mhurhangee/ep-ind-claims huggingface dataset:
A surgical instrument, comprising: an end effector; a shaft extending proximally from the end effector; a firing assembly configured to fire a plurality of staples; an articulation assembly configured to articulate the end effector relative to the shaft; a locking member movable between a locked configuration and an unlocked configuration; and a housing extending proximally from the shaft, wherein the housing is removably couplable to the shaft when the locking member is in the unlocked configuration, characterised in that the housing comprises: a motor configured to drive at least one of the firing assembly and the articulation assembly; a controller in communication with the motor; and a home state input (3004A, 3004B, 3004C, 3084, 3086...) operably coupled to the locking member, wherein the home state input is configured to transmit a home state input signal to the controller, wherein the controller is configured to activate the motor to reset at least one of the firing assembly and the articulation assembly to a home state in response to the home state input signal. an end effector; a shaft extending proximally from the end effector; a firing assembly configured to fire a plurality of staples; an articulation assembly configured to articulate the end effector relative to the shaft; a locking member movable between a locked configuration and an unlocked configuration; and a housing extending proximally from the shaft, wherein the housing is removably couplable to the shaft when the locking member is in the unlocked configuration, characterised in that the housing comprises: a motor configured to drive at least one of the firing assembly and the articulation assembly; a controller in communication with the motor; and a home state input (3004A, 3004B, 3004C, 3084, 3086...) operably coupled to the locking member, wherein the home state input is configured to transmit a home state input signal to the controller, wherein the controller is configured to activate the motor to reset at least one of the firing assembly and the articulation assembly to a home state in response to the home state input signal. a motor configured to drive at least one of the firing assembly and the articulation assembly; a controller in communication with the motor; and a home state input (3004A, 3004B, 3004C, 3084, 3086...) operably coupled to the locking member, wherein the home state input is configured to transmit a home state input signal to the controller, wherein the controller is configured to activate the motor to reset at least one of the firing assembly and the articulation assembly to a home state in response to the home state input signal.
A respiratory ventilation system, comprising: a gas source interface, an inspiratory branch, a high-frequency oscillation generation device, and a ventilation control device; the inspiratory branch is respectively connected with the gas source interface and a patient pipeline which is connected with a respiratory system of a patient; the high-frequency oscillation generation device is configured to generate high-frequency oscillation for a gas of the inspiratory branch; characterized in that, the respiratory ventilation system further comprises an active expiratory device, wherein the active expiratory device comprises an electric gas extraction device; the ventilation control device is connected with the inspiratory branch, the high-frequency oscillation generation device and the active expiratory device, wherein the ventilation control device is configured to control the high-frequency oscillation generation device to generate the high-frequency oscillation for the gas of the inspiratory branch according to a preset high-frequency oscillation frequency and to output a high-frequency oscillation gas which is generated by the high-frequency oscillation generation device through the inspiratory branch and the patient pipeline during an inspiratory phase, and is also configured to control the active expiratory device to actively extract, according to the preset high-frequency oscillation frequency, a gas which is exhaled by the patient through the patient pipeline during an expiratory phase. a gas source interface, an inspiratory branch, a high-frequency oscillation generation device, and a ventilation control device; the inspiratory branch is respectively connected with the gas source interface and a patient pipeline which is connected with a respiratory system of a patient; the high-frequency oscillation generation device is configured to generate high-frequency oscillation for a gas of the inspiratory branch; characterized in that, the respiratory ventilation system further comprises an active expiratory device, wherein the active expiratory device comprises an electric gas extraction device; the ventilation control device is connected with the inspiratory branch, the high-frequency oscillation generation device and the active expiratory device, wherein the ventilation control device is configured to control the high-frequency oscillation generation device to generate the high-frequency oscillation for the gas of the inspiratory branch according to a preset high-frequency oscillation frequency and to output a high-frequency oscillation gas which is generated by the high-frequency oscillation generation device through the inspiratory branch and the patient pipeline during an inspiratory phase, and is also configured to control the active expiratory device to actively extract, according to the preset high-frequency oscillation frequency, a gas which is exhaled by the patient through the patient pipeline during an expiratory phase.
