TW201820314A - Method of mixing frequency following response evoked sounds with music to modulate neuronal networks associated with multiple intelligences in the brain serving as objective quantitative biological indicators and derivative products for neuronal responses in the brain - Google Patents

Method of mixing frequency following response evoked sounds with music to modulate neuronal networks associated with multiple intelligences in the brain serving as objective quantitative biological indicators and derivative products for neuronal responses in the brain Download PDF

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TW201820314A
TW201820314A TW105139059A TW105139059A TW201820314A TW 201820314 A TW201820314 A TW 201820314A TW 105139059 A TW105139059 A TW 105139059A TW 105139059 A TW105139059 A TW 105139059A TW 201820314 A TW201820314 A TW 201820314A
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TWI620173B (en
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許承兆
李信達
劉林榮
陳澂毅
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新視界教育顧問有限公司
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Abstract

The invention relates to a method of mixing frequency following response (FFR) evoked sounds with music to modulate neuronal networks associated with multiple intelligences in the brain that includes processes of sound wave mixture and magnetic resonance imaging combination. The method includes steps of performing synthesis and establishment of FFR sound waves, importing FFR sound waves into a music library, performing collection and analysis of magnetic resonance imaging data of cerebral nerve activity activated by introducing FFR sound waves into music, and establishing biological indicators for monitoring. In this way, the present invention can develop a method for introducing FFR sound waves into music, which can modulate neural circuits in the brain corresponding to eight major intelligences, by means of the establishment of FFR sound wave frequency, accompanied by the mixing method and music synthesis, and can be used as objective quantitative biological indicators and derivative products for neuronal responses in the brain corresponding to eight major intelligences in response to the stimulation and regulation of music introduction. The eight major intelligences include language intelligence, logic math intelligence, spatial intelligence, limb kinetic intelligence, music intelligence, interpersonal intelligence, introspective intelligence, and natural observation intelligence.

Description

可調節八大多元智能對應腦內不同神經迴路之FFR聲波(頻率 仿效反應聲波)導入音樂方法    Method for adjusting eight FMR sound waves corresponding to different neural circuits in the brain (frequency imitating response sound waves) into music method   

本發明涉及一種頻率仿效反應聲波導入音樂方法結合磁振造影資料建立可幫助調節大腦中對應八大多元智能之神經反應的客觀定量生物指標之技術領域,具體而言係指一種運用頻率仿效反應聲波的合成與建立,導入頻率仿效反應聲波進入音樂資料庫、頻率仿效反應聲波導入音樂引發大腦神經活動磁振造影資料之收集與分析、以及一建立監控生物指標之步驟。 The present invention relates to a technical field of frequency imitating response acoustic wave introduction music combined with magnetic resonance imaging data to establish an objective quantitative biological index that can help regulate the neural response corresponding to eight multiple intelligences in the brain, and in particular, it refers to a method of using frequency imitating response acoustic wave Synthesis and establishment, the introduction of frequency imitating response acoustic waves into the music database, the frequency imitating response acoustic waves leading to music, the collection and analysis of magnetic resonance imaging data of brain neural activity, and a step of establishing monitoring biological indicators.

按,過去證據與技術僅提供頭殼外腦電波與頻率仿效反應相對應之腦波頻率能量調節,本發明首次採用聲波混音結合磁振造影之方法提供腦內對應八大多元智能之不同神經迴路的調節。 According to the past, the evidence and technology only provided the brain wave frequency energy regulation corresponding to the brain wave outside the head shell and the frequency imitating response. For the first time, the invention adopts the method of sonic mixing and magnetic resonance imaging to provide different neural circuits in the brain corresponding to the eight multiple intelligent intelligences. The adjustment.

