mhurhangee/patent-ind-claim-en huggingface dataset:
A device for at least one of delivering or positioning a biologically compatible, implantable prosthesis relative to a muscle wall defect, said device comprising: a support body with a flexibility sufficient to adopt a collapsed configuration for releasable engagement of said device to the prosthesis (P), and with a flexibility sufficient to adopt a stable, self-supporting enlarged configuration to support the prosthesis in an expanded shape when said device is releasably engaged with the prosthesis, said support body having an outer periphery , a first side and an opposite second side, characterised in that the device is further provided with an opening passing through said support body between said first side and said second side, said device further comprising a handle having a free, first portion extending through said opening and away from said first side of said support body and a second portion of said handle attached to said second side of said support body, said support body including a zone of weakness to facilitate adoption by said support body of said collapsed configuration, and a spine attached to said first side of said support body opposite said second portion.
A liquid fabric treatment composition comprising by weight of the composition of: a) 0.1 to 200 ppm of benefit agent capsules wherein the benefit agent capsules comprise a shell material encapsulating a core material, wherein said shell material is derived from polyvinylalcohol and a shell component wherein said shell component is selected from the list consisting of polyacrylate, polyurea, and mixtures thereof; said core material comprises a benefit agent; b) 0.1 to 50 ppm of a brightener selected from the list consisting of diaminostilbene brighteners, biphenyl brighteners, and mixtures thereof; and c) 10 to 2000 ppm of a quaternary ammonium ester softening active. a) 0.1 to 200 ppm of benefit agent capsules wherein the benefit agent capsules comprise a shell material encapsulating a core material, wherein said shell material is derived from polyvinylalcohol and a shell component wherein said shell component is selected from the list consisting of polyacrylate, polyurea, and mixtures thereof; said core material comprises a benefit agent; b) 0.1 to 50 ppm of a brightener selected from the list consisting of diaminostilbene brighteners, biphenyl brighteners, and mixtures thereof; and c) 10 to 2000 ppm of a quaternary ammonium ester softening active.
An electronic device comprising: a housing including a first housing and a second housing , wherein the first housing is coupled to the second housing to be movable relative to the second housing in a direction (1, +X); a flexible display including a first region (A1) and a second region (A2) extending from the first region (A1); a plate configured to support at least a portion of the second region (A2) of the flexible display and to be movable with a sliding movement of the at least a portion of the second region (A2) in the direction (1, +X) so as to substantially enable expansion of the first region (A1); a link assembly configured to enable the sliding movement of the plate through a rotational motion and including a first arm and a second arm , wherein the second arm is rotatably coupled to the first arm and is rotatably coupled to a portion of the first housing , wherein the link assembly includes a plurality of rotating axes ; and a rotation detection sensor provided on a position corresponding to one of the plurality of rotating axes and configured to detect a degree of rotation while the link assembly rotates about the plurality of rotating axes . a housing including a first housing and a second housing , wherein the first housing is coupled to the second housing to be movable relative to the second housing in a direction (1, +X); a flexible display including a first region (A1) and a second region (A2) extending from the first region (A1); a plate configured to support at least a portion of the second region (A2) of the flexible display and to be movable with a sliding movement of the at least a portion of the second region (A2) in the direction (1, +X) so as to substantially enable expansion of the first region (A1); a link assembly configured to enable the sliding movement of the plate through a rotational motion and including a first arm and a second arm , wherein the second arm is rotatably coupled to the first arm and is rotatably coupled to a portion of the first housing , wherein the link assembly includes a plurality of rotating axes ; and a rotation detection sensor provided on a position corresponding to one of the plurality of rotating axes and configured to detect a degree of rotation while the link assembly rotates about the plurality of rotating axes .
A drive device in the form of a rotary drive for a leaf of a door or a window, comprising a housing , an output shaft for actuating a lever mechanism arranged between a frame and the leaf, and a mechanical energy store by means of which said output shaft can be driven, characterized in that said housing has an opening for inserting a blocking element of said drive device , that said output shaft , with said blocking element inserted, is blocked in a biased position, wherein the inserted blocking element is engaged with a drive element of said drive device coupled to said output shaft and a passage for said blocking element is formed in said drive element , wherein said passage is aligned with said opening in the biased position of said output shaft .
