mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device, the device comprising: a substrate having a first side and having electrical routing traces; at least one of a MEMS die and a semiconductor chip mounted on the first side of the substrate; and a spacer having a first end and a second end opposite the first end, the first end connected to the first side of the substrate and including electrical interconnects coupled to the electrical routing traces, the at least one MEMS die and a semiconductor chip contained within the spacer; a thin-film cover having a plurality of openings, the thin-film cover mounted on the second end of the spacer to form an airtight seal, the openings exposing the electrical interconnects; wherein the spacer and substrate form a cavity which contains the at least one MEMS die and a semiconductor chip, the cavity forming an acoustic volume; and wherein the semiconductor device is mounted to a circuit board via the second end of the spacer. a substrate having a first side and having electrical routing traces; at least one of a MEMS die and a semiconductor chip mounted on the first side of the substrate; and a spacer having a first end and a second end opposite the first end, the first end connected to the first side of the substrate and including electrical interconnects coupled to the electrical routing traces, the at least one MEMS die and a semiconductor chip contained within the spacer; a thin-film cover having a plurality of openings, the thin-film cover mounted on the second end of the spacer to form an airtight seal, the openings exposing the electrical interconnects; wherein the spacer and substrate form a cavity which contains the at least one MEMS die and a semiconductor chip, the cavity forming an acoustic volume; and wherein the semiconductor device is mounted to a circuit board via the second end of the spacer.
Drive shaft for a power tool, for example a core drilling machine, that is connectable to a drilling tool, in particular a core bit, containing a cavity extending substantially along the entire length of the drive shaft and along the axis of rotation, wherein the cavity contains at least one inflow opening, through which water is able to be fed into the drilling tool along the drive shaft, characterized in that an insert device is provided in the cavity, the water for cooling the drive shaft being guided first in a first direction and subsequently in a second direction through said insert device, wherein the insert device contains a first bent guide element and a second bent guide element for separating the water that is guided in the first direction from the water that is guided in the second direction, and wherein the cross-sectional area of the first bent guide element is configured with point symmetry about a longitudinal centre axis with respect to the cross-sectional area of the second bent guide element.
A crimping machine for crimping contact elements with an end portion of a conductor, for instance, a cable end, comprising a storage arrangement for the contact elements, a transport device for feeding the contact elements to a crimping head, and a centering device for the conductor, wherein at least two storages, preferably five storages, are provided to which a common transport unit is assigned for transporting a contact element from a transfer position to a crimping position, wherein the transport device has a shuttle for taking over the contact element being in the transfer position and for transporting it to the crimping head, characterized in that the shuttle has two grippers (56, 80) arranged in parallel, wherein one is gripping the contact element being in the transfer position and the second one is gripping a contact element to be crimped in a subsequent operation.
Air conditioning element made of a woven or non-woven fabric and having its wall provided with at least a first array of through holes for distributing air, wherein the following relations apply to the through holes constituting said first array: the twofold value of the square root of the quotient between the value of the inlet area of a through hole and the value π is less than or equal to the value of the wall thickness of the element in the region adjacent to said through hole, characterized in that the centre line of the through hole intersects the inlet plane of said through hole at an angle α = 60° through 89°, more preferably 80° through 88°, most preferably 83° through 87°.
