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TW201133169A - Temperature detecting apparatus - Google Patents

Temperature detecting apparatus Download PDF

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Publication number
TW201133169A
TW201133169A TW99109454A TW99109454A TW201133169A TW 201133169 A TW201133169 A TW 201133169A TW 99109454 A TW99109454 A TW 99109454A TW 99109454 A TW99109454 A TW 99109454A TW 201133169 A TW201133169 A TW 201133169A
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TW
Taiwan
Prior art keywords
module
electrically connected
thermistor
monitoring device
diode
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Application number
TW99109454A
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Chinese (zh)
Inventor
Xiang Cao
Original Assignee
Hon Hai Prec Ind Co Ltd
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Priority to TW99109454A priority Critical patent/TW201133169A/en
Publication of TW201133169A publication Critical patent/TW201133169A/en

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  • Cooling Or The Like Of Semiconductors Or Solid State Devices (AREA)

Abstract

A temperature detecting apparatus for changing heat dissipating angle of a fan according to status of heat sources, includes a detection module, a comparison module, a control module, and a driver module. The detection module is capable of detecting temperatures of the heat sources, and converting the detected temperature signal to a voltage signal. The comparison module is capable of receiving the voltage signal, and comparing the received voltage signal with a reference signal to output a control signal. The control module is capable of receiving the control signal, and switching current channel to change direction of current flowing through the driver module according to the control signal. The driver module is capable of driving a plurality of air guiding slices turning toward the heat source according to the direction of current.

Description

201133169 六、發明說明: 【發明所屬之技術領域】 [0001] 本發明涉及一種溫度監控裝置,尤其涉及一種個人電腦 機箱内之溫度監控裝置。 【先前技術·】 [0002] 隨著電腦技術之快速發展,用戶對電腦技術應用之簡單 、便捷之需求亦越來越強烈。用戶需要即時地監控電腦 當前處於何種工作狀態,是否處於安全工作狀態,系統 溫度是否過高。電腦主機板上之電子元件如中央處理器 η (CPU)之運算速度越來越快,從而會在電腦系統内產生 1」 大量熱能,致使電腦内部之溫度大大提高。然而當電腦 長期工作於過高之溫度下且用戶卻無法察覺會導致電腦 主機板與安裝於其上之電子元件工作壽命縮短甚至損毀 ,目前之個人電腦機箱内通常會設置多個風扇分別為不 同之發熱元件散熱,增加了成本。同時每個風扇僅能為 單獨地為一個發熱元件散熱,其散熱角度不可調節,因 而散熱效率不高。 i. u 【發明内容】 [0003] 鑒於以上内容,有必要提供一種低成本且散熱效率高之 溫度監控裝置。 [0004] 一種溫度監控裝置,用於根據不同發熱源之溫度狀況調 節散熱角度,包括一彳貞測模組、一比較模組、一控制模 組及一風扇驅動模組,所述偵測模組用以偵測發熱源之 溫度,並根據偵測到之溫度信號輸出電壓信號,所述比 較模組接收所述電壓信號,並將所述電壓信號與一基準 099109454 表單編號A0101 第4頁/共16頁 0992016787-0 201133169 電壓比較後輸出控㈣號,料控制·接收所述控制 Μ ’並根據所述㈣信號切換其導通通道從而改變流 經所述風扇驅動模組之電流方向,所述風扇驅動模組根 據流經其之電財向驅動與之相連之導風#轉向相應之 發熱源為其散熱。 [0005] Ο 與習知技術相比,本創作溫度監««由所述制模 組偵測發熱源之溫度狀況,並藉由所述比較模組切換控 制模组之導通通道以改變流經所述風扇驅動模組之電流 方向’從而驅動與所述風扇驅動模組相連之導風片轉向 相應之發熱源為其散熱。 [0006] 【實施方式】 請參閱圖1,本發明溫度監控裝置較佳實施方式包括-偵 測模組100 一比較模組200、 一控制模組3 〇 〇及一風扇201133169 VI. Description of the Invention: [Technical Field] [0001] The present invention relates to a temperature monitoring device, and more particularly to a temperature monitoring device in a personal computer case. [Prior Art·] [0002] With the rapid development of computer technology, users are increasingly demanding the simplicity and convenience of computer technology applications. The user needs to monitor the current working state of the computer, whether it is in a safe working state, and whether the system temperature is too high. Electronic components such as the central processing unit η (CPU) on the computer motherboard are becoming faster and faster, which generates a large amount of thermal energy in the computer system, resulting in a much higher temperature inside the computer. However, when the computer is working at an excessively high temperature for a long time and the user cannot detect that the working life of the computer motherboard and the electronic components mounted thereon is shortened or even damaged, the current personal computer chassis usually has multiple fans. The heating element heats up, which increases the cost. At the same time, each fan can only dissipate heat for one heating element separately, and the heat dissipation angle can not be adjusted, so the heat dissipation efficiency is not high. i. u [Summary of the Invention] [0003] In view of the above, it is necessary to provide a temperature monitoring device that is low in cost and highly efficient in heat dissipation. [0004] A temperature monitoring device for adjusting a heat dissipation angle according to temperature conditions of different heat sources, including a test module, a comparison module, a control module, and a fan drive module, the detection mode The group is configured to detect the temperature of the heat source and output a voltage signal according to the detected temperature signal, the comparison module receives the voltage signal, and the voltage signal is associated with a reference 099109454 Form No. A0101 Page 4 / Total 16 pages 0992016787-0 201133169 After the voltage comparison, the output control (4), the material control receives the control Μ 'and switches its conduction channel according to the (4) signal to change the current direction flowing through the fan driving module, The fan drive module drives the corresponding heat source according to the electric energy flowing through it to turn the corresponding heat source to dissipate heat. [0005] 相比 Compared with the prior art, the temperature monitoring device detects the temperature condition of the heat source by the module, and switches the conduction channel of the control module to change the flow through the comparison module. The direction of the current of the fan drive module is such that the air deflector connected to the fan drive module is driven to a corresponding heat source for heat dissipation. [0006] Referring to FIG. 1, a preferred embodiment of a temperature monitoring device of the present invention includes a detection module 100, a comparison module 200, a control module 3, and a fan.

