mhurhangee/patent-ind-claim-en huggingface dataset:
An absorbent assembly comprising: an elastic outer cover comprising a front (F) and back (B) waist region having uppermost and lowermost edges, and a crotch region interposed between the front and back waist region, wherein the uppermost edges of the waist region form a waist opening and the lowermost edges of the waist region together with lateral extremities of the crotch region form two oppositely disposed leg openings ; and a disposable absorbent insert comprising a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core interposed between said topsheet and said backsheet , wherein a skin-facing surface of said outer cover comprises one or more fastening surfaces and wherein a garment-facing surface of the absorbent insert comprises one or more fastening surfaces arranged to releasably engage with the one or more fastening surfaces of said outer cover , and characterized in that said crotch region comprises one or more re-fastenable members such that said crotch region is unitary when said re-fastenable members are fastened and that said crotch region is separated into two crotch halfs when said re-fastenable members are unfastened to form a crotch-release opening , and in that the disposable absorbent insert may be single-handedly removed from said elastic outer cover from said crotch-release opening . an elastic outer cover comprising a front (F) and back (B) waist region having uppermost and lowermost edges, and a crotch region interposed between the front and back waist region, wherein the uppermost edges of the waist region form a waist opening and the lowermost edges of the waist region together with lateral extremities of the crotch region form two oppositely disposed leg openings ; and a disposable absorbent insert comprising a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core interposed between said topsheet and said backsheet , wherein a skin-facing surface of said outer cover comprises one or more fastening surfaces and wherein a garment-facing surface of the absorbent insert comprises one or more fastening surfaces arranged to releasably engage with the one or more fastening surfaces of said outer cover , and characterized in that said crotch region comprises one or more re-fastenable members such that said crotch region is unitary when said re-fastenable members are fastened and that said crotch region is separated into two crotch halfs when said re-fastenable members are unfastened to form a crotch-release opening , and in that the disposable absorbent insert may be single-handedly removed from said elastic outer cover from said crotch-release opening .
Arrangement for a body of an automotive vehicle , the arrangement comprising a support for a suspension system suspending a wheel of the vehicle , a shock absorber of which a body is able to be fixed to said support and an indexing device comprising a first indexing member and a second indexing member which are attached and each of which is mounted securely on the support , characterized in that the first indexing member and the second indexing member are each configured to be equally capable of indexing the front and indexing the rear of the shock absorber , notably the body of the shock absorber , relative to the support so as to ensure the suitable positioning thereof relative to said support .
Method for operating a drive train of a vehicle having a clutch assembly , wherein the clutch assembly is actuatable via an actuating device for the switchable transmission of a torque; wherein a first state of the actuating device , and thus a second state of the clutch assembly , is settable via a position of a drive unit of the actuating device ; wherein the drive unit is an electrical machine that is operable with a multiphase current, wherein the method comprises at least the following steps: a) determining that a first torque request to the clutch assembly is constant at least within an interval of at most 100 ms or has a maximum torque deviation of at most 100 Nm within the interval ; and b) determining that a first position of the drive unit is constant within the interval or has a maximum position deviation that corresponds to the maximum torque deviation ; and c) controlling the drive unit with a dither function , wherein a position of the drive unit is continuously varied about the first position ; and d) ending the dither function when the conditions stated in steps a) and b) are no longer met. a) determining that a first torque request to the clutch assembly is constant at least within an interval of at most 100 ms or has a maximum torque deviation of at most 100 Nm within the interval ; and b) determining that a first position of the drive unit is constant within the interval or has a maximum position deviation that corresponds to the maximum torque deviation ; and c) controlling the drive unit with a dither function , wherein a position of the drive unit is continuously varied about the first position ; and d) ending the dither function when the conditions stated in steps a) and b) are no longer met.
A power semiconductor module , comprising: an insulating substrate with a top metallization layer ; a semiconductor chip bonded to the top metallization layer ; a terminal connected with a foot to the top metallization layer and electrically interconnected to the semiconductor chip ; wherein at least one of the top metallization layer and a bottom metallization layer of the substrate provided opposite to the top metallization layer comprises a plurality of dimples , which are distributed in a connection region below the foot ; characterized in that the foot of the terminal is welded to the top metallization layer in the connection region . an insulating substrate with a top metallization layer ; a semiconductor chip bonded to the top metallization layer ; a terminal connected with a foot to the top metallization layer and electrically interconnected to the semiconductor chip ; wherein at least one of the top metallization layer and a bottom metallization layer of the substrate provided opposite to the top metallization layer comprises a plurality of dimples , which are distributed in a connection region below the foot ; characterized in that the foot of the terminal is welded to the top metallization layer in the connection region .
