TW201137318A - Method for measuring inclination angle of plane via electronic device - Google Patents

Method for measuring inclination angle of plane via electronic device Download PDF

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Publication number
TW201137318A
TW201137318A TW99112133A TW99112133A TW201137318A TW 201137318 A TW201137318 A TW 201137318A TW 99112133 A TW99112133 A TW 99112133A TW 99112133 A TW99112133 A TW 99112133A TW 201137318 A TW201137318 A TW 201137318A
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Taiwan
Prior art keywords
plane
electronic device
axis
inclination angle
measuring
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TW99112133A
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Chinese (zh)
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TWI402489B (en
Inventor
Xin Wang
Le-Tong Xue
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Inventec Appliances Corp
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Publication of TWI402489B publication Critical patent/TWI402489B/en

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Abstract

A method is applied to measure an inclination angle of a testing plane via a electronic device and a reference plane perpendicular to the gravity direction. The electronic device has a gravity sensor, a display unit, and a smooth plane. In the method, the smooth plane of the electronic device is attached to the test plane to make the testing plane and the smooth plane located in the same plane; the electronic device is set into a measurement mode to measure the inclination angle between the smooth plane and the reference plane by the gravity sensor; an offset coordinate is calculated according to the inclination angle; and a movement image corresponding to the offset coordinate is shown in the display unit.

