TWI327061B - - Google Patents
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- TWI327061B TWI327061B TW96134914A TW96134914A TWI327061B TW I327061 B TWI327061 B TW I327061B TW 96134914 A TW96134914 A TW 96134914A TW 96134914 A TW96134914 A TW 96134914A TW I327061 B TWI327061 B TW I327061B
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- 230000010349 pulsation Effects 0.000 claims description 48
- 238000006073 displacement reaction Methods 0.000 claims description 44
- 238000001228 spectrum Methods 0.000 claims description 34
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- Measuring Pulse, Heart Rate, Blood Pressure Or Blood Flow (AREA)
Description
1327061 九、發明說明: 【發明所屬之技術領域】 本發明是有關於一種脈診儀,特別是指一種可進行頻 s普分析的脈診儀。 【先前技術】 脈診是中醫診斷疾病與監控療效的重要診斷方法,目 前傳統中醫的把脈方式是由醫師將一手的三根手指指頭(主 要為食指、中指及無名指)放在患者手腕處的橈動脈上,並 再施以不同程度的壓力,以利用手指頭去感覺在不同壓力下 患者血管的反應狀態,進而進行脈搏分析。 診脈首先要分辨「脈位」,主要部位為左右手手腕的寸 、關、尺部位,左右寸關尺六部可對應至不同臟驸,且由浮 中沉的部位可再判斷病在表、半表半裏或在裏。其次是判斷 脈數」,指脈搏的速率,臨床上可由脈搏的快慢來定疾病 的寒熱屬性》第三為分辨「脈形」,指脈的形狀,即脈搏的 大小、寬度等’可定血量的多寡。第四是感受「脈勢」,「勢 」指脈上下搏動的盛衰,和動止的躁靜,是診脈中最重要且 最難體會的部分’也是判斷疾病屬性極重要的因素。 以人的手指感應脈診則需要敏銳的手指觸覺,於找到 「脈位」後,再根據豐富的理論與實務經驗對指梢末端所感 應到的「脈數」、「脈形」與「脈勢」,對患者的生理狀況與 病清作出較客觀正確的判斷,但有心學習診脈者,往往因脈 氣體察不易,而常有「在心易了,指下難明」之嘆,尤其對 一般初次上陣診脈者限於經驗的不足,更不易作出正確的脈1327061 IX. DESCRIPTION OF THE INVENTION: TECHNICAL FIELD The present invention relates to a pulse diagnosis apparatus, and more particularly to a pulse diagnosis apparatus capable of performing frequency analysis. [Prior Art] Pulse diagnosis is an important diagnostic method for TCM diagnosis of disease and monitoring of curative effect. At present, the traditional Chinese medicine method is to place the three fingers of the first hand (mainly the index finger, middle finger and ring finger) on the radial artery of the patient's wrist. Above, and then apply different degrees of pressure, to use the fingers to feel the reaction state of the patient's blood vessels under different pressures, and then perform pulse analysis. The diagnosis should first distinguish the "pulse position". The main part is the inch, the off and the ruler of the left and right hand wrists. The six parts of the left and right inch can correspond to different organs, and the parts of the floating and sinking can be judged on the table and the half table. Half or inside. The second is to determine the pulse number, which refers to the rate of the pulse, clinically can be determined by the speed of the pulse to determine the cold and heat properties of the disease. The third is to distinguish the "pulse shape", the shape of the pulse, that is, the size and width of the pulse, etc. The amount of quantity. The fourth is to feel the "pulse". The "potential" refers to the ups and downs of the pulse up and down, and the quietness of the movement, which is the most important and most difficult part of the diagnosis. It is also a very important factor in judging the disease attributes. Inductive pulse diagnosis with human fingers requires a keen finger touch. After finding the "pulse position", the "pulse number", "pulse shape" and "pulse" sensed at the end of the finger according to rich theoretical and practical experience. "potential", to make objective and correct judgments on the patient's physiological condition and disease clearness, but those who are interested in learning the diagnosis are often not easy to see because of the pulse gas, but often have the sigh of "in the heart, easy to refer to the next", especially for the general The first time the doctors are limited to the lack of experience, it is not easy to make the correct pulse.
(S 5 1327061 象分析《現在,拜科學發達之賜,許多探討脈象成因與意義 的科學儀器也逐漸發展出來,並持續被改造以提升其應用功 能’藉此,可以較客觀與較科學的方式量測得患者的脈象資 料,減少人為主觀騎的誤差,並能減少經料足者診脈誤 =的風險,使中醫的輯方法藉由與現代科學相結合而能獲 得更精確而客觀的判斷標準。(S 5 1327061 Image analysis "Now, thanks to the development of science, many scientific instruments that explore the causes and meanings of the pulse have gradually developed and continue to be transformed to enhance their application functions." This can be more objective and scientific. Measuring the pulse data of the patient, reducing the error of the subjective riding, and reducing the risk of the diagnosis of the pulse of the foot, so that the method of Chinese medicine can be combined with modern science to obtain more accurate and objective criteria. .
雖然目别已發展出可部分使用於中醫臨床切診的脈診 儀’但主要㈣是供研究使用,可供臨床應㈣部分有限, 在應用時實際上仍存有下列缺失: -、中醫診斷的基礎在判斷氣血陰陽的屬性,且切診 的基本要求需要體會脈的「位、數、形'勢」,其中,脈形Although the target has developed a pulse diagnostic apparatus that can be partially used in the clinical diagnosis of traditional Chinese medicine, 'the main (4) is for research use, and the clinical application should be limited in part. In practice, there are still the following defects: -, diagnosis of traditional Chinese medicine The basis of the judgment is the attribute of qi and yin and yang, and the basic requirements of the diagnosis require the "bit, number, shape" of the pulse, in which the vein
與脈勢尤其需要更靈敏的指下功夫去感應量測,但現今的脈 診儀多以分析脈形與脈數為主,缺乏分析脈勢或脈氣的功能 a例如:如圖i_a與圖1-b所示,分別針對胃正常與胃不正 处,〜進行脈6乡’雖然都能夠從顯示器上看到脈波圖,但僅 _步了解脈波圖’而無法進__步對脈波訊號進行分析,因 2對於了解疾病氣血變化與病氣運行情況並無法產生客觀 刀析結果’具有無法提升整體分析水平與脈診的可信度較 〃用的支架(圖未示)無法靈活的進行位移,可能 ;更:=移,導致有時候患者需配合再移動手部才能方 中,、可舍裝置(圖未示)相接觸’但在患者手部移動的過程 果的可:性:其右氣血流動的順暢性,W 而具有使用上較不方便的缺失。In particular, the pulse potential needs to be more sensitive to measure the measurement, but today's pulse diagnosis apparatus mainly analyzes the pulse shape and pulse number, and lacks the function of analyzing the pulse potential or pulse gas. For example: Figure i_a and figure 1-b, respectively, for the normal stomach and stomach disorders, ~ pulse 6 township 'Although they can see the pulse map from the display, but only _step to understand the pulse map 'can not enter the __ step The wave signal is analyzed because 2 is unable to produce objective analysis results for understanding the disease and blood gas changes and the operation of the disease. 'There is no way to improve the overall analysis level and the credibility of the pulse diagnosis. Flexible displacement, possible; more: = shift, which sometimes causes the patient to cooperate with the hand to move the hand, and the device can be touched (not shown) but the process of moving in the patient's hand can: Sex: the smoothness of right qi and blood flow, and W is less convenient to use.
