TWM622703U - Body composition analysis system with image scanning function - Google Patents
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Abstract
一種具有影像掃描功能的體組成分析系統,其包含:一攝像裝置;一體組成分析儀具有一站台、二扶手及一計算單元,站台設有二第一電極組,二扶手具有一伸縮桿及一握把,各伸縮桿一端樞設站台,而各伸縮桿另一端設有各握把,各握把具有一第二電極組,計算單元電性連接攝像裝置,計算單元包含一身形模組資料庫及一計算邏輯,計算單元接收二第一電極組及二第二電極組測得之電阻、電抗值,以及接收攝像裝置取得之攝像資料,並以身形模組資料庫比對攝像資料後,以計算邏輯計算得到一體組成數據;以及一控制面板,用以顯示體組成數據。A body composition analysis system with image scanning function, which comprises: a camera device; an integrated composition analyzer has a platform, two armrests and a computing unit, the platform is provided with two first electrode groups, the two armrests have a telescopic rod and a The handle, one end of each telescopic rod is pivoted to the platform, and the other end of each telescopic rod is provided with each handle, each handle has a second electrode group, the computing unit is electrically connected to the camera device, and the computing unit includes a body shape module data The library and a calculation logic, the calculation unit receives the resistance and reactance values measured by the two first electrode groups and the two second electrode groups, as well as the imaging data obtained by the camera device, and compares the imaging data with the body shape module database. , to obtain integral composition data by calculation logic; and a control panel to display the integral composition data.
Description
本創作係與體組成分析技術有關,特別是指一種具有影像掃描功能的體組成分析系統。This creation system is related to body composition analysis technology, especially a body composition analysis system with image scanning function.
體組成(Body Composition)可以透過數種不同的方式進行評估,包含:高級的醫療成像設備,如雙能 X 射線吸收儀 (DXA)、電腦斷層掃描 (CT) 和磁共振成像 (MRI),可提供較高精準度的評估,但檢測成本高,且需專人操作,此外由於電腦斷層掃描的輻射劑量可達普通X光的數百倍以上,因此使用上有其限制。相較之下,雙能 X 射線吸收儀的輻射劑量極低,且準確性高,已成為體組成分析的黃金標準,但礙於前述成本高、需專人操作等問題,仍然不適合用於常規檢查。其他方法如水中秤重法(Underwater Weighing)、空氣置換體積描記法 (ADP)、皮脂厚度測量(Skinfold Measurement)、體圍(Circumference)測量法、同位素稀釋法(Isotope Dilution)、超音波(Ultrasound)測量法、鉀-40 測量法(Potassium-40 Counting) 及生物阻抗法(Bioelectrical Impedance Analysis-BIA)等方法。Body Composition can be assessed in several different ways, including: advanced medical imaging equipment such as dual-energy X-ray absorptiometry (DXA), computed tomography (CT), and magnetic resonance imaging (MRI), which can It provides high-precision evaluation, but the detection cost is high and requires special personnel to operate. In addition, because the radiation dose of computed tomography can reach hundreds of times that of ordinary X-rays, there are limitations in its use. In contrast, dual-energy X-ray absorptiometry has extremely low radiation dose and high accuracy, and has become the gold standard for body composition analysis. . Other methods such as Underwater Weighing, Air Displacement Plethysmography (ADP), Skinfold Measurement, Circumference, Isotope Dilution, Ultrasound Measurement method, potassium-40 measurement method (Potassium-40 Counting) and bioimpedance method (Bioelectrical Impedance Analysis-BIA) and other methods.
其中,生物電阻抗法因為操作快速、簡易、相對安全且為非侵入性等特點,為目前最常用於人體組成成分估計的方法。生物阻抗法是受測者以躺臥或站立於體組成測量儀,由受測者四肢接觸體組成測量儀之電極並通過微量的電流,藉著身體不同組織其水分含量以及細胞膜特性的不同,造成對於不同頻率的電流產生不同電阻跟電抗值之特性,得到身體水分含量,傳統方式通常配合受測者的年齡、性別、體重、身高等資料,由估計方程式得到人體各項組成成分,包括身體脂肪重量、非脂肪重量、總含水量、細胞內外液體積等,再進一步推算如骨骼、肌肉、脂肪以及其他組織等所佔的比率或含量。Among them, the bioelectrical impedance method is currently the most commonly used method for estimating human body composition due to its fast, simple, relatively safe and non-invasive characteristics. The bioimpedance method is that the subject is lying or standing on the body to form a measuring instrument, and the subject's limbs are in contact with the body to form the electrodes of the measuring instrument, and a small amount of current is passed through. The characteristics of different resistance and reactance values are generated for currents of different frequencies, and the body water content can be obtained. The traditional method usually matches the age, gender, weight, height and other information of the subject, and obtains various components of the human body from the estimation equation, including the body. Fat weight, non-fat weight, total water content, intracellular and extracellular fluid volume, etc., and then further calculate the ratio or content of bone, muscle, fat and other tissues.