G 驅動模組4GG。所述仙丨模組⑽用以偵測發熱源之溫度 ’並根據仙狀溫度«輸出電壓《。所述比較模 組200接收所述電壓信號,並將所述電壓信號與—基準電 壓比較後輸出控制信號1述控制模組3_收所述控制 信號’並根據所述控魏號切換其導通通道從而改變流 經所述風扇驅動模⑽Q之電流方向。所述風扇驅動模組 400根據流經其之電流方向驅動與之相連之導風片轉向相 應之發熱源為其散熱。於本發明較佳實施方式中,所述 風扇驅動模組400包括至少一馬達4〇1。 [0007] 請參閱圖2,所述偵測模組1〇〇包括熱敏電阻RTpRT4及 可變電阻RP1、RP2。所述熱敏電阻RT1_端電性連接一 二極體D1之陰極’所述二極體M之陽極接收—+ i2v直流 099109454G drive module 4GG. The celestial module (10) is used to detect the temperature of the heat source ' and output voltage according to the fairy temperature «. The comparison module 200 receives the voltage signal, compares the voltage signal with a reference voltage, and outputs a control signal, the control module 3_ receives the control signal and switches its conduction according to the control number. The passage thereby changes the direction of current flow through the fan drive die (10) Q. The fan drive module 400 drives the corresponding heat source of the wind deflector connected thereto according to the direction of the current flowing therethrough to dissipate heat therefrom. In a preferred embodiment of the present invention, the fan drive module 400 includes at least one motor 4〇1. Referring to FIG. 2, the detection module 1 includes a thermistor RTpRT4 and variable resistors RP1 and RP2. The thermistor RT1_ terminal is electrically connected to the cathode of a diode D1. The anode of the diode M is received - + i2v DC 099109454