6 【發明内容】 、本發3的目#,是s S供—種能夠感測到脈動 δ號並%利用特定的軟體將脈動訊號轉換為頻譜圖,以 選定特定範圍進行分析而可提高臨床診斷的正確性,及提 供作為經驗不足者進行切診訓練的可進行頻譜分析的脈診 儀。 方、是本發明可進行頻譜分析的脈診儀是可供量測人 :橈動脈的脈動訊號,包含一基座單元、一設置於該基座 早7C的位移調整機構 ' —設置於該位移調整機構的感測單 元,及一與該感測單元電連接的電腦單元。 該位移調整機構能夠相對該人體的橈動脈進行位移。 亥感測單元包括一可拆除地設置於該位移調整機構的 推拉力什,及—朝向該基座單元地裝設在該推拉力計一底 端而與该推拉計相連動的脈動感測器。 該電腦單元包括一與該感測單元的脈動感測器電連接 的主機,及一與該主機電連接的顯示器,該主機並具有一 内建的轉換軟體,以將該脈動感測器所量測的脈動訊號轉 換並操取出一頻域介於〇〜5〇Ηζ、〇〜1〇Ηζ、及13Ηζ〜5〇ηζ的 頻譜圖進行臨床分析。 本發明的有益效果在於:能藉由該位移調整機構方便 地將該感測單元移到預定的位置量測脈動情形,且所量得 的脈波訊號經適當處理後,除了能利用未經轉換前的脈波 圖來觀察心血管功能外’還能藉由將所量得的脈動訊號轉 換為一頻域介於〇〜5〇Ηζ的頻譜圖,再擷取其中的0〜10Ηζ 的低頻諧波表現來判斷臟腑内部血流的細微改變,及由 BHz〜5〇Hz㈣分看出患者生誠面臨壓力時身體的立即 反應,因此可得到較全面的診斷結果,使本發明具有可提 升脈診品質與增加脈診判斷的正確性的特性與優點。 【實施方式】 本發明可進行頻譜分析的脈診儀的前述以及其他技術 内容、特點與功效,在以下配合參考圖式的一較佳實施例 的詳細說明中,將可清楚地明白。 參閱圖2、圖3與圖6’本發明可進行頻譜分析的脈診 $ 2之較佳實施例是可供量測人體橈動脈的脈動訊號,包 含一基座早το 3、一設置於該基座單元3的位移調整機構4 、一設置於該位移調整機構4的感測單元5、一與該感測單 元5相連接的訊號處理單元6,及—與該訊號處理單元6電 連接的電腦單元7。 該基座單元3包括一座體31,沿一水平方向X相間隔 且相平行地凹設於該座體31 一上表面311的二滑軌32,及 一能夠沿該水平方向X滑動地裝設於該二滑軌32的承載板 33,該承載板33具有一覆設於該二滑執32的底板部331, 及一自該底板部331 —側緣彎折向上延伸的側板部332。在 該較佳實施例中,該二滑執32是使用線性滑軌。 該位移調整機構4是能夠相對該人體的橈動脈進行位 移,包括一連設於該基座單元3的承載板33的前後驅動單 元41、一裝設於該前後驅動單元41的直立驅動單元42, 及女裝在該直立驅動單元42的水平驅動單元43。 8 1327061 該前後驅動單元41包括一 一固接於該承載板33 的側板6 [Summary] The target # of the present invention is that the s S supply can sense the pulsation δ number and use a specific software to convert the pulsation signal into a spectrogram, and select a specific range for analysis to improve the clinical The correctness of the diagnosis and the provision of a diagnostic instrument for spectrum analysis as an inexperienced training session. The pulse diagnostic apparatus capable of performing spectrum analysis according to the present invention is a pulse measuring signal for measuring a human artery: a pulsation signal of a radial artery, including a base unit, and a displacement adjusting mechanism disposed on the base 7C early—set in the displacement a sensing unit of the adjustment mechanism and a computer unit electrically connected to the sensing unit. The displacement adjustment mechanism is displaceable relative to the radial artery of the human body. The sleek sensing unit includes a pulsating force detachably disposed on the displacement adjusting mechanism, and a pulsation sensor mounted to the base unit at a bottom end of the sway gauge and coupled to the push-pull meter . The computer unit includes a host electrically connected to the pulsation sensor of the sensing unit, and a display electrically connected to the host, the host having a built-in conversion software to measure the pulsation sensor The measured pulsation signal is converted and a spectrogram with a frequency domain between 〇~5〇Ηζ, 〇~1〇Ηζ, and 13Ηζ~5〇ηζ is performed for clinical analysis. The utility model has the beneficial effects that the sensing unit can be conveniently moved to a predetermined position by the displacement adjusting mechanism to measure the pulsation situation, and the measured pulse wave signal can be utilized without being converted after being properly processed. The former pulse wave map to observe the cardiovascular function can also be converted into a frequency spectrum with a frequency domain between 〇~5〇Ηζ by the measured pulse signal, and then the low frequency harmonic of 0~10Ηζ is taken. Wave performance to determine the subtle changes in the internal blood flow of the viscera, and BHz~5〇Hz (four) points to see the immediate reaction of the patient when the patient is under pressure, so a more comprehensive diagnosis result can be obtained, so that the present invention can improve the pulse diagnosis Quality and characteristics and advantages of increasing the correctness of pulse diagnosis. [Embodiment] The foregoing and other technical contents, features, and effects of the pulse diagnosing apparatus of the present invention can be clearly understood from the following detailed description of a preferred embodiment of the accompanying drawings. Referring to FIG. 2, FIG. 3 and FIG. 6', a preferred embodiment of the pulse diagnosis $2 for spectrum analysis of the present invention is a pulse signal for measuring the radial artery of the human body, comprising a base early το3, one disposed on the a displacement adjusting mechanism 4 of the base unit 3, a sensing unit 5 disposed on the displacement adjusting mechanism 4, a signal processing unit 6 connected to the sensing unit 5, and an electrical connection with the signal processing unit 6 Computer unit 7. The base unit 3 includes a body 31 which is spaced apart from each other in a horizontal direction X and is parallel to the two slide rails 32 of the upper surface 311 of the base body 31, and is slidably mounted along the horizontal direction X. The carrier plate 33 of the two slide rails 32 has a bottom plate portion 331 which is disposed on the two sliding blocks 32, and a side plate portion 332 which is bent upward from the side edge of the bottom plate portion 331. In the preferred embodiment, the two slides 32 use linear slides. The displacement adjusting mechanism 4 is displaceable relative to the radial artery of the human body, and includes a front and rear driving unit 41 connected to the carrying plate 33 of the base unit 3, and an upright driving unit 42 mounted on the front and rear driving unit 41. And the women's clothing is in the horizontal drive unit 43 of the upright drive unit 42. 8 1327061 The front and rear drive unit 41 includes a side plate fixed to the carrier plate 33
