序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
141 Torque limiter and reel mount US10153214 2002-05-21 US20020183120A1 2002-12-05 Koichiro Hirabayashi; Kazuo Shibukawa; Akio Konishi
A torque limiter of the present invention includes: a first rotor and a second rotor; a magnet which is provided so as to be in contact with the first rotor; and a hysteresis board provided so as to be opposed to the magnet with a space therebetween, wherein the hysteresis board is integrally formed with the second rotor, and first and second washers are provided between the first and second rotors so as to be in contact with one another.
142 Centrifugal clutch for power door locks US349087 1994-12-02 US5862903A 1999-01-26 James M. Gruden; Robert B. Brooks, Jr.
A centrifugal clutch for use with a power door lock actuator. The centrifugal clutch includes an independently rotatable pinion cup having an integral pinion gear which meshes with a jack screw, and a driver rotatably secured to an output shaft of a drive motor. The driver has at least one radially outwardly opening recess formed therein with at least one slider slidably retained within the recess. The slider is biased in a radially inward direction by magnetic lines of force which are provided by a permanent magnet mounted within the driver. Alternatively, a number of sliders can be formed of magnetic material such that the magnetic sliders are mutually attracted to one another in a radially inward direction. A centrifugal force is generated when the driver is rotated. The centrifugal force overcomes the magnetic attractive force to throw the sliders radially outwardly into positive driving engagement with the pinion cup. When the driver is no longer rotatably driven, the centrifugal force is eliminated and the magnetic attractive force then urges the sliders radially inwardly to break the positive driving engagement with the pinion cup.
143 Clutch mechanism US298326 1994-08-30 US5598910A 1997-02-04 Shuzo Moroto; Koji Sumiya; Mutsumi Kawamoto; Masao Kawai; Hideki Aruga; Toshihiro Shiimado
A clutch mechanism connecting and disconnecting an output shaft of an internal combustion engine and an input shaft of a transmission unit includes a first clutch assembly coupled to the input shaft of the transmission unit and a second clutch assembly coupled to an output shaft of the engine. A torque conduction member is provided between the first and second clutch assemblies for rotation relative to the two clutch assemblies. The torque conduction member has a first connecting surface for engaging the first clutch assembly and a second connecting surface for engaging the second clutch assembly. The contacting force at the first connecting surface is stronger than that at the second connecting surface, when a predetermined load is applied to the two connecting surfaces in succession.
144 Pawl and ratchet clutch with pawl holdback US846653 1992-03-05 US5205386A 1993-04-27 Robert B. Goodman; Robert Telakowski
A pneumatic starter (10) incorporates a pawl and ratchet clutch assembly (50) having a ratchet member (46) mounted to a drive member (40) powered by an air expansion turbine (20), and a plurality of ferromagnetic pawls (48) disposed circumferentially about the ratchet member (46) and operable in engagement therewith to transmit rotational drive torque from the drive member (40) to a driven member (60). Each of the pawls (48) is supported for pivotal movement into and out of engagement with the ratchet member (46). Springs (54) are provided for biasing the pawls (48) to pivot radially inwardly into engagement with the ratchet member (46). At least one magnet (82) is disposed in operative association with and radially outwardly of each pawl (48), whereby the ferromagnetic pawls (48) are held by the magnets (82) out of engagement with the ratchet member (46) when the driven shaft (60) is rotating at a speed above a desired reengagement speed.
145 Magnetic torque limiting clutch having overload disconnection means US136014 1987-12-21 US4825992A 1989-05-02 Alfred Skrobisch
This torque limiting clutch has a motor driven hub carrying two concentric cup-shaped rings with a cylindrical permanent magnet therebetween. Keeper plates are pivotally secured to the hub and overlay coplanar edges of the rings to which the keepers are magnetically attracted. The hub has an extension on which freely rotates a power output disk provided with projecting fingers that engage the keepers when they are in radial positions with respect to the hub. When an overload is applied to the output disk, the fingers turn the keepers until they are disengaged from the disk. The power output disk and hub are thus released to turn freely independently of each other, without generating frictional heat therebetween.