近年來應用三維人體掃描技術進行人體成分分析的研究越來越普遍,已成為新興的研究方向;例如美國公開第US 2019/0223788 Al號專利中,為了解決三維成像法中直接用體積計算體脂率不夠精確的問題,主要提出的技術為利用三維身體模型確定身體體積與幾何形狀,建立包括圓柱形或錐形形式的多節段的人體阻抗模型,其是於身體節段分別引入多節段的模型,尤其是肩關節、上臂、前臂、手、大腿、膝關節或小腿等,接下來以至少兩個電極量測人體阻抗,得到特別是身體節段的詳細阻抗,最後通過將各節段的部分身體脂肪含量相加,得到全身的體脂肪含量。In recent years, the application of 3D body scanning technology for body composition analysis has become more and more common, and it has become an emerging research direction; for example, in US Patent No. US 2019/0223788 A1, in order to solve the problem of directly calculating body fat by volume in 3D imaging The main technology proposed is to use the three-dimensional body model to determine the body volume and geometric shape, and to establish a multi-segment human body impedance model including cylindrical or conical forms. model, especially the shoulder joint, upper arm, forearm, hand, thigh, knee joint or calf, etc. Next, measure the impedance of the human body with at least two electrodes to obtain the detailed impedance of the body segment in particular. The fractional body fat content is added to obtain the total body fat content.
然而,上述專利所提供人體攝影是以站立並以雙手接觸電極的方式進行測量,其至少有二個待改善之缺失: 1. 當受測者站立於旋轉盤上進行旋轉掃描時,難免會產生擺動或姿態改變,進而影響體組成測量儀所測得之電阻及電抗值有所不同,導致測量結果不夠準確。 2. 當受測者雙手接觸電極時,手臂會與軀幹形成的夾角,當夾角過小,手臂肌膚會接觸到軀幹肌膚,或者衣物會產生接觸的問題,進而影響體組成測量儀所測得之電阻及電抗值產生誤差,導致測量無法有重複性,亦沒有準確性,而若是要求受測者維持手臂與軀幹一定角度的夾角,又可能會發生擺動或姿態改變,亦會導致測量結果不夠準確。 However, the body photography provided by the above patent is measured by standing and touching the electrodes with both hands, which has at least two shortcomings to be improved: 1. When the subject stands on the rotating disk and performs a rotating scan, it is inevitable that there will be a swing or a change in attitude, which will affect the resistance and reactance values measured by the body composition measuring instrument, resulting in inaccurate measurement results. 2. When the subject touches the electrodes with both hands, the angle between the arm and the torso will be formed. When the angle is too small, the skin of the arm will touch the skin of the torso, or the clothing will have contact problems, which will affect the body composition measuring instrument. Errors in resistance and reactance values result in unrepeatable and inaccurate measurements. If the subject is required to maintain a certain angle between the arm and the torso, there may be swings or changes in posture, which will also lead to inaccurate measurement results. .
本創作之主要目的乃在於提供一種具有影像掃描功能的體組成分析系統,相較於先前技術,能避免受測者產生擺動或姿態改變,進而提升測量結果的準確性。The main purpose of this creation is to provide a body composition analysis system with an image scanning function, which can prevent the subject from swinging or posture changes compared with the prior art, thereby improving the accuracy of the measurement results.