頻率仿效反應(Frequency Following Response/FFR)是指大腦神經元的活動頻率與外界刺激出現的頻率同步的一種生理現象。因此,我們能夠透過聽覺音調、視覺閃燈、觸覺輕敲等方式來引導大腦神經元的活動頻率。已經有許多研究證實了頻率仿效反應 能夠帶來有益的生理和心理的作用,頻率仿效反應因此具有非常好的研究前景以及能夠成為一種替代性和互補性治療方式的潛力。多元智能理論是由美國哈佛大學教育研究院心理發展學家加德納於1983年提出。加德納從研究腦部受創傷的病人發覺到他們在學習能力上的差異,從而提出本理論。儘管多元智能得依照稟賦劃分如此之細,但不應被用於限定人們為某一項智力類型,每個人都擁有獨特的一套智力組合體系。根據既有證據顯示,人類的智能至少可以分成八個範疇,其中包括語文智能、邏輯數學智能、空間智能、肢體動覺智能、音樂智能、人際智能、內省智能、以及自然觀察智能。 Frequency Following Response (FFR) refers to a physiological phenomenon in which the frequency of brain neuron activity is synchronized with the frequency of external stimuli. Therefore, we can guide the frequency of neuronal activity in the brain through auditory tones, visual flashes, and tactile taps. Many studies have confirmed that the frequency imitative response can bring beneficial physiological and psychological effects. Therefore, the frequency imitative response has very good research prospects and the potential to become an alternative and complementary treatment. The theory of multiple intelligences was proposed by Gardner, a psychological development scientist at the Harvard Institute of Education in 1983. Gardner came up with this theory by studying patients with traumatic brains who noticed differences in their learning abilities. Although multiple intelligences are classified so finely according to endowments, they should not be used to limit people to a certain type of intelligence. Each person has a unique set of intelligence combinations. According to the existing evidence, human intelligence can be divided into at least eight categories, including language intelligence, logic and mathematics intelligence, space intelligence, limb kinematic intelligence, music intelligence, interpersonal intelligence, introspective intelligence, and natural observation intelligence.

透過腦損傷病人的研究,大腦某些區域的疾病或損傷選擇性地損害特定智能,同時保持其智能的完整。例如,對大腦左額葉中的布羅卡區域的損傷會破壞一個人的說話或閱讀能力,但是該個人通常還是能夠畫畫、哼唱、溜冰或微笑,因為這些功能與大腦的未損傷的區域相關。然而,對右顳葉損傷的個體可能失去音調調節的能力,但卻保留了說話、讀和寫的能力。大致來說,現有證據指出八大多元智能中對應的相關聯大腦主要區域如下:語文智能:左顳葉和額葉;邏輯數學智能:左前額葉和右頂葉;空間智能:枕葉和頂葉區域(特別是右半球);肢體動覺智能:小腦、基底神經節、運動皮層;音樂智能:右顳葉;人際智能:前葉、顳葉(特別是右半球)、邊緣系統;內省智能:額葉、頂葉、邊緣系統;自然觀察智能:左頂葉(對於區分“生物”與“非生物”很重 要)。 Through research in patients with brain damage, diseases or injuries in certain areas of the brain selectively impair specific intelligence while maintaining its integrity. For example, damage to the Broca region in the left frontal lobe of a brain can disrupt a person's ability to speak or read, but the individual is usually still able to draw, hum, skate, or smile because these functions are related to the undamaged areas of the brain Related. However, individuals with damage to the right temporal lobe may lose the ability to adjust tones, but retain the ability to speak, read, and write. Broadly speaking, the available evidence points out that the corresponding major brain regions in the eight major multiple intelligences are as follows: Chinese intelligence: left temporal and frontal lobe; logical mathematical intelligence: left prefrontal and right parietal lobe; spatial intelligence: occipital and parietal lobe Region (especially the right hemisphere); limb kinematic intelligence: cerebellum, basal ganglia, motor cortex; musical intelligence: right temporal lobe; interpersonal intelligence: anterior lobe, temporal lobe (especially right hemisphere), limbic system; introspective intelligence: Frontal, parietal, limbic systems; natural observation intelligence: left parietal lobe (important for distinguishing between "living" and "nonliving").