Description

201137318 六、發明說明: 【發明所屬之技術領域】 本發明係關於一種量測单而猫&amp; + 旦 里斜面傾角的方法,尤指-種利用 電子裝置里測平面傾角的方法。 【先前技術】 隨著數位科技的曰新月異,電子裝置可藉由其所具備 之硬體裝置模擬出許多工且。棗 __ 抑ίη 、 一舉例而吕,重力加速度感應 =(G-se刪〇已經成為近年來在電子㈣設計中,最被 f泛使用的一種硬體裝置。重力加速度感應器可藉由成知 J子裝置朝向的變化,偵測出電子裝置之轉動方向 自由空間中三軸(X、Y、Z)之重力加速度,使得電子裝 置之-顯示單元產生相對應之變化。例如,可以使得領; 單元中所顯示之圖片轉向,或者更換下一張圖片。〃、’、 然而,重力加速度感應器的功能僅是形成電子裝置 空^三軸之重力加速度,因此,必須透過電子裝置中所呈備 之處理早兀與運算單兀’藉由處理重力加速度感應輯感知出 二軸之重力加速度,以實現目前許多工具之應用功能。 另外’習知技術中量測待測物體之傾角,必須透 作員藉由人工方式,利用氣泡水平儀或是專業之角規^ 具’量測待測物體之傾角,並藉由眼睛觀察藉以判 測物體之傾角。然而,不同的操作貝之操作方式與觀客方 式往往會造成誤差,進而使得待測物體之傾角的判斷^ 201137318 在此前提下,本案發明人深感實有必要開發出一種新 的量測平面傾角的方法藉以同時改善上述種種問題。 【發明内容】 本發明所欲解決之技術問題與目的: 有鑒於習知技術中,透過人工方式量測待測物體之傾 角,往往會因為不同操作員之操作方式與觀察方式的不同 而會造成誤差,進而使得待測物體之傾角的判斷不準確。 籲另外,電子裝置中所具備之重力加速度感應器僅能形成電子 裝置於自由空間中三轴之重力加速度。 緣此,本發明之主要目的在於提供一種利用電子裝置量測 平面傾角的方法,其係利用電子裝置中所具備之重力加速度感 應器與重力加速度感應器所形成之參考平面對待測平面進行傾 角之量測。藉由重力加速度感應器對待測平面之感知,取得重 力方向,並利用電子裝置中所具備之處理單元與運算單元進行 運算,以取得待測平面之傾角,並使電子裝置顯示出習知氣泡 ¥水平儀之模擬晝面於顯示單元中,使得操作員可以取得更精準 之傾角資訊。藉此,可有效解決上述之種種問題。 本發明解決問題之技術手段: 本發明為解決習知技術之問題,所採用之技術手段係 提供一種利用電子裝置量測平面傾角的方法,係利用一電 子裝置與一參考平面進行量測,該電子裝置係具有一重力 加速度感應器、一顯示單元與一貼附平面,該參考平面係 201137318 垂直於重力方向,該利用雷工壯班曰、,τ 包含下列步驟:使該電子妒:里:二面:角的方法係 平面動亥夹者平而Γ 力加速度感應器偵測該貼附 =以?於該顯示單元中顯示一模擬畫面,該;擬= 03 一動❹像’且該動態影像係位於該偏移座標。一 本發明對照先前技術之功效: 於本發明所揭露之利用電子裝置量測平面傾角 :旦電子裝置對待測平面進行傾角之量測,且於傾 電子裳置會藉由運算單元與處理單元顯 7平儀之杈擬晝面於顯示單元中,使得操作員f ”、測平面之傾角。可避免習知中不 ^ ==所造成之誤差。顯而易見地,藉由本 察mitt置/測平面則的方法,不f 11由人為觀 率。、進而提昇待測平面傾角量測之速度與效 半稭以有效解決以上所述之種種問題。 【實施方式】 可廣2明係揭露—種利用電子裝置量測平面⑽的方法, 尹、/用於各種具有重力加速度感應器之電子裝置。下 個較佳實施例以說明本發明,而且相關之組合實 施方式更是不勝枚舉,故在此不再―贅述。然㈣此項技 201137318 藝者皆知此僅為舉例,而並非用以限定發 較佳實施例之内容詳述如下。 身有關此 請參閱第一圖與第二圖,第一圖係為本發 例之^裝置之外觀示意圖,第二圖係為本發明較佳= 例之電子裝置之功能方塊示意圖。—電子寰置工可勺二一 貼附平面10、一顯示單元U、一輸入單元 速度感應器13…運算單幻4與__處理單元ΐ5 σ 置1可為行動通訊裝置、一個人數位助理、— 放裝置或-平板電腦。 夕媒體播 貼附平φ 10可設置於電子裂置1之-側面,貼附平面 10係為一平举柘而。% - w - 、附平面 •二1不早7&quot;11與輸入單元12可設置於 电衣 之另一侧面。顯示單元11可用以顯示—模擬書 二⑴’极擬晝面1U可包含一動態影像b (標示於第四 圖)’動態影像b較佳者可為—氣泡影像,顯示單元u可 為-液晶顯示面板。輸入單元12可用以輸 數Pla與一精度參數 - 、飞k擇參 数lb輪入早兀12可為一鍵盤或一觸 重力加速度感應器13可形成-與重力方向垂直之參 考平面S ( ^不於第三A圖),並偵測出電子裝置1因為— =角所產生的重力方向變化,其中,重力加速度感應器^ 會依據重士方向變化,傳送出一重力加速度G。 …運算單元14係電性連接於重力加速度感應器13,運 异單元14可包含一傾角運算程式141、-座標運算程式142 與-阻尼振動模擬程式143。傾角運算程式141可藉由接 201137318 收重力加逮度G以運算出?小— 可藉由該等傾角以運算出,座、’=、運算程式⑷201137318 VI. Description of the Invention: [Technical Field] The present invention relates to a method for measuring a single and a cat's ramp angle, and more particularly to a method for measuring a plane tilt angle in an electronic device. [Prior Art] With the rapid development of digital technology, electronic devices can simulate many jobs with their hardware devices. Jujube __ 抑 ηη, an example and Lv, gravity acceleration induction = (G-se 〇 has become a hardware device most widely used in electronic (four) design in recent years. Gravity acceleration sensor can be formed by Knowing the change of the orientation of the J sub-device, detecting the gravitational acceleration of the three axes (X, Y, Z) in the free space of the rotation direction of the electronic device, so that the display unit of the electronic device produces a corresponding change. For example, the collar can be made The picture displayed in the unit turns, or replaces the next picture. 〃, ', However, the function of the gravity acceleration sensor is only to form the gravitational acceleration of the electronic device, and therefore must be transmitted through the electronic device. The pre-processing and calculation unit 兀 'receives the gravitational acceleration of the two axes by processing the gravitational acceleration sensor to realize the application functions of many tools at present. In addition, the measurement of the inclination of the object to be measured in the prior art must be The staff manually measures the inclination of the object to be measured by means of a bubble level or a professional angle gauge, and judges the inclination of the object by eye observation. However, different operation methods and viewing methods often cause errors, which in turn lead to the judgment of the inclination of the object to be tested. ^ 201137318 Under this premise, the inventor of this case deeply felt the need to develop a new measurement. The method of planar tilting can simultaneously improve the above various problems. SUMMARY OF THE INVENTION The technical problems and objects to be solved by the present invention are: In the prior art, the inclination of an object to be measured is manually measured by a manual method, often because of different operators. The operation mode and the observation mode are different, which may cause errors, which in turn makes the judgment of the inclination of the object to be tested inaccurate. In addition, the gravity acceleration sensor provided in the electronic device can only form the three-axis electronic device in free space. Therefore, the main object of the present invention is to provide a method for measuring a plane tilt angle by using an electronic device, which uses a reference plane formed by a gravity acceleration sensor and a gravity acceleration sensor provided in an electronic device to measure a plane. Perform the measurement of the inclination angle. Test by gravity acceleration sensor The surface is sensed, the direction of gravity is obtained, and the processing unit and the arithmetic unit provided in the electronic device are used to calculate the inclination angle of the plane to be tested, and the electronic device displays the analog surface of the conventional bubble level meter on the display unit. In this way, the operator can obtain more accurate dip information, thereby effectively solving the above various problems. The technical means for solving the problem of the present invention: The present invention solves the problems of the prior art, and the technical means adopted provides a The method for measuring the plane tilt angle by using an electronic device is performed by using an electronic device and a reference plane. The electronic device has a gravity acceleration sensor, a display unit and an attachment plane, and the reference plane is 201137318 perpendicular to Gravity direction, the use of Leigong Zhuangban, τ includes the following steps: make the electronic 妒: inside: two sides: the angle of the method is flat and the 夹 Γ force acceleration sensor detects the attachment = ? A simulated picture is displayed in the display unit, and the moving picture is located at the offset coordinate. The effect of the present invention against the prior art is as follows: The electronic device is used to measure the plane tilt angle: the electronic device measures the tilt angle of the plane to be measured, and the tilting electrons are displayed by the arithmetic unit and the processing unit. The analogy of the 7-level instrument is displayed in the display unit, so that the operator f", the inclination of the plane, can avoid the error caused by the conventional ^==. Obviously, by using the mitt/measurement plane The method is not artificial, so as to improve the speed and effect of the measured plane inclination angle to effectively solve the various problems described above. [Embodiment] Can be widely disclosed - the use of electronic The method for measuring the plane (10) of the device, Yin, / is used for various electronic devices having a gravity acceleration sensor. The next preferred embodiment is to illustrate the present invention, and the related combined embodiments are numerous, so here is not </ RTI> </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; The first figure is a schematic diagram of the appearance of the device of the present invention, and the second figure is a functional block diagram of the electronic device of the preferred embodiment of the present invention. The electronic device can be placed on the plane 1 and the display. Unit U, an input unit speed sensor 13... Operation single magic 4 and __ processing unit ΐ 5 σ 1 can be a mobile communication device, a number of assistants, a device or a tablet computer. It can be placed on the side of the electronic split 1 , and the attached flat 10 is a flat lift. % - w - , attached plane • 2 1 early 7 &quot; 11 and the input unit 12 can be placed on the other side of the electric garment The display unit 11 can be used for display - the simulation book 2 (1) 'polar surface 1U can include a dynamic image b (labeled in the fourth picture) 'the dynamic image b can be a bubble image, the display unit u can be - The liquid crystal display panel. The input unit 12 can be used to input the number Pla and a precision parameter - the fly k select the parameter lb to enter the early turn 12 can be a keyboard or a touch gravity acceleration sensor 13 can be formed - a reference perpendicular to the direction of gravity Plane S (^ is not in the third A picture) and detects electricity The device 1 changes the direction of gravity due to the angle of the angle of the gravity acceleration sensor, which transmits a gravity acceleration G according to the change of the direction of the heavy man. The arithmetic unit 14 is electrically connected to the gravity acceleration sensor 13 The different unit 14 may include a tilt calculation program 141, a coordinate calculation program 142, and a damping vibration simulation program 143. The inclination calculation program 141 may calculate the gravity by adding the weight G to the 201137318 to calculate the small size. Dip angle to calculate, seat, '=, calculation program (4)

