mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device for destroying an object in a body lumen, the medical device comprising: an elongated shaft portion that is rotationally driven; an expandable portion that is provided to a distal portion of the shaft portion ; a fixing portion to which a distal end of the expandable portion and the shaft portion are fixed; a slide portion that is fixed to a proximal end of the expandable portion , and is slidably interlocked with the shaft portion in an axial direction; and an outer tube that houses therein the shaft portion , and is movable in the axial direction along the shaft portion , wherein the slide portion is movable by being directly or indirectly pressed by the outer tube , and the slide portion is relatively rotatable relative to the outer tube , characterized in that the medical device further comprises an interlock portion that is fixed to the slide portion , and is movable in the axial direction along the shaft portion , wherein the outer tube includes a press-side engagement portion that protrudes in a radial direction, the interlock portion includes a movement-side engagement portion that protrudes in the radial direction on at least one of a distal side and a proximal side of the press-side engagement portion , and the interlock portion is moved because the press-side engagement portion is attached with the movement-side engagement portion by the outer tube , and causes the slide portion to move. an elongated shaft portion that is rotationally driven; an expandable portion that is provided to a distal portion of the shaft portion ; a fixing portion to which a distal end of the expandable portion and the shaft portion are fixed; a slide portion that is fixed to a proximal end of the expandable portion , and is slidably interlocked with the shaft portion in an axial direction; and an outer tube that houses therein the shaft portion , and is movable in the axial direction along the shaft portion , wherein the slide portion is movable by being directly or indirectly pressed by the outer tube , and the slide portion is relatively rotatable relative to the outer tube , characterized in that the medical device further comprises an interlock portion that is fixed to the slide portion , and is movable in the axial direction along the shaft portion , wherein the outer tube includes a press-side engagement portion that protrudes in a radial direction, the interlock portion includes a movement-side engagement portion that protrudes in the radial direction on at least one of a distal side and a proximal side of the press-side engagement portion , and the interlock portion is moved because the press-side engagement portion is attached with the movement-side engagement portion by the outer tube , and causes the slide portion to move.
A flow cell comprising: a flow channel through which a sample fluid and a sheath fluid flow; a sample flow channel that introduces the sample fluid into the flow channel; and at least one sheath flow channel that introduces the sheath fluid into the flow channel; the flow channel comprising: a flow merging section where the sample flow channel and the sheath flow channel merge, a flattened section that is disposed downstream of the flow merging section, that is formed in line with the first wall of two walls facing across the flow merging section, and that is shallower in depth than the flow merging section, and a tapered section that connects the flow merging section with the flattened section and that gradually decreases in depth on progression downstream, wherein the sample flow channel has a first wall formed in-line with the first wall of the walls that face across the flow merging section and is configured to introduce the sample fluid into the flow merging section along the first wall of the walls facing across the flow merging section, and wherein the sheath flow channel is configured to introduce the sheath fluid into the flow merging section from a direction such that the sheath fluid flows so as to press the sample fluid against and in contact with the first wall . a flow channel through which a sample fluid and a sheath fluid flow; a sample flow channel that introduces the sample fluid into the flow channel; and at least one sheath flow channel that introduces the sheath fluid into the flow channel; the flow channel comprising: a flow merging section where the sample flow channel and the sheath flow channel merge, a flattened section that is disposed downstream of the flow merging section, that is formed in line with the first wall of two walls facing across the flow merging section, and that is shallower in depth than the flow merging section, and a tapered section that connects the flow merging section with the flattened section and that gradually decreases in depth on progression downstream, a flow merging section where the sample flow channel and the sheath flow channel merge, a flattened section that is disposed downstream of the flow merging section, that is formed in line with the first wall of two walls facing across the flow merging section, and that is shallower in depth than the flow merging section, and a tapered section that connects the flow merging section with the flattened section and that gradually decreases in depth on progression downstream, wherein the sample flow channel has a first wall formed in-line with the first wall of the walls that face across the flow merging section and is configured to introduce the sample fluid into the flow merging section along the first wall of the walls facing across the flow merging section, and wherein the sheath flow channel is configured to introduce the sheath fluid into the flow merging section from a direction such that the sheath fluid flows so as to press the sample fluid against and in contact with the first wall .