然而過去僅提供頭殼外腦電波與頻率仿效反應相對應之腦波頻率能量的影響,本發明首次採用聲波混音結合磁振造影之方法直接提供大腦內對應八大多元智能神經迴路的調節證據,混合可調節對應不同認知功能腦區的頻率仿效反應音頻與音樂,成功的開發出一種可調節八大多元智能相關神經迴路的頻率仿效反應聲波導入音樂方法,以配合頻率仿效反應所具備非常好的認知調節與治療替代性或治療互補性潛力提供客觀定量之效果指標。 However, in the past, only the effect of brain wave frequency energy corresponding to the brain wave outside the head shell and the frequency emulation response was provided. For the first time, the present invention directly adopts the method of sonic mixing and magnetic resonance imaging to directly provide evidence for the regulation of the eight multiple intelligent neural circuits in the brain. Mixing can adjust the frequency imitating response audio and music corresponding to different cognitive function brain regions, and successfully developed a method that can adjust the frequency imitating response sound wave of eight multi-intelligent intelligent related neural circuits into music to match the frequency imitating response. The potential of regulation and treatment alternatives or complementary treatments provides objective and quantitative indicators of effectiveness.

透過穩定震盪的音頻傳入耳朵能夠引發大腦神經元的活動頻率與外界刺激出現的頻率同步的一種頻率仿效反應,大腦神經活動與放電頻率將對應於外在傳入的聲音頻率。因此,本發明之主要目的即在於利用穩定震盪的聲波引發之大腦頻率仿效反應,混合頻率仿效反應聲波與音樂,並結合磁振造影資料建立客觀神經調節指標之技術領域,藉以利用頻率仿效反應聲波音樂,建立可調節八大多元智能相關神經迴路的頻率仿效反應聲波導入音樂方法。據此,本發明主要係透過下列的技術手段,來具體實際前述之目的與功效;其包含有:一種運用頻率仿效反應聲波的合成與建立之步驟,其首先,係進行錄製不同頻率之頻率仿效反應聲波,以100赫茲之穩定聲波配合5至44赫茲震盪之正弦波,以1赫茲為單位,共合成40種頻率仿效反應聲波; 一導入頻率仿效反應聲波進入音樂資料庫之步驟,將不同頻率的頻率仿效反應聲波以混音方法導入音樂音軌中,在原始音樂中混合頻率仿效反應聲波,並區分為八張專輯,依序分別為5~9赫茲、10~14赫茲、15~19赫茲、20~24赫茲、25~29赫茲、30~34赫茲、35~39赫茲、40~44赫茲;一頻率仿效反應聲波導入音樂引發大腦神經活動磁振造影資料之收集與分析之步驟,其係將未合成之原始音樂與導入聲波之合成音樂播放給受試者聽,並利用核磁共振造影儀器收集腦內神經活動與分析,比較一般音樂與頻率仿效反應聲波合成音樂來驗證頻率仿效反應聲波音樂對腦內對應八大多元智能之不同神經迴路的調節效果;以及一建立監控生物指標之步驟,其係分析比較一般音樂與頻率仿效反應聲波音樂來驗證頻率仿效反應聲波音樂對受試者腦內神經活動的調節效果與不同程度之行為影響,進一步確認頻率仿效反應聲波音樂對腦內八大多元智能對應之不同神經迴路的影響;最後,建立外在導入頻率仿效反應聲波音樂對大腦調節與音樂促進效果的客觀定量之生物指標。 Passing a stable oscillating audio into the ear can trigger a frequency imitative response that synchronizes the frequency of brain neuron activity with the frequency of external stimuli. The frequency of brain neuronal activity and discharge will correspond to the frequency of the external incoming sound. Therefore, the main purpose of the present invention is to use the frequency field to imitate the response of the brain frequency imitating response caused by the stable oscillating sound wave, mix the frequency imitating the response of sound wave and music, and combine the magnetic resonance imaging data to use the frequency imitating response to the sound wave. Music, establish a method that can adjust the frequency of eight multi-intelligence-related neural circuits to imitate the response of sound waves to music. According to this, the present invention mainly implements the foregoing purposes and effects through the following technical means. It includes: a step of synthesizing and establishing a sound wave by using a frequency imitating reaction. First of all, a frequency imitating recording of different frequencies is performed. Response sound waves, with a stable sound wave of 100 Hz and a sine wave with an oscillation of 5 to 44 Hz, with a unit of 1 Hz, a total of 40 frequency imitating response sound waves are synthesized; once the frequency imitating response sound waves enter the music database, different frequencies The frequency imitates the response sound waves into the music track by mixing. The original music is mixed with frequencies to imitate the response sound waves and is divided into eight albums, which are respectively 5-9 Hz, 10-14 Hz, and 15-19 Hz. , 20 ~ 24 Hz, 25 ~ 29 Hz, 30 ~ 34 Hz, 35 ~ 39 Hz, 40 ~ 44 Hz; a frequency imitating the steps of collecting and analyzing magnetic resonance imaging data of brain nerve activity caused by the introduction of sound waves into music The unsynthesized original music and the synthesized music imported into the sound wave were played to the subjects, and the neural activity and analysis in the brain were collected using MRI equipment. General music and frequency imitating response sound wave synthesizing music to verify the frequency imitating response sound wave music's regulating effect on different neural circuits corresponding to the eight major intelligences in the brain; and a step of establishing monitoring biological indicators, which analyzes and compares general music and frequency imitating response Sonic music to verify the frequency imitative response. The effect of sonic music on the neuronal activity in the subject ’s brain and the effect of varying degrees of behavior. Further confirm the impact of the frequency imitative response on the different neural circuits of the eight multiple intelligences in the brain. Establish objective and quantitative biological indicators that emulate the effects of sonic music on brain regulation and music promotion effect.

