TW201234309A - Physical fitness analyzer, analytic method and bicycled fitness device - Google Patents

Physical fitness analyzer, analytic method and bicycled fitness device Download PDF

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TW201234309A
TW201234309A TW100104949A TW100104949A TW201234309A TW 201234309 A TW201234309 A TW 201234309A TW 100104949 A TW100104949 A TW 100104949A TW 100104949 A TW100104949 A TW 100104949A TW 201234309 A TW201234309 A TW 201234309A
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Taiwan
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electromechanical
physiological
evaluation
characteristic data
physical fitness
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TW100104949A
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Chinese (zh)
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TWI434224B (en
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meng-hui Wang
Yu-Ting Su
Han-Hsueh Tsai
Shih-Huan Lin
Hsiang Lo
Chia-Lung Kao
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Nat Univ Chin Yi Technology
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Abstract

A physical fitness analyzing method is disclosed. The process of the physical fitness analyzing method includes some steps as following: Several physiological characteristic data are detected from a user's physiological status. Several electromechanical characteristic data are detected from an exerciser. At least one element model is generated according to the physiological characteristic data and the electromechanical characteristic data. The element models are applied to train an extension neural network (ENN) to establish diagnosis system. The ENN system is applied to determine diagnosis class of the exerciser.

Description

201234309 六、發明說明: 【發明所屬之技術領域】 本揭示内容是有關於體適能評估分析之方法,且特 別是有關於一種應用於腳踏健身器之體適能評估分析方 法0 【先前技術】 體適能(Physical Fitness)定義為指個人能力除了足 以勝任日常工作外,還有餘力享受休閒’及能夠應付突 如其來的變化及壓力之身體適能力;體適體之字面解釋 為身體適應外界環境,如溫度、氣候變化、病毒...等因 素,的綜合能力。 在科技進步的文明社會中,人類身體活動的機會越 來越少,營養攝取卻越來越高,工作與生活壓力相對增 加;因此,適當的運動是改善現代人生活達至健康的主 要途徑。體適能較好的人在日常生活或工作中,從事體 力性活動或運動皆有較佳的活力及適應能力,而不會輕 易產生疲勞或力不從心的感覺。 為了達到健康生活的目的,現代人常有使用健身器 材來運動的習慣,習知已有腳踏健身器可初步量測使用 者的心跳並呈現於螢幕上;然而,此項功能僅能忠實呈 現使用者目前使用健身器材的狀態,無法更進一步針對 各個使用者作客製化的評估及監控。 【發明内容】 201234309 評估分析方ί揭::二在於提供-種體適能 用者作客製化評估及監控的、=對各個腳踏健身器的使 依據本技術態樣一實施方一 析方法,詩至少—使 ^ W _適能評估分 列步驟:招貝取多個生理特徵資時,包含下 使用者之生理狀態,取多個機電;=特=料取自 徵資料取自腳踏健身器之機電=特==,削述機電特 機電特徵資料建立至少一物元:, 理特徵資料及 估類別。 捋測資枓,知類為至少一評 在本技術態樣其他實施方式巾 心電訊號特徵,亦可為—肌電喊 =資料可為- 資料可為—腳踩踏轉速特徵此外’機電特徵 =出電壓特徵及“ 力=或:馬 利用-遠端監控器收集評估_。 彳面,其可 分析器諸二供-種體適能評估 _本技術態樣—實::;之==析方法。 析器,其包含一偵測單元、一二^出種體適能評估分 出單元。偏測單元用以擷取多個生^^里系統及一輸 號,以建立一待測資料。夕 里心虎及多個機電訊 體適能評估分析方法訓練而成,用二之 >、-評估類別。最後’輪出單元則用以輸出評== 201234309 本技術態樣其他實施方式中,體適能評估分析器更可 一遠端監控器,以收集前述之評估類別。 本揭示内容之又-技術態樣在於提供一種體適能評估 使用者在操作腳踏健身器時,能 依據本技術態樣一實施方式,提出 析腳踏健身裝置,其包含一腳踏健=^能評估分 測器、多個機電訊號_器及 多個生理訊號福 析器。生理訊號偵测器用以擷取腳丄建= :估分 理狀態,機電訊號偵測!^以掏 储^使用者的生 態,體適能評估分析器則用以抱 建身态之機電狀 訊號偵測H,將體適能評估 理訊_測器及機電 出至少一評估類別。 °收到的待测資料判斷 建立可拓類神經處理系,可拓類神經網路 :針對各個健身器材的使用者神經處理系統即 :可藉由遠端監控器收集各^客裏化的坪估。此外,其 別’進行長期的監控’以達到長期懸:=的者目T類 【實施方式】 方法施方式之體適能評估分析 ^估分析方法,至少包含下施方式之體適能 丁 _個生理特徵資料,前述生理特徵 201234309 者之生理狀態。再者,如步 徵資料’前述機電特徵資二擷取多個機電特 然後,如步驟130所示,腳踏健身器之機電狀態。 料建立至少-物元模型理特徵資料及機電特徵資 物元模型訓練一可拓 ::驟】4〇所示,利用 系統。最後,如步驟得路以建立一可知類神經處理 施方式可事先一糊 出健身器材使用者的評估::酬'統,以迅速地辨識 眘料Ί的說’步驟110先量測出使用者的各種生理特徵 步驟,m 特徵、肌電訊號特徵...等;另一方面, 踩踏轉_Γ:馬::=種=_;",如腳 在本實施方、寺,等。至於量測的方法可有多種選擇, 4½¾ _式中疋利用生理檢測器來進行生理特徵資料的 特忾咨較如陶瓷感測器、電極貼片…等皆可用來擷取生理 ^ 擷取機電特徵資料的方法更有其他多種選擇。 立至少一 4 :鄉GO利用生理特徵資料及機電特徵資料建 跳率^产勿疋模型,在本實施方式中的物元模型分別有心 踩踏迴^數脫水程度、膝蓋肌肉肌電、轉換功率與效率及 類神^網路^下來’步驟140利用物元模型訓練一可拓 a 4|, 雙立一可拓類神經處理系統。最後’步驟150 丹刊用可拓類抽 少—評估_ 4理系統將至少一待測資料,歸類為至 知'來贺*’待测資料的評估類別可分為心臟年齡程 201234309 度、補充水份提示、膝蓋肌肉疲勞程度、總消耗卡路里 可轉換出的能量以及騎乘技術。其巾,心臟年齡程产又可 細分為基本體力、減肥塑身、心肺功能、有氧界限二及競 赛體能;騎乘技術又可細分為舒適、鍛鍊強身、競: 以及致勝條件。 Λ Μ 為了計算待測資料與本實施方式之體適能評估分析方 法基於各生理特徵資料及機電特徵資料所建立的物元模型 的各類別Μ度,亦即此-待測資料應被歸類為哪一個呼 估類別,本實施方式引用可拓理論來進行待 別 評估,其具體運作原理,茲解釋如下: 第2圖繪示可拓類神經網路的架構圖。 可拓類神經網路擁有接受不同種類變 性’其包含了輸入層、演算層與輪出層數作首為輸;= t輸入並分類建構成物元模_進人㈣ 中,輸入層的數量由物元模型之特徼蚩 則由資料賴別數妓並存放計算後二:、&,*輸出層 屬於各類別之輸出層計算出可括距離值“ 測資料的評估類別。 W小值決桌出待 可拓類神經網路的學習法可分A 式學習(SUpervised ,非監^ 督式學習與監督 的特徵樣本值來進行學習,藉由;是由目前擁有 相關性,當有-個資料要輸人辨識^找巧料的規律性與 為辨識結果。而本實施方式使用】:找最相:者作 監督式學習,監督式學習是透過學 ^經網路=使用 斷地學習與訓練來進行調整修正權重==此::: 201234309 =神經網路的輸出值與目標輸出值之間的差距,由此 員神經網路辨識的準確率。因此在學習前必須 有學S 樣本 x={Xl,x2,X3”..Xpm}, 料與類別㈣二以= 二號:表示’ PM則為樣本的總數,m則為特徵總數。總 差4Pn,總誤差比率則設為Ετ,如式⑴所示。