A coupling device for coupling a rod to a bone anchoring element, the coupling device including a receiving part (5, 5', 5") comprising a first end and a second end, an accommodation space (51b, 51c; 51b', 51c'; 51b", 51c") at or close to the second end for pivotably holding a head of the bone anchoring element therein, and a recess (54, 54', 54") for receiving the rod, a central axis extending through the first end and the second end around which the head is configured to pivot in the accommodation space (51b, 51c; 51b', 51c'; 51b", 51c"), the central axis defining an axial direction and wherein the recess for receiving the rod defines a rod channel axis; a pressure member (6, 6', 6") positionable in the receiving part such that the pressure member extends at least partially into the accommodation space for exerting pressure onto an inserted head; and a locking member (7, 7', 7") movable relative to the receiving part (5, 5', 5") in the axial direction between a first position in which the head is insertable into the accommodation space (51b, 51c; 51b', 51c'; 51b", 51c") and a second position in which the head is at least temporarily locked in the accommodation space (51b, 51c; 51b', 51c'; 51b", 51c") by the locking member (7, 7', 7"); wherein the locking member (7, 7', 7") is configured to exert pressure onto the head from one side in a direction different from the axial direction and wherein the pressure member (6, 6', 6") comprises a recess (69, 68b", 69") and wherein the locking member (7, 7', 7") is configured to act onto an inserted head through the recess (69, 68b", 69") of the pressure member (6, 6', 6"). a receiving part (5, 5', 5") comprising a first end and a second end, an accommodation space (51b, 51c; 51b', 51c'; 51b", 51c") at or close to the second end for pivotably holding a head of the bone anchoring element therein, and a recess (54, 54', 54") for receiving the rod, a central axis extending through the first end and the second end around which the head is configured to pivot in the accommodation space (51b, 51c; 51b', 51c'; 51b", 51c"), the central axis defining an axial direction and wherein the recess for receiving the rod defines a rod channel axis; a pressure member (6, 6', 6") positionable in the receiving part such that the pressure member extends at least partially into the accommodation space for exerting pressure onto an inserted head; and a locking member (7, 7', 7") movable relative to the receiving part (5, 5', 5") in the axial direction between a first position in which the head is insertable into the accommodation space (51b, 51c; 51b', 51c'; 51b", 51c") and a second position in which the head is at least temporarily locked in the accommodation space (51b, 51c; 51b', 51c'; 51b", 51c") by the locking member (7, 7', 7"); wherein the locking member (7, 7', 7") is configured to exert pressure onto the head from one side in a direction different from the axial direction and wherein the pressure member (6, 6', 6") comprises a recess (69, 68b", 69") and wherein the locking member (7, 7', 7") is configured to act onto an inserted head through the recess (69, 68b", 69") of the pressure member (6, 6', 6").
A method performed by a device for performing a network exposure function, NEF, in a fifth-generation, 5G, communication system, the method comprising: receiving, from a vehicle-to-everything, V2X, application server, a request message including request information, the request information comprising service description information, identification information for a user equipment, UE, an application function, AF, transaction identifier, and service parameters for provisioning to the UE to support a V2X service; and storing data in a unified data repository, UDR, on the basis of the request information, wherein the service parameters included in the request information received from the V2X application server comprises: in case the UE is in coverage, information on a public land mobile network, PLMN, in which the UE is authorized to perform the V2X communications and radio access technology, RAT, over which the UE is authorized to perform the V2X communications in the PLMN, and in case the UE is out of coverage, information for indicating whether the UE is authorized to perform V2X communications. receiving, from a vehicle-to-everything, V2X, application server, a request message including request information, the request information comprising service description information, identification information for a user equipment, UE, an application function, AF, transaction identifier, and service parameters for provisioning to the UE to support a V2X service; and storing data in a unified data repository, UDR, on the basis of the request information, wherein the service parameters included in the request information received from the V2X application server comprises: in case the UE is in coverage, information on a public land mobile network, PLMN, in which the UE is authorized to perform the V2X communications and radio access technology, RAT, over which the UE is authorized to perform the V2X communications in the PLMN, and in case the UE is out of coverage, information for indicating whether the UE is authorized to perform V2X communications. in case the UE is in coverage, information on a public land mobile network, PLMN, in which the UE is authorized to perform the V2X communications and radio access technology, RAT, over which the UE is authorized to perform the V2X communications in the PLMN, and in case the UE is out of coverage, information for indicating whether the UE is authorized to perform V2X communications.
Container having a plurality of compartments for receiving objects, having an outer casing and an insert which is removably received in the outer casing, wherein the outer casing has two front walls and two side walls connecting the front walls to one another, wherein the front walls and the side walls are connected to one another in an articulated manner on outer edges, wherein the insert has two end walls and at least one partition wall connecting the end walls to one another, wherein the compartments are in each case bordered in an encircling manner by at least one of the front walls and/or at least one of the side walls and/or at least one of the end walls and/or the at least one partition wall, and wherein each of the end walls rests in a planar manner on one of the front walls, characterized in that each of the end walls by way of one of its edges rests on a first one of the side walls, and by way of a further one of its edges rests on a second one of the side walls.
Guided missile (1, 1') with a sensor unit, a propulsion unit and a payload unit, wherein a) a missile casing forming the outer contour and extending along a longitudinal direction is comprised, with a receiving space designed for receiving the sensor unit, the propulsion unit and the payload unit, b) at least two of the units (5, 7, 8) can be fitted next to one another in the longitudinal direction, c) at least one of the units (5, 7, 8) is designed as an exchangeable module, d) the payload unit is arranged at the overall centre of gravity and e) the payload unit is arranged laterally offset, transversely in relation to the longitudinal direction, with respect to the sensor unit. a) a missile casing forming the outer contour and extending along a longitudinal direction is comprised, with a receiving space designed for receiving the sensor unit, the propulsion unit and the payload unit, b) at least two of the units (5, 7, 8) can be fitted next to one another in the longitudinal direction, c) at least one of the units (5, 7, 8) is designed as an exchangeable module, d) the payload unit is arranged at the overall centre of gravity and e) the payload unit is arranged laterally offset, transversely in relation to the longitudinal direction, with respect to the sensor unit.