A system for closing an aperture in a biological tissue, the system comprising: a proximal portion adapted to remain outside a patient body; a distal portion adapted to be inserted into the patient body, the distal portion including at least one frame arm ; at least one clip rotatably connected to the at least one frame arm by a pivot and configured to releasably retain a surgical implant to the frame arm, the clip comprising at least one locking structure , and a lock bar disposed on the at least one frame arm and configured to translate along the at least one frame arm between a locked and an unlocked configuration, wherein at least a portion of the lock bar is selectively engageable with the locking structure of the at least one clip to lock the at least one clip in a closed position by inhibiting movement of the at least one clip when the lock bar is in the locked position, and wherein the lock bar allows the at least one clip to move to an open position when the lock bar is in the unlocked position wherein the at least one locking structure includes a flat bottom surface for locking the at least one clip in the closed position and a flat side surface for locking the at least one clip in an open position, characterised in that a top-most flat surface of the lock bar is selectively engageable with the flat bottom surface of the locking structure for locking the at least one clip in the closed position and the top-most flat surface of the lock bar is selectively engageable with the flat side surface of the locking structure for locking the at least one clip in the open position. a proximal portion adapted to remain outside a patient body; a distal portion adapted to be inserted into the patient body, the distal portion including at least one frame arm ; at least one clip rotatably connected to the at least one frame arm by a pivot and configured to releasably retain a surgical implant to the frame arm, the clip comprising at least one locking structure , and a lock bar disposed on the at least one frame arm and configured to translate along the at least one frame arm between a locked and an unlocked configuration, wherein at least a portion of the lock bar is selectively engageable with the locking structure of the at least one clip to lock the at least one clip in a closed position by inhibiting movement of the at least one clip when the lock bar is in the locked position, and wherein the lock bar allows the at least one clip to move to an open position when the lock bar is in the unlocked position wherein the at least one locking structure includes a flat bottom surface for locking the at least one clip in the closed position and a flat side surface for locking the at least one clip in an open position, characterised in that a top-most flat surface of the lock bar is selectively engageable with the flat bottom surface of the locking structure for locking the at least one clip in the closed position and the top-most flat surface of the lock bar is selectively engageable with the flat side surface of the locking structure for locking the at least one clip in the open position.
A method , comprising: generating visual, auditory and other sensory depictions of a life-sized virtual crew member in an aircraft simulator, wherein the virtual crew member simulates operational actions and behavioral and physiological responses of a crew member of an aircraft; collecting data representing a state of the aircraft being simulated and one or more responses of an operator during operation of the aircraft simulator, wherein the one or more responses comprise biofeedback data associated with the operator; generating , in response to at least one of the data representing the state of the aircraft and the one or more responses, one or more simulated operational actions or simulated behavioral and physiological responses for the virtual crew member; collecting additional data representing a new state of the aircraft being simulated and one or more additional responses of the operator, wherein the one or more additional responses comprise additional biofeedback data of the operator that corresponds to an interaction with the one or more simulated operational actions or simulated behavioral and physiological responses for the virtual crew member; and storing the one or more responses and the one or more additional responses as a log of the operator's operation of the aircraft simulator; wherein the biofeedback data comprises data representing subconscious reactions of the operator, like one or more of scent data, brain wave data, micro-facial expression data, capillary dilation data or skin conductivity. generating visual, auditory and other sensory depictions of a life-sized virtual crew member in an aircraft simulator, wherein the virtual crew member simulates operational actions and behavioral and physiological responses of a crew member of an aircraft; collecting data representing a state of the aircraft being simulated and one or more responses of an operator during operation of the aircraft simulator, wherein the one or more responses comprise biofeedback data associated with the operator; generating , in response to at least one of the data representing the state of the aircraft and the one or more responses, one or more simulated operational actions or simulated behavioral and physiological responses for the virtual crew member; collecting additional data representing a new state of the aircraft being simulated and one or more additional responses of the operator, wherein the one or more additional responses comprise additional biofeedback data of the operator that corresponds to an interaction with the one or more simulated operational actions or simulated behavioral and physiological responses for the virtual crew member; and storing the one or more responses and the one or more additional responses as a log of the operator's operation of the aircraft simulator; wherein the biofeedback data comprises data representing subconscious reactions of the operator, like one or more of scent data, brain wave data, micro-facial expression data, capillary dilation data or skin conductivity.