Apparatus comprising a ramp , the ramp being configured to enable variation of a cross section of a ram air passage of the apparatus , wherein the ramp comprises a first rigid member , a second rigid member and a flexible member coupled to the first rigid member and the second rigid member , wherein the ramp is movably mounted at two ends , wherein the apparatus comprises an actuator external to the ramp and configured to act upon the ramp , characterized in that the actuator is mechanically coupled to the flexible member so that an area of the flexible member on which the actuator acts when being actuated determines where the flexible members is bent when the actuator is actuated.
A method of fabricating a composite structure, said method comprising: providing a composite preform having an upper surface and an opposing lower surface , said upper and lower surfaces each defining a preform major surface; locating a heat sink in proximity to one of said preform major surfaces so as to extend across only a portion of said composite preform ; curing a resin in said composite preform to form the composite structure, said resin curing exothermically; and during curing of said resin, conducting heat away from said portion of said composite preform into said heat sink , wherein the method further comprises: locating said lower surface of said composite preform on an upper tool surface of a tool ; placing a first vacuum bagging film over said composite preform and sealing said first vacuum bagging film relative to said upper tool surface to define a sealed first cavity between said first vacuum bagging film and said upper tool surface , said composite preform being located in said first cavity ; and applying at least partial vacuum pressure to said first cavity during curing of said resin; and wherein said heat sink is located above said first vacuum bagging film in proximity to said upper surface of said composite preform . providing a composite preform having an upper surface and an opposing lower surface , said upper and lower surfaces each defining a preform major surface; locating a heat sink in proximity to one of said preform major surfaces so as to extend across only a portion of said composite preform ; curing a resin in said composite preform to form the composite structure, said resin curing exothermically; and during curing of said resin, conducting heat away from said portion of said composite preform into said heat sink , locating said lower surface of said composite preform on an upper tool surface of a tool ; placing a first vacuum bagging film over said composite preform and sealing said first vacuum bagging film relative to said upper tool surface to define a sealed first cavity between said first vacuum bagging film and said upper tool surface , said composite preform being located in said first cavity ; and applying at least partial vacuum pressure to said first cavity during curing of said resin;
A construct comprising a compound targeting areas in the brain involved in the regulation of body weight and an allosteric ligand to a receptor located in the blood-brain barrier (BBB); or a pharmaceutically acceptable salt, amide or ester thereof; wherein the compound is a GLP-1 receptor agonist (GLP-1RA); wherein the receptor located in the blood-brain barrier is the transferrin receptor (TfR).
Combine harvester having a draper belt header which is provided with a central belt conveyor and two outer belt conveyors and is attached to a feeder house of the combine harvester which is height-controllable and can be raised by means of an actuator , wherein an arrangement for controlling the operation of the draper belt header is provided which comprises a control unit which is configured to actuate a drive of the central belt conveyor , and wherein the outer belt conveyors are each provided with a drive which is configured to cause the outer belt conveyors to move in the direction towards the central belt conveyor in harvesting mode, and wherein the drive of the central belt conveyor is configured to cause the central belt conveyor to move rearwards in the direction towards the feeder house in harvesting mode, characterized in that the control unit is configured, after a first time delay (t1), which allows the harvested crop located on the outer belt conveyors to be discharged into the feeder house , in the event of the feeder house being raised, to automatically stop the drive of the central belt conveyor or move it into a reversing mode.
An electric motor drive system , comprising: a fan configured to cool power electronic components of the electric motor drive system ; a temperature sensor disposed proximate an air inlet of the fan and configured to sense an ambient temperature of air entering the air inlet; and a motor drive comprising: a processor communicatively coupled to the temperature sensor and configured to determine at least one of a drive prognostic and a drive diagnostic based on inputs comprising the sensed ambient temperature and signal inputs corresponding to drive counters present in the motor drive, the drive counters comprising additional parameters that are determined or counted at a regular interval to provide feedback for controlling the motor drive including at least one of a fan run time, a fan speed, and a module temperature representing a temperature of one or more components internal to the motor drive. a fan configured to cool power electronic components of the electric motor drive system ; a temperature sensor disposed proximate an air inlet of the fan and configured to sense an ambient temperature of air entering the air inlet; and a motor drive comprising: a processor communicatively coupled to the temperature sensor and configured to determine at least one of a drive prognostic and a drive diagnostic based on inputs comprising the sensed ambient temperature and signal inputs corresponding to drive counters present in the motor drive, the drive counters comprising additional parameters that are determined or counted at a regular interval to provide feedback for controlling the motor drive including at least one of a fan run time, a fan speed, and a module temperature representing a temperature of one or more components internal to the motor drive.
