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TWM409126U - Spindle-support control module for tool machine M409128 B24B Wheel rim grinder - Google Patents

Spindle-support control module for tool machine M409128 B24B Wheel rim grinder Download PDF

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Publication number
TWM409126U
TWM409126U TW100201853U TW100201853U TWM409126U TW M409126 U TWM409126 U TW M409126U TW 100201853 U TW100201853 U TW 100201853U TW 100201853 U TW100201853 U TW 100201853U TW M409126 U TWM409126 U TW M409126U
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TW
Taiwan
Prior art keywords
pressure
spindle
control module
value
fluid
Prior art date
Application number
TW100201853U
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Chinese (zh)
Inventor
Kun-Fang Huang
cai-rong Chen
Jia-Hui Tang
Wen-Ran Yang
jin-feng Zhang
Original Assignee
Buffalo Machinery Company Ltd
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Publication date
Application filed by Buffalo Machinery Company Ltd filed Critical Buffalo Machinery Company Ltd
Priority to TW100201853U priority Critical patent/TWM409126U/en
Publication of TWM409126U publication Critical patent/TWM409126U/en

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Description

M409126 五、新型說明: 【新型所屬之技術領域】 本新型是有關於一種控制模組,特別是指一種用於穩 定一主軸座的工具機的主軸支撐控制模組, 【先前技術】 一般工具機在切削力、傳動力、慣性力、夹緊力以及 重力等的作用下,會產生相應的變形(彈性變形及塑性變形 )。這種變形會破壞各組件間已調整好的正確位置關係,而 產生加工誤差。 以圖1所示的工具機丨為例,主要包含有承載被加工 件A的一基座11、設置在該基座11的一立座12、依循該 立座沿一 Y軸方向滑移的一第一軸座13、依循該第一軸座 13沿一 Z軸方向滑移的一第二軸座M,及依循該第二軸座 14沿一 X軸方向滑移的一主軸座15,及可旋動的穿經該主 軸座15且用於安裝一刀具B的一主軸16。藉此,使該刀具 B能夠相對該被加工件a沿χ軸、或γ軸、z軸方向位移 ’達到加工的目的。 惟,由於該主軸座15是沿χ軸方向懸吊在半空,因此 該主軸座15往往會因為本身的重量、負載的组件、及地 心引力的影響,而引起變形,造成該主軸座15 #中心線不 與該第二軸座14垂直,進而使該被加工件Α與刀具Β也產 生垂直度誤差,嚴重影像加工精度。 目前主要是以提升結構強度的方式,及不斷進行結構 調整,解決前述誤差所帶來的問題,惟,增加強度之後又 3 U409126 ,且不斷調整的作業模式,在程序 會伴隨結構增重的問題 上相當繁雜且不方便。 【新型内容】 能夠自動調校變 組的工具機的主 ,曰因此,本新型之目的,即在提供一種 形里,及提升加工精度的主軸支撐控制模 軸支撐控制模組。 於疋,該工具機具有一載體、依循該載體位移且沿一 轴線延伸的一主軸座,及安裝在該載體且驅動該主轴座的 馬達本新型的主軸支撐控制模組包含一位移感測器、 至夕拉力壓缸、一管路、一壓力感測器,及一中控單元 。該位移感測n用於偵測該主軸座相對該载體的位移量。 該拉力壓缸具有固定在該主軸座且鄰近該主軸座一第一端 部$一缸體,及依循該缸體伸縮的一拉桿,該拉桿以一端 固定在該主轴座且鄰近該主轴座—第二端部。該管路傳輸 流體至該拉力壓缸的缸體内,使該主軸座第二端部隨該拉 桿伸縮在反向偏離該軸線的一第一位置與一第二位置間撓 動。該壓力感測器用於偵測作用於該拉力壓缸的流體壓力 ”亥中控單元與該位移感測器、該壓力感測器電連接,且 依據前述位移量決定預設的一壓力值範圍,及控制該拉力 壓缸内的流體壓力,使該管路内的流體壓力符合前述壓力 值範圍’進而驅動該拉桿拉繫該主軸座第二端部,至該主 轴座穩定於該軸線位置。 本新型的功效是以該主軸座的位移量,及流體壓力, 做為該拉力壓缸連動該主軸座復歸至該軸線位置的依據, 轴座、准持在準確的加工位置,進而能夠有效提升加 工精度。 【實施方式】 有關本新型之前述及其他技術内容、特點與功效,在 以下配合參老+ 圆武之—個較佳實施例的詳細說明中,將可 清楚的呈現。 參閱圖2’本新型主軸支撐控制模組一較佳實施例安裝 在”機2。該工具機2具有一載體21、依循該載體21 位移且/。X轴延伸的—主軸座Μ,及安裝在該載體h且 驅動該主軸座22沿該Χ軸位移的-馬達23。參閱圖3、圖 4及圖5,该主軸支撐控制模組包含一位移感測器3、二 拉力壓缸4、一普敗< ,,_ β路5、一洩壓閥 一中控單元8。 一壓力感測器7,及 °亥位和感測$ 3在本較佳實施例是-種安裝在該馬達 23的’為碼g ’透過該馬達23的轉動圈數計算該主轴座μ 沿該X軸方向相對該載體21的位移量。 該等拉力壓缸4分別具有固定在該主軸座22且位於該 主軸座22 -第—端部221與—第二端部間的—虹體^ ,及依循肢體41伸縮的-拉桿42。該拉桿42以—端 421固定在該主轴座22且鄰近該主軸座22的第二端部如 該管路5用於傳輸流體至該拉力壓缸4的缸體41内。 關壓閥6連通該管路5與-油壓設備的油箱(油壓源 圖未不)且形成循環迴路’而用於調節該管路5内的流體 w =該壓力感測器7用於 <貞測作用於該拉力M k 4的流 體虔力。在本較佳實施例中,該>1力感測H 7安裝在該管 路5且與該管路5連通。 該中控單元8與該位移感測器3、該㈣閥6、該壓力 感測器7 t連接,且依據前述位移量決定預設的一壓力值 範圍’及以輪出的一補償電壓值v控制該洩壓閥6調整洩 塵,力’進而調節料拉力壓缸4内的流體壓^在本較 佳實施例是以—愿力預設值D增、減—容許差值η為壓力 值範圍D+n〜D-n。 