A drive system includes: a remote drive configured for being driven by an electrical motor; and an actuator spaced apart from and fluidically coupled with the remote drive and configured for being fluidically powered by the remote drive, the remote drive including a rack and pinion system and a plurality of piston assemblies coupled therewith, the rack and pinion system including a first rack, a second rack, and a pinion engaging the first rack and the second rack, the plurality of piston assemblies each including an inner piston and an outer piston which are configured for sliding relative to one another and thereby for selectively opening and closing a working medium passage therebetween.
F15B 15/06 - Mechanical layout characterised by the means for converting the movement of the fluid-actuated element into movement of the finally-operated member for mechanically converting rectilinear movement into non-rectilinear movement
F15B 15/14 - Fluid-actuated devices for displacing a member from one position to anotherGearing associated therewith characterised by the construction of the motor unit of the straight-cylinder type
F15B 15/18 - Combined units comprising both motor and pump
A gripper for gripping a workpiece includes: a base; at least one middle segment pivotally connected to the base; a distal segment pivotally connected to the at least one middle segment; at least one actuator; a yoke coupled to the at least one actuator and configured to be moved in opposing directions by the at least one actuator; and at least one tendon coupled to the distal segment at two different coupling points and coupled to the yoke. The at least one middle segment and the distal segment are configured to pivot clockwise as the at least one actuator moves the yoke in a first direction and to pivot counterclockwise as the at least one actuator moves the yoke in a second direction which is opposite to the first direction.
A drive system includes: a remote drive configured for being driven by an electrical motor; and an actuator spaced apart from and fluidically coupled with the remote drive and configured for being fluidically powered by the remote drive.
F15B 15/06 - Mechanical layout characterised by the means for converting the movement of the fluid-actuated element into movement of the finally-operated member for mechanically converting rectilinear movement into non-rectilinear movement
F15B 15/14 - Fluid-actuated devices for displacing a member from one position to anotherGearing associated therewith characterised by the construction of the motor unit of the straight-cylinder type
F15B 15/18 - Combined units comprising both motor and pump
A drive system includes: a remote drive configured for being driven by an electrical motor; and an actuator spaced apart from and fluidically coupled with the remote drive and configured for being fluidically powered by the remote drive.
A gripping device for gripping a workpiece includes: at least one gripping element configured for contacting the workpiece, the at least one gripping element including a shaft; at least one articulating finger jaw; a mounting block connecting the shaft to the at least one articulating finger jaw, the mounting block including an articulation stop having a first stopping surface and a second stopping surface; and a stopping member connected to the shaft, the stopping member being configured for contacting one of the first stopping surface and the second stopping surface to limit a rotation of the shaft relative to the mounting block, the stopping member being in the form of a fastener which is inelastic.
B66C 1/00 - Load-engaging elements or devices attached to lifting, lowering, or hauling gear of cranes, or adapted for connection therewith for transmitting forces to articles or groups of articles
B25J 15/04 - Gripping heads with provision for the remote detachment or exchange of the head or parts thereof
A gripper tooling includes: a gripper having a gripper body and an angular jaw; a rotor fixedly connected to the angular jaw; and a tooling member for gripping a workpiece, the tooling member including: a base pivotally connected to the rotor; a middle segment pivotally connected to the base; a distal segment pivotally connected to the middle segment; an adducting tendon having a proximal end attached to the rotor and a distal end attached to the distal segment, the rotor for rotating relative to the base and thereby for tensioning the adducting tendon; and an abducting tendon having a proximal end attached to the base and a distal end attached to the distal segment such that the tooling member can autonomously grip the workpiece as the angular jaw rotates toward the workpiece and the tooling member autonomously returns to an ungripped position as the angular jaw rotates away from workpiece.