An instrument for containing a graft configured for delivery to a surgical site comprising: a hopper with a longitudinal axis, the hopper being configured to receive graft material through a first opening in the hopper ; a cover movably coupled to the hopper such that there is an unobstructed pathway to an interior of the instrument when the cover is in a first position, and the first opening is substantially blocked to substantially block the pathway to the interior of the instrument when the cover is in a second position; and a transfer port coupled to the hopper at a second opening in the hopper , wherein the second opening provides a passageway for graft material from the hopper , wherein the first opening in the hopper extends along a longitudinal side of the hopper through which the hopper may be side-loaded; and characterized in that the cover includes a bin that is positioned over the first opening in the hopper when the cover is in the first position. a hopper with a longitudinal axis, the hopper being configured to receive graft material through a first opening in the hopper ; a cover movably coupled to the hopper such that there is an unobstructed pathway to an interior of the instrument when the cover is in a first position, and the first opening is substantially blocked to substantially block the pathway to the interior of the instrument when the cover is in a second position; and a transfer port coupled to the hopper at a second opening in the hopper , wherein the second opening provides a passageway for graft material from the hopper , wherein the first opening in the hopper extends along a longitudinal side of the hopper through which the hopper may be side-loaded; and characterized in that the cover includes a bin that is positioned over the first opening in the hopper when the cover is in the first position.
A test system for testing a vehicle (VH), the test system comprising: a plurality of measurement devices each being configured to be used for the testing; and a device administrating device that is connected in a communicable manner to the measurement devices and that is configured to administrate the measurement devices , wherein each of the measurement devices comprises a QC storing part that stores in mutual association with each other a regulation ID and a quality check time or a quality check item referring to a quality check of the measurement device according to a testing regulation that sets a schedule for the testing and is identified with the regulation ID; and for each tested vehicle, the test system is configured to receive a user input for selecting a testing regulation from different testing regulations, and to perform the testing according to the selected testing regulation. a plurality of measurement devices each being configured to be used for the testing; and a device administrating device that is connected in a communicable manner to the measurement devices and that is configured to administrate the measurement devices , wherein each of the measurement devices comprises a QC storing part that stores in mutual association with each other a regulation ID and a quality check time or a quality check item referring to a quality check of the measurement device according to a testing regulation that sets a schedule for the testing and is identified with the regulation ID; and for each tested vehicle, the test system is configured to receive a user input for selecting a testing regulation from different testing regulations, and to perform the testing according to the selected testing regulation.
A computer-implemented method for performing time-series reconstruction, the method comprising: Obtaining , by a computing device, a discretized representation of a time-series to be reconstructed, the time-series representing a signal of a hardware sensor, the discretized representation comprising a first ordered set of segments; Calculating , by the computing device, set-based representations of an overlap between the first ordered set of segments and of second ordered sets of segments of discretized representations of a plurality of further time-series, wherein each set-based representation represents an overlap between subsets of the first ordered set of segments and subsets of a second ordered set of segments, wherein the set-based representations are calculated by performing a plurality of pair-wise comparisons of subsets of the first ordered set of segments and subsets of the second ordered sets of segments; Selecting , by a quantum processing unit coupled with the computing device, one or more subsets of the second ordered sets of segments using a quantum-processing unit, the selection being based on the set-based representations of the overlap, wherein the one or more subsets of the second ordered sets of segments are selected such, that, in combination, the one or more subsets of the sets of segments approximate the first ordered set of segments; and Reconstructing , by the computing device, the time-series using the selected one or more subsets of the second ordered sets of segments. Obtaining , by a computing device, a discretized representation of a time-series to be reconstructed, the time-series representing a signal of a hardware sensor, the discretized representation comprising a first ordered set of segments; Calculating , by the computing device, set-based representations of an overlap between the first ordered set of segments and of second ordered sets of segments of discretized representations of a plurality of further time-series, wherein each set-based representation represents an overlap between subsets of the first ordered set of segments and subsets of a second ordered set of segments, wherein the set-based representations are calculated by performing a plurality of pair-wise comparisons of subsets of the first ordered set of segments and subsets of the second ordered sets of segments; Selecting , by a quantum processing unit coupled with the computing device, one or more subsets of the second ordered sets of segments using a quantum-processing unit, the selection being based on the set-based representations of the overlap, wherein the one or more subsets of the second ordered sets of segments are selected such, that, in combination, the one or more subsets of the sets of segments approximate the first ordered set of segments; and Reconstructing , by the computing device, the time-series using the selected one or more subsets of the second ordered sets of segments.