值得-提的是,該流體流量與流體壓力、補償電壓值 成正比關係’也就是說,當該中控單元8輸出最小的補償 電壓值Vmin時’該浅壓閥6完全開啟,釋放該拉力壓缸4 紅體仆一前端部内的流體壓力,此時,該拉桿42會 流體充滿該拉力壓缸4—後端部内而呈伸長狀態,該管路 内的流體壓力值也最小,當該中控單元8輸出最大的補償 電壓值vmax時’該茂壓閥6會在流體充滿該缸體q前 2後完全關,此時,該拉力壓虹4的拉桿42受流體的壓 力作用朝圖面右側位移而呈收縮狀態,該拉力壓缸 流體壓力值也最大。 的 參閱圖4、圖5 ’及圖6、圖7 ’以下即結合實 驟說明如后: ’ 步驟901 :啟動該工具機2。 步驟902 :該位移感測器 體21的位移量。 摘測該主轴座22相對該載 M409126 步驟903 :該中控單元8依據前述位移量獲得對應的壓 力預設值D,及壓力值範圍D+n〜D_n。以D=1〇〇〇〇Nm、 n=1000Nm為例,則壓力值範圍=9000Nm〜llOOONm。 月ί述位移量與對應的壓力預設值D已預先内建於該中 控單元8。 步帮904 .該中控單元8依據前述壓力預設值D輸出補 償電壓值V,控制該洩壓閥6的釋放的流體壓力。M409126 V. New description: [New technical field] The present invention relates to a control module, in particular to a spindle support control module for a machine tool for stabilizing a spindle seat, [Prior Art] General Machine Tool Under the action of cutting force, transmission force, inertial force, clamping force and gravity, corresponding deformation (elastic deformation and plastic deformation) will occur. This deformation will destroy the correct positional relationship between the components and cause machining errors. For example, the tool case shown in FIG. 1 mainly includes a base 11 carrying the workpiece A, a stand 12 disposed on the base 11, and sliding along the Y-axis according to the stand. a first shaft seat 13 , a second shaft base M that slides along the Z-axis direction according to the first shaft seat 13 , and a spindle seat 15 that slides along the X-axis direction according to the second shaft seat 14 . And a spindle 16 that can be rotated through the spindle holder 15 and used to mount a tool B. Thereby, the tool B can be displaced in the y-axis, or the γ-axis, and the z-axis direction with respect to the workpiece a to achieve the purpose of processing. However, since the main shaft base 15 is suspended in the half-air in the direction of the y-axis, the main shaft base 15 tends to be deformed due to its own weight, the components of the load, and the gravity of the earth, resulting in the spindle seat 15 # The center line is not perpendicular to the second shaft seat 14, so that the workpiece Α and the tool Β also produce a perpendicularity error, and the image processing accuracy is severe. At present, the main reason is to improve the structural strength, and continuously adjust the structure to solve the problems caused by the above-mentioned errors. However, after increasing the strength, it is 3 U409126, and the continuously adjusted operation mode is accompanied by the problem of structural weight gain in the program. It is quite complicated and inconvenient. [New content] The main function of the machine tool that can automatically adjust the variable group. Therefore, the purpose of the present invention is to provide a spindle support control die support control module that provides a shape and improves machining accuracy. The machine tool has a carrier, a spindle seat extending along the carrier and extending along an axis, and a motor mounted on the carrier and driving the spindle seat. The novel spindle support control module includes a displacement sensing , a force hydraulic cylinder, a pipeline, a pressure sensor, and a central control unit. The displacement sensing n is used to detect the displacement of