415 ’當轉動該第一位移調整盤413時, 且具有一與該第一位移調 的第一齒條段416的滑塊 3時,該滑塊415可受驅 動而沿該前後方向Y在該軌槽412内滑動。 该直立驅動單元42包括一沿一與該前後方向γ垂直的 直立方向z固接於該前後驅動單元41的滑塊415的支撐柱 421、一形成有一可供該支撐柱421穿套的導引孔423的活 動座422,及一可轉動地樞設於該活動座422並具有一位於 該導引孔423内的第二齒軸425的第二位移調整盤424,該 支撐柱421並形成一沿該直立方向z設置,且與該第二位 移調整盤424的第二齒軸425相嚙合的第二齒條段426,告 田 轉動該第二位移調整盤424時,該活動座422可受驅動而 沿該直立方向Z相對於該支撐柱421位移。 參閱圖3與圖4,該水平驅動單元43包括一固接於該 直立驅動單元42的活動座422,並形成有一沿該水平方向 X汉置的引導通道432的固定塊431、一可轉動地樞設於該 固定塊431,並具有一位於該引導通道432内的第三齒軸 434的第三位移調整盤433,及一可活動地穿設於該引導通 道432並形成一與該第三齒轴434相嚙合的第三齒條段436 9 1327061 的活動桿435,當轉動該第三位移調整盤433時,該活動桿 435可受驅動而沿該水平方向χ相對該固定塊43丨移動。 參閱圖5與圖6,該感測單元5包括一可拆除地設置於 該位移調整機構4的推拉力計51,及一朝向該基座單元3 地裝設在該推拉力計51 —底端而與該推拉計51相連動的 脈動感測器52 ’且該脈動感測器52具有一固接於該推拉計 51底端並具有一預定的貼觸面積的感測片52i,該感測片 521可供貼觸於一待量測部位進行脈動的量測。其中,該脈 動感測器52是由一般市售的壓力感測器(pressure sens〇r)再 配合官狀型式的外殼組裝形成,該感測片52丨是由可感應 壓力變化的材質所製成’因此可感測到脈動,且可從各種 不同規格的壓力感測器中選用具有適當的敏感度與預定型 式的感測片作為該脈動感測器52,再以適當的加工調整該 感測片521的貼觸面積,就能自被量測部位取得較正確清 晰的脈動訊號供進一步分析使用。 參閱圖2與圖8’該訊號處理平元6是與該感測單元5 的脈動感測器52的感測片521相連接,包括一放大器6 j、 一濾波器62,及一類比/數位轉換器63。 該電腦單元7包括一與該訊號處理單元6的類比/數位 轉換器63電連接的主機71,及一與該主機η電連接,用 以顯示量測與計算結果的顯示器72,該主機η並具有一内 建的轉換軟體,以將該脈動感測器52所量測的脈動訊號轉 換並分別擷取出一頻域介於0〜5〇Hz、〇〜1〇 Hz及 13Hz〜50Hz的頻譜圖進行臨床分析。其中,13〜5〇 Hz的頻415 'When the first displacement adjustment disk 413 is rotated and has a slider 3 of the first rack segment 416 adjusted with the first displacement, the slider 415 can be driven along the front and rear direction Y. The rail groove 412 slides inside. The upright driving unit 42 includes a support post 421 fixed to the slider 415 of the front and rear driving unit 41 in an upright direction z perpendicular to the front-rear direction γ, and a guide for the support post 421 to be formed. a movable seat 422 of the hole 423, and a second displacement adjusting plate 424 rotatably pivoted to the movable seat 422 and having a second pinion 425 located in the guiding hole 423, the supporting column 421 forming a When the second rack segment 426 is disposed in the upright direction z and is engaged with the second pinion 425 of the second displacement adjusting disk 424, when the second displacement adjusting disk 424 is rotated, the movable seat 422 can be subjected to The drive is displaced in the upright direction Z relative to the support column 421. Referring to FIG. 3 and FIG. 4, the horizontal driving unit 43 includes a movable seat 422 fixed to the vertical driving unit 42 and formed with a fixing block 431 of the guiding passage 432 disposed in the horizontal direction X, and a rotatably a third displacement adjusting plate 433 pivotally disposed on the fixing block 431 and having a third pinion 434 located in the guiding passage 432, and a movable passage through the guiding passage 432 and forming a third portion The movable rod 435 of the third rack segment 436 9 1327061 in which the pinion 434 is engaged, when the third displacement adjusting plate 433 is rotated, the movable rod 435 can be driven to move relative to the fixed block 43 in the horizontal direction . Referring to FIG. 5 and FIG. 6 , the sensing unit 5 includes a push-pull force meter 51 detachably disposed on the displacement adjusting mechanism 4 , and a bottom of the push-pull force meter 51 disposed toward the base unit 3 . And the pulsation sensor 52' connected to the push-pull gauge 51, and the pulsation sensor 52 has a sensing piece 52i fixed to the bottom end of the push-pull meter 51 and having a predetermined contact area, the sensing The piece 521 can be attached to a measurement site for measurement of pulsation. Wherein, the pulsation sensor 52 is formed by assembling a commercially available pressure sensor (pressure sens〇r) and an official type of outer casing, and the sensing piece 52 is made of a material capable of sensing pressure changes. Therefore, pulsation can be sensed, and a sensing piece having an appropriate sensitivity and a predetermined pattern can be selected as the pulsation sensor 52 from various pressure sensors of different specifications, and the feeling can be adjusted by appropriate processing. The contact area of the measuring piece 521 can obtain a more accurate and clear pulse signal from the measured part for further analysis and use. Referring to FIG. 2 and FIG. 8 ', the signal processing unit 6 is connected to the sensing strip 521 of the pulsation sensor 52 of the sensing unit 5, and includes an amplifier 6 j , a filter 62 , and an analog/digital digit. Converter 63. The computer unit 7 includes a host 71 electrically connected to the analog/digital converter 63 of the signal processing unit 6, and a display 72 electrically connected to the host n for displaying measurement and calculation results. The utility model has a built-in conversion software for converting the pulsation signal measured by the pulsation sensor 52 and extracting a frequency spectrum of the frequency domain between 0 〜5 〇 Hz, 〇 〜1 〇 Hz and 13 Hz 〜 50 Hz, respectively. Perform a clinical analysis. Among them, the frequency of 13~5〇 Hz