藉此,透過本創作前述技術手段的具體實現,讓本發明的頻率仿效反應聲波導入音樂方法透過頻率仿效反應聲波音樂資料庫的建立,佐以磁振造影資料之收集與分析,研發出不同頻率之頻率仿效反應聲波音樂對八大多元智能對應的不同神經迴路影響的客觀指標,提供音樂促進效果的定量生物效果。 Through this, through the specific realization of the aforementioned technical means of creation, the frequency imitating response acoustic wave of the present invention is introduced into the music method. Through the establishment of the frequency imitating response acoustic wave music database, and the collection and analysis of magnetic resonance imaging data, different frequencies are developed. The frequency imitates the objective index that reflects the influence of sonic music on different neural circuits corresponding to the eight multi-intelligences, and provides a quantitative biological effect of music promotion effect.

為使 貴審查委員能進一步了解本發明的構成、特徵及其他目的,以下乃舉本發明之較佳實施例,並配合圖式詳細說明如後,同時讓熟悉該項技術領域者能夠具體實施。 In order to make your reviewers better understand the composition, features, and other purposes of the present invention, the following is a description of the preferred embodiments of the present invention, which will be described in detail with reference to the drawings, and will be implemented by those familiar with the technical field.

(S01)‧‧‧頻率仿效反應聲波的合成與建立 (S01) ‧Synthesis and establishment of ‧‧ imitating response acoustic waves

(S02)‧‧‧導入頻率仿效反應聲波進入音樂資料庫 (S02) ‧‧‧ Import frequency to imitate response sound waves into music database

(S03)‧‧‧大腦神經活動磁振造影資料之收集與分析 (S03) ‧‧‧Collection and analysis of magnetic resonance imaging data of brain nerve activity

(S04)‧‧‧建立監控生物指標 (S04) ‧‧‧ Establish monitoring biological indicators

第一圖:為本發明可調節八大多元智能對應腦內不同神經迴路之頻率仿效反應聲波導入音樂方法的簡要流程示意圖。 The first figure is a schematic flow chart of the method for adjusting the frequency of the eight multi-intelligent intelligence corresponding to different neural circuits in the brain to respond to sound waves and introducing music.

第二圖:為本發明可調節八大多元智能對應腦內不同神經迴路之頻率仿效反應聲波導入音樂方法的詳細流程解說示意圖。 The second figure is a schematic diagram illustrating the detailed flow of the method of adjusting the frequency of eight multi-intelligent intelligences corresponding to different neural circuits in the brain and introducing sound waves into music.

【主要元件符號說明】     [Description of main component symbols]    

(S01) 頻率仿效反應聲波的合成與建立 (S01) Synthesis and establishment of frequency imitating response acoustic waves

(S02) 導入頻率仿效反應聲波進入音樂資料庫 (S02) Import frequency to imitate response sound waves into music database

(S03) 大腦神經活動磁振造影資料之收集與分析 (S03) Collection and analysis of magnetic resonance imaging data of brain nerve activity

(S04) 建立監控生物指標 (S04) Establish monitoring biological indicators

第三圖:為本發明可調節八大多元智能對應腦內不同神經迴路之頻率仿效反應聲波導入音樂方法應用於女性受試者的腦內神經系統調節情形 The third picture: The present invention can adjust the frequency of eight multi-intelligence corresponding to different neural circuits in the brain to imitate the response of sound waves to music. The method is applied to the neurological regulation of female subjects.