the spindle holder relative to the carrier. The tension cylinder has a rod body fixed to the spindle seat and adjacent to the first end portion of the spindle seat, and a rod extending along the cylinder body, the rod is fixed at one end to the spindle seat and adjacent to the spindle seat - Second end. The conduit transfers fluid to the cylinder of the tension cylinder such that the second end of the spindle mount flexes relative to the tension rod between a first position and a second position that are offset from the axis. The pressure sensor is configured to detect a fluid pressure acting on the tension cylinder, and the central control unit is electrically connected to the displacement sensor and the pressure sensor, and determines a preset pressure value range according to the displacement amount. And controlling the fluid pressure in the tension cylinder such that the fluid pressure in the pipeline conforms to the range of pressure values' to drive the rod to pull the second end of the spindle seat until the spindle seat is stabilized at the axial position. The function of the novel is that the displacement of the spindle seat and the fluid pressure are used as the basis for the tension cylinder to revert to the axial position of the spindle seat, and the axle seat is held in an accurate machining position, thereby effectively improving [Processing] The above-mentioned and other technical contents, features and effects of the present invention will be clearly described in the following detailed description of the preferred embodiment of the present invention. A preferred embodiment of the novel spindle support control module is mounted to the "machine 2. The power tool 2 has a carrier 21 which is displaced according to the carrier 21 and/or. The X-axis extends - a spindle seat Μ, and a motor 23 mounted on the carrier h and driving the spindle holder 22 to be displaced along the y-axis. Referring to FIG. 3, FIG. 4 and FIG. 5, the spindle support control module comprises a displacement sensor 3, a two-force hydraulic cylinder 4, a universal defeat, a _β road 5, a pressure relief valve and a central control unit. 8. A pressure sensor 7, and a position and a sense $3 are calculated in the preferred embodiment of the motor 23 by the number of revolutions of the motor 23 as the code g. The amount of displacement of the X-axis direction with respect to the carrier 21. The tension cylinders 4 each have a - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - The pull rod 42 is fixed at the end portion 421 to the main shaft base 22 and adjacent to the second end portion of the main shaft base 22 such that the line 5 is for transferring fluid into the cylinder block 41 of the tension cylinder 4. The pressure closing valve 6 communicates with the oil line of the line 5 and the oil pressure device (the oil pressure source is not shown) and forms a circulation loop 'for adjusting the fluid in the line 5 = the pressure sensor 7 is used for <Measure the fluid force acting on the pulling force M k 4 . In the preferred embodiment, the >1 force sensing H7 is mounted to the conduit 5 and is in communication with the