參㈣。阻尼振動模擬程式‘===標 以模擬出一阻尼振動, 收重力加速度G jtw m 得k出阻尼振動參數P3。 處理早疋i5係電性連接於顯 與運算單元U。並用以接收輸 二輸入早』 擇參數叫與精度參數Plb。處 之模式選 數P!a可使得電子裝置早7V5错由模式選擇參 數Plb至運瞀單元u . 里屑拉式,並傳送精度參 μ阻尼。處理單元15可接收偏移座標參數 尼振動參數P3並傳送至顯示單元U。 ㈣例中,係藉由將電子裝置1放置於-侍,則千面F (標示於第三 ' 並貼附於待測平面F上―,料貼=吏^貼附平面10放置 面F,再利用重力力〇重合於待測平 運算_=::%==^^ 藓以始笞山/士, &quot;千面S所夾持之至少一傾角, ^單了Λ F之傾角方向,並於電子裝置1之顯 二Λ:動態影像b顯示出待測平面f之傾角方向。 法時,ΪΓ由/斤揭露之利用電子裝置量測平面傾角的方 百先,由-_作員(圖未示)藉由輸入單元u ,選擇參數PU’並傳送模式選擇參數pia至處理單幻5吴 二單r可依據模式選擇參數Pla使得電子裝 里測杈式以進行平面傾角之量測。 适 入。„當電子裝置1進人量測模式後,操作員可再次藉由輸 早兀12輸人精度參數Plb ’精度參數pib即表示電子裝 201137318 置1處於一傾角時,顯示單元 動的-個單位長度。於本較佳示之動態影像b所移 為即代表電子^^例中,精度參數⑽可 會產生請公爱的高度差4置1之點附平面上每1公尺 接著’操作員可將電子梦番Participate in (four). The damped vibration simulation program ‘=== is marked to simulate a damped vibration, and the gravitational acceleration G jtw m is obtained as the damped vibration parameter P3. The early processing i5 is electrically connected to the display unit U. It is used to receive and input the input and the parameter Plb. The mode selection P!a can make the electronic device 7V5 wrong by the mode selection parameter Plb to the transport unit u. The chip is pulled and the transmission precision is μ damping. The processing unit 15 can receive the offset coordinate parameter and the vibration parameter P3 and transmit it to the display unit U. (4) In the example, by placing the electronic device 1 on the waiter, the face F (marked on the third 'and attached to the plane F to be tested ―), the sticker = 吏 ^ attached to the plane 10 to place the face F, Then use the gravity force to coincide with the flat operation to be measured _=::%==^^ 藓 笞 笞 / / & & & & & & & & & & & & 千 千 千 千 千 千 千 千 千 千 千 千 千 千 千 千 千 千 千 千 千 千 千 千And the display of the electronic device 1: the dynamic image b shows the direction of the inclination of the plane f to be measured. In the case of the method, the square tilted by the electronic device to measure the plane inclination angle, by -_ staff (Figure not Show) by inputting the unit u, selecting the parameter PU' and transmitting the mode selection parameter pia to processing the single magic 5 Wu 2 single r according to the mode selection parameter Pla to make the electronic loading and measuring type to measure the plane inclination angle. „When the electronic device 1 enters the measurement mode, the operator can again input the accuracy parameter Plb by using the input parameter Plb. The precision parameter pib indicates that the electronic device 201137318 is set at a tilt angle, and the display unit is moved. Unit length. In the case where the dynamic image b of the preferred embodiment is moved to represent an electronic example, the precision parameter (10) may be The height difference of the generation of the public is 4 points. The point is 1 meter on the plane. Then the operator can use the electronic dream fan.