146 Magnetic clutch-brake mechanism US475730 1983-03-16 US4570766A 1986-02-18 Gary L. Golobay
This invention is a magnetic clutch brake mechanism operable to achieve either a clutch or a brake function and can be installed, for example, on a lawn mower apparatus to selectively control the rotating movement of a lawn mower blade member. The magnetic clutch brake mechanism includes: (1) a main actuator assembly; (2) a drive rotor assembly which is connected to a main drive shaft for rotating same; (3) a clutch plate assembly operably connectable to the drive rotor assembly; and (4) in this case, a blade mount assembly to receive a rotatable lawn mower blade that is securely fastened thereto. The main actuator assembly includes an actuator bracket member which is connected to an actuator ring member that is selectively movable axially about the drive rotor assembly and the clutch plate assembly to alter a magnetic field therein. The drive rotor assembly includes a rotor member which is driven by a gasoline or electric motor in order to rotate same at a desired speed. The clutch plate assembly includes a plate member used to secure a plurality of magnet members against a collector member and haivng a bearing member which rotatably connects same about the main drive shaft. The blade mount assembly is connected to the clutch plate assembly and operable to receive a lawn mower blade member thereon by a plurality of nut and bolt members. The actuator ring member is operable to move axially about the clutch plate assembly to selectively affect the magnetic field therein to clutch or brake the relative rotating members.
147 Permanent magnet clutch for altitude controller US80748959 1959-04-20 US3107507A 1963-10-22 PAUL GOLDEN VINCENT
916,434. Overload slip couplings. KOLLSMAN INSTRUMENTS CORPORATION. April 19, 1960 [April 20, 1959], No. 13710/60. Class 80 (2). [Also in Group XXXVIII] An overload slip coupling, for use in an aeroplane automatic pilot or the like, comprises an input shaft 46, Fig. 5, fast with which is a permanent magnet 72 and a friction washer 74 adjustably mounted upon screw-threads 76, the flanged end of a driven coupling-sleeve 80 rotatably and axially movable upon a spigot 78 fast with the shaft being drawn into engagement with the friction washer by the magnetic flux. A radial arm 82 fast with the driven sleeve 80 lies between two adjustable stop-screws 84, 86, so that rotation of the driven sleeve is limited, continued rotation of the input shaft 46 beyond a predetermined angle merely causing the coupling to slip. In the form shown, the coupling is applied to an altitude control device coupled to the automatic pilot of an aeroplane, pressure-sensitive bellows 58, 60, Fig. 1, connected by cranked arms 50, 52, Fig. 3, to a radial arm 48 fast with the shaft 46, moving with changes in ambient pressure caused by variations in the aeroplane height to rotate the shaft one way or the other. Fast with the driven sleeve 80 of the coupling is an arm 70 forming the I part of an E-I voltage-sensitive device 62 having coils 64, 66, 68 connected to the automatic pilot. Movement of the arm 70 causes changes in the voltage produced by the device 62, these voltage fluctuations being fed to the automatic pilot for adjustment of the aeroplane elevator surfaces. Alternatively, the device 62 may be replaced by a potentiometer system.
148 Clutch or brake US66019057 1957-05-20 US2962143A 1960-11-29 ROLF HEINEMANN
149 チェーンブロック JP2017079909 2017-04-13 JP2018177466A 2018-11-15 河西 貴幸
【課題】低速回転モードから高速回転モードへの切り換えを容易に行うことが可能なチェーンブロックを提供する。
【解決手段】チェーンブロック10は、第1歯部114a1が配列されている第1回転体110と、磁気結合時には第1歯部114a1と磁気吸引を及して対向する第2歯部121a2を備え、スラスト方向にスライドすることで磁気結合状態を解除可能な第2回転体120と、第2回転体120と一体的なクラッチピン131と、第2回転体120のスライドに応じてクラッチピン131が入り込む複数のポケットを備えるクラッチ受部材140と、を備え、複数のポケットには、磁性部材144が配置される巻上げ側ポケット141と、磁性部材145が配置される巻下げ側ポケット142と、巻上げ側ポケット141と巻下げ側ポケット142の間に存在しクラッチピン131が磁気的に吸引されない状態で内部に入り込む中間ポケット143と、を備える。