本創作之另一主要目的乃在於提供一種具有影像掃描功能的體組成分析系統,相較於先前技術,可依受測者之身形進行調整,令受測者姿態維持在最適當的測量狀態,且可提供受測者支撐,使受測者不易產生擺動或姿態改變,能提升測量結果的具有重複性並提升準確性Another main purpose of this creation is to provide a body composition analysis system with image scanning function, which can be adjusted according to the body shape of the subject, compared with the prior art, so that the posture of the subject can be maintained in the most appropriate measurement state , and can provide support for the subject, so that the subject is not easy to swing or change in attitude, which can improve the repeatability of the measurement results and improve the accuracy
為了達成上述之目的,本創作提供之一種具有影像掃描功能的體組成分析系統,其包含一攝像裝置;一體組成分析儀,距離該攝像裝置有一預定距離,該體組成分析儀具有一站台、二扶手及一計算單元,該站台設有二第一電極組,該二扶手具有一伸縮桿及一握把,各該伸縮桿一端樞設該站台,而各該伸縮桿另一端設有各該握把,各該握把具有一第二電極組,該計算單元電性連接該攝像裝置,該計算單元包含一身形模組資料庫及一計算邏輯,該計算單元接收該二第一電極組及該二第二電極組測得之電阻、電抗值,以及接收該攝像裝置取得之攝像資料,藉由該身形模組資料庫比對攝像資料後,以該計算邏輯計算得到一體組成數據;以及一控制面板,電性連接該體組成分析儀、該攝像裝置及該運算單元,並用以顯示該體組成數據。In order to achieve the above purpose, the present invention provides a body composition analysis system with image scanning function, which includes a camera device; an integrated composition analyzer with a predetermined distance from the camera device, and the body composition analyzer has a platform, two An armrest and a computing unit, the platform is provided with two first electrode groups, the two armrests have a telescopic rod and a handle, one end of each telescopic rod is pivoted to the platform, and the other end of each telescopic rod is provided with each of the grips Each handle has a second electrode group, the computing unit is electrically connected to the camera device, the computing unit includes a body shape module database and a computing logic, the computing unit receives the two first electrode groups and The resistance and reactance values measured by the two second electrode groups, and the imaging data obtained by the imaging device are received, and after comparing the imaging data with the body shape module database, the calculation logic is used to calculate the integral composition data; and A control panel is electrically connected to the body composition analyzer, the camera device and the operation unit, and is used for displaying the body composition data.
藉此,本創作提供之一種具有影像掃描功能的體組成分析系統,藉由該站台設置該二扶手之技術特徵,能避免受測者產生擺動或姿態改變,進而提升測量結果的準確性。Therefore, the present invention provides a body composition analysis system with an image scanning function. With the technical features of the two handrails provided on the platform, the subject can be prevented from swinging or attitude changes, thereby improving the accuracy of the measurement results.
以及,本創作提供之一種具有影像掃描功能的體組成分析系統,藉由該站台設置該二扶手之技術特徵,可提供需要輔具或扶手才能站立的受測者便於體組成數據的測量。In addition, the present invention provides a body composition analysis system with image scanning function. With the technical features of the two handrails provided on the platform, it can provide subjects who need assistive devices or handrails to stand up to facilitate the measurement of body composition data.
此外,本創作所提供之具有影像掃描功能的體組成分析系統,藉由二伸縮桿及二伸縮桿樞設站台之技術特徵,可依受測者之身形進行對二把手的角度進行調整,令受測者姿態維持在最適當的測量狀態,且可提供受測者支撐,使受測者不易產生擺動或姿態改變,能令測量結果的具有重複性並提升準確性。In addition, the body composition analysis system with image scanning function provided by this creation, with the technical characteristics of two telescopic rods and two telescopic rods pivoting the platform, the angle of the second handle can be adjusted according to the body shape of the subject. It can keep the subject's posture in the most appropriate measurement state, and can provide the subject's support, so that the subject is not easy to swing or change the posture, which can make the measurement results repeatable and improve the accuracy.