表單編號 A0101 ^ 5 16 I 0992016787-0 201133169 電壓。所述熱敏電阻RT1另—端經由可變電阻Rpi電性連 接所述熱敏電MT2-端。所述熱敏電阻RT2另—端電性 連接-二極體D3之陽極,所述二極體⑽之陰極接地。所 述熱敏電謝4-端電性連接所述二極_之陰極,所述 熱敏電阻RT4另-端經由可變電阻Rp2電性連接所述孰敏 電MT3-端。所述熱敏電阻RT3另—端電性連接料二 極體D3之陽極。所述二極體D3之陽極電性連接_二極體 之陽極,所述二極舰之陰極電性連接所述二極刪 之陰極。於本發明較佳實施方式中,所述熱敏電阻 RT卜RT4置於-電腦機箱内,其中Rn與咖置於機箱上 部,RT2與RT4置於機箱下部。 [0008] [0009]Form number A0101 ^ 5 16 I 0992016787-0 201133169 Voltage. The thermistor RT1 is electrically connected to the thermistor MT2-terminal via a variable resistor Rpi. The thermistor RT2 is electrically connected to the anode of the diode D3, and the cathode of the diode (10) is grounded. The thermistor 4-terminal is electrically connected to the cathode of the diode, and the other end of the thermistor RT4 is electrically connected to the sensing terminal MT3- via a variable resistor Rp2. The thermistor RT3 is electrically connected to the anode of the material diode D3. The anode of the diode D3 is electrically connected to the anode of the diode, and the cathode of the dipole is electrically connected to the cathode of the diode. In a preferred embodiment of the present invention, the thermistor RTb is placed in a computer case, wherein the Rn and the coffee are placed on the upper part of the chassis, and the RT2 and RT4 are placed in the lower part of the chassis. [0009] [0009]

所述比較模組200包括比較器A1、A2、電阻ri、^及電The comparison module 200 includes comparators A1, A2, resistors ri, ^, and