A gripper for gripping a workpiece includes: a base; at least one middle segment pivotally connected to the base; a distal segment pivotally connected to the at least one middle segment; at least one actuator disposed within the base; an adducting tendon having a proximal end attached to the at least one actuator and a distal end attached to the distal segment, the at least one actuator being configured for linearly and nonrotationally moving the proximal end of the adducting tendon; and an abducting tendon having a proximal end attached to the base and a distal end attached to the distal segment, wherein the middle segment and the distal segment are configured for gripping the workpiece as the at least one actuator moves in a first direction and ungripping the workpiece as the at least one actuator moves in a second direction which is opposite to the first direction.
A gripping device for gripping a workpiece. The gripping device includes at least one gripping element configured for contacting the workpiece, at least one articulating finger jaw, and a mounting block connecting the shaft of the at least one gripping element to the at least one articulating finger jaw. The mounting block includes an articulation stop having a first stopping surface and a second stopping surface. The gripping device further includes a stopping member connected to the shaft. The stopping member is configured for contacting one of the first stopping surface and the second stopping surface to limit a rotation of the shaft relative to the mounting block. The stopping member is in the form of one of a pin and a fastener.
A gripping device for gripping a workpiece. The gripping device includes at least one gripping element configured for contacting the workpiece, at least one articulating finger jaw, and a mounting block connecting the shaft of the at least one gripping element to the at least one articulating finger jaw. The mounting block includes an articulation stop having a first stopping surface and a second stopping surface. The gripping device further includes a stopping member connected to the shaft. The stopping member is configured for contacting one of the first stopping surface and the second stopping surface to limit a rotation of the shaft relative to the mounting block. The stopping member is in the form of one of a pin and a fastener.
A gripper including a base, at least one middle segment pivotally connected to the base, a distal segment pivotally connected to the at least one middle segment, at least one actuator disposed within the base, an adducting tendon having a proximal end attached to the at least one actuator and a distal end attached to the distal segment, and an abducting tendon having a proximal end attached to the base and a distal end attached to the distal segment. The at least one middle segment and the distal segment are configured for gripping the workpiece as the at least one actuator moves in a first direction and ungripping the workpiece as the at least one actuator moves in a second direction which is opposite to the first direction.
OF THE IMSCLOSURE A gripper including a base, at least one middle segment pivotally connected to the base, a distal segment pivotally connected to the at least one middle segment, at least one actuator disposed within the base, an adducting tendon having a proximal end attached to the at least one actuator and a distal end attached to the distal segment, and an abducting tendon having a proximal end attached to the base and a distal end attached to the distal segment. The at least one middle segment and the distal segment are configured for gripping the workpiece as the at least one actuator moves in a first direction and ungripping the workpiece as the at least one actuator moves in a second direction which is opposite to the first direction.21Date Recue/Date Received 2020-12-07
A dynamic mount for a manufacturing apparatus, the dynamic mount including a housing, an actuation assembly and a support assembly. The housing includes a first axis along a length of the housing and a second axis along a height of the housing, the second axis being perpendicular to the first axis. The actuation assembly is movable along the first axis. The support assembly having a first portion moving between a first position and a second position along the second axis as the actuation assembly moves along the first axis. The first portion of the support assembly prohibiting movement of a second portion of the support assembly when in the first position. The second portion of the support assembly having six degrees of freedom when the first portion is in the second position.
A gripper tooling including a gripper, at least one slider, and at least one tooling member configured for gripping a workpiece. Each tooling member including a base slideably mounted to the at least one slider, at least one middle segment pivotally connected to the base, a distal segment pivotally connected to the at least one middle segment, an adducting tendon having a proximal end attached to the at least one slider and a distal end attached to the distal segment, and an abducting tendon having a proximal end attached to the base and a distal end attached to the distal segment. The at least one tooling member is configured for autonomously gripping the workpiece as the at least one jaw moves toward the workpiece and the at least one tooling member autonomously returns to an ungripped position as the at least one jaw moves away from the workpiece.