為了詳細說明本創作之技術特點所在,茲針對以下第一較佳實施例,並配合圖式1-4說明如後,其中:本創作之具有影像掃描功能的體組成分析系統10,主要包含一攝像裝置20、一體組成分析儀30及一控制面板40。In order to describe the technical features of the present invention in detail, the following first preferred embodiment will be described with reference to Figures 1-4, wherein: the body
如圖1所示,該體組成分析儀30距離該攝像裝置20有一預定距離,該預定距離係以該攝像裝置20欲取得之攝像資料需求而定,如:取得受測者局部或全身之攝像資料。As shown in FIG. 1 , the
如圖1、2所示,該體組成分析儀30具有一站台31、二扶手33及一計算單元35,該站台31設有二第一電極組313,該二扶手33具有一伸縮桿331及一握把333,各該伸縮桿331一端樞設該站台31,而各該伸縮桿331另一端設有各該握把333,各該握把333具有一第二電極組335,該計算單元35電性連接該攝像裝置20、該二第一電極組313及該二第二電極組335,該計算單元35包含一身形模組資料庫351及一計算邏輯353,該計算單元35接收該二第一電極組313及該二第二電極組335測得之電阻、電抗值,以及接收該攝像裝置20取得之攝像資料,並由該身形模組資料庫351比對該攝像裝置20取得之攝像資料後,以該計算邏輯353計算得到一體組成數據。As shown in FIGS. 1 and 2 , the
該控制面板40電性連接該體組成分析儀30、該攝像裝置20及該計算35,並用以顯示該體組成數據。The
因此,本創作所提供之具有影像掃描功能的體組成分析系統10,藉由該站台31設置該二扶手33之技術特徵,能避免受測者產生擺動或姿態改變,進而提升測量結果的準確性。Therefore, the body
以及,本創作所提供之具有影像掃描功能的體組成分析系統10,藉由該站台31設置該二扶手33之技術特徵,可提供需要輔具或扶手才能站立的受測者便於該體組成數據的測量。And, the body
此外,本創作所提供之具有影像掃描功能的體組成分析系統10,藉由該二伸縮桿331及該二伸縮桿331樞設該站台31之技術特徵,可依受測者之身形對該二扶手33的角度進行調整,令受測者姿態維持在最適當的測量狀態,且可提供受測者支撐,使受測者不易產生擺動或姿態改變,能令測量結果具有重複性並提升準確性。In addition, the body
在第一較佳實施例中,該二第一電極組313及該二第二電極組335為八電極模式,該二第一電極組313及該二第二電極組335分別具有電流感測電極與電流發射電極。In the first preferred embodiment, the two
在第一較佳實施例中,該攝像裝置20包含一攝像鏡頭21及一Y軸向支架23,該攝像鏡頭21係樞設於該Y軸向支架23,並可沿Y軸向移動,藉此增加該攝像鏡頭21的攝像角度;在實際實施時,在該攝像鏡頭21攝像角度足夠的情況下,該攝像裝置20亦可為固定式,故該Y軸向支架23並非達成本創作之必要條件。In the first preferred embodiment, the
在第一較佳實施例中,該站台31更設有一轉盤315,該轉盤315可設於該站台31之上表面並供受測者站立,藉此讓受測者在維持正確量測姿態的狀態下,藉由該轉盤315令受測者轉向讓該攝像鏡頭21拍攝不同角度;在實際實施時,該轉盤315亦可設於該站台31之下方,同樣能讓受測者在維持正確量測姿態的狀態下,藉由該轉盤315令受測者轉向讓該攝像鏡頭21拍攝不同角度,故該轉盤315之實施型態不僅以本較佳實施例為限。In the first preferred embodiment, the
在第一較佳實施例中,該攝像鏡頭21係深度照相機,可由多張不同角度或不同距離下所得全身或局部的影像,利用三維重建技術計算受測者人體表面形狀;在實際實施時,亦能以一般照相機或複數個一般照相機作為實施,故該攝像裝置20之實施型態不僅以本較佳實施例為限。In the first preferred embodiment, the
在第一較佳實施例中,該計算單元35更包含一判斷邏輯355,由該身形模組資料庫351中的資料判斷該攝像裝置20取得之攝像資料是否正確;在實際實施時,如沒有判斷受測者姿態是否正確之需求,則可省略該判斷邏輯355之設置,故該判斷邏輯355並非達成本創作之必要條件。In the first preferred embodiment, the
在第一較佳實施例中,各該伸縮桿331另一端係樞設各該握把333,藉此可依受測者身形將各該握把333調整至受測者以最佳的握持狀態進行測量。然而,若藉由該二伸縮桿331樞設該站台31的調整下已能夠以標準的姿態測量,則可省略各該伸縮桿331另一端係樞設各該握把333之技術特徵,因此,各該伸縮桿331另一端係樞設各該握把333之技術特徵,並非達成本創作之必要條件。In the first preferred embodiment, the other ends of the
在第一較佳實施例中,該站台31更設有一重量感測器317,該重量感測器317電性連接該計算單元35,令該體組成分析儀30能直接測得受測者之體重,進而提供體重資料傳輸至該計算邏輯353,藉此增加本創作測量該體組成數據之準確性;在實際實施時,如受測者之體重採自行輸入的方式,則可省略該重量感測器317之設置,故該重量感測器317並非達成本創作之必要條件。In the first preferred embodiment, the
在第一較佳實施例中,該控制面板40可供輸入受測者的年齡、性別、體重、身高及人種等資料,並傳輸至該計算邏輯353,同樣可增加本創作測量該體組成數據之準確性;在實際實施時,如未輸入身高,則可利用重建之三維模型計算。In the first preferred embodiment, the