201234309 VI. Description of the Invention: [Technical Field of the Invention] The present disclosure relates to a method for assessing and analyzing physical fitness, and in particular to a method for assessing physical fitness in a foot exerciser. 】 Physical Fitness is defined as the ability of the individual to be able to enjoy leisure and to be able to cope with sudden changes and stresses. In addition to being able to adapt to the external environment, the physical fitness is defined as the physical ability. The comprehensive ability of factors such as temperature, climate change, virus, etc. In a civilized society with advanced science and technology, the opportunities for human physical activity are becoming less and less, the nutritional intake is getting higher and higher, and the pressure of work and life is relatively increased. Therefore, proper exercise is the main way to improve the health of modern people. People with better physical fitness have better vitality and adaptability in their daily activities or work, and they do not easily feel tired or unable to feel at ease. In order to achieve a healthy life, modern people often have the habit of using exercise equipment to exercise. It is known that the pedal exerciser can initially measure the user's heartbeat and present it on the screen; however, this function can only be used faithfully. At present, the state of using fitness equipment cannot be further evaluated and monitored for individual users. [Summary of the Invention] 201234309 Evaluation and Analysis Party ί:: The second is to provide - the evaluation and monitoring of the physical fitness users, = for each pedal exerciser according to the technical aspect of the implementation method , poetry at least - make ^ W _ fitness assessment step by step: when recruiting multiple physiological characteristics, including the physiological state of the user, take a number of electromechanical; = special = material from the data collected from the pedal fitness The electromechanical = special ==, the description of the electromechanical special electromechanical characteristics data to establish at least one matter:: the characteristics of the information and the category.捋 枓 枓 枓 枓 枓 枓 枓 枓 枓 枓 枓 枓 枓 知 知 知 知 知 知 知 知 知 知 知 知 知 知 知 知 知 知 知 知 知 知 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 其他 其他Output voltage characteristics and "force = or: horse utilization - remote monitor collection evaluation _. 彳 surface, its analyzer can be used for two - body fitness assessment _ this technical aspect - real::; = = analysis The method comprises: a detecting unit, and a seeding and fitness evaluation and separating unit. The measuring unit is configured to acquire a plurality of raw systems and an input number to establish a data to be tested. Xi Li Xinhu and a number of electromechanical fitness fitness assessment methods are trained, using the second > and - evaluation categories. Finally 'the round-out unit is used to output evaluation == 201234309 This technical aspect in other implementations The fitness assessment analyzer can further be a remote monitor to collect the aforementioned evaluation categories. The technical aspect of the present disclosure is to provide a fitness assessment function for the user to operate the pedal exerciser. According to an embodiment of the present invention, an exercise device for pedaling is proposed. Include a foot pedal = ^ can evaluate the detector, multiple electromechanical signals _ device and a plurality of physiological signals. The physiological signal detector is used to capture the foot = = : estimated the state of the division, electrical and mechanical signal detection ^^ The user's ecology is stored, and the fitness assessment analyzer is used to construct the electromechanical signal detection H of the body, and to evaluate the physical assessment device and the electromechanical at least one evaluation category. ° The data to be tested is judged to establish an extensional neural processing system, and the extensional neural network: the neural processing system for each fitness equipment: that is, the remote monitoring device can collect the pings of each In addition, it does not 'long-term monitoring' to achieve long-term suspension: = the purpose of the class T [implementation] method of physical fitness assessment method analysis method, at least include the physical fitness of the lower