並使得電子F f丨夕处裝置1放置於待測平面F上, 上,f h 、附平面10緊密貼附於待測平面F 三…第三D圖第=平面F之傾角。請參閱第 佳實施例之操作示意圖,二二圖=广圖梅發明較 其中’平行於參考平面s 第一圖與弟二圖。 η斗士 , 回 &gt; 可延伸出一 X軸與一 Υ舳, 且垂直於參考平面S可延伸+ 、 轴係分別相互垂直。另外,申平:::X轴、Y轴與Z X,軸與-γ,細,附平面1G可延伸出一 而X,轴二,軸與z,軸係分別相互垂直广&quot;z軸, :弟二A圖可以得知,參考平面s與貼附平面W相 軸血=亦即x軸、Y軸與z軸係分別重合於X,轴、丫, /、軸,故待測平面F不具有傾角。 相互會B圖可以侍知’參考平面S不與貼附平面10 ^,亦即X軸與Z軸分別不重合於乂,軸與z,軸, s之合於Y’車由,故貼附平面10之X,轴與參考平面 轴可形成一第—傾角而貼附平面H)之Z,軸斑 &gt;考:面s之2軸亦可形成一第三傾角θ,此時第一傾角、 P可等於第二傾H/9,+Λ·办 傾^人^ 參考平面s與貼附平面10間之 員角0 3弟—傾角P與第三傾角6&gt;。 201137318 田弟 l圆可以得知,參考平 相互重合,亦即孓軸盥7 &amp;八^ 个/、貼附千面10 而X軸可重二x,= 不重合於¥,軸與2,輛, s之丫軸可形成:外 附平面10之¥,軸與參考平面 灸考平m傾角ψ;而貼附平面10之z,轴與 軸亦可形成第三傾角^此時第-傾角ψ 可等於第三傾角θ,妗灸去^ 丁乐一傾角屯 备勺入筮y 故參考千面S與貼附平面10間之傾 角包含第二傾角Ψ與第三傾角0。 、 由第三D圖可以得知,參考平面S不與貼附平面】0 相互重合,亦即x軸、γ轴盥八 二、 /、ζ軸刀別不重合於X,軸、Υ, 軸故貼附平面10之乂,轴與參考平面軸可 且附平面10之¥,軸與參考平面…And the device 1 is placed on the plane F to be measured, and the f h and the attached plane 10 are closely attached to the inclination angle of the plane F to be measured, the third plane F = plane F. Please refer to the operation diagram of the preferred embodiment, and the second figure = the figure of the invention is more than the 'parallel to the reference plane s the first picture and the second picture. The n-stroke, back &gt; can extend an X-axis and a Υ舳, and can extend + perpendicular to the reference plane S, and the axes are perpendicular to each other. In addition, Shen Ping:::X axis, Y axis and ZX, axis and -γ, thin, attached plane 1G can be extended out one and X, axis two, axis and z, the axis system is perpendicular to each other wide &quot;z axis, :Dind 2 A can be seen that the reference plane s and the attached plane W phase axis blood = that is, the x-axis, the Y-axis and the z-axis system respectively coincide with X, axis, 丫, /, axis, so the plane F to be measured Does not have an angle of inclination. The mutual view B can be used to know that the reference plane S is not attached to the plane 10 ^, that is, the X axis and the Z axis do not coincide with each other, and the axis and the z, the axis, and the s are combined with the Y' vehicle, so the attachment is attached. X of the plane 10, the axis and the reference plane axis can form a first inclination angle and adhere to the plane H) Z, the axial plane> test: the 2 axes of the surface s can also form a third inclination angle θ, at this time the first inclination angle , P can be equal to the second tilt H/9, + Λ · do the tilt ^ person ^ the reference plane s and the attachment plane 10 between the staff angle 0 3 brother - the inclination P and the third inclination 6 &gt;. 201137318 Tian Di l Yuan can know that the reference planes coincide with each other, that is, the axis 盥 7 &amp; eight ^ /, attached to the thousand faces 10 and the X axis can be two x, = does not coincide with ¥, axis and 2, The s-axis of the s can be formed: the outer plane 10 is ¥, the axis and the reference plane moxibustion are flattened by the m-angle ψ; and the z of the plane 10 is attached, the shaft and the shaft can also form a third inclination angle ^ the first inclination angle ψ can be equal to the third inclination angle θ, and the moxibustion is to be placed in the 丁 一 一 倾 倾 屯 屯 勺 筮 故 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 It can be known from the third D diagram that the reference plane S does not coincide with the attached plane 】0, that is, the x-axis, the γ-axis 盥82, the /, the ζ-axis knife do not coincide with the X, the axis, the Υ, the axis Therefore, after attaching the plane 10, the axis and the reference plane axis can be attached to the plane 10 of the ¥, the axis and the reference plane...

之傾角而貼附平面10之Ζ,軸與參考平面S 門之傾二Γ成第三傾角0,故參考平面s與貼附平面10 間之傾角包含第-傾“、第二傾角ψ與第三傾角Θ。 會人t由上述可知’當參考平面s不與貼附平面10相互 σ日’,至少可形成第一傾角P與第二傾角ψ中至少一 者’而一定會產生第三傾角0。 以第三D圖為例,當電子農置i放置於待測平0後, 加速度感應器13可偵測出參考平面s與貼附平面1〇之 :員:二並藉由傾角產生重力加速度G’其中,重力加速度 盘二二:X軸重力加速度Gx、一 Y,軸重力加速度Gy '、 軸重力加速度Gz。重力加速度感應器13藉由傾角產 生重力加速度G係為習知技術,故於此不多加贅述。 接下來’重力加速度感應器13可將重力加速度G傳送 201137318 至運异單元14,運算單元14可依據重力加速度G所包含 之X軸重力加速度Gx、Y’軸重力加速度Gy與z,轴重力 加速度Gz’並利用傾角運算程式141分別計算出第一傾角 10、第二傾角ψ與第三傾角Θ。傾角運算程式141可具有 以下方程式: ^ P = tan-\-r=^===) sG/+Gz2 着 0 = tan-1 (了=^==) ylGx2+Gz2After the inclination angle is attached to the plane 10, the axis and the reference plane S are tilted to a third inclination angle 0, so the inclination between the reference plane s and the attachment plane 10 includes the first-dip, the second dip, and the The three-angle angle Θ. The person t can be known from the above, 'When the reference plane s does not align with the attachment plane 10', at least one of the first inclination angle P and the second inclination angle ' can be formed, and the third inclination angle is surely generated. 0. Taking the third D picture as an example, when the electronic farmer i is placed on the level 0 to be measured, the acceleration sensor 13 can detect the reference plane s and the attached plane 1 :: 2: by the inclination angle Gravity acceleration G', wherein the gravity acceleration disk 22: X-axis gravitational acceleration Gx, a Y, the axial gravitational acceleration Gy ', the axial gravitational acceleration Gz. The gravitational acceleration sensor 13 generates the gravitational acceleration G by the inclination angle is a conventional technique. Therefore, the gravity acceleration sensor 13 can transmit the gravitational acceleration G to 201137318 to the transport unit 14, and the arithmetic unit 14 can receive the X-axis gravitational acceleration Gx and the Y-axis gravitational acceleration according to the gravitational acceleration G. Gy and z, axis gravity acceleration Gz' The first inclination angle 10, the second inclination angle ψ, and the third inclination angle Θ are respectively calculated by the inclination calculation program 141. The inclination calculation program 141 may have the following equation: ^ P = tan-\-r=^===) sG/+Gz2 0 = tan-1 (了 =^==) ylGx2+Gz2

Gz } 接著,運异單元14可依據傾角運算程式141所運算出 =第一傾角P、第二傾角ψ與第三傾角Θ,並利用座標運 算程式142分別運算出動態影像b偏離顯示單元丨丨中心點 的偏移位置(OffsetX’,〇ffsetY,)(標示於第四圖)。座標運 ,程式142可湘下列方程式運算出動態影像^離顯示 單元11中心點的偏移位置(〇ffsetX,,〇ffsetY,):Gz } Next, the differentiating unit 14 can calculate the first inclination angle P, the second inclination angle ψ and the third inclination angle 依据 according to the inclination calculation program 141, and calculate the motion image b from the display unit by the coordinate calculation program 142, respectively. Offset position of the center point (OffsetX', 〇ffsetY,) (marked in the fourth figure). The coordinate operation, the program 142 can calculate the offset position of the dynamic image from the center point of the display unit 11 (〇ffsetX,, 〇ffsetY,) by the following equation:

OffsetX'OffsetX'

OffsetY' sin(p)*l〇〇〇OffsetY' sin(p)*l〇〇〇

Plb sin(沴)* 1000 m 由於,藉由上述方程式所運算出之偏移位置 (OffSetX’,OffSetY,)係以精度參數Plb為單位的座標刻 度’而-般顯不單元11多為—具有像素之液晶螢幕,因财 201137318 顯示單元11所顯示之模擬晝面lu 統。故座標運算程式142必須再經由下列方程之系 將偏移位置(⑽etx,,⑽etY,)轉換=單: 關示,偏移座標(FX,,Fy,)(標示於第四圖)、。=早二 口又顯不早兀U尺寸大小為高Ηχΐ v,顯示 : (標示於第四圖)可視為Y,軸,顯兀之同H 示於第四圖W視為X,軸。,'…11之寬v(標Plb sin(沴)* 1000 m Since the offset position (OffSetX', OffSetY,) calculated by the above equation is a coordinate scale in the precision parameter Plb, and the unit 11 is generally - has The LCD screen of the pixel, due to the 201137318 display unit 11 shows the analog surface. Therefore, the coordinate calculation program 142 must convert the offset position ((10) etx,, (10) etY,) by the following equations: single: off, offset coordinates (FX,, Fy,) (marked in the fourth figure). = The first two ports are not too early. The size of the U is high. v, the display: (marked in the fourth figure) can be regarded as Y, the axis, and the same as H. The fourth figure is regarded as X, axis. , '...11 wide v (standard

Fx,= ^ +OffsetX' p , ΗFx, = ^ +OffsetX' p , Η

Fy =~γ +Offset Υ' 四圖,弟四圖係為本發明較佳實施例之 二假設顯示單元U之高Η可為料 不:疋之寬v可為彻像素,即表示顯示單元η所顯f 其…書二;=7素仙 =),,晝面111之原點位置ζ位於模擬晝面= 角」原點位置Ζ所對應之之像素座標為㈣)。 故’藉由座標運算程式】4 9、革曾, 後,座標運算程式14二=2,,座標⑽,) 之偏移座標參數Ρ2至處理單元l 3偏&amp;座&amp;(Fx’,Fy,) 移座微機得 之模擬晝面m。且動離:::二模擬出具有動態影像b 又m八 動恶影像b將於模擬書面111中由中 心位置0沿著移動方向D移動至偏移卿X,:: 201137318 而為了使動態影像b更加擬真在真實水 ,考慮動態影像b移動時受到重力加速度二化 丨起的浮力變化與動態影像b侧形的影 ==尼振動’阻尼振動係指使動態影像^移動方&quot;向= 的-個過程,y)後,會不斷擺動最終到達到平衡 之下為述之阻尼振動,於本發日种僅考慮—般狀況 標(Fx^ Λ^加速度μ’然後動態影像b與偏移座 b⑼動方\ η日的距離不斷遞減。同時,假設動態影像 心t 動超過偏移座標㈤斤)《炎,則動離 ;、、1動Γ二標(Fx,,Fy,)之間的距離遞減會轉為負值, ϋ動方向D之反方向加速’如此一來,動態影像❻ 二烏移座標(Fx,,Fy,)進行反覆來回擺動,於此同時, =態影像b的移動速度以等比例遞減,進而使得動態 衫像b之擺動過程逐漸停止。 另外,為了模擬動態影像b受壓變形的過程,本 =依據動態影像b當前之加速度m線性公式ς行 播=的橢圓形壓縮。為了完成上述之阻尼振動,阻尼振動模Fy =~γ +Offset Υ' Four diagrams, the fourth diagram is the second embodiment of the present invention. It is assumed that the height of the display unit U is not high: the width v of the 疋 can be a full pixel, that is, the display unit η It is shown that the book coordinates of the origin of the face 111 are located at the origin of the simulated face = angle. The corresponding pixel coordinates are (4)). Therefore, by the coordinate calculation program, the coordinate equation 142 to the processing unit l 3 offset &amp; seat &amp; (Fx', Fy,) The simulated surface of the moving microcomputer is m. And the movement::: two simulations with dynamic image b and m eight moving image b will be moved from the center position 0 along the moving direction D to the offset Qing X in the simulated writing 111, :: 201137318 and in order to make the moving image b is more realistic in real water, considering the buoyancy change caused by the acceleration of gravity acceleration and the shadow of the moving image b side shape when the moving image b moves == ny vibration 'damped vibration means moving the moving image ^ moving side&quot; After a process, y), it will continue to oscillate and finally reach the balance of the damped vibration. In this issue, only the general condition (Fx^ Λ^ acceleration μ' and then the dynamic image b and offset are considered. The distance between the b (9) and the η day is decreasing. At the same time, it is assumed that the dynamic image of the dynamic image exceeds the offset coordinate (five) jin) "Inflammation, then move away;,, 1 move between the two targets (Fx, Fy,) The distance is reduced to a negative value, and the direction D is accelerated in the opposite direction. Thus, the moving image F 乌 移 ( (Fx,, Fy,) is repeatedly oscillated back and forth, at the same time, the = state image b The moving speed is decremented in equal proportions, which in turn causes the dynamic shirt to swing like b Cheng gradually stop. In addition, in order to simulate the process of compression deformation of the dynamic image b, this = elliptical compression according to the linear formula of the current acceleration m of the dynamic image b. In order to complete the above damped vibration, the damped vibration mode