C S 10 "曰疋〜慮波器將G〜Η) Hz區段的頻譜完域掉,僅保留 1〇〜5〇HZ部分的頻譜,以呈現明顯的13〜50Hz區段的頻譜 變化:而有利於臨床的分析與判讀。由於〇〜ι〇Ηζ區段的頻 ^在0 50 Hz頻谱圖中的表現較明顯,可不經滤波器進 步處理就月b直接從〇〜5〇 Hz頻譜圖中判讀。在該較佳實 腦單& 7的主機71的内建軟體較佳是 der6.0’傳送到該主機71的脈動訊號可經該軟體處 理進行傅立葉轉換,進而將時域訊號轉換為頻域訊號。 參閱圖2、圖3與圖6,量測前,是先利用該承載板32 與=二滑軌32進行初步的位置調整,先將—可供—手腕ι〇 抵罪的塾體101放置於該基座3的承載板33的底板部m 再如該一滑軌32水平移動該承載板33至較靠近該患者 手邓的位置,以方便患者的手腕1〇靠置於該墊體ι〇ι上, 接著’再依據該感測單元5㈣動感測㈣51才目對於該手腕 10的位置,分別順向或逆向轉動位於該位移調整機構4的 前後、直立、水平驅動單元41、42、43上的第一位移調整 盤413、第二位移調整盤424、第三位移調整盤433,以分 別驅動該滑塊415沿該前後方向γ移動、該活動座422沿 該直立方向Ζ移動,及該活動桿435沿該水平方向χ移動 ,最終,使該感測單元5的脈動感測器52的感測片52丨恰 好貼觸定位於該患者的手腕1〇的預定位置處為止,定位後 ,再稍微驅動該直立驅動單元42向下移,以使該脈動感測 器52對被測量部位施加適當的壓力與感應到較明顯的脈動 訊號。其中,該預定位置較佳是左手或右手手腕丨〇在中醫 11 1327061 脈θ學上被疋義為寸、關、尺的部位,藉此,可測得較佳 的脈動訊號。 參閱圖6與圖8,當該感測單元5的感測片521貼觸於 手腕10的預定位置並施加適當的壓力時,來自棱動脈的脈 動可穿過皮膚表層到達該感測片52卜該感測片521可感測 到橈動脈的壓力變化,並將所感測到的變化通過一連接於 該感測片521與該訊號處理單元6之間的傳輸線組6〇傳送 到該訊號處理單元6 ’再由該放大器61放大脈動訊號,該 濾波62濾除雜訊,及該類比/數位轉換器63將類比訊號 轉換成數位訊號。 該電腦單元7的主機71於接收到由該訊號處理單元6 傳送過來的數位脈動訊號後,可將該訊號在該顯示器72上 以一時域為主的脈波圖呈現,利用其内建的軟體則能夠再 進一步將該脈動訊號處理,並於該顯示器72上形成一以頻 域為主的頻譜圖或功率頻譜圖呈現,則可藉由呈現在該顯 示器72上的脈波圖與頻譜圖互相輔助配合,而得以深入分 析各脈波的波形與脈勢,進而可得出較正確的診斷結果。 值得說明的是’該電腦單元7的型式不應該受到限制 ’該電腦單元7可使用如圖2所示的桌上型電腦,也可以 使用如圖7所示的筆記型電腦,都可藉由内建的軟體程式 ,將所量測得的脈動訊號轉換為容易判讀的頻譜圖。 值得說明的是,脈搏波屬一種週期性的振動波,是在 一直線上作往復週期性的運動’且這些週期性波動不管内 部存在多麼複雜的振動,皆是由各種不同的振動所組成, 12 也就是其包含不同艇虚 頻率與不同振幅的振動。以脈 ’其圖形就是呈斑—加.± j 久固為例 個連續的搏動波,其内部的振動 就包含複雜的不同镅圭.▲am* 了月b , 门頻率,这些頻率的振幅大小也可能不同 ’如果》又有經過進-步的分析是無法由脈波圖判斷出來的 藉由傅立葉轉換可將複雜的週期性波動波由時域轉為頻 刀解成其原來組成的各種不同的頻率與振幅的分立頻 ea以進步分析波動波的内在性質,因此,以頻譜研究 脈搏波’主要是藉由脈波分立頻的變化來分析脈波内在: 貝的差異,以反映身體組織、臟腑的内在反應。 從研究中發現,脈搏波的分立頻譜與自主神經活性的 關係的十分密切。以交感神經作用於血管為例,當其放電 頻率為0〜10HZ時,是維持血管基本的功能運作,而ι〇Ηζ 以上的頻率平時活性較小,若體虛或各臟腑虛損時其活性 會降低,若生病或人體受刺激時,則神經活性會升高,造 成10Hz以上的頻率放電增加,藉由分析1〇Hz以上的高頻 頻譜圖則可以了解生病時其生理或病理顯現在脈波上的變 化。因此,以科學儀器取得脈動資料時,除了以時域分析 法分析波形外’還應辅以頻域分析法以分析不同波段的頻 譜特徵。 從頻譜的研究中發現,正常人的脈波信號強度大多分 布在10Hz之前,當生病時,則10Hz之後的信號強度會有 較大的改變,因此,脈波的信號強度在10Hz前後分別具有 不同的意義。10Hz之前的信號強度為維持正常血管張力的 頻段,以脈形的表現為主’依中醫理論是代表營氣的功能 13 1327061 。當人體受刺激,如外邪入侵或情志改變,則交感神經會 立即反應,造成放電頻率高於10Hz ,表現在脈象上則是以 脈勢的表現為主,與中醫所謂的衛氣較有關。 本案發明人曾針對〇〜10Hz、1〇〜13 Hz、10〜50 Hz、 13〜50 Hz等不同的波段進行研究,結果發現,低頻(〇〜1〇CS 10 "曰疋~waves will complete the spectrum of the G~Η) Hz section, leaving only the spectrum of the 1〇~5〇HZ portion to present the apparent spectral variation of the 13~50Hz section: Conducive to clinical analysis and interpretation. Since the frequency of the 〇~ι〇Ηζ section is more pronounced in the 0 50 Hz spectrogram, the monthly b can be directly interpreted from the 〇~5〇 Hz spectrogram without further processing by the filter. The built-in software of the host 71 of the preferred real brain & 7 is preferably der6.0'. The pulse signal transmitted to the host 71 can be subjected to Fourier transform by the software processing, thereby converting the time domain signal into the frequency domain. Signal. Referring to FIG. 2, FIG. 3 and FIG. 6, before the measurement, the initial position adjustment is first performed by using the carrier plate 32 and the second slide rail 32, and the body 101 for the wrist-wrestling is first placed on the body 101. The bottom plate portion m of the carrier 33 of the base 3 moves the carrier plate 33 horizontally as close to the position of the patient's hand as the slide rail 32 to facilitate the patient's wrist 1 to be placed on the cushion body ι〇ι Then, according to the sensing unit 5 (4), the position of the wrist 10 is respectively turned forward or reversely on the front and rear, upright, horizontal driving units 41, 42, 43 of the displacement adjusting mechanism 4, respectively. a first displacement adjusting disc 413, a second displacement adjusting disc 424, and a third displacement adjusting disc 433 for respectively driving the slider 415 to move in the front-rear direction γ, the movable seat 422 to move in the upright direction, and the movable rod The 435 moves along the horizontal direction, and finally, the sensing piece 52 of the pulsation sensor 52 of the sensing unit 5 is just positioned to be positioned at a predetermined position of the wrist 1〇 of the patient, after positioning, and then slightly Driving the upright drive unit 42 downward to make the pulsation Detector 52 is applied to the measurement site the appropriate pressure sensed pulsating signal obvious. Preferably, the predetermined position is a left-hand or right-handed wrist squat in the Chinese medicine 11 1327061 pulse θ learning is defined as the inch, the off, the ruler, thereby measuring the better pulsation signal. Referring to FIG. 6 and FIG. 8, when the sensing piece 521 of the sensing unit 5 is in contact with a predetermined position of the wrist 10 and an appropriate pressure is applied, the pulsation from the rib artery can pass through the skin surface to reach the sensing piece 52. The sensing piece 521 can sense the pressure change of the radial artery, and transmit the sensed change to the signal processing unit through a transmission line group 6 connected between the sensing piece 521 and the signal processing unit 6. 