Method for building a shaped body by stereolithographic solidification of building material by photopolymerization, in which method building material is conveyed between a building platform and a transparent bottom plate and is exposed in a spatially selective manner through the bottom plate in order to solidify building material above the bottom plate within a predetermined contour, the building platform is lifted relative to the bottom plate, and building material is replenished; and these two steps are continued until the shaped body is built by spatially selectively solidified building material; wherein the building platform is located on a front face of a piston which is slidably guided in a cylinder, wherein the end face of the cylinder facing the piston is closed by the bottom plate, and that further building material is replenished by moving the piston away from the bottom plate and simultaneously conveying building material through a supply line which leads to the interior of the cylinder in order to fill the additional volume being created by the movement of the piston away from the bottom plate with building material; characterized in that the piston is, when it is moved in the cylinder away from the bottom plate, simultaneously rotated about a rotational axis coinciding with the longitudinal axis of the cylinder.
Thermoblock (1; 11; 21; 21'; 31; 84; 101; 111; 111') for holding and controlling the temperature of at least one laboratory sample vessel in a laboratory temperature control device, in particular in a PCR thermocycler, characterized, in that the thermoblock comprises a base plate (2; 12; 22; 42; 52; 102; 112; 112'), the first plate side of which is set up for thermal coupling with a temperature control device, and the second plate side of which, opposite the first plate side, is provided with a plurality of sample vessel receptacles (4; 14; 24; 24a, 24b, 24c, 24d, 24e, 24f; 24a', 24b', 24c', 24d', 24f'; 44; 54; 103; 113) for receiving and tempering a plurality of laboratory sample vessels, this plurality of sample vessel receptacles being arranged in a rectangular grid, and the thermoblock was manufactured by means of the additive manufacturing process using a metal-containing material. characterized, in that the thermoblock comprises a base plate (2; 12; 22; 42; 52; 102; 112; 112'), the first plate side of which is set up for thermal coupling with a temperature control device, and the second plate side of which, opposite the first plate side, is provided with a plurality of sample vessel receptacles (4; 14; 24; 24a, 24b, 24c, 24d, 24e, 24f; 24a', 24b', 24c', 24d', 24f'; 44; 54; 103; 113) for receiving and tempering a plurality of laboratory sample vessels, this plurality of sample vessel receptacles being arranged in a rectangular grid, and the thermoblock was manufactured by means of the additive manufacturing process using a metal-containing material.
A method for laser drilling or laser cutting a workpiece, wherein electromagnetic radiation emitted by a laser impinges on the workpiece and a liquid containing particles is situated on a side of the workpiece facing away from the laser such that the electromagnetic radiation emitted by the laser impinges on the particles once the electromagnetic radiation has passed through the workpiece, characterized in that the particles are nanoparticles, and that the nanoparticles are embodied in such a way that more than 50% of the electromagnetic radiation is absorbed by the nanoparticles by virtue of the electromagnetic radiation generating collective excitations, in particular plasmons such as e.g. surface plasmons, in the nanoparticles, wherein form, size and material of the nanoparticles are tuned to the laser wavelength radiated thereon so that a plasmon resonance or the resonance of a different collective excitation emerges at the wavelength of the laser light radiated thereon.. electromagnetic radiation emitted by a laser impinges on the workpiece and a liquid containing particles is situated on a side of the workpiece facing away from the laser such that the electromagnetic radiation emitted by the laser impinges on the particles once the electromagnetic radiation has passed through the workpiece,
A method of fabricating a waterproof mattress having at least two cushion-forming portions that are connected together by a hinge zone, the method being characterized in that it comprises the following steps: transforming at least one thermoplastic sheet so as to form a flexible or semirigid thermoformed shell having at least two indentations provided with respective peripheral margins including portions connecting together the indentations, the two indentations opening out into the same face of the shell as formed in this way and presenting a shape that corresponds at least in part to the cushion-forming portions of the mattress; filling the indentations of the thermoformed shell with a solid upholstery material; making a continuous weld over at least the entire periphery of each indentation between the shell and a weldable sheet covering the shell in order to chose the indentations; and cutting away surplus material from the shell and the weldable sheet. transforming at least one thermoplastic sheet so as to form a flexible or semirigid thermoformed shell having at least two indentations provided with respective peripheral margins including portions connecting together the indentations, the two indentations opening out into the same face of the shell as formed in this way and presenting a shape that corresponds at least in part to the cushion-forming portions of the mattress; filling the indentations of the thermoformed shell with a solid upholstery material; making a continuous weld over at least the entire periphery of each indentation between the shell and a weldable sheet covering the shell in order to chose the indentations; and cutting away surplus material from the shell and the weldable sheet.