A device for treatment of the aortic valve, comprising: a protection sleeve; and a retractable sheath operatively connected to said protection sleeve; and a catheter that passes through a main lumen of said sleeve, wherein said catheter comprises a heart valve treatment device arranged to pass into a lumen of said catheter, wherein said heart valve treatment device comprises an impactor element and a stabilizer element; and characterised by one or more anchoring members located in a portion of said protection sleeve and adapted to anchor said protection sleeve in a deployed position to the aortic wall in the ascending aorta and to establish a position of a distal part of said protection sleeve relative to the aorta, sinuses or the aortic valve, said one or more anchoring members being operative to align said stabilizer element axially so that a central axis of said catheter, which passes through said stabilizer element and said impactor, is adapted to approximately coincide with a central axis of the ascending aorta and is adapted to be approximately perpendicular to a valve plane of the aortic valve. a protection sleeve; and a retractable sheath operatively connected to said protection sleeve; and a catheter that passes through a main lumen of said sleeve, wherein said catheter comprises a heart valve treatment device arranged to pass into a lumen of said catheter, wherein said heart valve treatment device comprises an impactor element and a stabilizer element; and characterised by one or more anchoring members located in a portion of said protection sleeve and adapted to anchor said protection sleeve in a deployed position to the aortic wall in the ascending aorta and to establish a position of a distal part of said protection sleeve relative to the aorta, sinuses or the aortic valve, said one or more anchoring members being operative to align said stabilizer element axially so that a central axis of said catheter, which passes through said stabilizer element and said impactor, is adapted to approximately coincide with a central axis of the ascending aorta and is adapted to be approximately perpendicular to a valve plane of the aortic valve.
A linear compressor, comprising: a cylindrical shell providing the outer section of the linear compressor; a permanent magnet being movable by a stator disposed in the cylindrical shell; a cylinder disposed within the cylindrical shell so as to define a compression space; a piston being movable horizontally along with the cylinder by the permanent magnet; a multilayer plate of the inner surface of the cylindrical shell, the multilayer plate including at least two plates stacked in a direction substantially perpendicular to an axis of the piston so as to accommodate the cylinder, and the piston; and at least one resonator having an expansion space disposed in at least a portion of an inner surface of the cylindrical shell. a cylindrical shell providing the outer section of the linear compressor; a permanent magnet being movable by a stator disposed in the cylindrical shell; a cylinder disposed within the cylindrical shell so as to define a compression space; a piston being movable horizontally along with the cylinder by the permanent magnet; a multilayer plate of the inner surface of the cylindrical shell, the multilayer plate including at least two plates stacked in a direction substantially perpendicular to an axis of the piston so as to accommodate the cylinder, and the piston; and at least one resonator having an expansion space disposed in at least a portion of an inner surface of the cylindrical shell.
A mounting assembly for a main rotor system of a rotary wing aircraft for connecting a first surface to a second surface, the mounting assembly holding a first servo which is configured to move an adjacent first component comprising a first stationary swashplate and a second servo which is configured to move an adjacent second component comprising a second stationary swashplate, the mounting assembly further comprising: a leg having a first end attachable to the first surface and a second end attachable to the second surface, the leg being generally bent such that the first end of each leg is arranged at an angle to the second end of each leg so as to transmit forces between the first and second surface; and a bracket connected to the leg and including a first notch receiving the first servo, wherein the first servo is positioned within the first notch, a free end of the first servo is operably coupled to the first stationary swashplate and the leg reacts forces generated by the first servo into the first and second surfaces, wherein the bracket further comprises a second notch receiving the second servo which is positioned within the second notch, a free end of the second servo is operably coupled to the second stationary swashplate. a leg having a first end attachable to the first surface and a second end attachable to the second surface, the leg being generally bent such that the first end of each leg is arranged at an angle to the second end of each leg so as to transmit forces between the first and second surface; and a bracket connected to the leg and including a first notch receiving the first servo, wherein the first servo is positioned within the first notch, a free end of the first servo is operably coupled to the first stationary swashplate and the leg reacts forces generated by the first servo into the first and second surfaces, wherein the bracket further comprises a second notch receiving the second servo which is positioned within the second notch, a free end of the second servo is operably coupled to the second stationary swashplate.