容d、⑴所述比較器以_輸人端電性連接可變電 阻m之調節端。所述比較器A1之反相輪人端電性連接所 述二極體D3之陽極,並經由電阻R1電性連接所述二極體 D1之陰極。所述比較諸之_輸人端紐連接可變電 阻RP2之調節端。所述比較器A2之反相輸人端電性連接所 述二極體D3之陽極,並經由電阻R2電性連接所述二極體 D3之陽極。所述比較nA1之同相輸人端順次經由電容^ 、C2電性連接所述比較器A2之同相輸入端。 所述控制模組3〇〇包括電晶體1'1、了2、一篦她& 禾—繼電器、一 第二繼電器、電阻R3、R4及電容C3、C4。 7迷第一繼電 器包括線圈K11與一開關K12。所述第二繼雷哭 兒益包括一線 圈Κ21與一開關Κ22。每一開關包括一第一端、 ’—第二端 及-第三端。所述電晶體T1、Τ2之基極分別經由電_ 099109454 表單編號Α0101 第6頁/共16頁 0992016787-0 201133169 Ο 、R4電性連接所述比較器Α1、Α2之輪出端。所述電晶體 T1、Τ2之射極電性連接所述二極體D3之陽極。所述電晶 體τι之集極經由所述線圈κιι電性連接所述二極體D1之陰 極。所述開關K12之第一端電性連接所述二極體^之陰極 。所述開關K12之第二端電性連接所述二極體!)3之陽極。 所述電晶體T2之集極經由所述線圈K21電性連接所述二極 體D1之陰極。所述開關K22之第一端電性連接所述二極體 D1之陰極。所述開關K22之第二端電性連接所述二極體的 之陽極。所述開關K22之第三端經由所述風扇驅動模組 400電性連接所述開關K12之第三端。所述電容C3、以分 別並接於所述線圈Kll、K21兩端。於本發明較佳實施方 式中,所述電晶體ΤΙ、T2為NPN型電晶體。 [0010] 〇 請參閱圖3 ’所述馬達401穿設於電腦機箱内之一轉動軸 2〇上。每一轉動轴2〇之兩端分別延伸出一凸輪,每一凸 輪之頂部固定一傳動齒輪10,每一轉動軸2〇上固定一導 風片30。所述馬達401轉動時可驅動其轉動軸2〇兩端之傳 動齒輪10於一傳動執道40上罐务,所述馬達4〇1之轉動帶 動其他轉動軸2 0兩端之傳動齒輪丨〇亦相對於傳動軌道4 〇 滑動。此時相應轉動轴20上之導風片30亦隨傳動齒輪1〇 與傳動軌道40之相對滑動而轉動,所述導風片3〇之間之 開口朝向發生改變,使得電腦機箱内之散熱風扇可於導 風片30之作用下改變風流之方向,從而根據電腦機箱内 之溫度狀況為不同之發熱元件散熱。 初始狀態下,每一開關電性連通於相應之第二端與第三 端之間。當電腦機箱内之溫度恒定時,可藉由可變電阻 099109454 表單編號A0101 第7頁/共16頁 0992016787-0 [0011] 201133169 RPl、RP2之調節端改變其阻值,從而使得比較器A1、A2 之同相輸入端電位分別高於其反相輸入端電位。此時比 較器Al、A2之輸出端分別輸出高電位使得電晶體ΤΙ、T2 均導通,線圈Kll、K21通電工作使得每一開關將其第一 端與第三端電性連通。所述馬達401處於不工作狀態。 [0012] 工作時,所述+ 12V直流電壓於比較器Al、A2之反相輸入 端產生一+ 6V之基準電壓。若電腦機箱上部之溫度高於下 部之溫度時,熱敏電阻RT1、RT3之阻值變小。此時比較 器A1之同相輸入端電位升高,其輸出端仍輸出高電位使 得電晶體T1導通,線圈K11通電工作使得開關K12將其第 一端與第三端電性連通。而比較器A2之同相輸入端電位 下降,其輸出端輸出低電位使得電晶體T2截至,線圈K21 不工作使得開關K22仍然將其第二端與第三端電性連通。 電流以逆時針方向流經馬達401從而帶動轉動軸20上之導 風片30朝第一方向轉動,所述導風片30之間之開口朝向 電腦機箱上部。使得電腦機箱内之散熱風扇可於導風片 30之作用下將風流吹向電腦機箱上部之發熱元件為其散 熱。 [0013] 若電腦機箱上部之溫度低於下部之溫度時,熱敏電阻RT2 、RT4之阻值變小。此時比較器A1之同相輸入端電位下降 ,其輸出端輸出低電位使得電晶體T1截至,線圈K11不工 作使得開關K1 2仍然將其第二端與第三端電性連通。而比 較器A2之同相輸入端電位升高,其輸出端仍輸出高電位 使得電晶體T2導通,線圈K21通電工作使得開關K22將其 第一端與第三端電性連通。電流以順時針方向流經馬達 099109454 表單編號A0101 第8頁/共16頁 0992016787-0 201133169 401從而帶動轉動軸2〇上之導風片3_與第—方向相反之 方向轉動,所述導風片30之間之開口朝向電腦機箱下部 。使得電腦機箱内之散熱風扇可於導風片3〇之作用下將 風流吹向電腦機箱下部之發熱元件為其散熱。 [0014] ❹ [0015] ❹ [0016] [0017] [0018] [0019] [0020] 099109454 本創作溫度監控裝置藉由所述偵測模組100偵測發熱源之 溫度狀況,並藉由所述比較模組200切換控制模組300之 導通通道以改變流經所述風扇驅動模組4〇〇之電流方向, 從而驅動與所述風扇驅動模組4〇〇相連之導風片3〇轉向相 應之發熱源為其散熱。本發明溫度監控裝置藉由單一風 扇即可為電腦機箱内之多個發熱源散熱,可降低製造成 本並提高散熱效率。 综上所述,本創作確已符合發明專利要求,爰依法提出 專利申請。惟,以上所述者僅為本發明之較佳實施方式 ,舉凡熟悉本發明技藝之人士,爰依本發明之精神所作 之等效修飾或變化,皆應涵蓋於以下之申請專利範圍内 〇 【圖式簡單說明】 圖1係本創作較佳實施方式溫度監控裝置之組成框圖。 圖2係本創作較佳實施方式溫度監控裝置之電路圖。 圖3係本創作較佳實施方式溫度監控農置安裂於電腦機箱 内之結構圖。 【主要元件符號說明】 傳動齒輪:10 轉動軸:20 表單編號A0101 第9頁/共㈣ 〇992〇16787-〇 201133169 [0021] 導風片:30 [0022] 傳動軌道:40 [0023] 偵測模組:100 [0024] 比較模組:20 0 [0025] 控制模組:300 [0026] 風扇驅動模組:400 [0027] 比較器:A1、A2 [0028] 電晶體:T1、T2 [0029] 線圈:Κ11、Κ21 [0030] 開關:Κ12、Κ22 [0031] 馬達:401 [0032] 二極體:D1 〜D3 [0033] 熱敏電阻:RT卜RT4 [0034] 可變電阻:RP1、RP2 [0035] 電阻:R1~R4 [0036] 電容:Cl〜C4 099109454 表單編號A0101 第10頁/共16頁 0992016787-0The comparator d1, (1) is electrically connected to the regulating end of the variable resistor m by the input terminal. The anode of the inverter wheel of the comparator A1 is electrically connected to the anode of the diode D3, and is electrically connected to the cathode of the diode D1 via the resistor R1. The comparison terminal _ input terminal is connected to the adjustment terminal of the variable resistor RP2. The inverting input terminal of the comparator A2 is electrically connected to the anode of the diode D3, and is electrically connected to the anode of the diode D3 via the resistor R2. The in-phase input terminal of the comparison nA1 is electrically connected to the non-inverting input terminal of the comparator A2 via capacitors ^ and C2. The control module 3 includes a transistor 1'1, a 2, a her & a relay, a second relay, resistors R3, R4, and capacitors C3, C4. The first relay of the fan includes a coil K11 and a switch K12. The second relay has a first loop Κ 21 and a switch Κ 22. Each switch includes a first end, a second end, and a third end. The bases of