A gripper tooling including a gripper, at least one slider, and at least one tooling member configured for gripping a workpiece. Each tooling member including a base slideably mounted to the at least one slider, at least one middle segment pivotally connected to the base, a distal segment pivotally connected to the at least one middle segment, an adducting tendon having a proximal end attached to the at least one slider and a distal end attached to the distal segment, and an abducting tendon having a proximal end attached to the base and a distal end attached to the distal segment. The at least one tooling member is configured for autonomously gripping the workpiece as the at least one jaw moves toward the workpiece and the at least one tooling member autonomously returns to an ungripped position as the at least one jaw moves away from the workpiece.
A gripper tooling including a gripper, at least one slider, and at least one tooling member configured for gripping a workpiece. Each tooling member including a base slideably mounted to the at least one slider, at least one middle segment pivotally connected to the base, a distal segment pivotally connected to the at least one middle segment, an adducting tendon having a proximal end attached to the at least one slider and a distal end attached to the distal segment, and an abducting tendon having a proximal end attached to the base and a distal end attached to the distal segment. The at least one tooling member is configured for autonomously gripping the workpiece as the at least one jaw moves toward the workpiece and the at least one tooling member autonomously returns to an ungripped position as the at least one jaw moves away from the workpiece.
A robotic system including a robot and an end effector cuff connected to the robot. The end effector cuff has a body and includes at least one fluid inlet, at least one fluid port fluidly connected to the at least one fluid inlet, at least one fluid valve fluidly connected to the at least one fluid port and housed within the body of the end effector cuff, and an electronic control unit operably coupled to the robot and housed within the body of the end effector cuff. The robotic system also includes an end effector connected to the end effector cuff.
B25J 19/00 - Accessories fitted to manipulators, e.g. for monitoring, for viewingSafety devices combined with or specially adapted for use in connection with manipulators
ROBOTS AND ROBOTIC ARMS FOR INDUSTRIAL PURPOSES; FLUID POWERED END EFFECTORS IN THE NATURE OF END EFFECTOR PARTS SPECIFICALLY ADAPTED FOR ROBOTIC ARMS FOR INDUSTRIAL PURPOSES AND FLUID POWERED HYDRAULIC LINEAR AND VALVE ACTUATORS FOR INDUSTRIAL PURPOSES
(1) Robots and robotic arms for industrial purposes; fluid powered end effectors specifically adapted for use as parts of robotic arms for industrial purposes; actuators in the nature of linear actuators, pneumatic linear actuators, pneumatic valve actuators, hydraulic valve actuators, and hydraulic linear actuators, all of industrial purposes.
A fluid energy harvester, including a housing having at least one port and an outlet, and the housing defining at least one fluid passageway therein. The fluid energy harvester also includes a converter disposed within the housing and configured to convert at least a portion of potential energy in an exhaust fluid, a generator operably coupled to the converter and configured to generate an electrical current from the converter, a charging controller electrically coupled to the generator, and a storage medium electrically coupled to the generator and configured to store the electrical current generated by the generator. The fluid energy harvester further includes a nozzle configured to control a flow of the exhaust fluid.
H02K 7/18 - Structural association of electric generators with mechanical driving motors, e.g.with turbines
H02J 7/00 - Circuit arrangements for charging or depolarising batteries or for supplying loads from batteries
F01N 5/04 - Exhaust or silencing apparatus combined or associated with devices profiting by exhaust energy the devices using kinetic energy
F01B 1/01 - Reciprocating-piston machines or engines characterised by number or relative disposition of cylinders or by being built-up from separate cylinder-crankcase elements with one single cylinder
F03B 1/00 - Engines of impulse type, i.e. turbines with jets of high-velocity liquid impinging on bladed or like rotors, e.g. Pelton wheelsParts or details peculiar thereto
F03B 13/00 - Adaptations of machines or engines for special useCombinations of machines or engines with driving or driven apparatusPower stations or aggregates
A locating pin assembly including a locating pin movable between extended and retracted positions. The locating pin includes a locating pin top having a top end and a bottom end, a locating pin base receiving the bottom end of the locating pin top, and a dowel pin configured to couple the locating pin top and locating pin base together. The locating pin assembly also includes a drive rod moveable relative to the locating pin. The drive rod includes a drive rod top having a top end and a bottom end, and a drive rod base partially housing the drive rod top. The locating pin assembly also includes a finger coupled to the drive rod and movable between extended and fully retracted positions, the finger is extended by the drive rod without movement of the locating pin, and the finger is rotatable from a first position to a second position.
