mhurhangee/ep-ind-claims huggingface dataset:
A storage device (40, 40B, 40C) for a printing device including a printing section configured to perform a viscous fluid printing process on a printing target using an exchange target object including a screen mask, the storage device (40, 40B, 40C) comprising: a storage section having a transfer stage configured to load and unload the exchange target object to and from the printing section, the storage section being configured to accommodate multiple placement sections for placing the exchange target object, and to store the exchange target object; a placement section moving section configured to move any one of the placement sections to the transfer stage; and a target object moving section (44, 44B, 44C) disposed on the transfer stage, the target object moving section (44, 44B, 44C) being configured to move between a retracted position allowing the placement section to pass by avoiding contact with the placement section and an abutting position abutting against the exchange target object on the placement section and to move the exchange target object in a loading/unloading direction while abutting against the exchange target object at the abutting position. a storage section having a transfer stage configured to load and unload the exchange target object to and from the printing section, the storage section being configured to accommodate multiple placement sections for placing the exchange target object, and to store the exchange target object; a placement section moving section configured to move any one of the placement sections to the transfer stage; and a target object moving section (44, 44B, 44C) disposed on the transfer stage, the target object moving section (44, 44B, 44C) being configured to move between a retracted position allowing the placement section to pass by avoiding contact with the placement section and an abutting position abutting against the exchange target object on the placement section and to move the exchange target object in a loading/unloading direction while abutting against the exchange target object at the abutting position.
Capsule endomicroscope having a predetermined axial length and a diameter being smaller than the axial length the capsule endomicroscope being adapted to acquire images of a surface of a hollow organ, comprising - a microscopic image acquisition assembly capable of visualising images of structures of only several micrometers, the optical axis thereof being orientated in the radial direction of the capsule endomicroscope in a way to acquire microscopic images of a section of the surface of a hollow organ present in a predetermined image acquisition area on an radial outer surface of the capsule endomicroscope through a housing of the capsule endomicroscope consisting of at least sectionally light-transparent material, and - a light source adapted to emit light rays in the radial direction of the capsule endomicroscope through the light-transparent material of the housing during image acquisition, wherein the light source is embedded into the light-transparent material of the housing and the light-transparent material of the housing located between the light source and the predetermined image acquisition area have substantially the same refractive index and are interconnected to each other such that refraction interfaces between the light source and the predetermined image acquisition area are avoided, characterised in that the capsule endomicroscope further comprising a recess at the outer surface of the capsule endomicroscope, the position of said recess at least in part coinciding with the position of the image acquisition area on the outer surface of the capsule endomicroscope. - a microscopic image acquisition assembly capable of visualising images of structures of only several micrometers, the optical axis thereof being orientated in the radial direction of the capsule endomicroscope in a way to acquire microscopic images of a section of the surface of a hollow organ present in a predetermined image acquisition area on an radial outer surface of the capsule endomicroscope through a housing of the capsule endomicroscope consisting of at least sectionally light-transparent material, and - a light source adapted to emit light rays in the radial direction of the capsule endomicroscope through the light-transparent material of the housing during image acquisition,
A voltage regulator, comprising: an input arranged to receive a trim signal used to specify a target voltage at an output of the regulator; a comparator arranged to compare a voltage derived from the trim signal to the voltage at the output of the regulator; a filter arranged to filter an output of the comparator; characterized by comprising: a checksum module comprising first and second portions (104, 106) arranged to calculate first and second checksums respectively from a plurality of states associated with the voltage regulator and to provide an error signal equal to the difference between the first and second checksums; and an adjustment module arranged to receive the error signal and adjust one or more of the plurality of states if the error signal is non-zero; and wherein the plurality of states (S0,S1,S2) associated with the voltage regulator comprises one or more states of the filter, and the voltage at the output of the regulator. an input arranged to receive a trim signal used to specify a target voltage at an output of the regulator; a comparator arranged to compare a voltage derived from the trim signal to the voltage at the output of the regulator; a filter arranged to filter an output of the comparator; characterized by comprising: a checksum module comprising first and second portions (104, 106) arranged to calculate first and second checksums respectively from a plurality of states associated with the voltage regulator and to provide an error signal equal to the difference between the first and second checksums; and an adjustment module arranged to receive the error signal and adjust one or more of the plurality of states if the error signal is non-zero; and wherein the plurality of states (S0,S1,S2) associated with the voltage regulator comprises one or more states of the filter, and the voltage at the output of the regulator. a checksum module comprising first and second portions (104, 106) arranged to calculate first and second checksums respectively from a plurality of states associated with the voltage regulator and to provide an error signal equal to the difference between the first and second checksums; and an adjustment module arranged to receive the error signal and adjust one or more of the plurality of states if the error signal is non-zero; and wherein the plurality of states (S0,S1,S2) associated with the voltage regulator comprises one or more states of the filter, and the voltage at the output of the regulator.