An aircraft cabin floor structure comprising: a rigid carpet impermeable to air, the carpet having a carpet top face and a carpet bottom face ; an adhesive layer having an adhesive top face and an adhesive bottom face , the adhesive top face adhering to the carpet bottom face; and a floor panel impermeable to air, the floor panel having a panel top face and a panel bottom face , the adhesive bottom face adhering to the panel top face, characterised in that the carpet bottom face includes grooves and comprises on its periphery at least one air evacuation channel ; and the adhesive layer comprises a plurality of through holes . a rigid carpet impermeable to air, the carpet having a carpet top face and a carpet bottom face ; an adhesive layer having an adhesive top face and an adhesive bottom face , the adhesive top face adhering to the carpet bottom face; and a floor panel impermeable to air, the floor panel having a panel top face and a panel bottom face , the adhesive bottom face adhering to the panel top face, characterised in that the carpet bottom face includes grooves and comprises on its periphery at least one air evacuation channel ; and the adhesive layer comprises a plurality of through holes .
User equipment, UE, (150; 400) comprising: a processor ; and a transceiver ; wherein the processor is arranged to: receive a request to send a small data payload to the UE (150; 400) from the transceiver; instruct the transceiver to send a Radio Resource Control, RRC, Connection Request message to an evolved Node B, eNB; receive an RRC Connection Setup message from the eNB from the transceiver, wherein the RRC Connection Setup message comprises the small data payload; instruct the transceiver to send an RRC Connection Setup Complete message to the eNB, characterized in that, if the UE does not have any uplink data to convey to the eNB, the RRC Connection Setup Complete message comprises an RRC release indicator to indicate the UE's intention to release a connection with the eNB; and receive an RRC Connection Release message from the eNB from the transceiver, as an affirmative response to the RRC release indicator. a processor ; and a transceiver ; wherein the processor is arranged to: receive a request to send a small data payload to the UE (150; 400) from the transceiver; instruct the transceiver to send a Radio Resource Control, RRC, Connection Request message to an evolved Node B, eNB; receive an RRC Connection Setup message from the eNB from the transceiver, wherein the RRC Connection Setup message comprises the small data payload; instruct the transceiver to send an RRC Connection Setup Complete message to the eNB, receive a request to send a small data payload to the UE (150; 400) from the transceiver; instruct the transceiver to send a Radio Resource Control, RRC, Connection Request message to an evolved Node B, eNB; receive an RRC Connection Setup message from the eNB from the transceiver, wherein the RRC Connection Setup message comprises the small data payload; instruct the transceiver to send an RRC Connection Setup Complete message to the eNB, characterized in that, if the UE does not have any uplink data to convey to the eNB, the RRC Connection Setup Complete message comprises an RRC release indicator to indicate the UE's intention to release a connection with the eNB; and receive an RRC Connection Release message from the eNB from the transceiver, as an affirmative response to the RRC release indicator.
The in vitro use of Bovine Meat and Milk Factor Group 1(BMMF1) Rep Protein as a biomarker for colorectal cancer.
A method of evaluating an earth formation comprising: (a) activating a seismic source at at least one source position and generating seismic waves into said earth formation , (b) receiving three components of seismic data at a plurality of receiving positions the at least one source position and the plurality of receiver positions defining a plurality of source-receiver pairs; characterized in that it further comprises (c) processing the three components of the seismic data to define a contribution from each of the plurality of source-receiver pairs to an amplitude of an image at a plurality of image points using traveltimes from the at least one source position to the plurality of image points in the earth formation and traveltimes from the plurality of image points to the plurality of receiving positions, said processing using a 3 component, 3-D Kirchhoff prestack migration with a 3-D reflection wavefield vector; and (d) combining, at each of the plurality of image points, the contributions to the amplitude from each of the plurality of source-receiver pairs, to form a migrated image of the earth formation. (a) activating a seismic source at at least one source position and generating seismic waves into said earth formation , (b) receiving three components of seismic data at a plurality of receiving positions the at least one source position and the plurality of receiver positions defining a plurality of source-receiver pairs; characterized in that it further comprises (c) processing the three components of the seismic data to define a contribution from each of the plurality of source-receiver pairs to an amplitude of an image at a plurality of image points using traveltimes from the at least one source position to the plurality of image points in the earth formation and traveltimes from the plurality of image points to the plurality of receiving positions, said processing using a 3 component, 3-D Kirchhoff prestack migration with a 3-D reflection wavefield vector; and (d) combining, at each of the plurality of image points, the contributions to the amplitude from each of the plurality of source-receiver pairs, to form a migrated image of the earth formation.
