Periodic multi-dimensional stimulation general intelligence children supernormal education system and implementation method

Abstract

The invention discloses a periodic multi-dimensional stimulation general intelligence children supernormal education system and an implementation method thereof, which are characterized in that a'language-mathematics-thinking-psychology 'four-dimensional education model is constructed, and innovative means such as'pan-listening-follow-reading-finger-reading' stepped perception training, '2 + M + N' personalized progress management, 'Ebbinghaus-Feimann 'double-circulation memory strengthening and the like are adopted; the purpose that the primary graduation of general intelligent children reaches the excellent level of college entrance examination is achieved. 3025 teaching practices prove that the method can make 5-7-year-old children reach the seven-grade mathematics excellence level (65%) on the zero basis, 9-year-old students finish the middle school examination (80% scoring rate) accounting for 20%, 11-year-old students finish the college entrance examination excellence rate (80% scoring rate) reaching 30%, and psychological health and comprehensive development of comprehensive quality are kept.

Description

Technical Field

[0001] The present invention relates to the technical field of educational methods, and in particular to a periodic multi-dimensional stimulation system and implementation method for the education of gifted children with average intelligence. Background Art

[0002] One-way knowledge infusion through large-class courses, online courses, video courses, etc. leads to insufficient neural stimulation, long-term inhibition of the high-order thinking area of ​​the prefrontal lobe, and low knowledge absorption rate; the lack of a periodic reinforcement mechanism makes it difficult for neural synapses to form effective connections, resulting in the phenomenon of "learning without understanding, and forgetting as soon as learned"; ignoring the golden period of brain plasticity between the ages of 0 and 6, 98% of students are unable to easily manage learning, and passive listening only activates the basic language processing area.

[0003] Existing methods of gifted education mostly rely on high-intensity cram schools, which violate the "double reduction" policy and lead to damage to students' mental health; there is a lack of systematic plans for the development of the potential of children with average intelligence, and the lack of early mathematical and logical intelligence training, making it difficult to achieve the goal of reaching the college entrance examination level after graduating from elementary school.

[0004] The characteristics of the language sensitivity period of infants and young children are not fully utilized, and there is a lack of standardized implementation plans for multi-dimensional stimulation of Chinese, English, and mathematics; there is a lack of in-depth research on scientific learning mechanisms such as "decomposing ideas and connecting knowledge points" and "high-frequency recitation and internalization." Summary of the Invention

[0005] The purpose of the present invention is to provide a periodic multi-dimensional stimulation system and implementation method for the education of gifted children with general intelligence.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solutions: a periodic multi-dimensional stimulation system and implementation method for general intellectual and gifted children's education. This system targets infants and toddlers aged 0-3 during their sensitive period of auditory cortical development. It utilizes basic materials such as Chinese Pinyin initials and finals, English phoneme units (e.g., / b / / d / ), and basic number concepts (e.g., "1 apple"), using nursery rhymes and other forms that are tailored to infants' cognitive characteristics to provide extensive auditory stimulation. Sound intensity is controlled at 40-60 decibels (referring to the WHO infant hearing safety standards). Short, fragmented input (≤15 minutes per session) is delivered daily in the morning, afternoon, and evening to avoid auditory fatigue. Multimodal language input activates infants' auditory neural pathways, establishes a foundation for speech representation, and provides neuroplasticity support for subsequent language and mathematical symbol cognition, addressing the underutilization of the language sensitive period in traditional education.

[0007] Furthermore, for children aged 3-6 during their language boom, reading pen technology is used to achieve instant "sound-form-meaning" connections. Touching Chinese characters or English words in picture books triggers standard pronunciation, and visual reinforcement cards (such as Chinese character stroke diagrams and 3D models of English letters) are used. Daily training is limited to 30-40 minutes. A three-level progressive task of "listening and reading-following reading-retelling" is implemented, supplemented by an EEG feedback device to monitor attention. Multi-sensory synergy strengthens the mapping between sound and symbol, transcending the simple pronunciation function of traditional reading pens. Instead, a neural encoding network for language symbols is established, laying the cognitive foundation for independent reading and understanding mathematical symbols.

[0008] Furthermore, for children aged 6-9 who are in a period of mathematical logic sensitivity, a three-step training method, "problem decomposition → knowledge point connection → logical repetition," is employed. For example, in the seventh-grade math problem "Rational Number Addition and Subtraction," the following steps are implemented: ① The problem is broken down into three steps: "Symbol identification → Number axis location → Operation rule matching"; ② This is connected to the first-grade math problem "Number comparison"; ③ Students are required to orally recount their problem-solving thinking process. Socratic questioning is used to guide the learning process, with cognitive load testing administered three times a week. Through structured thinking training, mathematical cognitive frameworks are restructured, addressing the rote memorization problem inherent in traditional math education, activating higher-level cognitive functions in the prefrontal cortex, and establishing a thinking template for learning algebra and geometry in junior high school.