在第一較佳實施例中,該二第一電極組313及該二第二電極組335係利用不同頻率的交流電,測量受測者各肢段之電阻及電抗,該攝像裝置20所取得之攝像資料包含不同肢段的圍度、截面積、長度。In the first preferred embodiment, the two
其中,各肢段對應的電阻(resistance, R)與電抗(reactance, Xc),阻抗與電阻、電抗的關係可以分別表示成 Z =( R 2+ Xc 2) 1/2,ArcTan (Xc/R) = PhA,其中ArcTan、PhA分別為反正切函數與相位角(Phase Angle),而相位角角度越大,代表受測者的健康程度越佳,而在不同的肢段,其相位角越大,也代表其其身體組成「品質」越佳。 Among them, the resistance (resistance, R) and reactance (reactance, Xc) corresponding to each limb segment, and the relationship between impedance and resistance and reactance can be expressed as Z = ( R 2 + Xc 2 ) 1/2 , ArcTan (Xc/R ) = PhA, where ArcTan and PhA are the arc tangent function and the phase angle, respectively, and the larger the phase angle, the better the health of the subject. In different limb segments, the larger the phase angle , which also means the better the "quality" of its body composition.
其中,對各肢段的圍度、截面積、長度與對應不同頻率測量所得的電阻、電抗,進行體組成成分的測量,而非僅為單頻的阻抗,對於不同體組成成分的測量會更為準確。在本較佳實施例中,應用微小的電流在不同頻率(1KHz-3000KHz)的組合對受測者進行全身、左右上下肢段進行電阻、電抗測量,除可得到不同頻率的電阻、電抗外,亦可組合計算得到阻抗,對於體組成測量有著更多的對應的變數,使得體組成測量更加準確。Among them, the measurement of body composition is performed on the circumference, cross-sectional area, length of each limb segment and the resistance and reactance obtained by measuring corresponding different frequencies, rather than only the impedance of a single frequency, and the measurement of different body composition will be more accurate. to be accurate. In this preferred embodiment, a combination of tiny currents at different frequencies (1KHz-3000KHz) is used to measure the resistance and reactance of the subject's whole body, left and right upper and lower limbs, in addition to obtaining the resistance and reactance of different frequencies, The impedance can also be calculated in combination, and there are more corresponding variables for the measurement of body composition, which makes the measurement of body composition more accurate.
藉由不同的頻率的交流電,所測量得到受測者全身、各肢段的電阻、電抗對應數值,加以測量出受測者全身、各肢段的體水分、細胞內液、細胞外液,對外可為身體體組成測量結果輸出,在裝置本身,不同頻率對應的電阻、電抗測量結果,可應用於修正站立測量時的人體水分分布,減少應用BIA測量結果的變異性。With different frequencies of alternating current, the corresponding values of the resistance and reactance of the subject's whole body and each limb segment are measured, and the body water, intracellular fluid and extracellular fluid of the subject's whole body and each limb segment are measured. It can output the measurement results of body composition. In the device itself, the resistance and reactance measurement results corresponding to different frequencies can be used to correct the water distribution of the human body during standing measurement and reduce the variability of BIA measurement results.