Robots and robotic arms for industrial purposes; fluid powered end effectors namely, end attachments for use on robotic arms, and fluid powered linear and valve actuators for industrial purposes
25.
Mechanism with one sensor for panel present and double sheet detection for grippers
A sensor or switch mechanism is connected to a gripper mechanism and uses a pivotal cam link connected to the driving mechanism of the gripper. A cam slot in the cam link is configured to convert linear reciprocal motion of the driving mechanism of the gripper to amplified rotational motion of the pivotal cam link. A target on the cam link and a stationary sensor positioned proximate to an arc described by the target on rotation of the cam link allows the sensor or switch mechanism to distinguish between the gripper properly gripping a single workpiece and the gripper improperly gripping no workpiece and/or two or more workpieces.
Robots and robotic arms for industrial purposes; fluid powered end effectors namely, end attachments for use on robotic arms, and fluid powered linear and valve actuators for industrial purposes
A gripper for a robot has a gripper mechanism with a jaw motion input, and a motor speed reducer combination including a speed reducer and a motor. The speed reducer has a motion output. The gripper mechanism has a first pattern of mounting features arranged about the jaw motion input. The speed reducer has a second pattern of mounting features arranged about the motion output. The first pattern of mounting features and the second pattern of mounting features are arranged so that the motor reducer combination may be mounted to the gripper mechanism in at least four indexed positions about the motion output and the jaw motion input.
A gripper for a robot has a gripper mechanism with a jaw motion input, and a motor speed reducer combination including a speed reducer and a motor. The speed reducer has a motion output. The gripper mechanism has a first pattern of mounting features arranged about the jaw motion input. The speed reducer has a second pattern of mounting features arranged about the motion output. The first pattern of mounting features and the second pattern of mounting features are arranged so that the motor reducer combination may be mounted to the gripper mechanism in at least four indexed positions about the motion output and the jaw motion input.
Articulating gripper tooling for gripping an object, the articulating gripper tooling comprising: an articulating finger jaw including a slot; a gripping element including a shaft and at least one finger attached to the shaft, the shaft having a longitudinal axis; and a locking pin disposed through the slot and coupling the shaft to the articulating finger jaw; wherein the gripping element is free to rotate a predetermined amount about the longitudinal axis of the shaft, limited by the locking pin contacting a surface of the articulating finger jaw and/or an adjustment element.
B66C 1/00 - Load-engaging elements or devices attached to lifting, lowering, or hauling gear of cranes, or adapted for connection therewith for transmitting forces to articles or groups of articles
B25J 15/04 - Gripping heads with provision for the remote detachment or exchange of the head or parts thereof
A pin clamp for clamping a workpiece includes a housing having a longitudinal axis and a locating pin extending through the housing. The locating pin is sized to be positioned within an opening of the workpiece. A finger is positioned adjacent to the locating pin and movable in a transverse direction relative to the longitudinal axis to retain the workpiece on the locating pin. An exterior driving linkage is configured to move the locating pin in opposite directions along the longitudinal axis. A locking arrangement is carried by the housing. A sequence cam is connected with the exterior driving linkage thereby allowing axial movement of the exterior driving linkage to be converted into transverse movement of the sequence cam. The sequence cam includes an engagement surface which engages the locking arrangement to lock the locating pin and the finger against the workpiece upon retraction of the exterior driving linkage.