[0009] Furthermore, a "2+M+N" personalized progress model (M=2, representing a fixed daily increment, and N=a personalized baseline value) is adopted. Initial baselines are established using the CEFR language assessment system and the MAP math proficiency test, with dynamic weekly adjustments. Weekend experiential learning includes "math experiment days" (e.g., supermarket shopping budgeting) and "cultural exploration days" (e.g., museum tours), with AR immersive learning scenarios. This enables precise quantitative management of learning progress, addressing the "one-size-fits-all" approach in traditional education. Interdisciplinary practice deepens knowledge understanding and promotes the neuroplastic development of knowledge transfer.

[0010] Furthermore, a dual closed-loop system, "Ebbinghaus Forgetting Curve + Feynman Learning Method," was constructed. Daily morning reading (7:00-8:00 AM) provides new knowledge input, afternoon recitation (12:30-1:30 PM) uses shadowing to reinforce memory, and evening study (19:00-20:30 PM) involves mind mapping. Students are required to use the "Feynman Technique" to teach their parents key points, record videos, and assess their mastery through an AI-powered scoring system (which detects freezes and conceptual errors). Through multi-period memory reinforcement and active output verification, this approach addresses the short-term memory rigidity problem inherent in traditional education, boosting knowledge retention to over 90% and achieving long-term memory consolidation.

[0011] Furthermore, a three-tiered family WeChat group teaching system was developed: ① Basic Tier (7:00-8:30 AM) for morning reading check-ins and homework submission; ② Core Tier (8:00-21:30 PM) for real-time video Q&A; and ③ Extension Tier (weekends) for cloud-based research (such as virtual lab work). An intelligent supervisory robot automatically calculates learning time and generates a weekly "cognitive development radar chart." This system transcends time and space constraints to enable 24 / 7 immersive learning, addressing the lack of traditional family education supervision. Through data visualization, teaching strategies can be dynamically adjusted to improve learning behavior compliance.

[0012] Furthermore, a "five-step problem-solving method" training system for the finale question has been established: ① Breaking down the problem into its components (using color-coded known and unknown conditions); ② Constructing a knowledge point tree diagram; ③ Experimenting with multiple solutions (requires proposing at least two approaches); ④ Demonstrating the optimal path; and ⑤ Training on variations and expansion. Submitted videos must include a "blind spot revealing" segment, which will be evaluated by a team of experts across 20 indicators. This approach cultivates critical thinking and metacognitive skills, addresses the problem of problem-solving routines in traditional education, and promotes deep learning by exposing cognitive errors, thereby enhancing complex problem-solving skills.

[0013] Furthermore, a support system consisting of an "expert think tank + AI platform" was established: ① A team of 12 exceptional teachers formed a subject mentorship team to establish a knowledge point map database; ② A team of psychological counselors was deployed to provide learning motivation intervention; and ③ Brain-computer interface devices were introduced to monitor brainwave activity. The chief instructor held weekly "strategy review meetings" to adjust personalized education plans. Cross-disciplinary expert resources were integrated to form a synergistic educational force, addressing the fragmented teaching staff in traditional education. Real-time data-driven precision teaching was achieved, improving the efficiency of educational resource allocation.

[0014] Furthermore, a "dynamic and static alternation" biorhythm management plan has been developed: ① Use the Pomodoro Technique (25 minutes of focused focus + 5 minutes of meditation) during study time; ② Schedule physical activities (such as fencing / gymnastics) from 3:00 PM to 4:30 PM daily; ③ Conduct outdoor adventures (including orienteering / wilderness survival) on weekends. Heart rate variability (HRV) is monitored through wearable devices to dynamically adjust activity intensity. Maintaining stable cortisol levels addresses the mind-body imbalance inherent in traditional education, and through synergistic mind-body training, improves stress tolerance and sustained focus.

[0015] Furthermore, functional near-infrared spectroscopy (fNIRS) technology was introduced to establish a dynamic assessment model: ① Monthly brain activation pattern scans were performed, with a focus on monitoring the functional connectivity of the Broca / Wernicke areas; ② Machine learning algorithms were used to analyze learning behavior data (such as problem-solving speed and error types); ③ Personalized plasticity development reports were generated, and stimulation parameters (such as phoneme repetition frequency and math problem difficulty coefficient) were dynamically adjusted; this model broke through the lag problem of traditional educational assessment, optimized educational intervention plans through real-time neurofeedback, achieved truly precise education, and addressed the pain point of insufficient personalization of educational plans.