6', the amplifier 61 amplifies the ripple signal, the filter 62 filters out the noise, and the analog/digital converter 63 converts the analog signal into a digital signal. After receiving the digital pulse signal transmitted by the signal processing unit 6, the host 71 of the computer unit 7 can present the signal on the display 72 with a time domain-based pulse wave map, using the built-in software. Then, the pulse signal can be further processed, and a frequency domain-based spectrogram or power spectrogram is formed on the display 72, and the pulse wave pattern and the spectrogram presented on the display 72 can be mutually With the aid of the cooperation, it is possible to deeply analyze the waveform and pulse potential of each pulse wave, and then obtain a more accurate diagnosis result. It is worth noting that 'the type of the computer unit 7 should not be restricted'. The computer unit 7 can use the desktop computer as shown in FIG. 2, or can use the notebook computer as shown in FIG. A built-in software program that converts the measured pulse signal into an easily interpretable spectrum. It is worth noting that the pulse wave is a kind of periodic vibration wave, which is a reciprocating periodic motion in a straight line' and these periodic fluctuations are composed of various vibrations regardless of the complex vibrations inside. That is, it contains vibrations of different boat virtual frequencies and different amplitudes. Taking the pulse's figure is a spot-plus-±j long-solid as an example of a continuous beat wave, the internal vibrations contain complex differences. ▲am* month b, gate frequency, amplitude of these frequencies It is also possible that different 'if' and further analysis can not be judged by the pulse map. Fourier transform can transform complex periodic wave from time domain to frequency knife into different components. The frequency and amplitude of the discrete frequency ea to improve the intrinsic nature of the analysis of the wave, therefore, the spectral study of the pulse wave 'mainly by the variation of the pulse wave frequency to analyze the pulse intrinsic: shell difference to reflect body tissue, The internal reaction of the viscera. From the research, it is found that the discrete spectrum of pulse wave is closely related to autonomic nerve activity. Taking sympathetic nerves as an example, when the discharge frequency is 0~10HZ, it maintains the basic function of the blood vessels, while the frequency above ι〇Ηζ is usually less active, and if the body is imaginary or the organs are deficient, the activity is It will decrease. If it is sick or the human body is stimulated, the nerve activity will increase, causing the frequency discharge above 10Hz to increase. By analyzing the high frequency spectrum map above 1 Hz, it can be seen that the physiological or pathological manifestation of the disease is in the vein. Changes on the waves. Therefore, when pulsating data is obtained by scientific instruments, in addition to analyzing waveforms by time domain analysis, frequency domain analysis should be used to analyze the spectral characteristics of different bands. From the study of the spectrum, it is found that the pulse signal intensity of normal people is mostly distributed before 10 Hz. When the disease is sick, the signal intensity after 10 Hz will change greatly. Therefore, the signal intensity of the pulse wave is different before and after 10 Hz. The meaning. The signal intensity before 10Hz is the frequency band that maintains the normal vascular tension, and the pulse-like performance is the main one. According to the theory of Chinese medicine, it is the function of the camp gas 13 1327061. When the human body is stimulated, such as foreign invasion or emotional change, the sympathetic nerve will react immediately, causing the discharge frequency to be higher than 10 Hz. The performance on the pulse is mainly the performance of the pulse potential, which is more related to the so-called qi of Chinese medicine. . The inventor of the present invention conducted research on different wavelength bands such as 〇10 Hz, 1 〇~13 Hz, 10 〜50 Hz, 13~50 Hz, and found that the low frequency (〇~1〇)
Hz)、尚頻(10〜50 Hz)皆有其臨床意義,其中又以13〜5〇 Hz 的頻谱分析圖最能對應臨床。經由研究並歸納出:(丨)脈波 圖(時域分析):與心血管功能較有關;(2)頻域分析中的低頻 (0〜10 Hz):與臟腑血流内部細微變化有關,可補充脈波圖 之不足,而且還可由此一區段中各個諧波訊號的變化趨勢 判別文測者身體的氣血狀況是否良好,例如,一般氣血狀 況正常者,在此一區段的諧波訊號變化應是如圖(心臟 正常)所示,各諧波間大致呈落差不大且依序地下降的趨勢 ,反之,右氣血狀況有異常者,此一區段的諧波訊號變化 會如圖14-b(貧血)所示,各諧波間除了下降斜率較陡且落差 較大外,其後段諧波呈現不穩定的狀態;(3)頻域分析中的 高頻(10〜50 Hz):與生病或面臨壓力時身體的立即反應有關 ,其中,13〜50 Hz的頻譜圖更具有最有利於臨床判圖的優 點0 以下以二個具體例再進一步說明利用本發明的脈診儀2 所量測並轉換產生的頻譜圖(尤其是將13〜5〇Hz的放大後的 頻譜圖)於臨床脈診時,具有易於分析與判圖的優點。 <具體例1> 參閱圖9-a與圖9-b,為以該脈診儀2分別在胃不正常(Both Hz) and frequency (10~50 Hz) have clinical significance, and the spectrum analysis chart of 13~5〇 Hz is most suitable for clinical. Through research and summarization: (丨) pulse wave map (time domain analysis): related to cardiovascular function; (2) low frequency (0~10 Hz) in frequency domain analysis: related to subtle changes in internal blood flow, It can supplement the deficiency of the pulse wave map, and can also determine whether the blood condition of the body of the tester is good due to the change trend of each harmonic signal in a section, for example, the general qi and blood condition is normal, in this section The change of the harmonic signal should be as shown in the figure (normal heart), and there is a tendency that the difference between the harmonics is not large and decreases sequentially. Conversely, if there is an abnormality in the right qi condition, the harmonic signal of this segment The change will be as shown in Figure 14-b (anemia). In addition to the steeper slope and larger difference between the harmonics, the harmonics in the latter stage are unstable; (3) High frequency in the frequency domain analysis (10) ~50 Hz): It is related to the immediate reaction of the body when it is sick or under stress. Among them, the spectrum of 13~50 Hz has the advantage that is most favorable for clinical judgment. 0 The following uses two specific examples to further illustrate the use of the present invention. The spectrogram produced by the pulse meter 2 is measured and converted ( Spectrum which is an enlarged view of the 13~5〇Hz) in clinical pulse diagnosis, with the advantage of ease of analysis and determination of FIG. <Specific Example 1> Referring to Fig. 9-a and Fig. 9-b, in the pulse diagnosis apparatus 2, the stomach is abnormal (
14 1327061 圖9-a)及胃正常(圖9-b)者的右手關部沉取所得的脈動訊號 的脈波圖,圖l〇-a(胃不正常)與圖1〇_b(胃正常)則是將該脈 動訊號再經該電腦單元7的主機71内的軟體轉換所形成的 〇〜50HZ的頻譜圖,再參閱圖u〜a與圖u~b,則是以濾波 器將0〜10 Hz區段的頻譜完全濾掉,僅保留1〇〜5〇Hz部分 的頻譜,藉以明顯呈現13〜5〇Hz區段的頻譜,透過圖9 a 與圖9-b十的脈波圖及圖1〇_a與圖1〇 b中的〇〜5〇Hz的頻14 1327061 Figure 9-a) Pulse waveform of the pulsation signal obtained by sinking the right hand of the stomach (Fig. 9-b), Fig. l〇-a (stomach abnormality) and Fig. 1〇_b (stomach Normally, the spectrum of the 脉~50HZ formed by the software signal in the host 71 of the computer unit 7 is further converted. Referring to Figures u~a and u~b, the filter is 0. The spectrum of the ~10 Hz section is completely filtered out, leaving only the spectrum of the 1〇~5〇Hz portion, so that the spectrum of the 13~5〇Hz section is clearly presented, and the pulse wave diagram of FIG. 9a and FIG. 9-b is transmitted. And the frequency of 〇~5〇Hz in Figure 1〇_a and Figure 1〇b
譜圖,仍無法明顯區別胃不正常與胃正常者,但藉由圖 η〜a(胃不正常)與圖u〜b(胃正常),則可清楚明確地比對出 吊一不正吊的差異性,該區段的頻譜圖顯示胃不正常者 相對於胃正书者’纟13〜50HZ區段的頻譜的信號強度顯然 較劇烈’因此’可藉由該脈診儀2取得脈動訊號,並進一 步轉換為頻譜圖供判斷邪氣病理現象而可於臨床診斷時 提供迅速明確分析。 <具體例2>Spectrogram, still can not clearly distinguish between abnormal stomach and normal stomach, but by Figure η~a (stomach abnormality) and Figure u~b (normal stomach), it can be clearly and unambiguously compared with hanging Difference, the spectrogram of the segment shows that the signal intensity of the spectrum of the stomach abnormality relative to the stomach of the patient's '纟13~50HZ segment is obviously more intense', so the pulse signal can be obtained by the pulse diagnosis device 2, It is further converted into a spectrogram for judging the pathological phenomenon of the evil and can provide a quick and clear analysis in clinical diagnosis. <Specific example 2>
參閱圖12〜a(治療前)與目12〜b(治療後),為針對同一咽 喉痛的患者分別在治療前與治療後,沉取其右手寸部的脈 波圖’雖·然治療後的脈波圖基線相對較平穩,I主波大小 =一致’但仍無法明顯區分,再參_ u〜a(治療前)與圖 13〜b(治療後),同樣是針對該患者治療前後沉取立右 部的脈動訊號’再經轉換為頻譜圖,並揭取出的乙〜_ 區段的頻譜圖,可發現治療前的信 : 療後,病人自覺咽喉病改善,反映在頻譜二信= 度也明顯降低,因此’可藉*頻譜圓,尤其是13〜耻此 15 1327061 一區段者,看出治療前後的變化,而能夠提供作為判斷療 效的指標。 由上述脈波圖與頻譜圖的呈現,可知脈搏波所包含的 基本血量與血管形態,能由脈波圖來判斷,不過血流細微 的改變’仍需要0〜50Hz頻譜圖其低頻(主要是〇〜1〇Hz這一 區段的諧波變化)的諧波表現來輔助判讀,而脈管内外的振 動’也就是生病時其振動成分明顯增加的部分,可從See Figure 12~a (before treatment) and eye 12~b (after treatment), for patients with the same sore throat, before and after treatment, respectively, the pulse map of the right hand is taken. The baseline of the pulse wave map is relatively stable, I main wave size = consistent 'but still can not be clearly distinguished, then _ u ~ a (before treatment) and Figure 13 ~ b (after treatment), the same for the patient before and after treatment Take the pulse signal on the right side and then convert it into a spectrogram, and extract the spectrum of the B~_ segment. You can find the pre-treatment letter: After treatment, the patient's conscious throat disease is improved, reflected in the spectrum 2 letter = degree It is also significantly reduced, so 'can borrow * spectrum circle, especially 13 ~ shame this 15 1327061 section, see the changes before and after treatment, and can provide an indicator for judging the efficacy. From the above-mentioned pulse wave map and spectrogram, it can be seen that the basic blood volume and blood vessel morphology contained in the pulse wave can be judged by the pulse wave map, but the slight change of blood flow 'still requires a low frequency of 0~50Hz spectrum (mainly It is the harmonic expression of the harmonic change of 区段~1〇Hz, which assists in the interpretation, and the vibration inside and outside the vessel is the part of the vibration component that is obviously increased when it is sick.