A cryogenic and superconducting powertrain comprising: - at least a superconducting e-motor , including a motor shaft, - at least a motor control unit configured to control the functioning aspects of the superconducting e-motor , - a propeller lead by the superconducting e-motor , - a gearbox , arranged between the superconducting e-motor and the propeller , and configured to control a rotating speed of the motor shaft, - at least a fuel cell , which comprises a DC power supply, - main current leads to the fuel cell , - at least a DC line , and - at least a DC/DC converter to adapt voltage levels between the DC line and the main current leads , wherein the main current leads and the DC line have different working voltage levels, a Thermal Management System for managing the temperature of the fuel cell , and, - a cooling architecture comprising: - a liquid hydrogen (LH 2 ) tank for LH 2 storage at cryogenic temperature, - LH 2 circulation pipes starting and ending at the LH 2 tank , - a first heat exchanger configured to exchange heat between a first fluid and a second fluid, - a first cryostat of second fluid for cooling the motor control unit and the superconducting e-motor , - a second cryostat of second fluid for cooling the DC/DC converter , and - second fluid circulation pipes (42, 54a-k), starting and ending at each cryostat . - at least a superconducting e-motor , including a motor shaft, - at least a motor control unit configured to control the functioning aspects of the superconducting e-motor , - a propeller lead by the superconducting e-motor , - a gearbox , arranged between the superconducting e-motor and the propeller , and configured to control a rotating speed of the motor shaft, - at least a fuel cell , which comprises a DC power supply, - main current leads to the fuel cell , - at least a DC line , and - at least a DC/DC converter to adapt voltage levels between the DC line and the main current leads , wherein the main current leads and the DC line have different working voltage levels, a Thermal Management System for managing the temperature of the fuel cell , and, - a cooling architecture comprising: - a liquid hydrogen (LH 2 ) tank for LH 2 storage at cryogenic temperature, - LH 2 circulation pipes starting and ending at the LH 2 tank , - a first heat exchanger configured to exchange heat between a first fluid and a second fluid, - a first cryostat of second fluid for cooling the motor control unit and the superconducting e-motor , - a second cryostat of second fluid for cooling the DC/DC converter , and - second fluid circulation pipes (42, 54a-k), starting and ending at each cryostat . - a liquid hydrogen (LH 2 ) tank for LH 2 storage at cryogenic temperature, - LH 2 circulation pipes starting and ending at the LH 2 tank , - a first heat exchanger configured to exchange heat between a first fluid and a second fluid, - a first cryostat of second fluid for cooling the motor control unit and the superconducting e-motor , - a second cryostat of second fluid for cooling the DC/DC converter , and - second fluid circulation pipes (42, 54a-k), starting and ending at each cryostat .
Biosensor device adapted to detect fluorescing bounded analytes, said device comprises a light emitting means adapted to irradiate the fluorescing bounded analytes at an emitted wavelength, and a detector adapted to detect a fluorescence of said bound analytes at the emitted wavelength, wherein said bound analyte is bound to a fluorescently labelled ligand so as to form a fluorescent complex. Characterized in that it comprises : - a planar interference filter arranged at an angle orthogonal to the optical pathway or at an angle with regards to the light pathway larger than 10° and different from 90°, adapted to specifically absorb or attenuate the emitted light, - a first tilted interference filter and a second tilted interference filter , said first and second titled interference filters being oriented so that the plane of the corresponding surfaces is titled with regards to the optical pathway at an angle larger than 10° and different from 90°, said first and second titled interference filters having both an orientation different from the one of said planar interference filter and adapted to absorb the emitted light at the wavelength of said emitted light, and wherein the tilted axis of said first and second tilted interference filters are rotated from each by more than 15 degrees and less than 180 degrees, and allowing to filter out a majority of the wavelengths of the emitted light so as to enrich it with wavelengths corresponding to the bound analytes. - a planar interference filter arranged at an angle orthogonal to the optical pathway or at an angle with regards to the light pathway larger than 10° and different from 90°, adapted to specifically absorb or attenuate the emitted light, - a first tilted interference filter and a second tilted interference filter , said first and second titled interference filters being oriented so that the plane of the corresponding surfaces is titled with regards to the optical pathway at an angle larger than 10° and different from 90°, said first and second titled interference filters having both an orientation different from the one of said planar interference filter and adapted to absorb the emitted light at the wavelength of said emitted light, and wherein the tilted axis of said first and second tilted interference filters are rotated from each by more than 15 degrees and less than 180 degrees, and allowing to filter out a majority of the wavelengths of the emitted light so as to enrich it with wavelengths corresponding to the bound analytes.