[0016] The advantages of the present invention are: through the "2+M+N" progress management (M=2 times / day) and the "Ebbinghaus-Feynman" double cycle, the time spent on unit knowledge absorption is only 1 / 5 of the traditional model; children aged 5-7 can directly achieve the excellent level of seventh-grade mathematics (65%) with zero foundation, and the excellent rate of 9-year-old students in the high school entrance examination (80% score rate) accounts for 20%.

[0017] Multi-dimensional perceptual stimulation (speech / text / symbols) for children aged 0-3 covers language / mathematics / spatial intelligence, promoting extensive neuronal connections; point-to-point mathematics training for children aged 6-9 combines the "decomposition-connection-retelling" method to activate mathematical and logical intelligence, laying the foundation for junior high school physics / chemistry learning.

[0018] The principle of "balance between movement and stillness" (focus on learning / relaxation through rest) is combined with the "555 Education Project" (5 days of subject training + 5 hours of practice + 5 hours of exploration) to eliminate psychological pressure; in high school, comprehensive quality training such as extracurricular reading / film and television / travel is still maintained to achieve the goal of "high scores and high energy".

[0019] Based on the fMRI brain science evaluation system, the stimulation parameters are dynamically adjusted to achieve "balance between movement and stillness" and "precise development of sensitive periods"; the "four-in-one" guidance system (class teacher + subject tutor + psychological supervisor + chief instructor) ensures the implementation of personalized teaching.

[0020] Children aged 3-9 complete the construction of the junior high school mathematics system, and the excellent rate of 11-year-old students in the college entrance examination (80% score rate) reaches 30%; after 3025 practical verifications, the efficiency is 95% and the excellent rate is 88%, and typical cases such as 13-year-old key university students and 16-year-old Tsinghua PhDs have been cultivated. DETAILED DESCRIPTION

[0021] Example 1: Multimodal language enlightenment for infants aged 0-3

[0022] Implementation steps: Extensive listening stimulation: During three periods every day from 7:00 to 7:30, 12:30 to 12:45, and 18:00 to 18:15, use 40-60 decibel Chinese pinyin nursery rhymes (such as "Initial and Final Exercises"), English natural spelling nursery rhymes (such as "Alphabet Song"), and number concept nursery rhymes (such as "Number Song") for extensive listening.

[0023] Point reading training: Introduce a reading pen after 3 months. Touch the picture of "apple" in the picture book to trigger the standard pronunciation, and simultaneously display the stroke decomposition animation of the Chinese character "apple". Train for 30 minutes every day.

[0024] Neurofeedback monitoring: Wear an EEG headband to monitor attention concentration. When the alpha wave (8-13Hz) accounts for more than 40%, the stimulation time is extended. If it is lower than that, the training is suspended.

[0025] Effect: Activates the neural connection between the auditory cortex and Broca's area of ​​infants. Experimental data show that the average vocabulary recognition rate of 6-month-old infants reached 32%, which was significantly higher than that of the traditional enlightenment group (P<0.05).

[0026] Example 2: Construction of language symbol system for children aged 3-6

[0027] Implementation steps: Graded reading: Use the graded reading material "Chen Xin Educational Collection". The first level (3 years old) is mainly based on single-word cards, the second level (4 years old) transitions to two-word phrases, and the third level (5 years old) learns simple sentence patterns.

[0028] Point and read along: Use a reading pen with vibration feedback to trigger a vibration prompt when the child's pronunciation deviates from the standard phonemes. Complete the "listen-point-follow-repeat" four-step training of 20 words every day.

[0029] Progress management: Adopt the "2+M+N" model (M=2), with an initial level of N=10 vocabulary words, adding 2 new words daily, and conducting supermarket product label reading practice on weekends.

[0030] Function: Establishes accurate mapping between sound and symbols, and helps six-year-old children recognize an average of 1,200 words, completing the coverage of Chinese characters for first-grade primary school students (the Ministry of Education standard is 900 words).

[0031] Example 3: Mathematical thinking training for children aged 6-9

[0032] Implementation steps: Knowledge point connection: Break down the seventh-grade "Rational Number Addition and Subtraction" into three steps: "symbol recognition → number axis positioning → operation rule matching", and use counting rods and counters for concrete demonstration.

[0033] Cognitive load test: The n-back task was used to assess working memory capacity. When the accuracy rate was greater than 85%, the participants were advanced to two-dimensional number line training involving negative number operations.

[0034] Double-loop reinforcement: Recite the multiplication table during morning reading (7:00-7:30), shadow-read mathematical concepts during noon recitation (12:30-13:00), and draw mind maps during night study (19:00-20:00).

[0035] Effect: Six-year-old children completed a seventh-grade math unit test with an average score of 82 points (out of 100), and fMRI of the brain showed a significant increase in gray matter density in the parietal cortex.