2 ί 14 3可利用下列方程式,運算出阻尼振動參數p L t达至處理單元15以模擬動態影像b沿移動方向 至偏移座標(Fx’,Fy’)後,並不斷擺動最終到達到 的一個過程。 衡 首先,依據上述傾角運算程式141所計算出第一傾 U 一傾角ψ ’亚可藉由模擬晝面⑴所形成之像素座 12 201137318 標糸統之1像素視為1單位長度,且於-般情況之下,重 力:速度G可近似於10m/s2,故阻尼振動模擬程式143可 先猎由下列絲式運算出㈣影像b在模擬晝面lu中χ, 軸與γ’軸之像素加速度(PAx,,PAy,),像素 PAy’)之單位為像素/s2。 ^ ’ Ρ^λγ'= 10*1 〇〇〇 *sin(p) P^/=10*1000*sin(^) 接著’阻尼振_擬程式⑷纽據上述之像素加速 又(=,PAy )計算出動態影像b速度變化,進而推算 位置變化:其中,(Xl,,y1,)為動態影像b Bi ά x2,y2 )為動態影像b經過時f曰1 t後的所 ^^^別’)係為動態影像4前的移動速度, (X,Vy2)係為動態影像b經過時間&quot;灸的移動速度。2 ί 14 3 The following equation can be used to calculate the damped vibration parameter p L t to the processing unit 15 to simulate the motion image b along the moving direction to the offset coordinate (Fx', Fy'), and continuously oscillate to reach the end. a process. First, the first tilt U is calculated according to the tilt calculation program 141, and the pixel of the pixel holder 12 formed by the analog pupil plane (1) is regarded as 1 unit length, and is - Under normal circumstances, gravity: speed G can be approximated to 10m / s2, so the damping vibration simulation program 143 can be first hunted by the following silk formula (four) image b in the simulation plane lu, the axis and the pixel acceleration of the γ' axis The unit of (PAx,, PAy,), pixel PAy') is pixel / s2. ^ ' Ρ^λγ'= 10*1 〇〇〇*sin(p) P^/=10*1000*sin(^) Then the 'damped vibration_program (4) button is accelerated according to the above pixel (=, PAy) Calculate the change of the speed of the motion picture b, and then calculate the position change: (Xl,, y1,) is the motion picture b Bi ά x2, y2) is the ^^^ after the motion picture b passes f曰1 t ) is the moving speed before the motion picture 4, and (X, Vy2) is the moving speed of the motion picture b elapsed time & moxibustion.

VxT= VxY+t * PAx^VxT= VxY+t * PAx^

VyT = VyY+t^ PAy' xT = x\'+/ * (VxY^VxT ) / 2 yT = yY-\-t * (Vy] ^Vy2' )/2 接者,虽運舁程式⑷所計算出第— 角 置 W之變化很小時,可視為電子裳置!已 穩定,接著像素加速度(PAx,,p 祕面 y ) &quot;τ依據下列方牵 201137318 式模擬出像素加速度(PAx,,PAy,)不斷遞減,且像素加 速度(PAx,PAy,)之遞減程度係依據動態影像b與偏移 座標(Fx’,Fy’)逐漸減少而相對減少,直到動態影像匕沿 ^動方向D移動超越偏移座標(Fx,,Fy,)後,則像素加速 度(PAx,,PAy,)之遞減則轉為負值,如此一來,當動態 影像1)沿移動方向D移動超_移座標(Fx,,Fy,)後,就 會以移動方向D之反方向偏移回偏移座標(FX»其 令’ CPAx’’,pay”)為遞減後的像素加速度。 ΡΑχ''^{\~χγ/ρχ^ρΑχ&lt; FAy&quot;=〇-yV/Fy)*pAy 像素加速度(PAx’,吻,)遞減之後,依據 =里寸k律’動態影像w會在偏移座標(Fx,,Fa附VyT = VyY+t^ PAy' xT = x\'+/ * (VxY^VxT ) / 2 yT = yY-\-t * (Vy] ^Vy2' )/2 Receiver, although calculated by the program (4) Out of the first - angle change W is very small, can be regarded as electronic skirt! Stable, then pixel acceleration (PAx,, p secret surface y) &quot;τ according to the following formula 201137318 simulation of pixel acceleration (PAx,, PAy,) continuously decreasing, and the degree of pixel acceleration (PAx, PAy,) According to the dynamic image b and the offset coordinates (Fx', Fy'), the relative reduction is gradually reduced until the moving image 移动 moves along the moving direction D beyond the offset coordinates (Fx, Fy,), then the pixel acceleration (PAx) ,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,, Move back the offset coordinates (FX» and let 'CPAx'', pay") be the decremented pixel acceleration. ΡΑχ''^{\~χγ/ρχ^ρΑχ&lt;FAy&quot;=〇-yV/Fy)*pAy pixels After the acceleration (PAx', kiss,) is decremented, the motion image w will be at the offset coordinate (Fx, Fa attached).

的擺動’因此,必須模擬摩擦力的影響,使得動 ^像b件以靜止於偏移座標(Fx,,Fy,)。於本發明中, 妒振動模擬程式143不斷根據時間依比例減少動 =b經過時間&quot;4的移動速度,因此當動態影像b之 標=小,ΤΙ預設值之後,且當動態影像b經過偏移座 ^ y犄,阻尼振動模擬程式143會將動態影像b 度設置為〇,藉以使得動態影像b停止於偏移座 心(Fx,Fy,)已達到穩定。 〗第五圖,為了進一步推廣本發明所揭露之技 1 、下將進步將本發明較佳實施例所揭露之技術彙整 201137318 為一簡易流程圖,以便在所屬技術領域中具有通常知識者 更容易記憶。下列之元件標號,請參閱第二至第四圖。 使電子裝置1進入量測模式並設定精度參數pib 驟 S100)。 / /久且π付冽平面F(步驟 將電子裝置1之貼附平面 S110) 重力加速度感應器13藉由偵測貼附平面1〇盥來考平面&lt; J第-傾角Ρ、第二傾角Ψ與第三傾角Θ,形成重力加速 轴重:3程式141依據重力加速度G中所包含之 重力加速度Gx、Y’軸重力加速度巧與2,軸重力加The swinging ' Therefore, the influence of the frictional force must be simulated so that the moving image b is stationary at the offset coordinates (Fx, Fy,). In the present invention, the 妒 vibration simulation program 143 continuously reduces the moving speed of the motion = b elapsed time according to the time, so when the motion image b is small = ΤΙ preset value, and when the motion image b passes The offset motion ^ y 犄, the damped vibration simulation program 143 sets the dynamic image b degree to 〇, so that the dynamic image b stops at the offset center (Fx, Fy,) has stabilized. In the fifth, in order to further promote the technology disclosed in the present invention, the technology disclosed in the preferred embodiment of the present invention will be summarized as a simple flow chart, so that it is easier for those having ordinary knowledge in the technical field. memory. Please refer to the second to fourth figures for the following component numbers. The electronic device 1 is brought into the measurement mode and the accuracy parameter pib is set to S100). / / Long and π 冽 plane F (step attaching the plane S110 of the electronic device 1) The gravity acceleration sensor 13 measures the plane by detecting the attached plane 1 &&lt; J-dip angle Ρ, second inclination Ψ and the third dip angle 形成, forming a gravity acceleration axle weight: 3 program 141 according to the gravitational acceleration Gx contained in the gravitational acceleration G, the Y' axis gravitational acceleration and 2, the axis gravity plus