conduit 5. The central control unit 8 is connected to the displacement sensor 3, the (four) valve 6, and the pressure sensor 7 t, and determines a preset pressure value range 'and a compensation voltage value to be rotated according to the displacement amount. v controlling the pressure relief valve 6 to adjust the dust leakage, and in turn adjusting the fluid pressure in the material tension cylinder 4. In the preferred embodiment, the preset value D is increased, decreased, and the allowable difference η is the pressure. The value range is D+n~Dn. It is worth mentioning that the fluid flow rate is proportional to the fluid pressure and the compensation voltage value. That is, when the central control unit 8 outputs the minimum compensation voltage value Vmin, the shallow pressure valve 6 is fully opened, and the tension is released. The pressure of the fluid in the front end portion of the pressure cylinder 4 is red, and the rod 42 is fluidly filled in the rear end portion of the tension cylinder 4 to be in an extended state, and the fluid pressure value in the pipeline is also the smallest. When the control unit 8 outputs the maximum compensation voltage value vmax, the pressure valve 6 will be completely closed after the fluid fills the cylinder block 2, and at this time, the tension rod 42 of the tension force 4 is affected by the pressure of the fluid toward the drawing. The right side is displaced and is in a contracted state, and the hydraulic pressure value of the tension cylinder is also the largest. Referring to Fig. 4, Fig. 5' and Figs. 6 and 7', the following description will be given in conjunction with the following: ' Step 901: The machine tool 2 is started. Step 902: The displacement amount of the displacement sensor body 21. The spindle seat 22 is compared with the load M409126. Step 903: The central control unit 8 obtains a corresponding pressure preset value D and a pressure value range D+n~D_n according to the displacement amount. Taking D=1〇〇〇〇Nm and n=1000Nm as an example, the pressure value range is 9000Nm~llOOONm. The displacement amount and the corresponding pressure preset value D have been previously built in the central control unit 8. Step 904. The central control unit 8 outputs a compensation voltage value V according to the aforementioned pressure preset value D to control the released fluid pressure of the pressure relief valve 6.

此時,該拉力壓缸4承受前述流體壓力,而以該拉桿 42拉繫該主軸座22第二端部222停駐在該X軸線位置。 步驟905 :該壓力感測器7偵測該拉力壓缸4内的流體 麼力,並回傳給該中控單元8。 步驟906 :該中控單元8以壓力預設值D為判斷依據 判斷該壓力偵測器7所㈣的流龍壓力是否在壓力值聋 圍D+n〜D_n内,如果是,進行步驟9〇7,如果不是, 步驟908。At this time, the tension cylinder 4 is subjected to the aforementioned fluid pressure, and the second end portion 222 of the spindle holder 22 is pulled by the rod 42 to be parked at the X-axis position. Step 905: The pressure sensor 7 detects the fluid force in the tension cylinder 4 and returns it to the central control unit 8. Step 906: The central control unit 8 determines whether the flow dragon pressure of the pressure detector 7 (4) is within the pressure value range D+n~D_n based on the pressure preset value D. If yes, proceed to step 9〇 7. If not, step 908.