application method Ding _ a physiological characteristic data, the physiological state of the aforementioned physiological characteristics 201234309. Further, if the sacral data is as described above, the electromechanical state of the electromechanical feature is as follows, as shown in step 130, the electromechanical state of the pedaling exerciser Material establishment at least - matter element model Feature data and electromechanical characteristics of the material element model training one extension:: [4], using the system. Finally, if the steps are taken to establish a known neurological treatment method, the user of the fitness equipment can be smeared in advance. Evaluation:: Remuneration, in order to quickly identify the cautionary ' 'Step 110 to measure the user's various physiological characteristics steps, m characteristics, EMG signal characteristics, etc.; on the other hand, stepping _ Γ: Ma::=种=_;", such as feet in this implementation, temple, etc. As for the measurement method, there are many options, 41⁄23⁄4 _ 疋 疋 疋 生理 生理 生理 生理 生理 生理 生理 生理 生理 生理 生理 生理 生理 生理 生理忾 较 较 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷 陶瓷Standing at least one: 4: GO uses the physiological characteristics data and electromechanical characteristics data to build the jump rate ^ production of the model, the matter model in this embodiment has the heart to step on the number of dehydration, knee muscle EMG, conversion power and Efficiency and class gods ^ network ^ down 'step 140 using the matter-element model to train a extension a 4|, a dual-extension-type neuroprocessing system. Finally, 'Step 150 Dan's use of extension class to draw less-evaluation _ 4 system to classify at least one data to be tested as to know 'together*' The evaluation category of the data to be tested can be divided into heart ages of 201234309 degrees, Replenish water tips, knee muscle fatigue, total calories burned energy, and riding techniques. Its towel, heart age production can be subdivided into basic physical strength, weight loss body sculpting, cardiopulmonary function, aerobic boundary 2 and competitive physical fitness; riding technology can be subdivided into comfort, exercise, competition: and winning conditions. Λ Μ In order to calculate the data to be tested and the physical fitness assessment method of the present embodiment based on each physiological characteristic data and the electromechanical characteristic data, the classification of the matter element model, that is, the data to be tested should be classified. For which type of call evaluation category, this embodiment refers to the extension theory for the evaluation of the standby. The specific operation principle is explained as follows: Figure 2 shows the architecture diagram of the extension-like neural network. The extension-like neural network has the ability to accept different kinds of denaturations, which include the input layer, the calculation layer, and the number of rounds to be the first to lose; = t input and classify the constituent element module into the person (four), the number of input layers The characteristics of the matter-element model are calculated from the data and stored in the second:, &, * output layer belongs to the output layer of each category to calculate the distance value that can be included in the evaluation category of the measured data. The study method of the extension-type neural network can be divided into A-style learning (Surveyed, non-supervised learning and supervision of the characteristic sample values to learn, by; currently has relevance, when there is - The information needs to be identified by the person to find the regularity of the skill and the result of the identification. The present embodiment uses:: find the most: the supervisory learning, the supervised learning is through the network ^ use the ground learning And training to adjust the correction weight == this::: 201234309 = the difference between the output value of the neural network and the target output value, thus the accuracy of the neural network identification. Therefore, you must have a S sample before learning. x={Xl,x2,X3”..Xpm}, material and category (4) In II =: represents' samples compared to the total number of PM, the total number of the total difference was 4PN wherein m, the total error rate is set Ετ, as shown in Formula ⑴..