Gz推算出第一傾角第二 、又Gz calculated the first dip second, and again

Sl30)。 貝Μ與第二傾角Θ (步驟 座標運算程式142依據第_傾角ρ、第二 二傾角Θ與精度參數Plb推算 、角 弟 ㈤办,)(㈣S140)。 動_像b之偏移座標 阻尼振動模擬程式143使動能旦彡修u t 後停止於該偏移座標(步驟S15G)。p 线阻尼振動’之 於本發明所揭露之利用電子穿 令’係藉由電子裝置對待測平面進行^平旦面傾角的方法 角量測完成之後’電子裝置會藉由運曾單之’且於傾 示出習知氣泡水平狀贿畫面於顯處理單元顯 知待測平面之傾角。可避免習知中使得操作員得 與觀察方式所造成之誤差。顯而地^貝之操作方式 也’错由本發明例所 201137318 =路之利用電子裳置量測平面傾角的方法,不需藉由人為觀 *,僅需利用電子H就可以準確且快速地完成待測平 面傾角之量測’進而提昇待測平面傾角量測之速度盘效 率。藉以有效解決以上所述之種種問題。 藉由上述之本發明實施例可知,本發明確具產業上之利 用價值。惟以上之實施例說明,僅為本發明之較佳實施例說 明,舉凡所屬技術領域中具㈣常知識者當可依據本發明之 上述實施例說明而作其它種種之改良及變化。然而這些依據Sl30). The bellows and the second dip angle Θ (the step coordinate calculation program 142 is based on the yip angle ρ, the second dip angle Θ and the precision parameter Plb, and the angle (5), ((4) S140). The offset coordinate of the motion_image b is damped and the simulation program 143 stops the kinetic energy and stops at the offset coordinate (step S15G). The p-line damped vibration 'is based on the method of using the electron-through device of the present invention to perform the method of measuring the plane of the plane to be measured by the electronic device. After the angular measurement is completed, the electronic device will be transported by the machine. The conventional bubble level brittle picture is displayed in the display processing unit to reveal the inclination of the plane to be tested. It is possible to avoid errors caused by the operator and the way of observation in the prior art. Obviously, the operation mode of the shell is also 'mistaken by the invention example 201137318=The method of using the electronic skirt to measure the plane inclination angle of the road does not need to be viewed by humans*, and only needs to use the electron H to complete accurately and quickly. The measurement of the inclination angle of the plane to be measured further increases the speed disk efficiency of the measured inclination angle of the plane to be measured. In order to effectively solve the above problems. As can be seen from the above-described embodiments of the present invention, the present invention has industrially useful value. The above embodiments are merely illustrative of the preferred embodiments of the present invention, and those skilled in the art will be able to make various other modifications and changes in accordance with the embodiments of the present invention. However, these basis

本發明實關所作_種改认變化,#仍屬於本發明之發 明精神及界定之專利範圍内。 X 【圖式簡單說明】 第一圖係為本發明較佳實施例之電子裝置之外觀示意 圖; 第二圖係為本發明較佳實施例之電子裝置之功能方塊示 意圖; b 第三Α圖至第三D圖係為本發明較佳實施例之操作示意 圖; ,四圖係為本發明較佳實施例之模擬晝面示意圖;以及 第五圖係為本發明較佳實施例之流程圖。 回 【主要元件符號說明】 電子裝置1 貼附平面10 16 201137318 顯示單元11 模擬晝面111 輸入單元12 重力加速度感應器13 運算單元14 傾角運算程式141 座標運算程式142 阻尼振動模擬程式143 • 處理單元15 待測平面F 參考平面S 動態影像b 模式選擇參數Pla 精度參數Plb 偏移座標參數P2 阻尼振動參數P3 *第-傾角P 第二傾角Ψ 第三傾角0 · 偏移位置(0ffsetX’,0ffsetY’) 偏移座標(Fx’,Fy’) 寬V 高Η 中心位置0 17 201137318The present invention is within the scope of the invention and the scope of the invention. BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a schematic diagram showing the appearance of an electronic device according to a preferred embodiment of the present invention; FIG. 2 is a functional block diagram of an electronic device according to a preferred embodiment of the present invention; 3 is a schematic diagram of the operation of a preferred embodiment of the present invention; and FIG. 4 is a schematic diagram of a simulated surface of a preferred embodiment of the present invention; and a fifth diagram is a flow chart of a preferred embodiment of the present invention. Back [Main component symbol description] Electronic device 1 Attached plane 10 16 201137318 Display unit 11 Analog surface 111 Input unit 12 Gravity acceleration sensor 13 Operation unit 14 Inclination calculation program 141 Coordinate operation program 142 Damping vibration simulation program 143 • Processing unit 15 Plane to be measured F Reference plane S Motion picture b Mode selection parameter Pla Accuracy parameter Plb Offset coordinate parameter P2 Damping vibration parameter P3 *Pivot angle P Second inclination angle Ψ Third inclination angle 0 · Offset position (0ffsetX',0ffsetY' Offset coordinates (Fx', Fy') Wide V high Η Center position 0 17 201137318

原點位置ZOrigin position Z

1818

Claims (1)