v驟9G7 ’該中控單凡8維持輸出與步驟贿相同的補 ^電壓值V,及以相同的流體壓力,使該主軸座22第二端 部222穩定於該χ線軸位置,並回到步驟。 步驟908 :該中控單元8判斷該壓力偵測器7所谓測的 、肌體壓力是^大於該壓力預設值D,如果是,表示該主軸座 ^有向上撓彎而補償過度的情形,進行步驟9〇9,如果不 疋’表不該主軸座22有向下撓變形的情形,進行步驟_ 步驟909 : 該中控單元8降低輪出的補償電壓值V,控 7 M409126 制該茂壓間6釋放流體壓力,而減少一補償壓力值如 500Nm ’並回到步驟905。 此時,該拉桿42會依循㈣體41伸長,並鬆放該主 軸座22第二端部22向下位移。經分析結果顯示,每減少 的流體壓力,則該主軸座22第二端冑22能夠向下 撓動O.lum。 步驟 910:該中;, τ衩早兀8增加輪出的補償電壓值V,控 制該〉戈壓閥6的洁辦、;* |4 .. ^ W机體机里增加,使流體壓力增加一補償壓 力值如500Nm,並回到步驟9〇5。 此時,°玄拉杯42會依循該缸體41收縮,並拉繫該主 軸座22第二端部22向上位移。經分析結果顯示,每增加 广的流體屋力,則該主軸座22第二端部22能夠向上 挽動0.1 um。 藉此,重複執行前述步驟902或㈣905以下的步驟 ,直到該工具機2切斷電源而停止運作。 所述可知,本新型的工具機的主軸支撐控制模組 具有下列優點及功效·· 本新型是以該主紐庙) 座22的位移置決定預設的一壓力值 勒•圍,及控制該管路5禮&Λ 傳輸的W體流量,使該流體壓力符 〇别述壓力值範圍,進 ^ _ 延句駆動該拉桿42拉繫該主轴座22 弟—^端部222,至节φ紅十. ^轴座22穩定於該軸線χ位置。藉此 ,不但能夠自動補償變形量, 里 且月b夠維持在準確的加工位 罝’有效提升加工精度。 惟以上所述者,僅A 士紅& 僵為本新型之較佳實施例而已,當不 M409126 能以此限定本新型實施之範圍,即大凡依本新型申請專利 範圍及新型說明内容所作之簡單的等效變化與修飾,皆仍 屬本新型專利涵蓋之範圍内。 【圖式簡單說明】 圖1疋一剖視圖,說明一般的工呈機; 圖2是一立體圖,說明本新型主軸支撐控制模組的一 較佳實施例安裝在一工具機; 圖3是該較佳實施例的一立體圖; 圖4是該較佳實施例的—正視圖; 圖5是該較佳實施例的方塊圖; 圖6是該較佳實施例中-主轴座變形的一正視圖;及 圖7是該較佳實施例的—動作流程圖。 M409126 【主要元件符號說明】 2 ..........工具機 21 .........載體 22 .........主軸座 221 .......第一端部 222 .......第二端部 23 .........馬達 3 ..........位移感側器 4 ..........拉力壓缸 41 .........缸體 42 .........拉桿 421 .......端 5 ..........管路 6 ..........洩壓閥 7 ..........壓力感側器 8 ..........中控單元 10v 9G7 'The central control unit 8 maintains the same supplement voltage value V as the step bribe, and stabilizes the second end portion 222 of the spindle holder 22 at the position of the reel shaft with the same fluid pressure, and returns step. Step 908: The central control unit 8 determines that the pressure detector 7 is so-called, the body pressure is greater than the pressure preset value D, and if so, the spindle seat has an upward deflection and the compensation is excessive. Step 9〇9, if it is not the case that the spindle seat 22 has a downward deflection deformation, proceed to step _step 909: the central control unit 8 lowers the offset voltage value V of the wheel, and controls 7 M409126 to make the pressure The intermediate 6 releases the fluid pressure while reducing a compensating pressure value such as 500 Nm ' and returns to step 905. At this time, the pull rod 42 follows the (four) body 41 to elongate, and releases the second end portion 22 of the main shaft seat 22 to be displaced downward. The analysis results show that for each reduced fluid pressure, the second end turn 22 of the spindle seat 22 can flex O.lum downward. Step 910: The middle;, τ衩 early 8 increases the offset voltage value V of the rotation, and controls the jerk of the pressure valve 6; * | 4 .. ^ W increases in the body to increase the fluid pressure A compensation pressure value such as 500 Nm, and returns to step 9 〇 5. At this time, the Xu-shaped cup 42 will follow the cylinder 41 to contract, and the second end portion 22 of the main shaft seat 22 is pulled upward. The analysis results show that the second end portion 22 of the spindle holder 22 can be pulled upward by 0.1 um for each additional fluid force. Thereby, the steps of the foregoing step 902 or (four) 905 are repeated, until the power tool 2 is turned off and the operation is stopped. It can be seen that the spindle support control module of the machine tool of the present invention has the following advantages and effects. The present invention determines