ETET

Pm (1) 而可拓類神經監督式學習之演算步驟如下: 之婼Si 1:將學習資料利用物元模型來建立輸入與輸出 之權重值,而物元之表示式如下所示: N/c,c” Vk' ci,Κι •♦· ··· Cn,Κη_ (2)The calculation procedure of Pm (1) and extension-like neural supervised learning is as follows: Then Si 1: The learning material is used to establish the weight values of the input and output using the matter-element model, and the representation of the matter element is as follows: N/ c,c” Vk' ci,Κι •♦· ··· Cn,Κη_ (2)

個特^⑺中巾代表資料的類別總數,Gj為物元模型内第n η、且』1’2’3’...’η,、=<w/,w/>為關於特徵&之 經典域’而經典域範圍可由學習資料所決定如下:J κ=k) N (3) (4) 其中’Xijk代表可拓類神經網路之輸入端學習資料 步驟2 :計算出每項特徵之權重中心值,以 如下所式: ’、 (5) (<+<) 2 ⑹ 9 201234309 其中,若學習資料在同一種特徵中僅有同一組資料 時,因為權重上限會與權重下限相等,所以利用式(7)及式 (8)來進行調整,避免可拓距離產生無限大的值,其調整 式如下:The number of categories in which the special (^) towel represents the data, Gj is the nth η in the matter element model, and 』1'2'3'...'η,, =<w/,w/> The classic domain of & and the classical domain range can be determined by the learning data as follows: J κ = k) N (3) (4) where 'Xijk stands for the input data of the extension-type neural network. Step 2: Calculate each The weight center value of the item feature is as follows: ', (5) (<+<) 2 (6) 9 201234309 Where, if the learning material has only the same set of data in the same feature, because the upper limit of weight will be Since the lower weight limits are equal, the equations (7) and (8) are used to adjust to avoid infinitely large values of the extension distance. The adjustment formula is as follows:

Wkj_new = Wkj_old - (〇r X 2 Wkj_new = wkj_〇id + (a x ζ; ⑺ ⑻ 、α為經典域範圍調整率,當α設定越大時,則代表經 典域範圍也就跟著越大。 步驟3:讀取i_th訓練樣本資料與特徵數k,如下所示: (9) ED)^用^始計算可拓距離一一, EDik 〜·|·Wkj_new = Wkj_old - (〇r X 2 Wkj_new = wkj_〇id + (ax ζ; (7) (8) , α is the classical domain range adjustment rate. When the α setting is larger, the classical domain range is also increased. 3: Read the i_th training sample data and the feature number k as follows: (9) ED)^ Use ^ to calculate the extension distance one by one, EDik ~·|·

Vt . wk) (10) 第3圖繪示可拓距離示意圖。如第3圖所示,可拓距 與範® <『^之距離’當特徵值之經 八域範圍越大時,學f#料之朗也越大,此時計算可拓 3時:度越低;相反的’若特徵值之經典域範圍越 小時,代表資料樣本越精確,而$敏度越高。 = 5··尋找所有類別的最*可拓距 其最小可拓距離之類別㈣斷為 二 資料類別Μ目同,…,則跳到步驟 (11) 201234309 相等k*关k ’則繼續步驟6之動作。 步驟6 :調整k類別與k*類別之權重值。 (1) 更新權重上、下限值大小。 (12) (13) (14) 〇5) (16)Vt . wk) (10) Figure 3 shows the extension distance diagram. As shown in Figure 3, the distance between the extension and the Fan® <"^" is greater when the eight-domain range of the eigenvalues is larger, and the calculation of the extension is 3: The lower; the opposite 'if the classical domain range of eigenvalues is smaller, the more accurate the data sample is, and the higher the sensitivity. = 5·· Find the category of the most * expandable distance of all categories from the minimum extension distance (4) Break into the second data category, ..., then skip to step (11) 201234309 Equal k* off k ' Then continue to step 6 The action. Step 6: Adjust the weight values of the k category and the k* category. (1) Update the weight upper and lower limit values. (12) (13) (14) 〇 5) (16)

Wkj_new ~ Wkj_old +7l(Xij ~ Zkj_old) Wkj_new ~ Wkj_old + ~ Zkj_〇ld)Wkj_new ~ Wkj_old +7l(Xij ~ Zkj_old) Wkj_new ~ Wkj_old + ~ Zkj_〇ld)