the transistors T1 and T2 are electrically connected to the wheel terminals of the comparators Α1 and Α2, respectively, via the electric_099109454 form number Α0101, page 6 / page 16 0992016787-0 201133169 Ο, R4. The emitters of the transistors T1 and Τ2 are electrically connected to the anode of the diode D3. The collector of the electric crystal τι is electrically connected to the cathode of the diode D1 via the coil κι. The first end of the switch K12 is electrically connected to the cathode of the diode. The second end of the switch K12 is electrically connected to the anode of the diode!)3. The collector of the transistor T2 is electrically connected to the cathode of the diode D1 via the coil K21. The first end of the switch K22 is electrically connected to the cathode of the diode D1. The second end of the switch K22 is electrically connected to the anode of the diode. The third end of the switch K22 is electrically connected to the third end of the switch K12 via the fan driving module 400. The capacitor C3 is connected to both ends of the coils K11 and K21. In a preferred embodiment of the invention, the transistor ΤΙ, T2 is an NPN type transistor. [0010] 〇 Referring to FIG. 3', the motor 401 is disposed on one of the rotating shafts 2 of the computer case. A rotating cam extends from each end of each rotating shaft 2, a transmission gear 10 is fixed on the top of each of the rotating shafts, and a wind deflector 30 is fixed on each rotating shaft 2''. When the motor 401 rotates, the drive gear 10 at both ends of the rotating shaft 2 驱动 can be driven on a transmission lane 40, and the rotation of the motor 4〇1 drives the transmission gears at both ends of the other rotating shafts 20 It also slides relative to the drive track 4 〇. At this time, the air guiding piece 30 on the corresponding rotating shaft 20 also rotates with the relative sliding of the transmission gear 1〇 and the transmission rail 40, and the opening direction between the air guiding plates 3〇 is changed, so that the cooling fan in the computer case is cooled. The direction of the wind flow can be changed under the action of the wind deflector 30, so that heat is dissipated according to the temperature condition in the computer case. In the initial state, each switch is electrically connected between the corresponding second end and the third end. When the temperature in the computer case is constant, it can be changed by the variable resistor 099109454 Form No. A0101 Page 7 / Total 16 Page 0992016787-0 [0011] 201133169 The adjustment end of RP1, RP2 changes its resistance, thus making the comparator A1 The non-inverting input of A2 is higher than the potential of its inverting input. At this time, the output terminals of the comparators A1 and A2 respectively output a high potential so that the transistors ΤΙ and T2 are both turned on, and the coils K11 and K21 are energized so that each switch electrically connects the first end and the third end. The motor 401 is in an inoperative state. [0012] In operation, the +12V DC voltage produces a reference voltage of +6V at the inverting input of the comparators A1, A2. If the temperature of the upper part of the computer case is higher than the temperature of the lower part, the resistance values of the thermistors RT1 and RT3 become smaller. At this time, the potential of the non-inverting input terminal of the comparator A1 rises, and the output terminal still outputs a high potential to turn on the transistor T1, and the coil K11 is energized to make the switch K12 electrically connect the first end and the third end. The potential of the non-inverting input of the comparator A2 is lowered, and the output of the comparator is low, so that the transistor T2 is turned off, and the coil K21 is not operated, so that the switch K22 still electrically connects the second end and the