[0036] Example 4: Collaborative Development of Deep Thinking and Mental Health for Children Aged 9-12

[0037] Implementation steps: Training on the final question: Using the "dismantling-connection-verification" method, taking the final question of the 2022 High School Entrance Examination in Mathematics as an example, decompose it into three modules: "geometric model identification → functional relationship establishment → maximum value solution", and require recording a 10-minute explanation video.

[0038] Balance management between movement and stillness: Implement the "555 Education Project", with 5 hours of subject training every day from Monday to Friday (including 2 hours of family WeChat group interaction), and 5 hours of social practice (such as planetarium observation) and 5 hours of free exploration (such as programming creation) on weekends.

[0039] Neuroplasticity monitoring: fNIRS brain activation testing was performed quarterly, and the intensity of language training was adjusted according to the connection strength between Broca's area and the middle temporal gyrus. The growth rate of hippocampal volume was 23% faster than that of the control group.

[0040] Effect: The average score of 11-year-old students in completing the high school entrance examination mathematics paper was 108 points (out of 120), and their scores on the Anxiety and Depression Scale (SDS) were significantly lower than those of their peers (p<0.01).

[0041] Example 5: Construction of a Home-School Collaborative Education Ecosystem

[0042] Implementation architecture:

[0043] Four-level guidance system:

[0044] Chief Instructor (Chen Maobin): Develop personalized education plans every quarter

[0045] Subject tutors (20-person team): Daily video Q&A sessions

[0046] Psychological supervision (certified psychological counselor): weekly learning motivation interviews

[0047] Class teacher (AI system): real-time monitoring of learning behavior data

[0048] Intelligent Inspector System:

[0049] Wearable devices monitor daily focus time (target ≥ 4 hours)

[0050] AR immersive classroom enables virtual laboratory operations

[0051] Generate a weekly "cognitive development radar chart" (including 6 dimensions such as language / mathematics / social)

[0052] Implementation effect: The knowledge retention rate of children participating in family WeChat group teaching increased by 47% compared with the traditional online class model, and the parent-child relationship harmony score (Gottman Institute standard) reached 89 points (out of 100).

[0053] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. A periodic multi-dimensional stimulation system and implementation method for the education of gifted children, characterized by: For children aged 0-3, extensive listening stimulation of Chinese pinyin / English phonemes / number concepts is used, with the sound intensity controlled at 40-60 decibels, and short-term fragmented input is carried out three times a day.

2. The periodic multi-dimensional stimulation system and implementation method for the education of gifted children of ordinary intelligence according to claim 1, characterized in that: Children aged 3-6 years old use a reading pen to assist in follow-up reading training and establish voice-text association. The daily training time should not exceed 40 minutes.

3. The periodic multi-dimensional stimulation system and implementation method for the education of gifted children of ordinary intelligence according to claim 2, characterized in that: Children aged 6-9 are trained to connect their math foundation directly to seventh-grade knowledge points using the three-step method of "decomposition-connection-repetition".

4. The periodic multi-dimensional stimulation system and implementation method for the education of gifted children of ordinary intelligence according to claim 3, characterized in that: Implement "2+M+N" progress management, where M is the number of daily increments (M=2), N is the current level, and experiential learning is conducted on weekends.

5. The periodic multi-dimensional stimulation system and implementation method for the education of gifted children of ordinary intelligence according to claim 4, characterized in that: Establish the "Ebbinghaus-Feynman" dual-loop memory reinforcement mechanism, and conduct three rounds of memory training every day (morning reading / noon recitation / night practice).

6. The periodic multi-dimensional stimulation system and implementation method for the education of gifted children of ordinary intelligence according to claim 5, characterized in that: Develop a "family WeChat group" teaching model, with an average of 2 hours of interaction per day and 15 hours of in-depth training per week.

7. The periodic multi-dimensional stimulation system and implementation method for the education of gifted children of ordinary intelligence according to claim 6, characterized in that: The three-step method of "dismantling-docking-verification" is used for training on the final question, and students are required to record problem-solving videos and submit Feynman learning reports.

8. The periodic multi-dimensional stimulation system and implementation method for the education of gifted children of ordinary intelligence according to claim 7, characterized in that: Build a "four-in-one" guidance system: class teacher coordination + subject tutor assignment + psychological supervision + chief instructor strategic guidance.

9. The periodic multi-dimensional stimulation system and implementation method for the education of gifted children of ordinary intelligence according to claim 8, characterized in that: Develop the educational principle of "balance between movement and stillness", highly focus on learning, fully relax during rest, and implement the "555 Education Project".

10. The periodic multi-dimensional stimulation system and implementation method for the education of gifted children of ordinary intelligence according to claim 9, characterized in that: Establish a brain science evaluation system, monitor changes in brain plasticity through fMRI, and dynamically adjust stimulation parameters.