A method for bending a first substrate with and a second substrate at mutually facing contact faces of the substrates with the following steps, in particular the following sequence: - mounting the first substrate on a first mounting surface (1s, 1s′, 1sʺ 1s′′′) of a first mounting device (1, 1′, 1ʺ, 1′′′, 1 lV , 1 V , 1 Vl ) and mounting the first second substrate on a second mounting surface (1s 1s′, 1sʺ, 1s′′′) of a second mounting device (1, 1′, 1ʺ, 1′′′, 1 IV , 1 V , 1 VI ), - curving of the contact faces before contact is made between the contact faces , characterised in that a change in curvature of the contact face of the first substrate and/or a change in curvature of the contact face of the second substrate is controlled during the course of a bonding wave. - mounting the first substrate on a first mounting surface (1s, 1s′, 1sʺ 1s′′′) of a first mounting device (1, 1′, 1ʺ, 1′′′, 1 lV , 1 V , 1 Vl ) and mounting the first second substrate on a second mounting surface (1s 1s′, 1sʺ, 1s′′′) of a second mounting device (1, 1′, 1ʺ, 1′′′, 1 IV , 1 V , 1 VI ), - curving of the contact faces before contact is made between the contact faces ,
Use of a polyethylene-based film as a protective film for the production of silage, said film comprising polyethylene at a content of 60-90 % by weight of the film, wherein the polyethylene is selected from linear low density polyethylene (LLDPE) and low density polyethylene (LDPE) and combinations thereof, wherein the LLDPE and LDPE have a density of 0.930 g/cm 3 or less, and a dicyclopentadiene hydrocarbon resin at a content of 3-20 % by weight of the film.
An endoscope shape display control device comprising: at least one processor , wherein the processor acquires information for imaging a shape of an insertion part of an endoscope inserted in a subject, generates a shape display image in which the shape of the insertion part is displayed based on the acquired information, and controls, in a case in which the shape display image to be displayed is reduced, a reduction rate that is a reduced size with respect to a preset reference size, and executes, in a case in which an entire shape display image is reduced by a first reduction rate, a first control of setting the reduction rate to a second reduction rate larger than the first reduction rate for a diameter of the insertion part in the shape display image; and in a case in which the first reduction rate is equal to or larger than a preset threshold value, a second control of setting the first reduction rate and the second reduction rate to the same value, and executes, in a case in which the first reduction rate is smaller than the threshold value, the first control. at least one processor , wherein the processor acquires information for imaging a shape of an insertion part of an endoscope inserted in a subject, generates a shape display image in which the shape of the insertion part is displayed based on the acquired information, and controls, in a case in which the shape display image to be displayed is reduced, a reduction rate that is a reduced size with respect to a preset reference size, and executes, in a case in which an entire shape display image is reduced by a first reduction rate, a first control of setting the reduction rate to a second reduction rate larger than the first reduction rate for a diameter of the insertion part in the shape display image; and in a case in which the first reduction rate is equal to or larger than a preset threshold value, a second control of setting the first reduction rate and the second reduction rate to the same value, and executes, in a case in which the first reduction rate is smaller than the threshold value, the first control.