A pin clamp for clamping a workpiece includes a housing having a longitudinal axis and a locating pin extending through the housing. The locating pin is sized to be positioned within an opening of the workpiece. A finger is positioned adjacent to the locating pin and movable in a transverse direction relative to the longitudinal axis to retain the workpiece on the locating pin. An exterior driving linkage is configured to move the locating pin in opposite directions along the longitudinal axis. A locking arrangement is carried by the housing. A sequence cam is connected with the exterior driving linkage thereby allowing axial movement of the exterior driving linkage to be converted into transverse movement of the sequence cam. The sequence cam includes an engagement surface which engages the locking arrangement to lock the locating pin and the finger against the workpiece upon retraction of the exterior driving linkage.
A pin clamp for clamping a workpiece includes a housing and a locating pin extending through the housing and having a longitudinal axis. The locating pin is sized to be positioned within an opening of the workpiece. A finger is positioned adjacent to the locating pin and movable in a transverse direction relative to the longitudinal axis to retain the workpiece on the locating pin. A linear actuator is configured to move the locating pin in opposite directions along the longitudinal axis. A locking arrangement is carried by the housing. A sequence cam is connected with the linear actuator in a manner allowing axial movement of the linear actuator to be converted into transverse movement of the sequence cam. The sequence cam includes an engagement surface which engages the locking arrangement to lock the locating pin and the finger against the workpiece upon retraction of the linear actuator.
A control valve for a gas turbine engine air starter. The control valve includes a spherical or ball valve element rotatable between a closed position and an open position to connect an internal flow passage to the air starter. A series of camming elements interconnecting a piston and a valve stem for the spherical valve element convert linear displacement of the piston into rotational movement of the valve for rapid opening.
F02C 7/00 - Features, component parts, details or accessories, not provided for in, or of interest apart from, groups Air intakes for jet-propulsion plants
F02C 7/277 - Mechanical drives the starter being a turbine
F16K 5/06 - Taps or cocks comprising only cut-off apparatus having at least one of the sealing faces shaped as a more or less complete surface of a solid of revolution, the opening and closing movement being predominantly rotary with plugs having spherical surfacesPackings therefor
F16K 31/122 - Operating meansReleasing devices actuated by fluid the fluid acting on a piston
F16K 31/528 - Mechanical actuating means with crank, eccentric, or cam with pin and slot
A pin clamp for clamping a workpiece includes a housing and a locating pin extending through the housing and having a longitudinal axis. The locating pin is sized to be positioned within an opening of the workpiece. A finger is positioned adjacent to the locating pin and movable in a transverse direction relative to the longitudinal axis to retain the workpiece on the locating pin. A linear actuator is configured to move the locating pin in opposite directions along the longitudinal axis. A locking arrangement is carried by the housing. A sequence cam is connected with the linear actuator in a manner allowing axial movement of the linear actuator to be converted into transverse movement of the sequence cam. The sequence cam includes an engagement surface which engages the locking arrangement to lock the locating pin and the finger against the workpiece upon retraction of the linear actuator.
A gripping device including a main body, a first elongate actuator, a second elongate actuator, a first jaw, a second jaw, a first pin, a second pin, a pair of pulleys, and a cable. The elongate actuators are both disposed in respective actuator bores within the main body and translate opposingly to each other. The jaws are both driven by a respective elongate actuator. The pins both include respective pin bodies defining a channel and are configured to drive their respective jaw by a respective elongate actuator and are disposed through transverse holes formed in the respective elongate actuator and a respective pin slot formed in the main body. The pulleys are attached to the main body. The cable forms a closed loop around the pulleys through the channels and is affixed to the first channel to inhibit relative movement between the first channel and the cable.
A gripping device including a main body, a first elongate actuator, a second elongate actuator, a first jaw, a second jaw, a first pin, a second pin, a pair of pulleys, and a cable. The elongate actuators are both disposed in respective actuator bores within the main body and translate opposingly to each other. The jaws are both driven by a respective elongate actuator. The pins both include respective pin bodies defining a channel and are configured to drive their respective jaw by a respective elongate actuator and are disposed through transverse holes formed in the respective elongate actuator and a respective pin slot formed in the main body. The pulleys are attached to the main body. The cable forms a closed loop around the pulleys through the channels and is affixed to the first channel to inhibit relative movement between the first channel and the cable.