Aj= Aj_M «厂'·』Aj= Aj_M «厂'·』

WH(4-zk”_old、 (2) 更新權重中心值大小。 =^kj_new ^kj^new) Δ kj new ; · 2 其中,77為學習率(Learning rate),學習率的大小會影 響收斂速度以及收斂之精準度,學習率如果越大則容易達 至收斂,但收斂之精準度也可能會降低。相反的,如果學 習率越小可讓收斂較精準,但是學習次數與時間將可能會 增加。 第4圖繪示k類別與k*類別權重調整前的示意圖,第 5圖繪示k類別與k*類別權重調整後的示意圖。如第4圖 及第5圖所示’因EDk*_old < EDk_old,代表所判斷之類別並 非資料之類別’此時透過式(10)到式(16)作調整後,如第5 圖中學習資料所计真之EDk*_new > EDk_ new,表示透過調整 權重已改變其所歸屬的類別至正確類別。 步驟7 :重複步驟3至步驟7之步驟,直到所有學習 201234309 資料皆讀取益完成學 步騍8:當所有 畢。 總誤差率到達到目標值則類程序都已達到收敛狀態或 經過以上幾個步 否之則返回步驟3繼續。 :子習及訓練下’所修正權:中學習與調整權重值,由不 之輸出值與目標C率’可降低可拓類 神經網路辨識之準確率。間的差距,因此可提升 第6圖綠示可. ST楚的了解可以:學習流程圖。如_ 二予%,在本實施方式中周路的學習方式以及如何 °桃出迴圈’並進行可抬 相欲評估類別的辨識率 當可拓類神經網路完点J經評估人體生理訊號辨識。 =集類別的辨識與:即可輪入-待測資料 的辨識流程圖。如第7 第7圖繪示可枯類神經網路 步驟1 :讀取以達到辨細識流程說明如下: 重值矩陣。 冑之目的之可拓類神經網路權 步驟2:計算中間值大 步驟3:讀取待測資料。 步驟4:計算待測 步驟5 :尋找最小可、°平估類別之可枯距離。 評估類別。 矩離,藉以判斷待測資料所屬 步驟6 ·辨識完所有彳 驟3讀取下一筆待測資料^貝料則停止運算’否則回步 上述為本實施方式之 操作原理及方式。值得=評估分析方法100具體的 的疋,藉由可拓類神經處理系 201234309 統能建立每一個人獨一無二的物元模型,並精確掌握每一 個使用者獨特的身體機能表現,進而評估其最精確的體適 能。 第8圖繪示體適能評估分析器的功能方塊圖。如圖所 示,若從技術面的角度來看,亦可將體適能評估分析方法 100具體化成一種體適能評估分析器200,其包含一偵測單 元210、一可拓類神經處理系統220及一輸出單元230。 偵測單元210用以擷取多個生理訊號211及多個機電 φ 訊號212,以建立一待測資料。此處的偵測單元210即對 應前述的生理檢測器、陶瓷感測器、電極貼片...等。 其中,本實施方式利用一些生醫技術來量測人體在運 動時所得到的一些生理訊號,並用這些生理訊號211來找 取出生理特徵資料,為了要找出這些生理特徵資料,以下 分別對心電訊號及肌電訊號介紹。 第9圖繪示心電訊號的擷取流程圖。如第9圖所示, 心臟是由肌肉所組成的器官,組成心臟的肌肉稱為心肌, φ 當心肌在活動時,也就是在心跳動的時會產生電流,在靜 止狀態先利用一陶瓷感測器量測使用者心臟電流,然後在 運動時的任何時間點上再量測使用者的心臟電流,經過一 連串的導程選擇電路、高低通濾波放大器、隔離電路及濾 波器,最後得到一心電訊號。接著利用這些心電訊號來判 斷心臟年齡程度是基本體力、減肥塑身、心肺功能、有氧 界限、競賽體能等情況。 第10圖繪示肌電訊號的擷取流程圖。如第10圖所示, 人體在出力時,肌肉中的細胞因為受到刺激產生興奮,引 13 201234309 =動產生收縮,利用表面電極量測到-肌電訊 及整二—ΐ串的高低通濾、波放Ail、_電路、滤波器 整々’最後可得到一肌力圖。其中 =會,1電圖。經由肌力圖呈現== 強产來t關脱肉的電位活動,並藉㈣作時間、形態 ^ 77斤肌肉為良好或是疲勞的情況。 ,繼續參考第8圖,體適能評估分析器細之可拓類WH(4-zk"_old, (2) update the weight center value. =^kj_new ^kj^new) Δ kj new ; · 2 where 77 is the learning rate, and the learning rate affects the convergence rate. And the accuracy of convergence, if the learning rate is larger, it is easy to reach convergence, but the accuracy of convergence may also be reduced. Conversely, if the learning rate is smaller, the convergence is more accurate, but the number of learning and time may increase. Figure 4 is a schematic diagram showing the k-category and k*-category weight adjustment, and Figure 5 is a schematic diagram showing the k-category and k*-category weight adjustment. As shown in Figures 4 and 5, 'EDk*_old < EDk_old, which means that the category judged is not the category of the data'. After adjusting by equations (10) to (16), the EDk*_new > EDk_ new of the learning data in Fig. 5 indicates By adjusting the weights, the categories to which they belong have been changed to the correct category. Step 7: Repeat steps 3 through 7 until all learning 201234309 data is read and completed. Step 8: When all is completed. Total error rate is reached. The target value has reached the convergence state. After the above steps, go back to step 3. Continue: Sub-acquisition and training under the 'corrected weight: middle learning and adjustment weight value, from the output value and target C rate' can reduce the extension type neural network identification The accuracy rate. The gap between the two can be improved. The green picture of Figure 6 can be improved. The understanding of ST can be: learning flow chart. For example, _ two to %, in this embodiment, the way of learning and how to The circle 'and the identification rate of the liftable appreciating evaluation category. When the extension type neural network is finished, the human body physiological signal identification is evaluated. = The identification of the set category and: the round-up identification process of the data to be tested. As shown in Figure 7 and Figure 7, the neural network can be read as follows: The reading process is as follows: The multi-value matrix. The purpose of the extension-type neural network. Step 2: Calculate the intermediate value. Step 3: Read the data to be tested Step 4: Calculate the test to be tested Step 5: Find the minimum distance that can be used to estimate the category. The evaluation category. Moment away, to judge the data to be tested belongs to step 6 · Identify all the defects Step 3: Read the next data to be tested. Calculate 'otherwise, the above is the operating principle and mode of the present embodiment. It is worth = the specific method of evaluating the analysis method 100, and the unique neuron system can be established by the extensional neuroprocessing system 201234309 system, and accurately Each user's unique physical performance, and then to assess its most accurate physical fitness. Figure 8 shows the functional block diagram of the fitness assessment analyzer. As shown, from a technical point of view, The fitness assessment method 100 can also be embodied as a fitness assessment analyzer 200, which includes a detection unit 210, an extension-type neural processing system 220, and an output unit 230. The detecting unit 210 is configured to capture a plurality of physiological signals 211 and a plurality of electromechanical φ signals 212 to establish a data to be tested. The detecting unit 210 here corresponds to the aforementioned physiological detector, ceramic sensor, electrode patch, and the like. Among them, the present embodiment uses some biomedical techniques to measure some physiological signals obtained by the human body during exercise, and uses these physiological signals 211 to find physiological characteristic data. In order to find out these physiological characteristic data, the following respectively No. and EMG signal introduction. Figure 9 shows the flow chart of the ECG signal. As shown in Fig. 9, the heart is an organ composed of muscles. The muscles that make up the heart are called myocardium. φ When the myocardium is active, that is, when the heart beats, current is generated, and in the static state, a ceramic sense is used first. The measuring device measures the user's heart current, and then measures the user's heart current at any time during the movement, after a series of lead selection circuits, high and low pass filter amplifiers, isolation circuits and filters, and finally obtains a single heart telegram. number. Then use these ECG signals to determine the age of the heart is basic physical strength, weight loss body sculpting, cardiopulmonary function, aerobic boundaries, competitive physical fitness and so on. Figure 10 shows a flow chart of the acquisition of myoelectric signals. As shown in Figure 10, when the human body is exerting force, the cells in the muscle are excited by the stimulation. 13201234309=The motion is contracted, and the surface electrode is used to measure the high-low filtration of the myoelectric signal and the whole two-string. Wave Ail, _ circuit, filter 々 'final can get a muscle force diagram. Where = will, 1 electrogram. Through the muscle force diagram == strong production to t off the potential activity of meat removal, and by (4) for time, shape ^ 77 kg muscle is good or fatigue. , continue to refer to Figure 8, the fitness evaluation analyzer fine extension class