A drop shaft arrangement (10; 20; 40; 50; 60; 70), in particular for a device for gluing particles which consist at least partly of fibers and/or chips suitable for producing material boards, wherein the drop shaft arrangement (10; 20; 40; 50; 60; 70) comprises: a drop shaft (21; 41) having an inlet for feeding the particles and an outlet for discharging the particles; a scraper (27; 47) arranged to move relative to an inner wall (21a, 41a) of the drop shaft (21; 41) in order to clean the inner wall (21a, 41a), characterized in that the drop shaft arrangement (10; 20; 40; 50; 60; 70) further comprises at least one flexible stripping element (22; 52; 62) for cleaning the at least one scraper (27; 47), wherein the flexible stripping element (22; 52; 62) is tensioned over the inner wall (21a; 41a) in the travel path of the at least one scraper (27; 47); and that drive means are further provided which are designed to set in motion the flexible stripping element (22; 52; 62) in a direction of the longitudinal extension of the flexible stripping element (22; 52; 62). a drop shaft (21; 41) having an inlet for feeding the particles and an outlet for discharging the particles; a scraper (27; 47) arranged to move relative to an inner wall (21a, 41a) of the drop shaft (21; 41) in order to clean the inner wall (21a, 41a), characterized in that the drop shaft arrangement (10; 20; 40; 50; 60; 70) further comprises at least one flexible stripping element (22; 52; 62) for cleaning the at least one scraper (27; 47), wherein the flexible stripping element (22; 52; 62) is tensioned over the inner wall (21a; 41a) in the travel path of the at least one scraper (27; 47); and that drive means are further provided which are designed to set in motion the flexible stripping element (22; 52; 62) in a direction of the longitudinal extension of the flexible stripping element (22; 52; 62).
A secondary battery comprising: an electrode body including a positive electrode and a negative electrode; and a battery case configured to house the electrode body, wherein the battery case includes an exterior body that is a flat quadrangular container of which one surface side forms an opening portion, a flat rectangular sealing plate configured to close the opening portion of the exterior body, and a gas discharge valve provided in the sealing plate, and a thickness T1 of the sealing plate, a length L1 of a short side of the sealing plate, a length L2 of a long side of the sealing plate, and a length L3 of the gas discharge valve in a short side direction of the sealing plate satisfy the following expressions to: T 1 / L1 ≤ 0.1 L2 / L 1 ≥ 6 L3 / L 1 ≥ 0.4 an electrode body including a positive electrode and a negative electrode; and a battery case configured to house the electrode body, wherein the battery case includes an exterior body that is a flat quadrangular container of which one surface side forms an opening portion, a flat rectangular sealing plate configured to close the opening portion of the exterior body, and a gas discharge valve provided in the sealing plate, and a thickness T1 of the sealing plate, a length L1 of a short side of the sealing plate, a length L2 of a long side of the sealing plate, and a length L3 of the gas discharge valve in a short side direction of the sealing plate satisfy the following expressions to: T 1 / L1 ≤ 0.1 L2 / L 1 ≥ 6 L3 / L 1 ≥ 0.4
A connection verifier, comprising: a housing including: a handle comprising a first outer shell and a first inner shell connected to the first outer shell; and, a head arranged to engage a fluid connection and having a cutout; and, at least one camera (80, 90) arranged in the housing radially between the first inner shell and the first outer shell and directed toward the cutout to view the fluid connection. a housing including: a handle comprising a first outer shell and a first inner shell connected to the first outer shell; and, a head arranged to engage a fluid connection and having a cutout; and, a handle comprising a first outer shell and a first inner shell connected to the first outer shell; and, a head arranged to engage a fluid connection and having a cutout; and, at least one camera (80, 90) arranged in the housing radially between the first inner shell and the first outer shell and directed toward the cutout to view the fluid connection.
A method for use in a system comprising a plurality of first access nodes operating within an area served by a second access node, the first access nodes serving areas smaller than the area served by the second access node and sharing at least some frequency resources with the second access node: characterised in that the method comprises determining, at one of the first access nodes, the number of other first access nodes for which a reference signal received power detected at said one of the first access nodes exceeds a predetermined threshold, or the number of other first access nodes for which a reference signal received power detected at user equipments connected to said one of the first access nodes and sending reference signal received power measurements to said one of the first access nodes exceeds a predetermined threshold, and determining whether or not to limit the wireless transmission power of said one of the first access nodes based on said determined number.