the preset pressure value by the displacement of the main temple block 22, and controls the The flow rate of the body of the pipe 5 & ,, so that the fluid pressure is different from the range of the pressure value, the _ _ delay sentence pulls the pull rod 42 pulls the spindle seat 22 brother - end 222, to the section φ Red X. ^ Shaft seat 22 is stable at this axis χ position. In this way, not only can the amount of deformation be automatically compensated, but also the monthly processing can be maintained at an accurate machining position 罝' effectively improving the machining accuracy. However, the above mentioned, only A Shihong & Zombie is a preferred embodiment of the new type, and when M409126 can limit the scope of the new implementation, that is, the scope of the new patent application and the new description content Simple equivalent changes and modifications are still within the scope of this new patent. BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a cross-sectional view showing a general machine; FIG. 2 is a perspective view showing a preferred embodiment of the novel spindle support control module mounted on a machine tool; FIG. 3 is a comparison Figure 4 is a front elevational view of the preferred embodiment; Figure 5 is a block diagram of the preferred embodiment; Figure 6 is a front elevational view of the preferred embodiment of the spindle seat; And Figure 7 is a flow chart of the operation of the preferred embodiment. M409126 [Description of main component symbols] 2 ..........Tool machine 21 ......... Carrier 22 ......... Spindle holder 221 ... First end portion 222 .... second end portion 23 .... motor 3 .......... displacement side sensor 4 ... .... Tension cylinder 41 ......... cylinder 42 ......... rod 421 .... end 5 .......... Piping 6 .......... Pressure Relief Valve 7 .......... Pressure Sensing Side 8 .......... Central Control Unit 10

Claims (1)

M409126 六、申請專利範圍: 1. 一種工具機的主轴支撐控制模組,該工具機具有一載體 、依循該載體位移且沿一軸線延伸的一主軸座,及安裝 在該載體且驅動該主軸座的一馬達,該主軸支撐控制模 組包含: ' 一位移感測器,用於偵測該主軸座相對該載體的位 移量; 至少一拉力壓缸,具有固定在該主轴座且鄰近該主 軸座第端°卩的一缸體,及依循該缸體伸縮的一拉桿 ,該拉桿以一端固定在該主軸座且鄰近該主軸座一第二 端部; 官路,傳輸流體至該拉力壓缸的缸體内; 一壓力感測器’用於偵測作用於該拉力壓紅的流體 壓力;及 一中控單元,與該位移感測器、㈣力感測器電連 接,且依據前述位移量決定預設的一壓力值範圍,及控 制該拉力·内的流體壓力,使該拉力心内的流體屋 力符t前述壓力值範圍,進而驅動該拉桿拉繫該主軸座 第一端部,至該主軸座穩定於該軸線位置。 2.依射請專利範圍第i項所述之卫具機的主軸支撐控制 模組,其中,餘移感❹是—種安裝在該馬達的一編 碼器。 3·依據申請專圍第!項所述之卫具機的主軸支樓控制 模組’更包含有連通該管路且與該中控單元電連接的一 11 M40912O 而用於調節該管 洩壓閥,該洩壓閥受控於該中控單元 路内的流體壓力。 4.依據申請專利範圍第3項 $所述之工具機的主軸支撐控制 模組,其中,該中括 疋以輸出的一補償電壓值控制 該汽壓間調整泡壓爆,、& τ m力進而調整流體塵力,使該㈣ 閥在最小補償電難時完全開啟觸放辣力虔缸内 的流體壓力’且在最大補償電壓值時完全關閉,維持該 拉力壓缸内的流體壓力。 5_依射請㈣範圍第4項所述之工具機的主軸支樓控制 模組,其中,該流體麼力、補償電塵值成正比關係。 6.依據申請專利範圍第4項所述之工具機的主軸支撐控制 模組,其中,前述壓力值範圍是以一壓力預設值增、減 一容許差值。 7. 依據申請專利範圍第6項所述之工具機的主軸支撐控制 模組,其中,該中控單元是以壓力預設值為判斷依據, 當該壓力偵測器所偵測的流體體壓力小於、大於該壓力 預设值’則增、減補償電壓值,進而增、減一補償壓 力值’該補償壓力值小於該容許差值》 8. 依據申請專利範圍第1項所述之工具機的主轴支樓控制 模組’其中’該壓力感測器安裝在該管路且與該管路連 通0 12M409126 VI. Patent application scope: 1. A spindle support control module for a machine tool, the machine tool having a carrier, a spindle seat extending along the carrier and extending along an axis, and being mounted on the carrier and driving the spindle holder a spindle support control module comprising: 'a displacement sensor for detecting a displacement of the spindle holder relative to the carrier; at least one tension cylinder having a fixed position on