scene in a safe environment, achieving genuine emotional release and cognitive reconstruction. 3. Lack of identity anchoring and narrative reconstruction makes change difficult to sustain: Existing methods mostly focus on "correcting erroneous perceptions" rather than "constructing a new self." This fails to provide individuals with a powerful and desirable new identity image, nor can it help them reweave their fragmented life stories. Therefore, the motivation for change is insufficient, and individuals are prone to reverting to old, familiar patterns under pressure. 4. Insurmountable Barriers of Symbolic Systems: At a broader societal level, groups from different social classes, cultural backgrounds, and survival logics construct drastically different symbolic systems due to differences in cognitive frameworks and value rankings. These systems are like mutually incomprehensible codes, leading to a systemic cognitive barrier and comprehension gap where groups cannot understand each other's narratives and psychological motivations. Current technology is completely unable to solve this problem of translating codes across symbolic systems. Therefore, there is an urgent need for a system that can bypass verbal defenses, reach the subconscious, and efficiently reshape traumatic memories, reconstruct self-narratives, and limiting beliefs through multi-sensory imagery implantation. Furthermore, there is an urgent need for a universal technological system capable of translating codes across different symbolic systems to bridge the cognitive divide in society. Summary of the Invention

[0003] The technical problem to be solved by this invention is to provide a system that can bypass an individual's logical defenses, directly act on the subconscious, and construct and implant multi-sensory images through cross-modal synesthesia to achieve cognitive reshaping, self-narrative reconstruction, emotional memory modification, and language personality internalization. To solve the above problems, the technical solution of the present invention is: 1. A system for image implantation and cognitive reshaping based on cross-modal synesthesia, characterized in that it comprises: A user terminal includes at least one voice acquisition device, one audio output device, and one display device; A server communicatively connected to the user terminal, the server including a processor and a memory storing a multimodal sensory image database; The processor is configured to perform the following steps: S1 Targeted Cognitive Diagnosis and Image Gap Identification Steps: Collect voice data of the target individual’s self-description, self-image description, relationship description or traumatic memory description through the voice acquisition device, perform semantic and sentiment analysis on the voice data, identify the limiting beliefs, negative self roles or traumatic memory nodes, and locate the targeted internal images that need to be corrected or reconstructed. S2 Cross-modal image anchoring and construction steps: For the target internal image, combined with the target individual's personal experience and cultural background, a brand-new positive sensory script data package that is functionally contradictory to the target internal image is retrieved or generated from the multimodal sensory image database; the positive sensory script data package contains at least three cross-modal elements from visual image data, sound text data, tactile feedback instructions, olfactory signal triggering instructions, and emotional atmosphere rendering data, forming a self-consistent complete image unit that can be embodied by the senses through the user terminal; S3 Guided Synesthetic Internalization and Implantation Steps: The processor generates guiding instructions, and through the audio output device and the display device, the target individual, in a relaxed or focused state, experiences the positive sensory script data package in a multi-sensory, first-person immersive experience to establish a new neural connection between the target internal image and the positive sensory script, replacing or covering the original limiting beliefs, negative self-roles, or traumatic memory nodes. S4 Contextual Generalization and Behavioral Anchoring Steps: The processor generates a simulated contextual task containing the positive sensory script data package and presents it through the user terminal to guide the target individual to perform behaviors consistent with the new cognition in the context. The user's feedback data is collected through the voice acquisition device and / or camera device to evaluate and consolidate the new neural connection, thereby achieving generalization from internal imagery to external behavior. S5 Self-Narrative Reconstruction and Identity Anchoring Steps: The processor generates narrative reconstruction guidance instructions and guides the target individual through the user terminal to integrate the new experiences in S3 and S4 with their personal life history, rearrange their life storyline, and replace the old, negative self-narrative with a coherent, meaningful, and positive life narrative centered on the new identity image, so as to complete identity anchoring. S6 Environment Matching and Creative Behavior Driving Steps: The processor generates environment matching suggestion data based on the new identity image established in S5, and outputs it through the user terminal. Based on the new identity image established in S5, the target individual is guided to identify and actively select, modify, or create a physical and social environment that matches their new identity image, so as to form a complete closed loop from internal image to external reality. The environment matching includes, but is not limited to: adjusting the layout of personal space, selecting and maintaining social relationships that conform to the new identity image, and engaging in occupations or creative activities that are consistent with the new identity image. The core principle of this invention lies in driving fundamental changes in reality through image implantation. Furthermore, the image implantation technology upon which this invention is based is essentially a universal "cross-symbolic system code translation technology." When individuals from different social classes and cultural backgrounds cannot understand each other's narrative content and psychological motivations due to differences in survival logic and cognitive frameworks, this system can break down cognitive barriers by constructing a sensory script for one party, allowing them to immerse themselves in the other's symbolic system, thereby achieving accurate translation and understanding of cross-system narrative content. 2. The system according to claim 1, characterized in that the targeted internal imagery identified in S1 can be applied to at least one of the following areas: modifying traumatic memories, reshaping self-role in intimate relationships, rebuilding personal core values, reshaping pronunciation personality in second language learning, and rebuilding learned helplessness caused by repetitive frustration experiences. By reshaping an individual's attribution patterns and self-efficacy, it enables them to recover from the helpless belief that "no matter how hard I try, I can't change the outcome," and rebuild confidence and hope for themselves and the future. 3. The system according to claim 1, wherein the positive sensory script constructed in S2 includes visual image anchors corresponding one-to-one with specific speech phonemes; in the application of second language speech internalization, the image and tactile sensation of the visual image anchors are designed to directly trigger the correct pronunciation physiological action of the phoneme. 4. The system according to claim 3, wherein step S3 further comprises: the processor concatenating the multiple visual image anchor point data corresponding one-to-one with the phonemes into a coherent and plot-rich dynamic narrative script data package, so that learners can naturally and coherently output the multiple target phonemes while immersing themselves in the narrative script data package through the user terminal. 5. The system according to claim 1, wherein the acquisition method in S1 further includes recording the body posture and facial micro-expressions of the target individual through a camera device, and recording its speech acoustic features through the speech acquisition device, as a basis for cross-modal recognition of the target's internal imagery. 6. The system according to claim 1, characterized in that, after step S4, it further includes: evaluating the consolidation degree of the new neural connection and the effect of the cognitive remodeling through physiological indicator acquisition devices such as electroencephalogram acquisition devices and heart rate monitoring devices, or through periodic psychological scales and self-reports output by the user terminal. 7. The system according to claim 1, wherein in the S5 self-narrative reconstruction and identity anchoring step, the processor generates guidance instructions to guide the individual through the user terminal to integrate the implanted new image with their personal life history, reinterpret the meaning of key life events, and form a self-consistent life story consistent with the new identity image. 8. The system according to claim 1, characterized in that, in the S6 environment matching and creative behavior driving step, the processor generates environment matching suggestion data based on the new identity image established in S5, and guides the individual to actively identify and modify their physical and social environment through the user terminal, so that the external reality becomes the physical extension and continuous reinforcement source of the internal image, and evaluates the impact of the environment reshaping on the degree of consolidation of the new neural connection through physiological indicators such as EEG and heart rate variability. Attached Figure Description

[0004] This invention belongs to the category of method invention patents and does not require accompanying drawings in the specification. Detailed Implementation