L i /1 μ 220以如前述之體適能評估分析方法100訓 練成’用以將待測資料歸類為至少一評估類別。 =單元230用以輸出評估類別,此處的輸出單元23〇 :二,型電腦、pDA、手機、USB…任何可將資料輸出 、I面—此外,本實施方式更包含一遠端監控器240,用 以收集別’是藉由Modbus、Zigbee無線傳輸器將各 ,使用者不同的評估類別傳輸至遠端監控If 24G進行控 管。 第11 ϋ至第13圖繪示圖控軟體LabVIEW的介面。如 •第11、圖至第13圖所示,本實施方式是利用筆記型電腦作 為資料儲存及資料輸出的介面,讓監控者可輕易從 LabVIEW的介面上獲知使用者的各項參數數值及評估類 別結果。如此—來’使用者亦可於運動結束後知道自己的 身體狀況及運動過程中所轉換的各項數據。 本實施方式具有遠端監控器24〇的設計,另可應用於 尚做長期復健的患者身上,藉由遠端監控器24〇長期收集 的評估類別’利用資料統計、圖表分析等方式對復健患 者的身體狀況及復健過程進行較嚴密的監控’避免復健過 201234309 程的運動傷害’並確保復健運動對患者身體產生預期的效 果。 此外’本實施方式可訊號連接多個輸出單元23(),再 將不同使用者的多筆評估類別集合管理,此種統一管理的 方式可擴大應用在各健身中心、醫院或復健中心,不但可 提升使用者健身或復健的品質外,亦可降低需監督使用者 的人事成本。 更進一步的來說,上述體適能評估分析器又可應 • 用於腳踏健身器上,使其成為一種體適能評估分析腳踏健 身裝置300。第14圖繪示體適能評估分析腳踏健身裝置的 示意圖。如第14圖所示’體適能評估分析腳踏健身裝置 300包含一腳踏健身器310、多個生理訊號偵測器32〇、多 個機電訊號偵測器330及一如前述之體適能評估分析器 200。 " 生理訊號偵測器320用以擷取腳踏健身器31〇之使用L i /1 μ 220 is trained in the physical fitness assessment analysis method 100 as described above to classify the data to be tested into at least one evaluation category. = unit 230 is used to output the evaluation category, where the output unit 23: two, type computer, pDA, mobile phone, USB ... any data output, I side - in addition, the embodiment further includes a remote monitor 240 For collection, the different evaluation categories of users and users are transmitted to the remote monitoring If 24G for control by Modbus and Zigbee wireless transmitter. The 11th to 13th drawings show the interface of the graphical control software LabVIEW. As shown in Fig. 11 and Fig. 13, this embodiment uses a notebook computer as a data storage and data output interface, so that the monitor can easily know the user's parameter values and evaluation from the LabVIEW interface. Category results. In this way, the user can also know his or her physical condition and the data converted during the exercise. The embodiment has the design of the remote monitor 24〇, and can be applied to the patient who is still doing long-term rehabilitation, and the remote monitoring unit 24 uses the evaluation category of the long-term collection to utilize the data statistics and graph analysis. The physical condition of the healthy patient and the rehabilitation process are closely monitored 'avoiding the rehabilitation of the sports injury of 201234309' and ensuring that the rehabilitation exercise has the desired effect on the patient's body. In addition, the present embodiment can be connected to a plurality of output units 23() by signal, and then manage multiple sets of evaluation categories of different users. This unified management method can be extended to various fitness centers, hospitals or rehabilitation centers, not only in fitness centers, hospitals or rehabilitation centers. It can improve the quality of the user's fitness or rehabilitation, and can also reduce the personnel costs of monitoring the user. Furthermore, the above-mentioned fitness evaluation analyzer can be applied to the pedal exerciser to make it a fitness evaluation and analysis pedal exercise device 300. Figure 14 is a schematic diagram showing the physical fitness assessment and analysis of the pedal exercise device. As shown in Fig. 14, the physical fitness evaluation analysis pedal exercise device 300 includes a pedal exercise device 310, a plurality of physiological signal detectors 32, a plurality of electromechanical signal detectors 330, and a physical body as described above. The analyzer 200 can be evaluated. " Physiological signal detector 320 is used to capture the use of the pedal exerciser 31