third end. The current flows in the counterclockwise direction through the motor 401 to rotate the air deflector 30 on the rotating shaft 20 in the first direction, and the opening between the air guiding fins 30 faces the upper portion of the computer case. The cooling fan in the computer case can blow the airflow to the heating element in the upper part of the computer case under the action of the air guiding piece 30 to dissipate heat. [0013] If the temperature of the upper portion of the computer case is lower than the temperature of the lower portion, the resistance values of the thermistors RT2 and RT4 become smaller. At this time, the non-inverting input terminal of the comparator A1 is lowered in potential, and the output terminal outputs a low potential so that the transistor T1 is turned off, and the coil K11 is not operated, so that the switch K1 2 still electrically connects the second end and the third end. The potential of the non-inverting input terminal of the comparator A2 rises, and the output terminal still outputs a high potential, so that the transistor T2 is turned on, and the coil K21 is energized to make the switch K22 electrically connect the first end and the third end. The current flows in a clockwise direction through the motor 099109454 Form No. A0101 Page 8 / Total 16 pages 0992016787-0 201133169 401, thereby driving the wind deflector 3_ on the rotating shaft 2〇 to rotate in the opposite direction to the first direction, the wind guiding The opening between the sheets 30 faces the lower portion of the computer case. The cooling fan in the computer case can blow the airflow to the heating element in the lower part of the computer case under the action of the wind deflector 3〇 to dissipate heat. [0015] [0020] [0020] [0020] 099109454 The creation temperature monitoring device detects the temperature condition of the heat source by the detecting module 100, and The comparison module 200 switches the conduction channel of the control module 300 to change the direction of the current flowing through the fan driving module 4, thereby driving the wind deflector 3 〇〇 connected to the fan driving module 4 The corresponding heat source is used to dissipate heat. The temperature monitoring device of the invention can dissipate heat for a plurality of heat sources in the computer case by using a single fan, thereby reducing manufacturing cost and improving heat dissipation efficiency. In summary, this creation has indeed met the requirements of the invention patent, and has filed a patent application in accordance with the law. However, the above description is only the preferred embodiment of the present invention, and equivalent modifications or variations made by those skilled in the art of the present invention should be included in the following claims. BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a block diagram showing the composition of a temperature monitoring device according to a preferred embodiment of the present invention. 2 is a circuit diagram of a temperature monitoring device of the preferred embodiment of the present invention. Fig. 3 is a structural diagram of the temperature monitoring of the preferred embodiment of the present invention in the computer case. [Main component symbol description] Transmission gear: 10 Rotary axis: 20 Form No. A0101 Page 9 / Total (4) 〇992〇16787-〇201133169 [0021] Air guide: 30 [0022] Transmission track: 40 [0023] Detection Module: 100 [0024] Comparison module: 20 0 [0025] Control module: 300 [0026] Fan drive module: 400 [0027] Comparator: A1, A2 [0028] Transistor: T1, T2 [0029] ] Coil: Κ11, Κ21 [0030] Switch: Κ12, Κ22 [0031] Motor: 401 [0032] Diode: D1 ~ D3 [0033] Thermistor: RT Bu RT4 [0034] Variable Resistor: RP1, RP2 [0035] Resistor: R1~R4 [0036] Capacitance: Cl~C4 099109454 Form No. A0101 Page 10 of 16 Page 0992016787-0