A forging device for producing a forged product in which a protrusion is formed on a base plate, comprising: a die having a molding hole; and a punch to be driven into the molding hole, wherein, in use, a protrusion is formed by a protrusion molding cavity formed in at least one of a bottom surface of the molding hole of the die and a tip end surface of the punch, wherein a base plate molding portion is formed between the tip end surface of the punch and the bottom surface of the molding hole, and wherein a burr molding portion is formed between a tip end portion outer peripheral side surface of the punch and an inner peripheral side surface of the molding hole, characterized in that the inner peripheral side surface of the molding hole is formed by an inclined surface which is inclined with respect to an axis of the punch substantially parallel to a pressing direction of the punch and approaches the axis toward a pressing direction of the punch, and in that the tip end portion outer peripheral side surface of the punch is formed by an inclined surface which is inclined with respect to the axis and approaches the axis toward the pressing direction of the punch, and wherein an inclination angle (β) of the tip end portion outer peripheral side surface of the punch with respect to the axis is formed to be less than an inclination angle (α) of the inner peripheral side surface of the molding hole with respect to the axis. a die having a molding hole; and a punch to be driven into the molding hole, wherein, in use, a protrusion is formed by a protrusion molding cavity formed in at least one of a bottom surface of the molding hole of the die and a tip end surface of the punch, wherein a base plate molding portion is formed between the tip end surface of the punch and the bottom surface of the molding hole, and wherein a burr molding portion is formed between a tip end portion outer peripheral side surface of the punch and an inner peripheral side surface of the molding hole, characterized in that the inner peripheral side surface of the molding hole is formed by an inclined surface which is inclined with respect to an axis of the punch substantially parallel to a pressing direction of the punch and approaches the axis toward a pressing direction of the punch, and in that the tip end portion outer peripheral side surface of the punch is formed by an inclined surface which is inclined with respect to the axis and approaches the axis toward the pressing direction of the punch, and wherein an inclination angle (β) of the tip end portion outer peripheral side surface of the punch with respect to the axis is formed to be less than an inclination angle (α) of the inner peripheral side surface of the molding hole with respect to the axis.
A hinge joint for use in a three point pressure system of a knee brace comprising a first part and a second part that is telescopically mounted to the first part, characterized in that the first part is connectable to a femoral arm of a knee brace and that the second part is connectable to a hinge cap in non-rotational manner and wherein the telescopic mounting of the second part to the first part is constructed in a manner that enables the second part to telescope out of the first part as the leg is extended and to telescope back into the first part as the leg flexes so as to dynamically change the pressure applied to the lateral side of the knee condyle with changes in the angulation of the leg.
A teatcup liner for a teatcup to be attached to a teat of an animal for the performance of a milking operation, the teatcup liner defining an inner space for receiving the teat, and a longitudinal centre axis (x) extending through the inner space, the teatcup liner being composed of at least three separate annular sections, which are attached to each other and arranged successively after each other along the longitudinal centre axis (x), a first section of the sections forming an upper part having an opening for allowing the teat to be introduced into the inner space, and a second section of the sections forming a tube part configured to engage the teat during the milking operation, wherein a third section of the sections forms a ring module having an inner surface facing the inner space, wherein the ring module comprises a functional member providing an additional function to the milking operation characterised in that the sections are attached to each other via respective connection mechanisms, which have such a common configuration that the first section is connectable to the second section or the third section, wherein the functional member comprises any of a at least one conductor element extending through the ring module to the inner surface and at least one sensor probe configured to sense a parameter and to provide a signal depending on the sensed parameter and at least one light-emitting element provided in the ring module and configured to emit light, especially UV-light, towards the inner space, wherein the conductor element forms a channel configured to conduct a medium into or out from the inner space.
A lead-free solder alloy comprising: 2.4 to 2.6 wt. % silver; 0.5 to 0.8 wt. % copper; 1.5 to 3.2 wt. % bismuth; 0.03 to 0.05 wt. % cobalt; 0.03 to 0.07 wt. % antimony; 0.03 to 0.07 wt. % nickel; and balance tin, together with any unavoidable impurities. 2.4 to 2.6 wt. % silver; 0.5 to 0.8 wt. % copper; 1.5 to 3.2 wt. % bismuth; 0.03 to 0.05 wt. % cobalt; 0.03 to 0.07 wt. % antimony; 0.03 to 0.07 wt. % nickel; and balance tin, together with any unavoidable impurities.