[0005] To make the objectives, technical solutions, and advantages of the present invention clearer, the present invention will be further described in detail below with reference to specific embodiments. Example 1: Cognitive reshaping and self-narrative reconstruction of post-traumatic limiting beliefs using the system of this invention. This embodiment demonstrates how the system of the present invention can be used to cognitively reshape an individual who has developed a core negative self-image of "I am not chosen / I will be abandoned" due to a major loss in early childhood, and help them reconstruct a completely new self-narrative. S1 Targeted Cognitive Diagnosis and Imagery Gap Identification: The system collects an individual's self-description and early memories through the user terminal's voice acquisition device. The individual's self-narration: "My mother died in childbirth, and my father chose to save me. From a young age, I felt like a sinner, that my existence was bought with my mother's death. In every close relationship that followed, I felt that the other person would eventually leave me. So, I would either mess it up or leave first, so that I wouldn't be the one abandoned." The processor performs semantic and sentiment analysis on the collected voice data, identifying the individual's targeted internal image as: a recurring image of an abandoned infant in cold loneliness, accompanied by intense guilt and a sense of worthlessness. The core self-narrative is: "I am a sinner, I don't deserve to be loved, I am destined to be abandoned." S2 Cross-modal Image Anchoring and Construction: Targeting the image of "the abandoned sinner," the processor retrieves and generates a novel, functionally exclusive, positive sensory script data package from the multimodal sensory image database. Visual image data: "In a warm, bright space surrounded by soft clouds, a baby sleeps peacefully. He is not abandoned; he is entrusted with a solemn responsibility. His mother did not die because of him, but rather poured all her life force and love into him like light before leaving. Her departure was the greatest delivery." Audio text data: "Listen, that's not crying, but a mother's whisper in your ear, gently and firmly repeating: 'You are the child I chose. Live on, with my love, to see the world I have never seen.'" Tactile feedback command: "Feel the softness of the clouds, like a mother's hand, steadily and warmly supporting your entire body. This support will never fail you." S3 Guided Synesthetic Internalization and Implantation Steps: The processor generates guiding instructions and outputs them through the audio output device and the display device. The guiding instructions include prompts guiding the individual to close their eyes, take deep breaths, and enter a relaxed state. Using a slow, steady tone, the individual is guided to "enter" the sensory script data package constructed in S2 in the first person, to "see" the baby enveloped in light, "hear" the whisper, and "feel" the unwavering support. During the experience, the individual is guided to repeatedly confirm: "I am chosen, I am entrusted, my life carries love and mission." S4 Contextual Generalization and Behavioral Anchoring Steps: The processor continuously monitors the individual's physiological indicators. In subsequent daily life, when the processor detects that the individual experiences physiological arousal related to the fear of "abandonment" again through the physiological indicator acquisition device, the processor automatically triggers the image data packet of the "baby in light" through the user terminal and outputs the tactile feedback device the sensation of being "lifted," thereby overriding the old anxiety response. The processor also generates and pushes behavioral tasks that are the opposite of the old pattern, such as actively expressing dependence instead of escaping. S5 Self-Narrative Reconstruction and Identity Anchoring Steps: The processor generates narrative reconstruction guidance instructions and guides the individual through the user terminal to integrate the aforementioned new experiences with their personal life history. This helps them reinterpret their life story: "My mother's departure was not abandonment, but rather she bestowed upon me the heaviest love and mission with her own life. I am not a sinner; I am the continuation of her life, the lucky one she chose to see this world for her. Every relationship I had in the past was a wrong attempt to seek this unconditional love that had already been given. Now, I have found it, within myself. From now on, I am not the abandoned one; I am the chosen one, coming with a mission." This completes the thorough transformation from the old narrative to the new narrative and anchors their new, powerful self-identity. This invention's system is specifically optimized for individuals with highly verbal defenses and narcissistic identity structures. These individuals tend to perceive their trauma as "abandonment / betrayal," constructing