A gripper for gripping a workpiece includes a jaw assembly having an actuator with a housing and an elongate member axially slidably movable within the housing. A force-multiplying mechanism is interconnected between the elongate member and the housing. The force-multiplying mechanism is configured to add a mechanical force to the jaw assembly and thereby increase a gripping force on the workpiece during operation of the gripper.
A pin clamp for clamping a workpiece includes a housing and a locating pin extending through the housing and having a longitudinal axis. The locating pin is sized to be positioned within an opening of the workpiece. A finger is positioned adjacent to the locating pin and movable in a transverse direction relative to the longitudinal axis to retain the workpiece on the locating pin. A linear actuator is configured to move the locating pin in opposite directions along the longitudinal axis. A locking arrangement is carried by the housing. A sequence cam is connected with the linear actuator in a manner allowing axial movement of the linear actuator to be converted into transverse movement of the sequence cam. The sequence cam includes an engagement surface which engages the locking arrangement to lock the locating pin and the finger against the workpiece upon retraction of the linear actuator.
A gripper for gripping a workpiece includes a jaw assembly having an actuator with a housing and an elongate member axially slidably movable within the housing. A force-multiplying mechanism is interconnected between the elongate member and the housing. The force-multiplying mechanism is configured to add a mechanical force to the jaw assembly and thereby increase a gripping force on the workpiece during operation of the gripper.
A fluid cylinder actuator assembly is provided. The assembly includes a cylinder tube and a cushion control needle assembly. The cushion control needle assembly is configured to extend into the fluid cylinder actuator assembly to control fluid that exits the cylinder tube and comprises: a threaded cushion control differential screw that selectively screws into a retainer having corresponding threads; a control needle that includes a stem selectively extendable through a bore in the retainer opposite of the cushion control differential screw; wherein the stem of the control needle is engageable with a threaded bore inside the cushion control differential screw that is complimentary to the threads formed on the stem so that rotating the threaded cushion control differential screw will selectively extend or retract the control needle back and forth; and wherein threads of the threaded cushion control differential screw is different than the threads in its threaded bore.
The present disclosure describes a gripper assembly which in one form includes a body, at least one jaw, a longitudinally extending wedge, and a spring. The body has a slot disposed therein and opposed longitudinally extending walls. The jaw is laterally slideable within the slot. The longitudinally extending wedge is fitted along the longitudinally extending wall. The jaw comprises a surface that is engageable with the wedge. The surface of the jaw is slideable along the wedge. And a spring biases the wedge toward the jaw to reduce the running clearance between the two structures.
A gripper assembly which in one form includes a body, at least one jaw, a longitudinally extending wedge, and a spring. The body has a slot disposed therein and opposed longitudinally extending walls. The jaw is laterally slideable within the slot. The longitudinally extending wedge is fitted along the longitudinally extending wall. The jaw comprises a surface that is engageable with the wedge. The surface of the jaw is slideable along the wedge. And a spring biases the wedge toward the jaw to reduce the running clearance between the two structures.
A pin clamp assembly is provided that includes a housing, a locating pin, and a finger. The locating pin is movable with respect to the housing. The locating pin can also selectively entirely retract inside the housing. A finger is supported by the locating pin and retractable and extendable into and out of the locating pin. The finger is also extendable out of the locating pin when at least a portion of the locating pin supporting the finger is exterior of the housing.
A pin clamp assembly is provided that includes a housing, a locating pin, and a finger. The locating pin is movable with respect to the housing. The locating pin can also selectively entirely retract inside the housing. A finger is supported by the locating pin and retractable and extendable into and out of the locating pin. The finger is also extendable out of the locating pin when at least a portion of the locating pin supporting the finger is exterior of the housing.