A connecting system for connecting fluid conducting components (12, 14), in particular a hose connecting system, that comprises a first component having a first connection region, wherein the first connection region comprises a first flange set back from a free end region of the first component; a second component having a second connection region that cooperates with the first connection region for the formation of a connection, wherein the second connection region comprises a second flange that is formed at or behind a free end region of the second component, wherein a first flow passage is formed in the first connection region and a second flow passage is formed in the second connection region, wherein the two flow passages are aligned with respect to one another in the connected state and transition into one another with a constant cross-section or a continuously tapering cross-section of at least one of the connection regions, this means they transition into one another at least substantially without any discontinuity, and wherein at least one part of the first and at least one part of the second connection region (54, 40) are connected to one another in the region of the connection by means of a jacket in a fixing manner and possibly in a sealing manner, characterized in that a securing device is provided that engages at or behind the first flange and/or at or behind the second flange and that is preferably formed by at least one clamp to axially secure the first and the second component (12, 14) with respect to one another.
A guide vane assembly comprising: a guide vane for use in a fan of an aircraft engine, formed using as a constituent material a composite material made from a thermosetting resin or a thermoplastic resin and reinforcement fibers, and configured to straighten air; and a support member (43, 73) made of a metal as a constituent material thereof, the support member being attachable to any one of a fan frame and a fan case of the aircraft engine, the fan case placed outside the fan frame; wherein the guide vane includes a vane joint surface (39, 69) formed at an end portion of the guide vane; and the support member (43, 73) includes a support joint surface (53, 83) to be joined to the vane joint surface (39, 69) of the guide vane, characterized in that the guide vane further includes a first fitting portion (41, 71; 63, 93) formed in the vane joint surface (39, 69) of the guide vane; and the support member (43, 73) further includes a second fitting portion (59, 89; 65, 95) to wedge-engage in a circumferential direction orthogonal to a radial direction with the first fitting portion (41, 71; 63, 93) of the guide vane, formed in the support joint surface (53, 83) of the support member (43, 73). a guide vane for use in a fan of an aircraft engine, formed using as a constituent material a composite material made from a thermosetting resin or a thermoplastic resin and reinforcement fibers, and configured to straighten air; and a support member (43, 73) made of a metal as a constituent material thereof, the support member being attachable to any one of a fan frame and a fan case of the aircraft engine, the fan case placed outside the fan frame;
A sterilization device comprising: a first panel; a second panel coupled to the first panel; a third panel coupled to the first panel; and a fourth panel coupled to the second panel, wherein each of the first panel, the second panel, the third panel, and the fourth panel includes a first side, an opposite second side, and a UV-C radiation source configured to emit UV-C radiation outwardly from the second side, each of the first panel, the second panel, the third panel, and the fourth panel configured to block UV- C radiation from being passing outwardly away from the respective first side, wherein the third panel is slideable between a proximal and distal position relative to the first panel and, in the distal position, pivotable relative to the first panel, wherein the fourth panel is slideable between a proximal and distal position relative to the second panel and, in the distal position, pivotable relative to the second panel; characterised by a cantilevered arm comprising a radiation source configured to emit UV-C radiation, wherein the cantilevered arm is moveable between a folded position and an extended position. a first panel; a second panel coupled to the first panel; a third panel coupled to the first panel; and a fourth panel coupled to the second panel, wherein each of the first panel, the second panel, the third panel, and the fourth panel includes a first side, an opposite second side, and a UV-C radiation source configured to emit UV-C radiation outwardly from the second side, each of the first panel, the second panel, the third panel, and the fourth panel configured to block UV- C radiation from being passing outwardly away from the respective first side, wherein the third panel is slideable between a proximal and distal position relative to the first panel and, in the distal position, pivotable relative to the first panel, wherein the fourth panel is slideable between a proximal and distal position relative to the second panel and, in the distal position, pivotable relative to the second panel; characterised by a cantilevered arm comprising a radiation source configured to emit UV-C radiation, wherein the cantilevered arm is moveable between a folded position and an extended position.