在本較佳實施例中,藉由不同頻率的交流電,所測量得到受測者全身、各肢段的電阻、電抗對應數值,配合該攝像裝置20取得之攝像資料後所得的受測者高度或者各肢段長度,對受測者進行全身或者各肢段的生物阻抗向量分析,以受測者全身高度對應全身對應電阻、電抗、或者各肢段長度對應,進行阻抗向量分析,在無需應用經驗方程式或者回歸方程式的前提下,可應用R/H、Xc/H,進行全身或者各肢段的體組成於水合狀況與肌肉質量的評估與分析。In this preferred embodiment, by means of alternating currents of different frequencies, the corresponding values of the resistance and reactance of the subject's whole body and each limb segment are measured, and the subject's height or The length of each limb segment, the bioimpedance vector analysis of the whole body or each limb segment is performed on the subject, and the impedance vector analysis is performed according to the height of the subject's whole body corresponding to the corresponding resistance and reactance of the whole body, or the length of each limb segment, and no application experience is required. Under the premise of equation or regression equation, R/H and Xc/H can be used to evaluate and analyze the body composition, hydration status and muscle mass of the whole body or each limb segment.
除了上述生物阻抗向量分析,在本較佳實施例中,亦可進行受測者全身或者各肢段的特殊生物阻抗向量分析,以全身高度對應全身對應電阻、電抗、或者各肢段長度對應,進行特殊生物組抗向量分析,在無需應用經驗方程式或者回歸方程式的前提下,應用Rsp、Xcsp(其中:Rsp、Xcsp為全身或者肢段乘以對應修正因子(截面/長度)),進行全身或者各肢段的體組成於水合狀況與肌肉質量的評估與分析。In addition to the above-mentioned bio-impedance vector analysis, in this preferred embodiment, a special bio-impedance vector analysis of the subject's whole body or each limb segment can also be performed, and the height of the whole body corresponds to the corresponding resistance, reactance of the whole body, or the length of each limb segment. To conduct anti-vector analysis of special biological groups, without applying empirical equations or regression equations, apply Rsp and Xcsp (where Rsp and Xcsp are the whole body or limb segment multiplied by the corresponding correction factor (section/length)) to conduct whole body or Body composition of each limb segment was assessed and analyzed for hydration status and muscle mass.
以上說明本創作第一較佳實施例之結構,以下接續說明本創作第一較佳實施例之使用狀態。The structure of the first preferred embodiment of the present invention is described above, and the following describes the use state of the first preferred embodiment of the present invention.
如圖2、3所示,首先,藉由該控制面板40輸入受測者的年齡、性別、身高及人種等資料。As shown in FIGS. 2 and 3 , first, through the
接著,受測者即站上該站台31,藉由受測者重量形成的壓力,令受測者左、右腳底分別接觸該二第一電極組313,再由該重量感測器317測得受測者之體重資料,並傳輸至該計算單元35。Then, the subject stands on the
其後,受測者的雙手則以握持該二握把333的方式分別接觸該二第二電極組335,同時,受測者可藉由該二伸縮桿331可伸縮、該二伸縮桿331連接該站台31處可樞轉以及該二握把333可樞轉之技術特徵,令受測者姿態能調整至最適當的測量狀態,並可提供受測者支撐,使受測者不易產生擺動或姿態改變。Afterwards, the hands of the subject contact the two second electrode sets 335 by holding the two
其後,該轉盤315開始轉動,該攝像鏡頭21即開始對受測者攝像,並將攝像取得受測者不同角度的影像進行人體三維模型重建,重建完成後,即傳輸至該計算單元35,由該判斷邏輯355比對該身形模組資料庫351中的模型資料與該攝像鏡頭21取得之攝像資料是否正確,如比對不正確,則表示受測者的受測姿態不正確,該計算單元35並不會進行計算,也就是說本創作不會進行測量;如該判斷邏輯355比對該身形模組資料庫351中的模型資料判斷該攝像鏡頭21取得之攝像資料的結果,是略有誤差,則由該計算單元35以該身形模組資料庫351中最接近的模型資料對該攝像鏡頭21取得的攝像資料進行修正,並計算得到該體組成數據,藉此增加準確度;如該判斷邏輯355比對該身形模組資料庫351中的模型資料與該攝像鏡頭21取得之攝像資料的比對結果正確,則該計算單元35不需修正,直接計算得到該體組成數據。After that, the
其後,如經由該判斷邏輯355判斷受測者姿態正確,則會透過該二第一電極組313及該二第二電極組335之極板切換機制,應用不同組合、不同頻率的交流電與電流發射、感測電極作用,可以測得不同頻率於不同肢段的電阻、電抗值,以及該身形模組資料庫351比對攝像資料後,以該計算邏輯353計算得到該體組成數據。Afterwards, if the