their self-narrative around this core and forming a robust "victim-judge" cycle. This system, through the implantation of multimodal imagery in S2-S3, bypasses their verbal defenses, directly modifying their core traumatic imagery. Furthermore, through the reconstructed narrative in S5, it guides them to fundamentally shift from a "victim" identity to a "survivor / chosen one." This application overcomes the limitations of traditional talk therapy in addressing the core trauma of such individuals. The core principle of this invention lies in using imagery implantation to drive fundamental changes in reality. Unlike traditional cognitive behavioral therapy, which only stays at the psychological level, this invention, through S6 steps, forcibly extends the reshaping of internal imagery into the individual's external physical and social environment. This technical solution, based on the neuroscience principles of embodied cognition and predictive coding, achieves a leap from "changing thoughts" to "changing the world." It is the first to propose and implement a complete technical closed loop: first, through imagery implantation, an identity coup is completed in the inner world; then, through behavioral driving, this new identity is built brick by brick in physical reality. S6 Environment Matching and Creative Behavior Driving Steps: The processor generates environment matching suggestion data based on the new identity image established in S5, and outputs it through the user terminal. Based on the new identity image established in S5, it guides the target individual to identify and actively select, modify, or create a physical and social environment that matches their new identity image, so as to form a complete closed loop from internal image to external reality. The environment matching includes, but is not limited to: adjusting the layout of personal space, selecting and maintaining social relationships that conform to the new identity image, and engaging in occupations or creative activities that are consistent with the new identity image. Example 2: Teaching English Phonetic Aesthetics and Phoneme Internalization Using the System of the Invention This embodiment demonstrates how to use the system of the present invention to solve the problems of Chinese English learners' "blind listening" and inaccurate pronunciation of the English long vowel / uː / . S1 Targeted cognitive diagnosis and imagery gap identification: The system collects the learner's voice sample through the voice collection device, and the processor performs acoustic feature analysis to diagnose that when the learner pronounces / uː / , the pronunciation position is forward, the lips are not tense enough, and the produced sound is similar to the Chinese "wu". Its "imagery gap" lies in the lack of internal perception of the "profound and distant sense represented by the long vowel / uː / ". S2 Cross-modal imagery anchoring and construction: The processor retrieves the positive sensory script data packet designed for the phoneme / uː / from the multimodal sensory imagery database. Visual imagery data: "Imagine you come to a deep and narrow canyon, with an echo at the canyon mouth"; Sound text data: "Face the deep part of the canyon, shout 'Woo——' with all your strength for a long time, the sound reverberates in the valley and spreads very far away"; Tactile somatosensory feedback instruction: "Tighten your lips forward forcefully, feeling as if they are being pulled gently forward by a thin thread. Your throat should be fully opened like a canyon, allowing your breath to rush out unobstructed like wind". S3 Guided synesthesia internalization and implantation step: The processor generates a guiding instruction, and outputs it to the learner through the audio output device and the display device. Use a steady, slow tone to guide the learner to close their eyes, take deep breaths, and relax their body. Then, use language to guide them to enter the sensory script data packet constructed in S2 for a first-person immersive experience, and guide them to naturally produce the long sound of / uː / during the experience. S4 Contextual generalization and behavior anchoring step: The processor puts / uː / into the short sentence "The goose is loose." and constructs a dynamic narrative script data packet: "Imagine that a fat big goose waddles out of the farm and no one can catch it. You point at it, smile triumphantly and shout: 'The goose is loose!'". The user terminal guides the learner to pronounce the sentence correctly while imagining this scenario, collects the user's voice through the voice collection device, generates pronunciation accuracy feedback, and completes the anchoring from internal imagery to external language behavior. Example 3: Teaching the internalization of second language vocabulary meaning using the system of the present invention This embodiment demonstrates how to use the system of the present invention to carry out meaning internalization teaching for the English words "violence" and "universe". Example A: violence / ˈvaɪələns / (violence) S1 Diagnosis: The processor analyzes the learner's learning data and finds that the learner's memory of the word stays at the Chinese translation "violence" and cannot form an intuitive perception. S2 Construction: The processor retrieves imagery data packages from the database, constructed from the core phonemes / vaɪ / , / l / , and / əns / , which are derived from word segmentation. / vaɪ / : A sense of impact, force, and shock. / l / : A sense of dragging, pulling, and entanglement. / əns / : A sense of action landing and result presentation. S3 Internalization: The processor guides the learner through the user terminal to connect the above phonemic images into a coherent picture: two forces violently collide (vaɪ), tearing and entangled with each other (l), ultimately forming an aggressive behavior (əns). This allows the learner to simultaneously visualize "violence" when hearing / ˈvaɪələns / , directly understanding the word's meaning. Example B: universe / ˈjuːnɪvɜːs / (universe) S1 Diagnosis: The processor analyzes the learner's learning data and finds that the learner's memory of the word remains at the level of an abstract concept and is unable to form a grand perception. S2 Construction: The processor retrieves an imagery data package from the database, constructed from the word roots / uni / and / vers / . / uni / : convergence, unity, and a sense of wholeness. / vers / : outward extension, rotation, and a sense of all-encompassingness. S3 Internalization: The processor guides learners to connect images through the user terminal: all things converge into a whole (uni), extending infinitely in all directions (vers), forming an all-encompassing space. This allows learners to automatically visualize a cosmic scene of "all things united, infinitely vast" when they hear / ˈjuːnɪvɜːs / , directly understanding the word's meaning. Example 4: Code translation and narrative reconstruction of cross-hierarchical symbol systems using the method of the present invention This embodiment demonstrates how to use the system of the present invention to overcome the symbolic system barriers formed between individuals from different social classes and cultural backgrounds due to differences in survival logic and cognitive frameworks, and to achieve accurate translation and understanding of cross-system narrative content. S1 Targeted Cognitive Diagnosis and Imagery Gap Identification: The processor collects voice data such as self-description, value judgments, and behavioral logic from target individual A (e.g., an individual from a specific social class) through the user terminal, and performs semantic and sentiment analysis to identify the systemic cognitive blind spots that exist in understanding the narrative content and psychological motivations of target individual B (e.g., an individual from another social class). The "imagery gap" lies in the lack of access to the symbolic system of B, making it impossible to understand B's narrative logic and emotional driving forces. S2 Cross-modal image anchoring and construction: To address the aforementioned symbolic system barriers, the processor retrieves a data package of a "cross-symbolic translation image library" from the multimodal sensory image database. The core of this image library is to transform the key survival logic, value ranking, and emotional patterns of B's ​​symbolic system into a concrete sensory script data package that A can understand, composed of visual images, audio text, tactile sensations, etc. S3 Guided Synesthetic Internalization and Implantation Steps: The processor generates guiding instructions, which, through the user terminal, enable the target individual A to experience the sensory script data package constructed for B in a relaxed state through multiple senses and in a first-person immersive experience, in order to establish a new neural connection between B's symbol system and A's own understanding framework, replacing the original understanding path constructed by prejudice or ignorance. S4 Contextual Generalization and Behavioral Anchoring Step: The processor generates a real or simulated contextual task data package related to the symbolic system in which B resides, and presents it through the user terminal to guide A in interpreting B's behavior and motivation using a newly established understanding framework in the new context, and to make a response that conforms to the logic of the system in which B resides, so as to consolidate the new neural connection. S5 Self-Narrative Reconstruction and Identity Anchoring Steps: The processor generates narrative reconstruction guidance instructions, which guide A through the user terminal to integrate the new experience with their original cognitive framework, reinterpret the narrative of their relationship with B, form a more complete and inclusive self-narrative and worldview, and complete the identity transformation from "not understanding" to "being able to empathize".