A wireless communication node comprising an antenna arrangement that is adapted to radiate at least one radiation beam (3, 4, 5; 6, 7, 8) of a first type and at least one radiation beam of a second type, wherein said at least one radiation beam (3, 4, 5; 6, 7, 8) of the first type has a first type beamwidth (B T1 ) and said at least one radiation beam of the second type has a second type beamwidth (B T2 ) that exceeds the first type beamwidth (B T1 ), where said at least one radiation beam (3, 4, 5; 6, 7, 8) of the first type is arranged for communication with at least a first other node , and where said at least one radiation beam of the second type is arranged for detection of changes in propagation paths for said first other node and/or appearances of further other nodes and wherein the antenna arrangement is adapted to change a radiation beam of the second type when an appearance of said any other node has been detected by said radiation beam , where the change comprises forming at least one radiation beam of the first type that is arranged for communication with said any other node , and to activate a radiation beam of the second type for a region that has been deprived of radiation beams of the first type .
Transport apparatus for transferring a sample between two devices , said transport apparatus comprising: - a transport tube provided with a carrier for holding a sample , wherein said carrier is movable within said transport tube along a length (L) thereof; - an actuator tube extending substantially next to said transport tube , wherein said actuator tube is provided with an actuator element that is movable within said actuator tube ; - wherein said actuator element comprises a first magnet part , and said sample carrier is provided with a second magnet part , wherein said first magnet part and said second magnet part are provided in such a way that movement of the sample carrier through said transport tube is linked to movement of the magnetic actuator element through the actuator tube ; Characterized in that said actuator tube is a pneumatic actuator tube. - a transport tube provided with a carrier for holding a sample , wherein said carrier is movable within said transport tube along a length (L) thereof; - an actuator tube extending substantially next to said transport tube , wherein said actuator tube is provided with an actuator element that is movable within said actuator tube ; - wherein said actuator element comprises a first magnet part , and said sample carrier is provided with a second magnet part , wherein said first magnet part and said second magnet part are provided in such a way that movement of the sample carrier through said transport tube is linked to movement of the magnetic actuator element through the actuator tube ;
A rotary bearing with a damper and with an axis of rotation (A), comprising: an inner bearing element ; an outer bearing element coaxial with the inner bearing element , the inner bearing element configured for rotation around the axis of rotation (A) relative to the outer bearing element ; an inner damper element with an outer surface surrounding the outer bearing element ; an outer damper element with an inner surface surrounding the inner damper element ; at least one sealing element provided between the outer surface of the inner damper element and the inner surface of the outer damper element , said sealing element confining a damper space comprising at least a film space provided by a clearance between said outer surface and said inner surface , the damper space being at least partially filled with fluid, characterized in that , in an operating condition said damper space is a closed, isolated damper space, wherein the damper space is provided with a closable filling port .
A transistor arrangement, comprising: in a semiconductor body , a drift region of a first doping type, a compensation region of a second doping type complementary to the first doping type, a body region of the second doping type, and a source region of the first doping type; a gate electrode , wherein the gate electrode is coupled to a gate node (G), is dielectrically insulated from the semiconductor body and is arranged in a gate trench that extends into the semiconductor body and adjoins the compensation region ; a first field electrode , wherein the first field electrode (55 1 ) is dielectrically insulated from the semiconductor body and is arranged in a first isolation trench that extends into the semiconductor body , wherein the first isolation trench is spaced apart from the gate trench and adjoins the compensation region ; and a bias node (Q) different from the gate node (G) and connected to the first field electrode . in a semiconductor body , a drift region of a first doping type, a compensation region of a second doping type complementary to the first doping type, a body region of the second doping type, and a source region of the first doping type; a gate electrode , wherein the gate electrode is coupled to a gate node (G), is dielectrically insulated from the semiconductor body and is arranged in a gate trench that extends into the semiconductor body and adjoins the compensation region ; a first field electrode , wherein the first field electrode (55 1 ) is dielectrically insulated from the semiconductor body and is arranged in a first isolation trench that extends into the semiconductor body , wherein the first isolation trench is spaced apart from the gate trench and adjoins the compensation region ; and a bias node (Q) different from the gate node (G) and connected to the first field electrode .
A nanoparticle comprising a) a micelle comprising an amphiphilic polymer with a number average molecular weight (Mn) of 6,000 to 1,000 g/mol, and b) at least one peptide comprising at least one T cell epitope. a) a micelle comprising an amphiphilic polymer with a number average molecular weight (Mn) of 6,000 to 1,000 g/mol, and b) at least one peptide comprising at least one T cell epitope.