13〜50Hz頻譜圖的信號強度改變來觀察β因此,要以科學儀 器精確地判斷脈象信息,須結合基礎脈波形態與脈象振動 覺成分,即脈波圖及〇〜50Ηζ、13〜5〇Ηζ頻譜圖應並重,以 相輔相成。 歸納上述,本發明可進行頻譜分析的脈診儀 下述的功效及優點’故確實能達到本發明的目的:The signal intensity of the 13~50Hz spectrogram changes to observe β. Therefore, to accurately judge the pulse information with scientific instruments, it must be combined with the basic pulse wave shape and the pulse vibration component, that is, the pulse wave map and 〇~50Ηζ, 13~5〇Ηζ The spectrogram should be equal and complementary. In summary, the present invention can perform the following functions and advantages of the pulse diagnostic apparatus of the spectrum analysis, so that the object of the present invention can be achieved:
:、藉由將該感測單元5定位在患者手腕10的預定位 置取得可反應出特定臟腑生理與病理狀況的脈動訊號,在 該脈動訊號的解讀上,&了可以時域的脈波圖呈現外,還 該電腦早70 7的主機71的軟體處理,轉換成頻域的 以分別擁取0〜遍ζ、〇〜·2與放大錄13〜雇 二譜’藉此’可在臨床上較快速且較明綠地判 ==狀況,此外’也可針對同-患者比較其治 :參考,因 搏分析結果與有效提升脈搏分析品質 器提供有效的診斷結果的特性與優點。科子儀 16 1327061 一、藉由在該二滑軌32上移動該承載板33,及分別操 控該位移調整機構4的前後驅動單元41、直立驅動單元42 及水平驅動單元43,就能在儘量不移動或調整一待測者的 手部位置與姿勢的情況下,使該感測單元5的脈動感測器 52很容易地位移到與一待測者的手腕1()的狀位置形成相 貼觸的狀態,再稍微移動該直立驅動單元42以對該手腕1〇 施加適s壓力,就能使脈動訊號順利地通過該感測單元$ 與該訊號處理單it 6到達該電腦單元7,並呈現在該顯示器 72上供判讀使用’使本發明相具有操作使用上較方便的 優點。 准以上所述者,僅為本發明之數較佳實施例而已,當 不能以此限定本發明實施之範圍,即大凡依本發明申請專 利範圍及發明說明内容所作之簡單的等效變化與修飾皆 仍屬本發明專利涵蓋之範圍内。 【圖式簡單說明】 圖Ι-a是一以一脈診儀量測得的一胃正常者的脈波圖; 圖Ι-b是一以一脈診儀量測得的一胃不正常者的脈波圖 圖2是-側視示意圖,說明本發明可進行頻譜分析的 脈診儀一較佳實施例; 。。圖3是一局部立體組合圖,說明該較佳實施例的一基 座單7L、一位移調整機構與一感測單元的組合情形; 說明該較佳實施例的位移 活動桿與一第三位移調整 圖4是一局部側視示意圖, 調整機構的一水平驅動單元的—By locating the sensing unit 5 at a predetermined position of the patient's wrist 10, a pulsation signal that can reflect the physiological and pathological conditions of the specific viscera is obtained, and in the interpretation of the pulsation signal, the pulse waveform of the time domain can be & In addition to the presentation, the computer is still 70 7 host 71 software processing, converted into frequency domain to respectively grab 0 ~ pass ζ, 〇 ~ · 2 and zoom in 13 ~ hire two spectrum 'by this' can be clinically Faster and brighter green == status, in addition, 'the same can be compared to the same - patients: the reference, the results of the beat analysis and the effective improvement of the pulse analysis quality to provide effective diagnostic results characteristics and advantages. Co., Ltd. 16 1327061 1. By moving the carrier plate 33 on the two slide rails 32 and respectively controlling the front and rear drive unit 41, the vertical drive unit 42 and the horizontal drive unit 43 of the displacement adjustment mechanism 4, Without moving or adjusting the position and posture of a person's hand, the pulsation sensor 52 of the sensing unit 5 is easily displaced to form a position with the wrist 1() of the subject to be tested. In the state of contact, the upright driving unit 42 is slightly moved to apply the appropriate pressure to the wrist 1〇, so that the pulsation signal can smoothly pass through the sensing unit $ and the signal processing unit 6 to the computer unit 7. And presented on the display 72 for interpretation of the use of the present invention has the advantage of being more convenient to use. The above is only the preferred embodiment of the present invention, and the scope of the present invention is not limited thereto, that is, the simple equivalent change and modification of the patent application scope and the description of the invention. All remain within the scope of the invention patent. [Simple diagram of the diagram] Figure Ι-a is a pulse waveform of a normal stomach measured by a pulse diagnosis instrument; Figure Ι-b is a stomach abnormality measured by a pulse diagnosis instrument FIG. 2 is a side elevational view showing a preferred embodiment of a pulse diagnostic apparatus capable of performing spectrum analysis according to the present invention; . 3 is a partial perspective view showing a combination of a base unit 7L, a displacement adjusting mechanism and a sensing unit of the preferred embodiment; illustrating the displacement movable rod and a third displacement of the preferred embodiment Adjustment Figure 4 is a partial side elevational view of the adjustment mechanism of a horizontal drive unit -
17 1327061 盤相嚙合的情形; 圖5是一局剖側視圖,說明該較佳實施例的感測單元 的一脈動感測器的組合情形; 圖ό是一局部的側視示意圖,說明該較佳實施例用於 量測一手腕的脈動訊號的情形; 圖7是一側視示意圖’說明該較佳實施例的電腦單元 是使甩筆記型電腦的情形; 圖8 —流程圖,說明該較佳實施例的感測單元用於用 於重測脈動訊號時,脈動訊號經由該接頭傳送到一訊號處 理單元與一電腦單元的情形; 圖9-a是以該較佳實施例量測一胃不正常者的脈動訊號 後,所取得的一脈波圖圖; 圖9-b是以該較佳實施例量測一胃正常者的脈動訊號後 ,所取得的一脈波圖; 圖l〇-a是以該較佳實施例量測一胃不正常者的脈動訊 號後’所取得的一介於〇〜50Hz的頻譜圖; 圖10-b是以該較佳實施例量測一胃正常者的脈動訊號 後,所取得的一介於0〜50Hz的頻譜圖; 圖ΙΙ-a是以該較佳實施例量測該胃不正常者的脈動訊 號後,並經處理所產生的一介於13〜50Hz的放大頻譜圖; 圖11 -b是以該較佳實施例量測該胃正常者的脈動訊號 後,並經處理所產生的一介於13〜50Hz的放大頻譜圖; 圖12-a是在治療前,以該較佳實施例量測一咽喉痛患 者的脈動訊號後,所取得的一脈波圖;17 1327061 Case of disk engagement; FIG. 5 is a cross-sectional side view showing a combination of a pulsation sensor of the sensing unit of the preferred embodiment; FIG. 5 is a partial side elevational view showing the comparison The preferred embodiment is for measuring the pulsation signal of a wrist; FIG. 7 is a side view showing the case where the computer unit of the preferred embodiment is a notebook computer; FIG. 8 is a flow