第四圖:為本發明可調節八大多元智能對應腦內不同神經迴路之頻率仿效反應聲波導入音樂方法應用於男性受試者的腦內神經系統調節情形 The fourth picture: This invention can adjust the frequency of the eight multi-intelligence corresponding to different neural circuits in the brain. The method of imitating the response of sound waves to music is applied to the neurological regulation of male subjects.

本發明係一種可調節腦內八大多元智能對應不同神經迴路 之頻率仿效反應聲波導入音樂方法,隨附圖例示之本發明的具體實施例及其構件中,所有關於前與後、左與右、頂部與底部、上部與下部、以及水平與垂直的參考,僅用於方便進行描述,並非限制本發明,亦非將其構件限制於任何位置或空間方向。圖式與說明書中所指定的尺寸,當可在不離開本發明之申請專利範圍內,根據本發明之具體實施例的設計與需求而進行變化。 The present invention is a method for adjusting the frequency of eight multi-intelligent intelligences in the brain corresponding to different neural circuits to imitate the response of sound waves to music. The specific embodiments of the present invention illustrated in the accompanying drawings and their components are all related to front and back, left and right, The references to top and bottom, upper and lower, and horizontal and vertical are for convenience of description only, and do not limit the invention, nor limit its components to any position or spatial direction. The dimensions specified in the drawings and the description can be changed according to the design and requirements of the specific embodiments of the present invention without departing from the scope of the patent application of the present invention.