【選択図】図1
150 車両用電磁接続/切断システム JP2016131501 2016-07-01 JP6300330B2 2018-03-28 ピーター エー. ビーズリー; ランディ エル. ソマー; ケネス イー. クーパー
151 屠畜動物および/またはその一部を処理するための装置および方法 JP2017516433 2015-09-23 JP2017534265A 2017-11-24 ヨハネス セオドラス ヤンセン、レネ; シュター、リチャード ジョゼフ デ; ピエール ヒューベルトゥス マリア クラーセンス、ロジャー; ペトラス ウィルヘルムス ジャスパース、ティム
【解決手段】本発明は、屠畜動物、特にニワトリのような屠畜された家禽および/またはその一部を処理するための装置および方法を提供する。装置は、装置の被駆動要素を駆動するための駆動システムを含む。駆動システムは、駆動要素と、使用時に駆動要素によって駆動され、通常動作中に被駆動要素に強固に接続される転送要素と、通常動作中に処理要素と転送要素を強固に接続し、処理要素と転送要素との間に作用するが閾値を超える場合、過負荷状況で処理要素と転送要素との間の相対的な動きを可能にするように構成された過負荷保護手段と、を備える。過負荷保護手段は、転送要素および被駆動要素の一方の一部を形成する第1の接続要素と、転送要素および被駆動要素の他方の一部を形成する第2の接続要素とを備え、第1の接続要素は第1の磁石要素として構成され、第2の接続要素は、磁化可能であるか、または、第2の磁石要素として構成されている。第1および第2の接続要素は、被駆動要素と転送要素との間の強固な接続が、通常動作中に第1の接続要素と第2の接続要素との間の磁気的接続を介して行われるように、且つ、過負荷状況では、第1の接続要素と第2の接続要素との間の磁気的接続が過負荷のために壊されるように、協働するように構成されている。【選択図】図2b
152 磁気ギア装置 JP2014504928 2013-03-12 JP5920455B2 2016-05-18 三田 正裕
153 定トルク電動ドライバー等におけるトルクリミッタ JP2014065843 2014-03-27 JP2015188943A 2015-11-02 戸津 勝行
【課題】定トルク電動ドライバー等に使用するトルクリミッタとして、所要のねじ締め作業等におけるトルクリミッタの設定トルク(ヒステリシストルク)を、トルクリミッタを分解することなく容易かつ簡便に調整ないし調節することができる定トルク電動ドライバー等におけるトルクリミッタを提供する。
【解決手段】駆動側回転体10と従動側回転体20とを備え、前記回転体にそれぞれ相互に磁気結合される円筒状の永久磁石とその外周に対向配置される磁性体24とを設けてなるトルクリミッタにおいて、前記磁性体の外周部に対し、その外周を部分的に囲繞することができるように、磁性材からなるカバー部材26を着脱自在に設けた構成からなる。
【選択図】図1
154 Having a magnetic drivetrain torque-limiting device, motorized surgical cutting and fastening instrument JP2009031777 2009-02-13 JP5484748B2 2014-05-07 デビッド・シー・イェイツ; トーマス・ダブリュ・ヒュイテマ
A surgical cutting and fastening instrument. The instrument comprises an end effector and a shaft connected to the end effector. The shaft comprises a drive train for powering the end effector. The instrument also comprises an electric, DC motor connected to the drive train for powering the drive train. The instrument also comprises a torque-limiting device (400) connected between to an output pole (408) of the motor and an input pole of the drive train (410).
155 Load-sensitive magnetic clutch device JP2010193860 2010-08-31 JP5342524B2 2013-11-13 貴幸 河西; 一光 石川
There is provided a load sensitive magnetic clutch device including: a magnetic pole rotating body 14 having magnetic poles 14a arranged on the circumference thereof and provided with a clutch projection 16 of a claw clutch at an end thereof; a yoke rotating body 12 configured to rotate about an axial center of rotation 18b identical to that of the magnetic pole rotating body 14, including a tooth-shaped portion arranged so that tooth tips face the magnetic poles 14a and provided with the magnetic pole rotating body 14 and a tooth-shaped magnetic body 12a configured to transmit a torque caused by a magnetic attracting force; and high-torque input means 2 configured to rotate about the identical axial center of rotation 18b and having a clutch engaging portion 3 engaging the clutch projection 16, wherein the clutch projection 16 is formed of a magnetic body, the clutch engaging portion 3 includes a clutch retaining magnetic body 4 configured to attract the clutch projection 16 by a magnetic force, and the clutch projection 16 is attracted by the clutch retaining magnetic body 4 by an application of a load torque exceeding a torque which is transferrable between the magnetic pole rotating body 14 and the yoke rotating body 12. Therefore, a function to prevent an occurrence of a clutch return in which the load torque applied to a clutch portion during a winching operation of a load in a load sensitive magnetic clutch in the related art is reduced by an action of a mechanical brake and a torque transmitting route is switched to a low-load transmitting route is achieved.