藉此,本創作提供之一種具有影像掃描功能的體組成分析系統10,藉由該二扶手33設置於該站台31之技術特徵,可提供需要輔具或扶手才能站立的受測者便於該體組成數據的量測。Therefore, the present invention provides a body
以及,本創作所提供之具有影像掃描功能的體組成分析系統10,藉由該二伸縮桿331及該二伸縮桿331樞設該站台31之技術特徵,可依受測者之身形進行調整,令受測者姿態維持在最適當的測量狀態,且可提供受測者支撐,使受測者不易產生擺動或姿態改變,能提升測量結果的重複性及準確性。In addition, the body
本創作第二較佳實施例所提供之具有影像掃描功能的體組成分析系統10’,主要概同前第一較佳實施例,不同之處在於:The body composition analysis system 10' with an image scanning function provided by the second preferred embodiment of the present creation is basically the same as the first preferred embodiment, except that:
如圖4所示,本第二較佳實施例沒有第一較佳實施例的該轉盤315,在本較佳實施例中,該站台31’係呈圓形,該站台31’沿外緣設有一環狀導軌319’,該Y軸向支架23’係設於該環狀導軌319’,並可沿該環狀導軌319’移動。As shown in FIG. 4, the second preferred embodiment does not have the
於使用時,該攝像鏡頭21’是以圍繞該站台31’的方式移動,使得受測者在受該攝像鏡頭21’攝像時,不會因為轉動而產生擺動或姿態改變,尤其是對於虛弱甚至無法站立的受測者而言,更能提升本創作量測結果的重複性及準確性。During use, the
本第二較佳實施例其餘結構及達成之功效與第一較佳實施例相同,故不再與贅述。The remaining structures and effects of the second preferred embodiment are the same as those of the first preferred embodiment, so they will not be repeated here.
10:具有影像掃描功能的體組成分析系統 20:攝像裝置 21:攝像鏡頭 23:Y軸向支架 30:體組成分析儀 31:站台 313:第一電極組 315:轉盤 317:重量感測器 33:扶手 331:伸縮桿 333:握把 335:第二電極組 35:計算單元 351:身形模組資料庫 353:計算邏輯 355:判斷邏輯 40:控制面板 10’:具有影像掃描功能的體組成分析系統 21’攝像鏡頭 319’:環狀導軌 10: Body composition analysis system with image scanning function 20: Camera device 21: Camera lens 23: Y-axis bracket 30: Body Composition Analyzer 31: Platform 313: First electrode group 315: Turntable 317: Weight Sensor 33: Armrest 331: Telescopic rod 333: Grip 335: Second electrode set 35: Computing Unit 351: Body Mod Database 353: Computational Logic 355: Judgment Logic 40: Control Panel 10': Body composition analysis system with image scanning function 21' camera lens 319’: Ring guide
圖1係本創作之第一較佳實施例之結構示意圖。 圖2係本創作之第一較佳實施例之方塊圖。 圖3係本創作之第一較佳實施例之使用狀態圖。 圖4係本創作之第二較佳實施例之結構示意圖。 FIG. 1 is a schematic structural diagram of the first preferred embodiment of the present invention. FIG. 2 is a block diagram of the first preferred embodiment of the present invention. FIG. 3 is a use state diagram of the first preferred embodiment of the present invention. FIG. 4 is a schematic structural diagram of the second preferred embodiment of the present invention.
10:具有影像掃描功能的體組成分析系統 10: Body composition analysis system with image scanning function
20:攝像裝置 20: Camera device
21:攝像鏡頭 21: Camera lens
23:Y軸向支架 23: Y-axis bracket
30:體組成分析儀 30: Body Composition Analyzer
31:站台 31: Platform
313:第一電極組 313: First electrode group
315:轉盤 315: Turntable
317:重量感測器 317: Weight Sensor
33:扶手 33: Armrest
331:伸縮桿 331: Telescopic rod
333:握把 333: Grip
335:第二電極組 335: Second electrode set
40:控制面板 40: Control Panel
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TWI789076B (en) * | 2021-10-26 | 2023-01-01 | 興友科技股份有限公司 | Body Composition Analysis System with Image Scanning Function |
TWI826988B (en) * | 2022-03-30 | 2023-12-21 | 國立臺灣科技大學 | System and method for three-dimensional image evaluation |
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TWI826988B (en) * | 2022-03-30 | 2023-12-21 | 國立臺灣科技大學 | System and method for three-dimensional image evaluation |
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