An engine cooling fan module comprising: a motor having a horizontally extending motor shaft; at least one plastic brush guide (142, 144, 146, 148) defining a guide axis (152, 154) aligned with the motor shaft, the at least one plastic brush guide (142, 144, 146, 148) including a first side wall portion extending along the guide axis (152, 154), a second side wall portion generally opposite the first side wall portion, and a top portion extending between the first side wall portion and the second side wall portion, the second side wall portion defining a radial slot opened at an inner portion of the plastic brush guide (142, 144, 146, 148) and the top portion including at least one ventilation port (234, 236, 238) extending through the top portion; a brush slidingly positioned within the plastic brush guide (142, 144, 146, 148); and a shunt electrically coupled to the brush and extending through the radial slot. a motor having a horizontally extending motor shaft; at least one plastic brush guide (142, 144, 146, 148) defining a guide axis (152, 154) aligned with the motor shaft, the at least one plastic brush guide (142, 144, 146, 148) including a first side wall portion extending along the guide axis (152, 154), a second side wall portion generally opposite the first side wall portion, and a top portion extending between the first side wall portion and the second side wall portion, the second side wall portion defining a radial slot opened at an inner portion of the plastic brush guide (142, 144, 146, 148) and the top portion including at least one ventilation port (234, 236, 238) extending through the top portion; a brush slidingly positioned within the plastic brush guide (142, 144, 146, 148); and a shunt electrically coupled to the brush and extending through the radial slot.
A method of designing a system for performing osteochondral transplantation surgery in a joint; the system comprising: - a first guide tool for harvesting one or more osteochondral plugs; and - a second guide tool for transfer of said one or more osteochondral plugs to a damage site on an articular surface of the joint; the method comprising:- receiving radiology image data representing one or more images of said joint, - processing said received radiology images data, - determining physical parameters for the damage site in the joint based on said received and processed image data, - generating, based on said determined physical parameters, design parameters for said one or more osteochondral plugs to fit the damage site, wherein the design parameters comprise at least the number of, the size of and the relative placement of said one or more osteochondral plugs, - selecting, based on said determined physical parameters, at least one healthy surface of the joint, having a shape at least in part following the shape of the surface of said damage site as it was prior to damage, from which at least one healthy surface said one or more osteochondral plugs are to be harvested, - generating, based on said determined physical parameters, design parameters for the first guide tool for harvesting, and for the second guide tool for transfer. - a first guide tool for harvesting one or more osteochondral plugs; and - a second guide tool for transfer of said one or more osteochondral plugs to a damage site on an articular surface of the joint; - processing said received radiology images data, - determining physical parameters for the damage site in the joint based on said received and processed image data, - generating, based on said determined physical parameters, design parameters for said one or more osteochondral plugs to fit the damage site, wherein the design parameters comprise at least the number of, the size of and the relative placement of said one or more osteochondral plugs, - selecting, based on said determined physical parameters, at least one healthy surface of the joint, having a shape at least in part following the shape of the surface of said damage site as it was prior to damage, from which at least one healthy surface said one or more osteochondral plugs are to be harvested, - generating, based on said determined physical parameters, design parameters for the first guide tool for harvesting, and for the second guide tool for transfer.
Method for setting up an automatic movement machine, comprising at least the steps: a) coupling a movable element of the automatic movement machine to a movable guide element of a guide device, wherein the guide device is designed as a multi-axis guide robot; b) exerting a force on the movable element by means of the movable guide element by operating the guide device, as a result of which the movable element guided by means of the guide element is moved along a predetermined movement profile, wherein, before or during the exertion of force in step b), the movable element is placed in a passive state, in which the movable element is uncoupled from a drive device of the automatic movement machine that is designed to move the movable element; c) acquiring a setup data set characterizing the movement profile and setting up the automatic movement machine as a result, wherein the movement profile comprises at least one speed profile, and the at least one speed profile is proportional to a working speed profile of the movable element that changes over time. a) coupling a movable element of the automatic movement machine to a movable guide element of a guide device, wherein the guide device is designed as a multi-axis guide robot; b) exerting a force on the movable element by means of the movable guide element by operating the guide device, as a result of which the movable element guided by means of the guide element is moved along a predetermined movement profile, wherein, before or during the exertion of force in step b), the movable element is placed in a passive state, in which the movable element is uncoupled from a drive device of the automatic movement machine that is designed to move the movable element; c) acquiring a setup data set characterizing the movement profile and setting up the automatic movement machine as a result, wherein the movement profile comprises at least one speed profile, and the at least one speed profile is proportional to a working speed profile of the movable element that changes over time.