B23Q 3/02 - Devices holding, supporting, or positioning, work or tools, of a kind normally removable from the machine for mounting on a work-table, tool-slide, or analogous part
A pin clamp assembly having a housing, locating pin, at least one finger, a drive rod and an actuator is provided. At least a portion of the locating pin may be extendable exterior of the housing. The finger is located adjacent the locating pin and movable relative thereto. The drive rod is movable and is engagable with the finger to move the finger between clamped and unclamped positions. The actuator drives the locating pin and the drive rod. Movement of the locating pin and drive rod is linear only and no rotational movement of the locating pin and drive rod is employed to move the finger between clamped and unclamped positions.
A pin clamp assembly having a body, a locating pin, an actuator, a drive rod, a cam, and a finger is provided. The locating pin is coupled to the body and movable between extended and retracted positions. The drive rod is movable relative to the locating pin. The cam is movable relative to the locating pin and the drive rod. The finger is coupled to the drive rod and movable between extended and retracted positions. Actuation of the actuator causes the drive rod to move which extends the finger without moving the locating pin. Also, continued retraction of the drive rod after the finger has extended causes the cam to move out from the slot in the body to allow the locating pin to retract.
A locating pin assembly is provided. The assembly includes a body and a cylinder assembly for moving a ram in a reciprocally linear manner. A bearing is coupled to the ram and configured to engage a bearing wedge to reduce “play” between the ram and the assembly. Illustratively, the bearing and bearing wedge reduce or substantially eliminate this “play” to prevent axial rotation of the ram.
A pin clamp assembly having a body, a locating pin, an actuator, a drive rod, a cam, and a finger is provided. The locating pin is coupled to the body and movable between extended and retracted positions. The drive rod is movable relative to the locating pin. The cam is movable relative to the locating, pin and the drive rod. The finger is coupled to the drive rod and movable between extended and retracted positions. Actuation of the actuator causes the drive rod to move which extends the finger without moving the locating pin. Also, continued retraction of the drive rod after the finger has extended causes the cam to move out from the slot in the body to allow the locating pin to retract.
A pin clamp assembly having a body, a locating pin, an actuator, a drive rod, a cam, and a finger is provided. The locating pin is coupled to the body and movable between extended and retracted positions. The drive rod is movable relative to the locating pin. The cam is movable relative to the locating pin and the drive rod. The finger is coupled to the drive rod and movable between extended and retracted positions. Actuation of the actuator causes the drive rod to move which extends the finger without moving the locating pin. Also, continued retraction of the drive rod after the finger has extended causes the cam to move out from the slot in the body to allow the locating pin to retract.
An armover clamp assembly is provided that includes a housing, an actuator, a cam, a first link, a pivot pin, a driver, a rotating pin, and an arm. The cam includes a cam slot disposed therethrough and is attached to the actuator for linear movement inside the housing. The cam slot has a cam path that includes a locking portion and an extended travel portion. The first link is movably coupled to the cam slot via a cam pin coupled to the link. The cam pin is disposed in and configured to follow the cam path. The pivot pin is coupled to the first link at a position spaced apart from where the cam pin is coupled to the link. The driver is pivotally attached to the pivot pin. The rotating pin extends exterior of the housing and is attached to the driver inside the housing at a location spaced apart from the pivot pin. The arm is attached to the rotating pin exterior of the housing and is rotatable when the actuator linearly moves the cam which causes the cam pin to follow the cam path moving the first link which moves the driver via the pivot pin to rotate the rotating pin.
An armover clamp assembly having a housing, an actuator, a cam, a first link, a pivot pin, a driver, a rotating pin, and an arm is disclosed. The cam having a cam slot attaches to the actuator for linear movement inside the housing. A cam path of the cam slot has locking and extended portions. A cam pin that follows the cam path couples the first link to the cam slot. The pivot pin having pivotally attached driver is coupled to the first link away from where the cam pin and link are coupled. The rotating pin, which attaches to the arm exterior of the housing, attaches to the driver inside the housing away from the pivot pin. Upon actuator linear movement the cam causes the cam pin to travel along the cam path to move the first link and the driver via the pivot pin causing rotating pin rotation.