A radar apparatus comprising: a transmitter configured to transmit electromagnetic waves; a receiver configured to receive electromagnetic waves that are reflected; and a processor configured to extract a relative velocity, with respect to the radar apparatus, of at least one front object based on the electromagnetic waves received by the receiver, characterized in that the processor is further configured to drive the transmitter to locally adjust respective spatial resolutions of scanning front regions based on the relative velocity of the at least one front object, wherein the at least one front object comprises a first object and a second object, by: controlling the transmitter to scan, at a first resolution, a first front region in which the first object moves at a relative velocity within a first relative velocity range, and controlling the transmitter to scan, at a second resolution higher than the first resolution, a second front region in which the second object moves at a relative velocity within a second relative velocity range higher than the first relative velocity range. a transmitter configured to transmit electromagnetic waves; a receiver configured to receive electromagnetic waves that are reflected; and a processor configured to extract a relative velocity, with respect to the radar apparatus, of at least one front object based on the electromagnetic waves received by the receiver, characterized in that the processor is further configured to drive the transmitter to locally adjust respective spatial resolutions of scanning front regions based on the relative velocity of the at least one front object, wherein the at least one front object comprises a first object and a second object, by: controlling the transmitter to scan, at a first resolution, a first front region in which the first object moves at a relative velocity within a first relative velocity range, and controlling the transmitter to scan, at a second resolution higher than the first resolution, a second front region in which the second object moves at a relative velocity within a second relative velocity range higher than the first relative velocity range. controlling the transmitter to scan, at a first resolution, a first front region in which the first object moves at a relative velocity within a first relative velocity range, and controlling the transmitter to scan, at a second resolution higher than the first resolution, a second front region in which the second object moves at a relative velocity within a second relative velocity range higher than the first relative velocity range.
A mounting adapter for being fastened to an electronics box, for instance, a flush-mount or a surface-mount electronics box, for receiving and holding a Keystone module or two Keystone modules, at least including a holding plate with connecting holes for connection to the electronics box, further including a first recess, into which an insert piece for receiving and holding the Keystone module or the Keystone modules is inserted or can be inserted, the holding plate comprising holding means, by means of which the insert piece and thus the Keystone module arranged thereat or the Keystone modules arranged thereat, optionally, can be fastened or is fastened in a straight position extending approximately in parallel to the holding plate of the mounting adapter, or in a position extending transversely to the holding plate of the mounting adapter, characterized by that the holding means for fastening the insert piece in the position extending transversely to the holding plate of the mounting adapter are formed by webs extending from the holding plate and projecting into the electronics box and having locking protrusions, said webs forming an abutment face extending transversely to the holding plate for the insert piece, said locking protrusions corresponding to locking protrusions and bends formed or arranged at the insert piece, the locking protrusions and bends of the insert piece embracing the webs with locking protrusions of the holding plate and being locked thereat, further, for fastening the insert piece in the position extending in parallel to the holding plate of the mounting adapter, the locking protrusions and bends of the insert piece, on the one hand, engaging in third recesses formed at the holding plate and, on the other hand, engaging behind the side edge of the first recess of the holding plate and hooking there.
Device for managing the cooking of foods intended to be arranged in a removable manner on a cooking receptacle, said device for managing cooking comprising a control device in which is stored a piece of data characteristic of the type of cooking receptacle whereon it is arranged and/or several cooking programmes activated by a control member, as well as a segmented liquid crystal display making it possible to emit visual signals intended for the user, characterised in that the control device activates one or several segments (34, 35, 36, 37, 38) of the display making it possible to display a first pictogram representing a first type of cooking receptacle corresponding to the piece of data stored, the control device being designed to display at least one second pictogram representing a second type of cooking receptacle by activating at least one segment activated to display the first pictogram.
A process for purification of a current of hydrogen synthesis gas for obtaining a make-up synthesis gas for the synthesis of ammonia, said current being composed of hydrogen and minor amounts of carbon monoxide, carbon dioxide, water and impurities and containing at least 90% (mol) hydrogen, said process including a step of cryogenic purification, and dehydration of syngas through molecular sieves prior to said cryogenic purification, the process being characterized by a step of methanation of said current, converting carbon monoxide and carbon dioxide to methane and water, prior to said steps of dehydration and cryogenic purification, said step of cryogenic purification comprising a liquid nitrogen wash and said molecular sieves being regenerated by using tail gas discharged from said liquid nitrogen wash.