本發明方法主要架構係如第一、二圖所示,其包含有一頻率仿效反應聲波的合成與建立(S01),導入頻率仿效反應聲波進入音樂資料庫(S02)、大腦神經活動磁振造影資料之收集與分析(S03)、以及一建立監控生物指標(S04)之步驟;其中所述頻率仿效反應聲波的合成與建立(S01)之步驟,首先,進行錄製多種不同頻率之頻率仿效反應聲波,預備以100赫茲之穩定聲波配合5至44赫茲震盪之正弦波,以1赫茲為單位,共合成40種頻率仿效反應聲波;所述建立雙耳波差音樂資料庫(S02)之步驟,首先,將以建立之頻率仿效反應聲波以混音方法導入音樂音軌中,在原始音樂中混合頻率仿效反應聲波,並區分為八張專輯,依序分別為5~9赫茲、10~14赫茲、15~19赫茲、20~24赫茲、25~29赫茲、30~34赫茲、35~39赫茲、40~44赫茲;所述導大腦神經活動磁振造影資料之收集與分析(S03)之步驟,其係將未合成頻率仿效反應聲波之音樂與頻率仿效反應聲波音樂播放給受試者聽,並利用核磁共振造影儀器收集腦內神經活動與分 析,比較一般音樂與合成音樂來驗證頻率仿效反應聲波音樂對腦內神經活動的調節效果,我們讓一名55歲,健康、自願參與的男性受試者,與一名32歲健康、自願參與的女性受試者聽取八張專輯的合成音樂,依序分別為5~9赫茲、10~14赫茲、15~19赫茲、20~24赫茲、25~29赫茲、30~34赫茲、35~39赫茲、40~44赫茲,同時記錄他們大腦中血氧濃度的消耗率,來當作大腦神經活動強弱的指標,並且我們另外讓這兩位受試者聽取未合成的一般音樂來當作比較的標準;所述建立監控生物指標(S04)之步驟,首先,係分析並比較頻率仿效反應聲波音樂和一般音樂所引起的神經活動,並找出頻率仿效反應聲波所能夠引發相較於一般音樂所不能引起的、獨特的神經活動與對應大腦內八大多元智能相關的大腦區域指標,以及頻率仿效反應聲波音樂對受試者帶來之不同程度行為影響;接著,分析頻率仿效反應聲波音樂調節的腦區與認知神經科學文獻中八大多元智能相關的大腦功能資料;最後,建立頻率仿效反應聲波介入調節大腦內八大多元智能相關的大腦區域與音樂促進效果的客觀定量之生物指標。 The main architecture of the method of the present invention is shown in the first and second figures, which includes the synthesis and establishment of a frequency imitating response sound wave (S01), introducing the frequency imitating response sound wave into a music database (S02), and magnetic resonance imaging data of brain nerve activity. Collection and analysis (S03), and a step of establishing a monitoring biological index (S04); wherein the frequency imitates the response sound wave synthesis and establishment (S01) step, first, recording a plurality of different frequencies of the frequency imitative response sound wave, Prepare a stable acoustic wave with a frequency of 100 Hz and a sine wave with an oscillation of 5 to 44 Hz to synthesize a total of 40 frequencies to imitate the response acoustic wave in units of 1 Hz. The steps for establishing a binaural wave difference music database (S02) are as follows. Introduce the response sound waves at the established frequency into the music track by mixing method. Mix the frequencies in the original music to imitate the response sound waves, and divide them into eight albums, in order of 5-9 Hz, 10-14 Hz, 15 ~ 19 Hertz, 20 ~ 24 Hertz, 25 ~ 29 Hertz, 30 ~ 34 Hertz, 35 ~ 39 Hertz, 40 ~ 44 Hertz; The steps of collecting and analyzing magnetic resonance imaging data for conducting nerve activity (S03), which system The unsynthesized frequency imitating response sound wave music and the frequency imitating response sound wave music are played to the subjects, and the MRI equipment is used to collect neural activity and analysis in the brain. The general music and synthetic music are compared to verify the frequency imitative response sound wave music pair. Regulating effects of neural activity in the brain, we asked a 55-year-old healthy, volunteer male subject and a 32-year-old healthy, volunteer female subject to listen to eight albums of synthesized music in order, respectively. 5 to 9 Hz, 10 to 14 Hz, 15 to 19 Hz, 20 to 24 Hz, 25 to 29 Hz, 30 to 34 Hz, 35 to 39 Hz, 40 to 44 Hz, while recording the blood oxygen concentration in their brains The consumption rate is used as an indicator of the strength of the brain's neural activity, and we additionally let the two subjects listen to unsynthesized general music as a standard for comparison; the steps for establishing a monitoring biological index (S04), first, The system analyzes and compares the frequency of imitating the response of sonic music and general music, and finds out that the frequency of imitating the response of sonic music can trigger a unique Neural activity is related to the indicators of the brain area corresponding to the eight major intelligences in the brain, and the frequency of imitative response to sonic music affects the subject to varying degrees of behavioral effects. Next, the brain region and cognitive neuroscience literature that frequency imitates response to sonic music are analyzed. Brain function data related to the eight major multiple intelligences. Finally, an objective and quantitative biological indicator of the frequency-like response to acoustic wave intervention to regulate the eight multi intelligence-related brain regions and music promotion effects in the brain was established.

藉此,組構成一可供建立客觀量化生物指標的可調節大腦內八大多元智能相關的神經迴路之頻率仿效反應聲波導入音樂方法者。 With this, the group constitutes a person who can establish objectively quantified biological indicators and adjust the frequency of the eight multiple intelligence-related neural circuits in the brain to imitate the response of sound waves to music methods.

而本發明較佳實施例之具體實施,則仍請參看第一、二圖所示,之後,大腦神經活動磁振造影資料之收集與分析,係以以國立陽明大學核心設施3T磁振造影(MRI)進行實驗取得影像資料,並以倫敦大學學院(Wellcome Trust Centre for Neuroimaging)所研發之免費影像 處理系統分析數據(Statistical Parametric Mappin),獲得實驗資料後,透過蒙特利爾神經學研究所和醫院(Montreal Neurological Institute and Hospital)所建立之大腦座標平台(MNI coordinates)呈現數據成果。 For the implementation of the preferred embodiment of the present invention, please refer to the first and second figures. After that, the collection and analysis of magnetic resonance imaging data of brain nerve activity are based on 3T magnetic resonance imaging of the core facilities of National Yangming University. MRI) experiments to obtain image data, and analyze the data (Statistical Parametric Mappin) with a free image processing system developed by the University of London (Wellcome Trust Centre for Neuroimaging). After obtaining the experimental data, the Montreal Neurological Institute and Hospital (Montreal The Neurological Institute and Hospital's MNI coordinates platform presents data results.