201137318 七、申請專利範圍: :種^電子裝置量測平面傾角的方法,係_—電子裝置 2有“會:重力方向之參考平面進行量測,該電子裝置係 =加速度感應器、一顯示單元與一貼附平面,該 個電作置制平面傾角的方法儀包含下列步驟: (a) 使該電子裝置進入一量測模式; (b) 將該貼附平面放置於一待測平面;201137318 VII. Patent application scope: The method of measuring the plane inclination angle of the electronic device is based on the measurement of the reference plane of the gravity direction. The electronic device is an acceleration sensor and a display unit. And an attaching plane, the method for setting the plane inclination angle comprises the following steps: (a) putting the electronic device into a measuring mode; (b) placing the attaching plane on a plane to be tested; ⑷該重力加速度感應器、_該貼附平面與該參考平面 之至少一傾角; (d)依據該傾角運算一偏移座標.以及 ⑷料顯示單元中顯示—模擬畫面,該.書面包含 —動態影像,該動態影像位於該偏移座標。 2.如申請專利範圍第Μ之利用電子裝置量測平面傾角的方 二其中該步驟⑷更包含一步驟⑽),係預設一精度參數。 •、口 4專利關第2項之利用電子裝置量測平面傾角的方 法其中《亥貼附平面係延伸一 χ,轴與一 Υ,轴,該參考平面 係Κ申X轴與一 γ軸,其中該χ轴與X,轴不重合時,該 ”驟⑷更包含-步驟(eQ),係偵測該貼附平面之X,軸與該 參考平面之X軸之夾角,以作為一第一傾角。 4‘如申δ月專利|已圍第3項之利用電子裝置量測水平面的方 去’—其中該步驟⑹更包含一步驟(d〇),係依據該精度參數與 該第一傾角運算該偏移座標。 5.如申請專利範圍第3項之利用電子裝置量測水平面的方 去’其中_ Y軸與該γ’轴不重合時,該步驟⑷更包含一步 19 201137318 驟(cl),係偵測該貼附平面之Y’軸與該參考平面之Y軸之 夾角,以作為一第二傾角。 6. 如申請專利範圍第5項之利用電子裝置量測水平面的方 法,其中該步驟(d)更包含一步驟(dl),係依據該精度參數、 該第一傾角與該第二傾角運算該偏移座標。 7. 如申請專利範圍第1項之利用電子裝置量測水平面的方 法,其中該步驟(e)更包含一步驟(e0),該模擬晝面係具有一 像素座標系統,該偏移座標係位於該像素座標系統。 _ 8.如申請專利範圍第1項之利用電子裝置量測水平面的方 法,其中該步驟(e)更包含一步驟(el),該動態影像係模擬一 阻尼振動,之後停止於該偏移座標。 9. 如申請專利範圍第1項之利用電子裝置量測水平面的方 法,其中該步驟(a)中,該電子裝置係為一行動通訊裝置、 一多媒體播放裝置、一個人數位助理與一平板電腦中之一 者。 10. 如申請專利範圍第1項之利用電子裝置量測水平面的方 * 法,其中該步驟(e)中,該動態影像係為一氣泡影像。 20(4) the gravity acceleration sensor, at least one inclination angle of the attachment plane and the reference plane; (d) calculating an offset coordinate according to the inclination angle; and (4) displaying - simulating the picture in the material display unit, the written inclusion - dynamic Image, the motion image is located at the offset coordinate. 2. The method for measuring the plane inclination angle by the electronic device according to the scope of the patent application is as follows: wherein the step (4) further comprises a step (10)), and a precision parameter is preset. • The method of measuring the plane inclination angle by using the electronic device in the second section of the patent No. 2, wherein the hai attached plane extends one χ, the axis and the Υ, the axis, the reference plane is the X axis and the γ axis, Where the axis of the axis does not coincide with the axis of X, the step (4) further includes a step (eQ) for detecting an angle X of the attached plane and an angle between the axis and the X axis of the reference plane as a first Inclination. 4', such as the application of the δ month patent | has been used to measure the horizontal plane using the electronic device of the third item - where the step (6) further comprises a step (d〇) according to the precision parameter and the first inclination angle Calculate the offset coordinate. 5. If the method of measuring the horizontal plane by the electronic device in the third item of the patent application is 'the _Y axis does not coincide with the γ' axis, the step (4) further includes a step 19 201137318 (cl The method of detecting the angle between the Y' axis of the attached plane and the Y axis of the reference plane as a second tilt angle. 6. The method for measuring a horizontal plane using an electronic device according to claim 5, wherein The step (d) further comprises a step (dl) according to the precision parameter, the first tilt Calculating the offset coordinate with the second tilt angle. 7. The method for measuring a horizontal surface by using an electronic device according to claim 1, wherein the step (e) further comprises a step (e0) having the simulated facet A pixel coordinate system, the offset coordinate is located in the pixel coordinate system. _ 8. The method for measuring a horizontal surface by using an electronic device according to claim 1, wherein the step (e) further comprises a step (el), The dynamic image simulates a damped vibration and then stops at the offset coordinate. 9. The method for measuring a horizontal surface by using an electronic device according to claim 1, wherein in the step (a), the electronic device is a a mobile communication device, a multimedia playback device, a number of assistants and a tablet computer. 10. In the method of claim 1, the method for measuring the horizontal plane using an electronic device, wherein in the step (e), The motion picture is a bubble image.
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Publication number Priority date Publication date Assignee Title
CN104034309A (en) * 2014-05-26 2014-09-10 小米科技有限责任公司 Angle measurement method, angle measurement device and terminal
US9897439B2 (en) 2014-05-26 2018-02-20 Xiaomi Inc. Method and terminal for measuring angle

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TWI571612B (en) * 2015-10-30 2017-02-21 Nat Changhua Univ Of Education Inclination measuring device
TWI605348B (en) * 2016-08-22 2017-11-11 Univ Chang Gung Tilt estimation method

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TWI220451B (en) * 2003-10-14 2004-08-21 Ind Tech Res Inst Positioning measurement platform of optoelectronic device
TWM351344U (en) * 2008-06-30 2009-02-21 Asia Optical Co Inc An electronic compass and electronic level indicator thereof

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN104034309A (en) * 2014-05-26 2014-09-10 小米科技有限责任公司 Angle measurement method, angle measurement device and terminal
US9897439B2 (en) 2014-05-26 2018-02-20 Xiaomi Inc. Method and terminal for measuring angle

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