A pin clamp assembly is provided. The assembly includes a housing, a locating pin, a body, and first and second locks. The locating pin extends from the housing. The body extends from the locating pin. At least a portion of the body is located interior of the housing. The body and locating pin are movable with respect to the housing. The first lock is located on the body and the second lock is configured to selectively couple with the first lock. Selective coupling of the locks prevent the body from moving.
40 - Treatment of materials; recycling, air and water treatment,
42 - Scientific, technological and industrial services, research and design
Goods & Services
Production of fluid powered devices and adaption of existing fluid powered devices for use in the fields of engineering and industrial automation; consulting relating to the foregoing. Custom design of fluid powered devices for use in the fields of engineering and industrial automation; consulting relating to the foregoing.
40 - Treatment of materials; recycling, air and water treatment,
42 - Scientific, technological and industrial services, research and design
Goods & Services
Production of fluid powered devices and adaption of existing fluid powered devices for use in the fields of engineering and industrial automation; consulting related to the foregoing. Custom design of fluid powered devices for use in the fields of engineering and industrial automation; consulting related to the foregoing.
40 - Treatment of materials; recycling, air and water treatment,
42 - Scientific, technological and industrial services, research and design
Goods & Services
Custom manufacturing of fluid powered devices for use in the fields of engineering and industrial automation Custom design of fluid powered devices for use in the fields of engineering and industrial automation
40 - Treatment of materials; recycling, air and water treatment,
42 - Scientific, technological and industrial services, research and design
Goods & Services
Custom manufacturing of fluid powered devices for use in the fields of engineering and industrial automation Custom design of fluid powered devices for use in the fields of engineering and industrial automation
A pin clamp assembly is provided. The assembly includes a housing, a locating pin, a body, and first and second locks. The locating pin extends from the housing. The body extends from the locating pin. At least a portion of the body is located interior of the housing. The body and locating pin are movable with respect to the housing. The first lock is located on the body and the second lock is configured to selectively couple with the first lock. Selective coupling of the locks prevent the body from moving.
09 - Scientific and electric apparatus and instruments
Goods & Services
COMPUTER SOFTWARE NAMELY, SOFTWARE TOOLS USED FOR PRODUCT DESIGN ENGINEERING FOR THE PURPOSE OF SELECTING, SIZING, AND DESIGNING PRODUCTS TO SUPPORT SALES AND MARKETING EFFORTS FOR USE IN THE FIELD OF ENGINEERING AND INDUSTRIAL AUTOMATION
A pin clamp assembly having a housing, locating pin, at least one finger, a drive rod and an actuator is provided. At least a portion of the locating pin may be extendable exterior of the housing. The finger is located adjacent the locating pin and movable relative thereto. The drive rod is movable and is engagable with the finger to move the finger between clamped and unclamped positions. The actuator drives the locating pin and the drive rod. Movement of the locating pin and drive rod is linear only and no rotational movement of the locating pin and drive rod is employed to move the finger between clamped and unclamped positions.
A long travel gripper is provided which has first and second end caps, first, second and third guide rails, first and second jaws, and first and second piston assemblies. The first, second and third guide rails extend between the first and second end caps. The first and second jaws, each receive, and move rectilinearly along, the first, second and third guide rails. The first and second piston assemblies each include first and second piston rods and pistons, respectively.
09 - Scientific and electric apparatus and instruments
Goods & Services
Machines and machine tools; motors and engines (except for land vehicles); machine coupling and transmission components (except for land vehicles); fluid power devices in particular power cylinders; actuators, in particular rotary actuators and multi-motion actuators; mechanical escapements; powered slides; powered grippers; powered clamps; transition plates and stanchions; parts and fittings for the aforementioned goods. Hand tools and implements; grippers; clamps; and parts and fittings for the aforementioned goods. Measuring, signalling, checking apparatus and instruments; apparatus and instruments for conducting, switching, transforming, accumulating, regulating or controlling electricity; switches, in particular proximity switches; sensors, in particular proximity sensors; data processing equipment and computers; parts and fittings for the aforementioned goods.