Claims

1. A system for image implantation and cognitive reshaping based on cross-modal synesthesia, characterized in that, include: A user terminal includes at least one voice acquisition device, one audio output device, and one display device; A server communicatively connected to the user terminal, the server including a processor and a memory storing a multimodal sensory image database; The processor is configured to perform the following steps: S1 Targeted Cognitive Diagnosis and Image Gap Identification Steps: The speech acquisition device collects speech data of the target individual's self-description, self-image description, relationship description, or traumatic memory description. Semantic and sentiment analysis is performed on the speech data to identify limiting beliefs, negative self-roles, or traumatic memory nodes, and to locate the targeted internal images that need to be corrected or reconstructed. This targeted cognitive diagnosis is particularly suitable for individuals with highly verbal defenses and narcissistic identity structures, correcting their limiting, fixed self-narratives. For example, their common limiting beliefs are often fixed as negative self-narratives such as "I am abandoned / I am a victim." S2 Cross-modal image anchoring and construction steps: For the target internal image, combined with the target individual's personal experience and cultural background, a brand-new positive sensory script data package that is functionally contradictory to the target internal image is retrieved or generated from the multimodal sensory image database; the positive sensory script data package contains at least three cross-modal elements from visual image data, sound text data, tactile feedback instructions, olfactory signal triggering instructions, and emotional atmosphere rendering data, forming a self-consistent complete image unit that can be embodied by the senses through the user terminal; S3 Guided Synesthetic Internalization and Implantation Steps: The processor generates guiding instructions, and through the audio output device and the display device, the target individual, in a relaxed or focused state, experiences the positive sensory script data package in a multi-sensory, first-person immersive experience to establish a new neural connection between the target internal image and the positive sensory script, replacing or covering the original limiting beliefs, negative self-roles, or traumatic memory nodes. S4 Contextual Generalization and Behavioral Anchoring Steps: The processor generates a simulated contextual task containing the positive sensory script data package and presents it through the user terminal to guide the target individual to perform behaviors consistent with the new cognition in the context. The user's feedback data is collected through the voice acquisition device and / or camera device to evaluate and consolidate the new neural connection, thereby achieving generalization from internal imagery to external behavior. S5 Self-Narrative Reconstruction and Identity Anchoring Steps: The processor generates narrative reconstruction guidance instructions and guides the target individual through the user terminal to integrate the new experiences in S3 and S4 with their personal life history, rearrange their life storyline, and replace the old, negative self-narrative with a coherent, meaningful, and positive life narrative centered on the new identity image, so as to complete identity anchoring. S6 Environment Matching and Creative Behavior-Driven Steps: The processor generates environment matching suggestion data based on the new identity image established in S5, and outputs it through the user terminal to guide the target individual to identify and actively select, modify or create a physical and social environment that matches their new identity image, so as to form a complete closed loop from internal image to external reality; the environment matching includes but is not limited to: adjusting the layout of personal space, selecting and maintaining social relationships that conform to the new identity image, and engaging in occupations or creative activities that are consistent with the new identity image.