A wing foil bearing comprising: a mounting surface layer; a plurality of tab foil layers (2010, 2012), each tab foil layer comprising a thin material with a two-dimensional array of a plurality of tab (2004, 2002) shapes, each tab shape defined by a boundary of material separated from the thin material and having an integral edge integral with the thin material and a free edge substantially opposite the integral edge, the boundary of material further defining a window region, each tab shape bent from the thin material in close proximity to the integral edge to form a first two- dimensional array of cantilever tabs (2004, 2002) a free-state bend; a first tab foil layer in the plurality of tab foil layers (2010, 2012) cooperatively engaged with the mounting surface layer and wherein each cantilever tab in a plurality of cantilever tabs of the first foil layer is disposed within a window region in a plurality of window regions of a second tab foil layer in the plurality of tab foil layers; and a counter-surface layer cooperatively engaged with at least a portion of the two- dimensional array of cantilever tabs of at least one tab foil layer in the plurality of tab foil layers. a mounting surface layer; a plurality of tab foil layers (2010, 2012), each tab foil layer comprising a thin material with a two-dimensional array of a plurality of tab (2004, 2002) shapes, each tab shape defined by a boundary of material separated from the thin material and having an integral edge integral with the thin material and a free edge substantially opposite the integral edge, the boundary of material further defining a window region, each tab shape bent from the thin material in close proximity to the integral edge to form a first two- dimensional array of cantilever tabs (2004, 2002) a free-state bend; a first tab foil layer in the plurality of tab foil layers (2010, 2012) cooperatively engaged with the mounting surface layer and wherein each cantilever tab in a plurality of cantilever tabs of the first foil layer is disposed within a window region in a plurality of window regions of a second tab foil layer in the plurality of tab foil layers; and a counter-surface layer cooperatively engaged with at least a portion of the two- dimensional array of cantilever tabs of at least one tab foil layer in the plurality of tab foil layers.
Gas distribution device comprising: - a looped gas circuit comprising a first circuit portion which is in fluid communication with a second circuit portion, said second circuit portion being connected to a third circuit portion, and said third circuit portion being in fluid communication with the first circuit portion, - the first circuit portion comprising an inhalation valve, the second circuit portion comprising an exhalation valve, and the third circuit portion comprising a dilution valve, - an orifice for supplying fresh gas, which is arranged on the gas circuit between the inhalation valve and the dilution valve, - an orifice for distributing gas to the patient, which is arranged on the gas circuit between the inhalation valve and the exhalation valve, and - an orifice for evacuating gas, which is arranged on the gas circuit between the exhalation valve and the dilution valve, characterised in that an exhalation gas buffer tank is in fluid communication with said gas circuit between the inhalation valve and exhalation valve. - a looped gas circuit comprising a first circuit portion which is in fluid communication with a second circuit portion, said second circuit portion being connected to a third circuit portion, and said third circuit portion being in fluid communication with the first circuit portion, - the first circuit portion comprising an inhalation valve, the second circuit portion comprising an exhalation valve, and the third circuit portion comprising a dilution valve, - an orifice for supplying fresh gas, which is arranged on the gas circuit between the inhalation valve and the dilution valve, - an orifice for distributing gas to the patient, which is arranged on the gas circuit between the inhalation valve and the exhalation valve, and - an orifice for evacuating gas, which is arranged on the gas circuit between the exhalation valve and the dilution valve,
An LED module for use in an LED display system, the LED module comprising: a set of imaging pixels disposed on an imaging side of the LED module, and configured to generate imaging illumination; a set of illuminating pixels disposed on a rearward side of the LED module and adjacent to an edge of the rearward side, the rearward side opposite to the imaging side, and configured to generate illumination around the edge; and a reflector extending from the rearward side to direct the illumination around the edge through a seam between the LED module and an adjacent LED module. a set of imaging pixels disposed on an imaging side of the LED module, and configured to generate imaging illumination; a set of illuminating pixels disposed on a rearward side of the LED module and adjacent to an edge of the rearward side, the rearward side opposite to the imaging side, and configured to generate illumination around the edge; and a reflector extending from the rearward side to direct the illumination around the edge through a seam between the LED module and an adjacent LED module.