chart illustrating the comparison. The sensing unit of the preferred embodiment is used for re-measuring the pulsation signal, and the pulsation signal is transmitted to the signal processing unit and a computer unit via the connector; FIG. 9-a is a stomach measurement of the preferred embodiment. A pulse map obtained after the pulsation signal of the abnormality; FIG. 9-b is a pulse diagram obtained after measuring the pulsation signal of a normal stomach in the preferred embodiment; FIG. -a is a spectrogram of 〇~50 Hz obtained after measuring the pulsation signal of an abnormal stomach in the preferred embodiment; FIG. 10-b is a normal measurement of the stomach in the preferred embodiment. After the pulsation signal, a spectrum map of 0 to 50 Hz is obtained; ΙΙ-a is a magnified spectrum diagram of 13~50 Hz generated by measuring the pulsation signal of the abnormality of the stomach after the preferred embodiment; FIG. 11-b is the amount of the preferred embodiment After measuring the pulsation signal of the normal stomach, and processing, a magnified spectrum diagram of 13~50 Hz is generated; FIG. 12-a is a pulse signal of the patient with a sore throat measured by the preferred embodiment before treatment. After, a pulse map obtained;
18 1327061 圖12-b是在治療後,以該較佳實施例量測該咽喉痛患 者的脈動訊號後,所取得的一脈波圖; 圖13-a是治療前,以該較佳實施例量測一咽喉痛患者 的脈動訊號,再經轉換處理後所取得的一介於u〜5〇Hz的 放大頻譜圖;及 圖13-b是治療後,以該較佳實施例量測一咽喉痛患者 的脈動訊號,再經轉換處理後所取得的一介於13〜50Hz的 放大頻譜圖; 圖14-a是以該較佳實施例量測一心臟正常者的脈動訊 號後’所取得的一介於〇〜5〇Hz的頻譜圖;及 圖14-b是以該較佳實施例量測一貧血者的脈動訊號後 ’所取得的一介於0〜50Hz的頻譜圖。18 1327061 FIG. 12-b is a pulse diagram obtained after measuring the pulsation signal of the patient with sore throat after the treatment in the preferred embodiment; FIG. 13-a is a preferred embodiment before treatment. Measuring the pulsation signal of a patient with a sore throat, and then obtaining a magnified spectrum diagram of u~5 Hz obtained after the conversion process; and FIG. 13-b is a measurement of a sore throat with the preferred embodiment after the treatment. The patient's pulsation signal is then converted to a magnified spectrum of 13 to 50 Hz. Figure 14-a shows the pulsation signal of a normal heart after the preferred embodiment. A spectrum diagram of 〇~5〇Hz; and FIG. 14-b is a spectrum diagram of 0 to 50 Hz obtained after measuring the pulsation signal of an anemia in the preferred embodiment.
19 132706119 1327061
【主要元件符號說明】 2........ -----脈#儀 43…… •…水平位移單元 3........ •…基座單元 431 ···· •…固定塊 31…… •…座體 432 .... …·引導通道 311 ·.·. •…上表面 433 ··.· •…第三位移調整盤 32…… 434 _··· •…第^齒轴 33 ·‘‘· …·承載板 435 ···· •…活動桿 331 ···· •…底板部 436 .··· …·第三齒條段 332 ···· •…側板部 5........ •…感測單元 4........ •…位移調整機構 51…… •…推拉力計 41…… •…前後位移單元 52…… …·脈動感測器 411 ·.·· •…前後定位座 521 ···· •…感測片 412 ···· •…軌槽 6........ •…訊號處理單元 413 ·.·. •…第一位移調整盤 60…… •…傳輸線組 414 ·.·· •…第齒軸 61…… •…放大器 415 .··· •…滑塊 62…… •…濾波器 416 ···· …·第一齒條段 63…… •…類比/數位轉換器 42…… •…直立位移單元 7........ •…電腦單元 421 ···· •…支撐柱 71…… …·主機 422 ·.·. 72…… •…顯示器 423 ·.·. •…導引孔 10…… •…手腕 424 ···· •…第二位移調整盤 101 ···· …·墊體 425 ···· •…第二齒軸 X....... •…水平方向 426 ·… …·第二齒條段 Y....... •…前後方向 20 1327061 z...........直立方向[Description of main component symbols] 2........ -----脉#仪43... •...horizontal displacement unit 3........ •...base unit 431 ···· •...Fixed block 31... •... Seat 432 .....· Guide channel 311 ···. •...Upper surface 433 ····•...Third displacement adjustment disk 32... 434 _··· • ...the second pinion 33 ·''···the carrier plate 435 ·····...the movable bar 331 ·····...the bottom plate portion 436.·····the third rack segment 332 ···· ... side plate portion 5........ •...sensing unit 4...........displacement adjustment mechanism 51...?...pushing force meter 41...•...front and rear displacement unit 52... ...·pulse sensor 411 ···· •...front and rear positioning seat 521 ····•...sensing sheet 412 ···· •...track groove 6........ •...signal processing unit 413 ···. •...First displacement adjustment disk 60... •...Transmission line group 414 ···· •...Pitch shaft 61... •...Amplifier 415 .··· •... Slider 62... •...filter 416 ······The first rack segment 63...•...analog/digital converter 42... ...Upright Displacement Unit 7........ •...Computer Unit 421 ····•...Support column 71...... ...·Host 422 ·.·. 72...... •...Display 423 ·.·. •... Guide hole 10... •...Wrist 424 ····•...Second displacement adjustment disc 101 ······The pad body 425 ···· •...The second pinion X....... • ...horizontal direction 426 ·...·the second rack segment Y.............front and rear direction 20 1327061 z...........upright direction
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CN103263256A (en) * | 2013-04-28 | 2013-08-28 | 香港应用科技研究院有限公司 | Method and apparatus for sensing a person's pulse in traditional Chinese medicine |
CN103263256B (en) * | 2013-04-28 | 2015-11-04 | 香港应用科技研究院有限公司 | Method and device for sensing human pulse in traditional Chinese medicine |
US9445732B2 (en) | 2013-04-28 | 2016-09-20 | Hong Kong Applied Science and Technology Research Institute Company Limited | Methods and device for sensing a person's pulse in traditional chinese medicine |
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