Claims (1)

201133169 七、申請專利範圍: .1 ·—種溫度監控裝置,用於根據不同發熱源之溫.度狀況調節 散熱角度,其令所述監控裝置包括一摘测模组、-比較模 組、-控制模組及-風扇驅動模組,所述谓測模組用二貞 測發熱源之溫度’並根據制到之溫度信號輸出電壓信號 ,所述比較肋純所述《信號,絲料電壓作號與u -基準電壓比較後輸出控難號,所述控制模組魏所述 控制信號,並根據所述控制信號切換其導通通道從而改變 絲所賴扇驅龍組之電財向,所述風_動模組根 據流經其之電流方向轉與之觀之導風片轉向相應之發 熱源為其散熱。 2.如申請專利範圍第1項所述之溫度監控裝置,其中所述偵 測模組包括一第一熱敏電阻、一第二熱敏電阻、一第三熱 敏電阻及-第四熱敏電阻,所述第一熱敏電阻—端接收一 直流電壓,所述第-熱敏電阻另一端經由第二熱敏電阻接 地,所述第四熱敏電阻—端接收所述直流電壓,所述第四 熱敏電阻另一端經由第三熱敏電阻接地。 ® 3 巾請專利範圍第2項所述之溫度監控裝置,其中所述積 測模組還包括一第一可變電阻與一第二可變電阻,所述第 -可變電阻電性連接於所述第—熱敏電阻與第二熱敏電阻 之間,所述第二可變電阻電性連接於所述第三熱敏電阻與 第四熱敏電阻之間。 4 .如申請專利範圍第3項所述之溫度監控裝置,其中所述比 較模組包括一第一比較器、一第二比較器、—第一電阻及 -第二電阻,所述第—比較器之同相輸人端電性連接第一 099109454 表單編號A0101 第Π頁/共16頁 0992016787-0 201133169 可變電阻之調節端,所述第一比較器之反相輸入端接地, 並經由第一電阻接收所述直流電壓,所述第二比較器之同 相輸入端電性連接第二可變電阻之調節端,所述第二比較 器之反相輸入端接地,並經由第二電阻接地。 5 .如申請專利範圍第4項所述之溫度監控裝置,其中所述比 較模組還包括一第一電容與一第二電容,所述第一比較器 之同相輸入端順次經由所述第一電容與一第二電容電性連 接所述第二比較器之同相輸入端。 6 .如申請專利範圍第4或5項所述之溫度監控裝置,其中所述 控制模組包括一第一電晶體、一第一繼電器、一第二電晶 體及一第二繼電器,所述第一繼電器包括一第一線圈與一 第一開關,所述第二繼電器包括一第二線圈與一第二開關 ,所述第一與第二電晶體之基極分別電性連接所述第一與 第二比較器之輸出端,所述第一與第二電晶體之射極均接 地,所述第一電晶體之集極經由所述第一線圈接收所述直 流電壓,並順次經由所述第一線圈與第一開關接地,所述 第二電晶體之集極經由所述第二線圈接收所述直流電壓, 並順次經由所述第二線圈與第二開關接地。 7 .如申請專利範圍第6項所述之溫度監控裝置,其中每一開 關包括一第一端、一第二端及一第三端.,所述第一與第二 電晶體之集極分別經由第一與第二線圈電性連接所述第一 與第二開關之第一端,所述第一與第二開關之第二端均接 地,所述風扇驅動模組電性連接於所述第一與第二開關之 第三端之間。 8 .如申請專利範圍第7項所述之溫度監控裝置,其中所述第 一與第二電晶體分別根據來自第一與第二比較器輸出端之 099109454 表單編號A0101 第12頁/共16頁 0992016787-0 201133169 - 控制信號輪流導通,從而控制所述第一與第二開關輪流將 其第一端與第三端閉合以改變流經所述風扇驅動模組之電 流方向。 9 .如申請專利範圍第7項所述之溫度監控裝置,其中所述控 制模組還包括一第三電阻、一第四電阻、一第三電容及一 第四電容,所述第三電阻電性連接於所述第一比較器之輸 出端與第一電晶體之基極之間,所述第四電阻電性連接於 所述第二比較器之輸出端與第二電晶體之基極之間,所述 第三與第四電容分別並接於所述第一與第二線圈兩端。 〇 10 .如申請專利範圍第1至5中任意一項項所述之溫度監控裝置 ,其中所述溫度監控裝置還包括一第一二極體、一第二二 極體及一第三二極體,所述第一二極體之陽極接收所述直 流電壓,所述第一二極體之陰極電性連接所述第一熱敏電 阻與第一線圈之間之連接節點,所述第一二極體之陰極還 電性連接所述第二二極體之陰極,所述第二二極體之陽極 電性連接所述第三二極體之陽極,所述第主二極體之陰極 接地。 099109454 表單編號A0101 第13頁/共16頁 0992016787-0201133169 VII. Patent application scope: .1 · A temperature monitoring device for adjusting the heat dissipation angle according to the temperature condition of different heat sources, the monitoring device includes a sampling module, a comparison module, and a control module and a fan drive module, wherein the pre-measurement module uses two temperatures to measure the temperature of the heat source and outputs a voltage signal according to the temperature signal obtained, the comparison rib is purely said "signal, wire voltage" The control unit outputs a control difficulty number after comparing with the u-reference voltage, and the control module switches the control signal according to the control signal, thereby changing the conduction path of the fan drive group according to the control signal, The wind-moving module rotates according to the direction of the current flowing through it, and the wind deflector of the view is turned to the corresponding heat source for heat dissipation. 2. The temperature monitoring device of claim 1, wherein the detection module comprises a first thermistor, a second thermistor, a third thermistor, and a fourth thermal a resistor, the first thermistor-terminal receives a DC voltage, the other end of the first-thermistor is grounded via a second thermistor, and the fourth thermistor-terminal receives the DC voltage, The other end of the fourth thermistor is grounded via a third thermistor. The temperature monitoring device of the second aspect of the invention, wherein the integration module further includes a first variable resistor and a second variable resistor, wherein the first variable resistor is electrically connected to The second variable resistor is electrically connected between the third thermistor and the second thermistor. 4. The temperature monitoring device of claim 3, wherein the comparison module comprises a first comparator, a second comparator, a first resistor and a second resistor, the first comparison In-phase input connection of the first phase of the device 099109454 Form No. A0101 Page / Total 16 Page 0992016787-0 201133169 Adjustable end of the variable resistor, the inverting input of the first comparator is grounded, and through the first The resistor receives the DC voltage, the non-inverting input of the second comparator is electrically connected to the regulating end of the second variable resistor, and the inverting input of the second comparator is grounded and grounded via the second resistor. 