者的生理狀態。機電訊號偵測器33〇用以擷取腳踏健身器 310之機電狀態。此處的生理訊號偵測器32〇及機電訊號 偵測器330相當於前述體適能評估分析器2〇〇的偵測單元 2Η)。如前述之體適缺估分析器細㈣根據生理訊號偵 測器320及機電訊號偵測器330判斷出至少一評估類別。 值得-k的疋,本實施方式之體適能評估分析腳踏健 身裝置300另有-可反饋的發電機制,踩動腳踏健 輪的力量帶動鏈條與變速器來啟動發電機,並將發電機 電能利用一直流充電器及一變頻轉換器儲存於蓄電池,再 將此電池f㈣於生理訊號_器32G、機電訊號偵測器 201234309 330及體適能評估分析器2㈧。 身器二二用本揭示内容可針對各個健 器收集各使用者的 別=及=’並藉由遠端監控 期體適能訓練或復健的目進盯長期的監控’以達到長 用以以實施方式揭露如上,然其並非 示内容==任r㈣技藝者’在不脫離料 本揭示内容之保罐田可作各種之更動與潤飾,因此 為準。’、護_當視後附之中請專利範圍所界定者 【圖式簡單說明】 布1圃繪示本 方法的步驟流程圖 第1圖揭示内 ^2圖繪示可拓類神經網路的架構圖。The physiological state of the person. The electromechanical signal detector 33 is used to capture the electromechanical state of the pedal exerciser 310. Here, the physiological signal detector 32 and the electromechanical signal detector 330 are equivalent to the detecting unit 2 of the aforementioned fitness evaluation analyzer 2). The at least one evaluation category is determined according to the physiological signal detector 320 and the electromechanical signal detector 330, as described above. Worth-k, the physical fitness evaluation of the present embodiment analyzes the pedal exercise device 300. Another feedback-driven generator system, the force of the pedaling wheel drives the chain and the transmission to start the generator, and the generator is electrically The battery can be stored in the battery by using a DC charger and a frequency converter, and then the battery is f (four) to the physiological signal _ 32G, the electromechanical signal detector 201234309 330 and the fitness evaluation analyzer 2 (eight). The second disclosure of the device can be used to collect the user's other = and = ' for each health device and to monitor the long-term monitoring by the remote monitoring of the physical fitness training or rehabilitation. The above is disclosed in the above embodiments, but it is not intended to show that the content of the present invention can be changed and retouched without departing from the disclosure of the present disclosure. ', _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ Architecture diagram.

第3圖繪示可拓距離示意圖。 ^ 4圖繪示k類別與k*類別權重調整前的示意圖。 5圖繪示k類別與k*類別權重調錢的示意圖。 第6圖繪示可拓類神賴路的學習流程圖。 ^ 7圖繪科拓轉_路的辨識流程圖。 8圖綠不體適能評估分析器的功能方塊圖。 第9圖繪示心電訊制擷取流程圖。 第1〇圖繪示肌電訊號的擷取流程圖。 ^ 11圖至第13圖繪示圖控軟體Lab VIEW的介面。 14圖繪讀輕評估分析㈣健身裝置的示意圖〇 201234309 【主要元件符號說明】 100 :體適能評估分析方法 110-150 :步驟 200 :體適能評估分析器 210 :偵測單元 211 :生理訊號 212 ·•機電訊號 220 :可拓類神經處理系統 230 :輸出單元 240 :遠端監控器 300 :體適能評估分析腳踏健 310 :腳踏健身器 身裝置 330 :機電訊號偵測器 320 :生理訊號偵測器 17Figure 3 shows a schematic diagram of the extension distance. ^ 4 is a schematic diagram showing the k-category and k*-category weight adjustments. Figure 5 is a schematic diagram showing the weight adjustment of the k category and the k* category. Figure 6 shows the flow chart of the learning of the extension class. ^ 7 Figure drawing extension chart _ road identification flow chart. Figure 8 is a functional block diagram of the Green Inappropriate Assessment Analyzer. Figure 9 shows the flow chart of the telecentric system. The first diagram shows the flow chart of the myoelectric signal. ^ 11 to 13 show the interface of the graphical software LabVIEW. Figure 14 shows the light assessment analysis (4) Schematic diagram of the fitness device 〇201234309 [Main component symbol description] 100: Physical fitness assessment analysis method 110-150: Step 200: Physical fitness assessment analyzer 210: Detection unit 211: Physiological signal 212 ·•Electromechanical signal 220: Extension-type neuroprocessing system 230: Output unit 240: Remote monitoring device 300: Physical fitness assessment analysis Foot pedal 310: Foot fitness device 330: Electromechanical signal detector 320: Physiological signal detector 17