2. The system according to claim 1, characterized in that, The targeted internal imagery identified in S1 can be applied to at least one of the following areas: modifying traumatic memories, reshaping one's self-role in intimate relationships, rebuilding one's core personal values, reshaping pronunciation personality in second language learning, and identifying and reconstructing negative core beliefs formed due to repetitive failures or persistent negative feedback, manifested as "no matter how hard I try, I can't change the outcome." Through steps S2-S5, the individual's attribution patterns and self-efficacy are reshaped, enabling them to recover from a state of helplessness to a psychological state of action and hope.

3. The system according to claim 1, characterized in that, The positive sensory script data package constructed in S2 contains visual imagery anchor point data that corresponds one-to-one with a specific speech phoneme. In the application of second language speech internalization, the visual imagery anchor point data and the tactile feedback instructions are designed to directly trigger the correct pronunciation physiological action of the phoneme.

4. The system according to claim 3, characterized in that, The S3 further includes: the processor concatenating the multiple visual image anchor point data corresponding one-to-one with the phonemes into a coherent and plot-rich dynamic narrative script data package, so that learners can naturally and coherently output the multiple target phonemes while immersing themselves in the narrative script data package through the user terminal.

5. The system according to claim 1, characterized in that, The acquisition method in S1 also includes recording the target individual's body posture and facial micro-expressions using a camera device, and recording its speech acoustic features using the speech acquisition device. This serves as the basis for cross-modal recognition of the target's internal imagery.

6. The system according to claim 1, characterized in that, The S4 section further includes: assessing the consolidation of the new neural connections and the effect of the cognitive remodeling through physiological indicator acquisition devices such as electroencephalogram (EEG) acquisition devices and heart rate monitoring devices, or through periodic psychological scales and self-reports output by the user terminal.

7. The system according to claim 1, characterized in that, In step S5, the processor generates guidance instructions to guide the individual through the user terminal to integrate the implanted new image with their personal life history, reinterpret the meaning of key life events, and form a self-consistent life story that is consistent with the new identity image.

8. The system according to claim 1, characterized in that, The execution of step S6, through the continuous monitoring and generation of environmental matching suggestion data by the processor, further consolidates the new identity image established in step S5, making the individual's external reality a physical extension and continuous source of reinforcement of their internal image.

9. The system according to claim 1, characterized in that, The system is also used to achieve code translation across symbolic systems: when there is a cognitive barrier between the target individual of the first symbolic system and the target individual of the second symbolic system, the processor constructs a sensory script data package corresponding to the second symbolic system for the target individual of the first symbolic system, and guides the user terminal to immerse themselves in the symbolic system of the second symbolic system, thereby breaking down the cognitive barrier and achieving accurate translation and understanding of cross-system narrative content.