5. The temperature monitoring device of claim 4, wherein the comparison module further includes a first capacitor and a second capacitor, wherein the non-inverting input of the first comparator is sequentially passed through the first The capacitor and the second capacitor are electrically connected to the non-inverting input of the second comparator. 6. The temperature monitoring device of claim 4, wherein the control module comprises a first transistor, a first relay, a second transistor, and a second relay, wherein the a relay includes a first coil and a first switch, the second relay includes a second coil and a second switch, and the bases of the first and second transistors are electrically connected to the first An output end of the second comparator, the emitters of the first and second transistors are both grounded, the collector of the first transistor receives the DC voltage via the first coil, and sequentially passes through the A coil is coupled to the first switch, the collector of the second transistor receives the DC voltage via the second coil, and is sequentially grounded via the second coil and the second switch. 7. The temperature monitoring device of claim 6, wherein each switch comprises a first end, a second end, and a third end. The collectors of the first and second transistors are respectively The first ends of the first and second switches are electrically connected to the first ends of the first and second switches, the second ends of the first and second switches are grounded, and the fan driving module is electrically connected to the Between the first ends of the first and second switches. 8. The temperature monitoring device of claim 7, wherein the first and second transistors are respectively based on 099109454 from the first and second comparator outputs, Form No. A0101, Page 12 of 16 0992016787-0 201133169 - The control signal is turned on in turn to control the first and second switch turns to close their first and third ends to change the direction of current flow through the fan drive module. 9. The temperature monitoring device of claim 7, wherein the control module further includes a third resistor, a fourth resistor, a third capacitor, and a fourth capacitor, the third resistor Between the output end of the first comparator and the base of the first transistor, the fourth resistor is electrically connected to the output end of the second comparator and the base of the second transistor. The third and fourth capacitors are respectively connected to both ends of the first and second coils. The temperature monitoring device of any one of claims 1 to 5, wherein the temperature monitoring device further comprises a first diode, a second diode, and a third diode The anode of the first diode receives the DC voltage, and the cathode of the first diode is electrically connected to the connection node between the first thermistor and the first coil, the first The cathode of the diode is electrically connected to the cathode of the second diode, and the anode of the second diode is electrically connected to the anode of the third diode, and the cathode of the second diode Ground. 099109454 Form No. A0101 Page 13 of 16 0992016787-0
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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US9732758B2 (en) 2014-03-28 2017-08-15 Accton Technology Corporation Control device and control method
TWI617235B (en) * 2015-06-18 2018-03-01 Hiwin Tech Corp Heat dissipation method for multi-axis controller

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US9732758B2 (en) 2014-03-28 2017-08-15 Accton Technology Corporation Control device and control method
TWI617235B (en) * 2015-06-18 2018-03-01 Hiwin Tech Corp Heat dissipation method for multi-axis controller

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