Claims (1)

201234309 七、申請專利範圍: 1. 一種體適能評估分析方法,係用於至少一使用者操 作一腳踏健身器時,包含下列步驟: 擷取複數個生理特徵資料,該些生理特徵資料係取自 該使用者之生理狀態; 擷取複數個機電特徵資料,該些機電特徵資料係取自 該腳踏健身器之機電狀態; 利用該些生理特徵資料及該些機電特徵資料建立至少 • 一物元模型; 利用該物元模型訓練一可拓類神經網路以建立一可拓 類神經處理系統;以及 利用該可拓類神經處理系統將至少一待測資料,歸類 為至少一評估類別。 2. 如請求項1所述之體適能評估分析方法,其中該些 生理特徵資料為一心電訊號特徵。 3. 如請求項1所述之體適能評估分析方法,其中該些 生理特徵資料為一肌電訊號特徵。 4. 如請求項1所述之體適能評估分析方法,其中該些 機電特徵資料為一腳踩踏轉速特徵。 5. 如請求項1所述之體適能評估分析方法,其中該些 201234309 機電特徵資料為一馬達輸出功率特徵。 6.如請求項丨所述之體適能評估分析方法,1中該此 機電特徵資料為一馬達輸出電壓特徵及一馬“: 徵0 、 ❿ 7.如請求項丨所述之體適能評估分析方法,更包含: 利用一遠端監控器收集該評估類別。 8· 一種體適能評估分析器,包含: 偵測單元,用以擷取複數個 訊號,以建立-㈣賴;生理A纽複數個機電 適;:t類神經處理系統’係以如請求項1_7所述之體 適月b#估分析方法丨練而成 體 少一評估類別;以及待測資料歸類為至 -輸出單元’用以輸出該評估類別。 求項8所述之體適能評估分析器更包含: 監控器,用以收集該評估類別。 能評估〜身裝置,包含: 複數個生理訊號偵测器 用者的生理狀態; 用以擷取该腳踏健身器之使 201234309 複數個機電訊號偵測器,用以擷取該腳踏健身器之機 電狀態;以及 一如請求項8所述之體適能評估分析器,用以根據該 些生理訊號偵測器及該些機電訊號偵測器判斷出至少一評 估類別。201234309 VII. Patent application scope: 1. A physical fitness assessment analysis method for at least one user to operate a pedal exerciser, comprising the following steps: capturing a plurality of physiological characteristic data, the physiological characteristic data system Taking the physiological state of the user; taking a plurality of electromechanical characteristics data taken from the electromechanical state of the pedal exerciser; using the physiological characteristic data and the electromechanical characteristic data to establish at least one a matter-element model; using the matter-element model to train an extension-like neural network to establish an extension-type neural processing system; and using the extension-type neuroprocessing system to classify at least one data to be tested into at least one evaluation category . 2. The method of assessing physical fitness according to claim 1, wherein the physiological characteristic data is an electrocardiographic signal feature. 3. The method of assessing physical fitness according to claim 1, wherein the physiological characteristic data is a myoelectric signal feature. 4. The physical fitness assessment analysis method of claim 1, wherein the electromechanical characteristic data is a one-step tread speed characteristic. 5. The physical fitness assessment analysis method of claim 1, wherein the 201234309 electromechanical characteristic data is a motor output power characteristic. 6. The physical fitness evaluation method described in claim 1 is characterized in that the motor-electrical characteristic data is a motor output voltage characteristic and a horse ": levy 0, ❿ 7. The physical fitness as described in the claim 丨The evaluation analysis method further comprises: collecting the evaluation category by using a remote monitor. 8· A fitness assessment analyzer, comprising: a detection unit for extracting a plurality of signals to establish a (four) Lai; a physiological A The plurality of electromechanical systems are:; the t-type neuroprocessing system is based on the body-fitted b# estimation method as described in claim 1-7, and the less-evaluation category is formed; and the data to be tested is classified as a to-output unit. 'To output the evaluation category. The physical fitness evaluation analyzer described in claim 8 further includes: a monitor for collecting the evaluation category. The device can be evaluated, including: a plurality of physiological signal detector users Physiological state; used to capture the pedal exerciser 201234309 a plurality of electromechanical signal detectors for capturing the electromechanical state of the pedal exerciser; and the fitness assessment analysis as described in claim 8 Use Determining at least one category based on the evaluation of these physiological signal detector, and the plurality of electromechanical signal detector. 20 ΰ20 ΰ
TW100104949A 2011-02-15 2011-02-15 Physical fitness analyzer, analytic method and bicycled fitness device TWI434224B (en)

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Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI501180B (en) * 2013-09-02 2015-09-21 Tonic Fitness Technology Inc Sports training and management system
TWI508018B (en) * 2013-09-04 2015-11-11 Wistron Corp Exercise management service method and system thereof
CN107411730A (en) * 2017-08-31 2017-12-01 邹海清 Wearable training monitoring equipment

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI501180B (en) * 2013-09-02 2015-09-21 Tonic Fitness Technology Inc Sports training and management system
TWI508018B (en) * 2013-09-04 2015-11-11 Wistron Corp Exercise management service method and system thereof
CN107411730A (en) * 2017-08-31 2017-12-01 邹海清 Wearable training monitoring equipment

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