156 For generating rapid torque over extended dynamic range, device having a low inertia JP2011553424 2010-03-09 JP5291207B2 2013-09-18 ミレー ギヨーム; アイワール バンサン; シナン ハリヨ ドガン; レニエ ステファーヌ
The invention relates to a device for generating a torque on an output member in response to a torque setpoint, including a first motor unit including at least one motor of a first power, or small motor, having a shaft to which the output member is connected, a second motor unit including at least one motor of a second power higher than the first power, or large motor, having a shaft rotationally connected to the output member via viscous coupling means, and servo-control means programmed, in response to a torque setpoint (Msp), to power the second motor unit so that the viscous coupling means provide a viscous torque (Mvisc) conforming to the torque setpoint and, in parallel with this, to power the first motor unit so that it produces the additional torque between the torque setpoint and the viscous torque until the viscous torque reaches the value of the torque setpoint.
157 Torque transfer device JP2010189080 2010-08-26 JP5231498B2 2013-07-10 貴幸 河西
158 For generating rapid torque over extended dynamic range, device having a low inertia JP2011553424 2010-03-09 JP2012520654A 2012-09-06 ミレー ギヨーム; レニエ ステファーヌ; シナン ハリヨ ドガン; アイワール バンサン
The invention relates to a device for generating a torque on an output member in response to a torque setpoint, including a first motor unit including at least one motor of a first power, or small motor, having a shaft to which the output member is connected, a second motor unit including at least one motor of a second power higher than the first power, or large motor, having a shaft rotationally connected to the output member via viscous coupling means, and servo-control means programmed, in response to a torque setpoint (Msp), to power the second motor unit so that the viscous coupling means provide a viscous torque (Mvisc) conforming to the torque setpoint and, in parallel with this, to power the first motor unit so that it produces the additional torque between the torque setpoint and the viscous torque until the viscous torque reaches the value of the torque setpoint.
159 Load sensitive magnetic clutch device JP2010193860 2010-08-31 JP2012052572A 2012-03-15 KAWANISHI TAKAYUKI; ISHIKAWA KAZUMITSU
PROBLEM TO BE SOLVED: To provide a load sensitive magnetic clutch device in which operation of switching from a low load transmission path to a high load transmission path can be performed rapidly and reliably, and in which occurrence of a clutch return such that a load torque transmission path in the clutch is switched due to load variation is prevented.SOLUTION: The load sensitive magnetic clutch device includes a yoke rotating body 12 provided with a tooth shaped magnetic body 12a and a high torque input means 2 which rotates about the identical rotating center shaft 18b and has a clutch engagement portion 3 engaged with a clutch projection 16. The clutch projection 16 is made of a magnetic body, and the clutch engagement portion 3 has a clutch holding magnetic body 4 to which the clutch projection 16 is attracted by the magnetic force, and when load torque exceeding torque capable of being transmitted between the magnetic pole rotating body 14 and the yoke rotating body 12 works, the clutch projection 16 is attracted to the clutch holding magnetic body 4.
160 Torque transmission device JP2010189080 2010-08-26 JP2011106666A 2011-06-02 KAWANISHI TAKAYUKI
<P>PROBLEM TO BE SOLVED: To provide a means for suppressing an increase of cost due to complexity and enlargement of a structure of a transmission and an increase in the number of parts regarding the fact that a clutch capacity does not function sufficiently under a high load. <P>SOLUTION: A torque transmission device includes a low torque input means 8, an output rotating means 11 magnetically coupled to the low torque input means, and a high torque input means 15 engaged with the output rotating means 11 and transmitting torque during high-load rotation. The low torque input means 8 includes pole teeth 9 opposed to magnetic poles 12 of the output rotating means and magnetically coupled during low-load rotation, and side magnetic bodies 10 opposed to the magnetic poles 12 slid by a thrust force generated by the relative rotation of the magnetic poles 12 and the pole teeth 9 and magnetically coupled during the high-load rotation. The output rotating means includes the magnetic poles 12, a magnet 13 sandwiched between the magnetic poles 12, and an engagement clutch section 14 engaged with the high torque input means 15 during the high-load rotation. <P>COPYRIGHT: (C)2011,JPO&INPIT
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