the spindle holder adjacent to the spindle holder a cylinder of the first end, and a rod extending along the cylinder, the rod is fixed at one end to the spindle seat and adjacent to a second end of the spindle seat; the official road transmits fluid to the tension cylinder a pressure sensor 'for detecting the fluid pressure acting on the tension red pressure; and a central control unit electrically connected to the displacement sensor and the (four) force sensor, and according to the displacement amount Determining a predetermined range of pressure values, and controlling the fluid pressure within the tension force, so that the fluid force in the tension force is in the range of the pressure value, thereby driving the rod to pull the first end of the spindle seat , Stable base to the spindle axis at the position. 2. According to the shot, the spindle support control module of the protector machine described in item i of the patent scope, wherein the residual shift sensor is an encoder mounted on the motor. 3. According to the application for the right! The spindle support control module of the escort machine described further includes an 11 M40912O connected to the pipeline and electrically connected to the central control unit for regulating the pressure relief valve, the pressure relief valve is controlled The fluid pressure in the central control unit. 4. The spindle support control module of the machine tool according to claim 3, wherein the middle bracket adjusts the pressure between the steam pressure by a compensation voltage value, & τ m The force further adjusts the fluid dust force so that the (four) valve fully opens the fluid pressure in the hot-sinking cylinder when the electric power is minimized, and is completely closed at the maximum compensation voltage value, maintaining the fluid pressure in the tension cylinder. 5_ According to the shooting (4) The spindle support control module of the machine tool mentioned in item 4, wherein the fluid force and the compensation electric dust value are proportional. 6. The spindle support control module of the machine tool according to claim 4, wherein the pressure value range is increased or decreased by a preset pressure value. 7. The spindle support control module of the machine tool according to claim 6, wherein the central control unit is based on a pressure preset value, and the fluid pressure detected by the pressure detector If the pressure is less than or greater than the preset value of the pressure, the value of the compensation voltage is increased or decreased, and then the compensation pressure value is increased or decreased. The compensation pressure value is less than the tolerance value. 8. The machine tool according to claim 1 The spindle control module 'where the pressure sensor is installed in the pipeline and connected to the pipeline 0 12
TW100201853U 2011-01-27 2011-01-27 Spindle-support control module for tool machine M409128 B24B Wheel rim grinder TWM409126U (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI503202B (en) * 2013-08-20 2015-10-11 Yieau Chiea Prec Machinery Co Ltd Turning machine

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI503202B (en) * 2013-08-20 2015-10-11 Yieau Chiea Prec Machinery Co Ltd Turning machine

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