參考網址如下: The reference URL is as follows:

國立陽明大學核心設施3T磁振造影(MR1) 3T magnetic resonance imaging (MR1) of the core facilities of National Yangming University

http://bclab.ym.edu.tw/mri_website/mri_index.htmlhttp: //bclab.ym.edu.tw/mri_website/mri_index.html

倫敦大學學院(Wellcome Trust Centre for Neuroimaging)所研發之免費影像處理系統分析數據(Statistical Parametric Mappin) Statistical Parametric Mappin, a free image processing system developed by the University of London (Wellcome Trust Centre for Neuroimaging)

http://www.fil.ion.ucl.ac.uk/spm/http: //www.fil.ion.ucl.ac.uk/spm/

蒙特利爾神經學研究所和醫院(Montreal Neurological Institute and Hospital)所建立之大腦座標平台(MNI coordinates) MNI coordinates platform established by the Montreal Neurological Institute and Hospital

http://imaging.mrc-cbu.cam.ac.uk/imaging/MniTalairachhttp: //imaging.mrc-cbu.cam.ac.uk/imaging/MniTalairach

最後,建立監控生物指標,其透過磁振造影資料的分析發現,頻率仿效反應聲波導入音樂方法應用於女性受試者的腦內神經系統調節情形如下:5-9赫茲專輯可調節邏輯數學智能相關腦區;10-14赫茲專輯可調節空間智能、肢體動覺智能相關腦區;20-24赫茲專輯可調節音樂智能、人際智能相關腦區;25-29赫茲專輯可調節內省智能相關腦區;30-34赫茲專輯可調節語文智能、人際智能相關腦區; 35-39赫茲專輯可調節自然觀察智能、邏輯數學智能相關腦區;40-44赫茲專輯可調節內省智能、自然觀察智能相關腦區。而頻率仿效反應聲波導入音樂方法應用於男性受試者的腦內神經系統調節情形如下:5-9赫茲可調節語文智能、邏輯數學智能相關腦區;10-14赫茲可調節空間智能相關腦區;15-19赫茲可調節肢體動覺智能相關腦區;20-24赫茲可調節人際智能、內省智能相關腦區;25-29赫茲可調節音樂智能、肢體動覺智能、邏輯數學智能、空間智能相關腦區。藉此,可以理解到本發明為一創意極佳之創作,除了有效解決習式者所面臨的問題,更大幅增進功效,且在相同的技術領域中未見相同或近似的加工物創作或公開使用,同時具有功效的增進,故本發明已符合發明專利有關「新穎性」與「進步性」的要件,乃依法提出申請發明專利。 Finally, a monitoring biological indicator was established. Through analysis of magnetic resonance imaging data, it was found that the frequency imitating response sound wave into music method applied to the female subject's brain nervous system regulation is as follows: 5-9 Hz album adjustable logic mathematics intelligent correlation Brain regions; 10-14 Hz albums can adjust spatial intelligence and limb-kinesthetic intelligence-related brain regions; 20-24 Hz albums can adjust music intelligence and interpersonal intelligence-related brain regions; 25-29 Hz albums can adjust introspective intelligence-related brain regions ; 30-34 Hz album can adjust language intelligence, interpersonal intelligence-related brain areas; 35-39 Hz album can adjust natural observation intelligence, logic and mathematics intelligence related brain areas; 40-44 Hz album can adjust introspective intelligence, nature observation intelligence related Brain area. The frequency imitating response sound wave introduction music method applied to the male brain's nervous system regulation is as follows: 5-9 Hz can adjust the language intelligence, logical and mathematical intelligence-related brain areas; 10-14 Hz can adjust the spatial intelligence-related brain areas ; 15-19 Hz can adjust limb-kinesthetic intelligence-related brain areas; 20-24 Hz can adjust interpersonal intelligence, introspective intelligence-related brain areas; 25-29 Hz can adjust music intelligence, limb kinematic intelligence, logical mathematical intelligence, space Intelligence-related brain regions. From this, it can be understood that the present invention is an excellent creative creation. In addition to effectively solving the problems faced by practitioners, it has greatly improved the efficacy. No identical or similar processed product creation or disclosure has been seen in the same technical field. The use of the invention has the improvement of efficacy. Therefore, the present invention has already met the requirements of "novelty" and "progressiveness" of the invention patent, and has applied for an invention patent in accordance with the law.

參考大腦活動區域座標、統計值與考驗值如下:The coordinates, statistical values and test values of the reference brain activity area are as follows:

Claims (1)

可調節八大多元智能對應腦內不同神經迴路之FFR聲波(頻率仿效反應聲波)導入音樂方法,其包含有:一種運用頻率仿效反應聲波的合成與建立之步驟,其首先,係進行錄製不同頻率之頻率仿效反應聲波,以100赫茲之穩定聲波配合5至44赫茲震盪之正弦波,以1赫茲為單位,共合成40種頻率仿效反應聲波;一導入頻率仿效反應聲波進入音樂資料庫之步驟,將不同頻率的頻率仿效反應聲波以混音方法導入音樂音軌中,在原始音樂中混合頻率仿效反應聲波,並區分為八張專輯,依序分別為5~9赫茲、10~14赫茲、15~19赫茲、20~24赫茲、25~29赫茲、30~34赫茲、35~39赫茲、40~44赫茲;一頻率仿效反應聲波導入音樂引發大腦神經活動磁振造影資料之收集與分析之步驟,其係將未合成之原始音樂與導入聲波之音樂播放給受試者聽,並利用核磁共振造影儀器收集腦內神經活動與分析,比較一般音樂與頻率仿效反應聲波合成音樂來驗證頻率仿效反應聲波音樂對腦內對應八大多元智能之不同神經迴路的調節效果;以及一建立監控生物指標之步驟,其係分析比較一般音樂與頻率仿效反應聲波音樂來驗證頻率仿效反應聲波音樂對受試者腦內神經活動的調節效果與不同程度之行為影響,進一步確認頻率仿效反應聲波音樂對腦內八大多元智能對應之不同神經迴路的影響;最後,建立外在導入頻率仿效反應聲波音樂對大腦調節與音樂促進效果的客觀定量之生物指標。 藉此,組構成一可供建立客觀量化之頻率仿效反應聲波音樂對八大多元智能對應不同神經迴路影響的指標,提供音樂促進效果的定量生物效果導入音樂方法者。     The method of introducing eight multi-intelligent intelligent FFR sound waves (frequency imitating response sound waves) into the brain to introduce music methods includes: a step of synthesizing and establishing a frequency imitating response sound waves. First, it is to record different frequencies The frequency imitates the response acoustic wave, and uses the stable acoustic wave of 100 hertz and the sine wave of 5 to 44 hertz oscillation to synthesize 40 kinds of frequency imitative response acoustic wave in units of 1 hertz. Once the frequency imitative response acoustic wave enters the music database, The frequencies imitating the response sound waves of different frequencies are introduced into the music track by mixing, and the original music is mixed with frequencies to imitate the response sound waves and divided into eight albums, which are respectively 5 ~ 9 Hz, 10 ~ 14 Hz, 15 ~ 19 Hertz, 20 ~ 24 Hertz, 25 ~ 29 Hertz, 30 ~ 34 Hertz, 35 ~ 39 Hertz, 40 ~ 44 Hertz; a frequency imitating the steps of collecting and analyzing magnetic resonance imaging data of brain nerve activity caused by the introduction of sound waves into music, It is to play the unsynthesized original music and the sound-introduced music to the subject, and use the MRI equipment to collect the neural activity and analysis in the brain. Analysis, comparing general music and frequency imitating response sonic synthesis music to verify the frequency imitating response sonic music's regulating effect on the different neural circuits corresponding to the eight multiple intelligences in the brain; and a step of establishing monitoring biological indicators, which analyzes and compares general music and Frequency imitating response to sonic music to verify the effect of frequency imitating response to sonic music on the neuronal activity in the subject's brain and varying degrees of behavioral effects, further confirming the effect of frequency imitating response to sonic music on the different neural circuits corresponding to the eight multiple intelligences in the brain Finally, an objective and quantitative biological indicator that emulates the effects of sonic music on brain regulation and music promotion effects is established. In this way, the group constitutes an index that can be used to establish an objectively quantified frequency imitating response to the effects of sonic music on the eight multiple intelligences corresponding to different neural circuits, and to provide a quantitative biological effect of music promotion effect to the music method.    
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