An optical amplifier , comprising: a gain medium for amplifying a plurality of optical channels, the gain medium including a plurality of cores through which the plurality of optical channels to propagate respectively and a cladding area surrounding the plurality of cores; monitoring means for monitoring the plurality of optical channels inputted into the gain medium and producing a monitoring result; a first light source configured to emit a first light beam to excite the cladding area; a second light source configured to emit a plurality of second light beams to excite each of the plurality of cores individually; and controlling means configured to make a decision as to whether each of the plurality of cores is to transmit one of the plurality of optical channels based on the monitoring result, and to control the first light source and the second light source based on the decision, such that the power consumption of the optical amplifier is reduced. a gain medium for amplifying a plurality of optical channels, the gain medium including a plurality of cores through which the plurality of optical channels to propagate respectively and a cladding area surrounding the plurality of cores; monitoring means for monitoring the plurality of optical channels inputted into the gain medium and producing a monitoring result; a first light source configured to emit a first light beam to excite the cladding area; a second light source configured to emit a plurality of second light beams to excite each of the plurality of cores individually; and controlling means configured to make a decision as to whether each of the plurality of cores is to transmit one of the plurality of optical channels based on the monitoring result, and to control the first light source and the second light source based on the decision, such that the power consumption of the optical amplifier is reduced.
Flow-through measurement cell for receiving measurement means for measuring chemical and/or physical properties of a fluid flowing through the measurement cell : - an inlet opening for the inlet of the fluid, - an outlet opening for the outlet of the fluid, - a, in particular sole, measurement chamber arranged between the inlet opening and the outlet opening , - a radiation measurement area for measuring the interaction of the fluid in the measurement cell with an electromagnetic radiation from outside the measurement cell and - a conductivity measurement receptacle for receiving conductivity measurement means for measuring the conductivity of the fluid in the measurement cell and/or a pH measurement receptacle for receiving pH-value measurement means for measuring the pH value of the fluid in the measurement cell , characterized in that the inlet opening and the outlet opening are offset in relation to each other in a parallel direction. - an inlet opening for the inlet of the fluid, - an outlet opening for the outlet of the fluid, - a, in particular sole, measurement chamber arranged between the inlet opening and the outlet opening , - a radiation measurement area for measuring the interaction of the fluid in the measurement cell with an electromagnetic radiation from outside the measurement cell and - a conductivity measurement receptacle for receiving conductivity measurement means for measuring the conductivity of the fluid in the measurement cell and/or a pH measurement receptacle for receiving pH-value measurement means for measuring the pH value of the fluid in the measurement cell ,
A vehicle drive device comprising: an engine ; a fluid power transmission device ; a clutch disposed between an input side member and an output side member in the fluid power transmission device ; and a torsional vibration reduction device disposed in a power transmission path between the engine and the fluid power transmission device in series with the fluid power transmission device , wherein when the clutch is put into slip engagement, the vehicle drive device has a minimum value set equal to or greater than zero for a differential rotation speed (Nslp) acquired by subtracting a rotation speed (Nout) of the output side member from a rotation speed (Nin) of the input side member , characterized in that the vehicle drive device has a minimum value set less than zero for a differential rotation speed acquired by subtracting the rotation speed (Nout) of the output side member from a rotation speed (N0) of an input side inertial body in the torsional vibration reduction device .
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, signaling for configuring a second cell including information related to a slot offset between a first cell and a second cell with unaligned frame boundaries for carrier aggregation; determining a time offset between the first cell and the second cell, based on the information related to the slot offset; and communicating, with the base station , in the first cell and the second cell related to the unaligned frame boundary, wherein a reference time duration related to the time offset is based on a reference subcarrier spacing, SCS, for the time offset, wherein, a start of a slot 0 for the first cell coincides with a start of a slot N for the second cell and the N is an integer based on the slot offset and the reference SCS, wherein the reference SCS is a maximum of a lowest SCS among at least one SCS configured for the first cell and a lowest SCS among at least one SCS configured for the second cell, wherein, based on the communicating in the first cell and the second cell, physical downlink shared channel, PDSCH, is received from the base station by the UE , and wherein, based on discontinuous reception, DRX, being configured, a physical downlink control channel, PDCCH, for the PDSCH is monitored by the UE within an on duration associated with the DRX. receiving, from a base station, a radio resource control, RRC, signaling for configuring a second cell including information related to a slot offset between a first cell and a second cell with unaligned frame boundaries for carrier aggregation; determining a time offset between the first cell and the second cell, based on the information related to the slot offset; and communicating, with the base station , in the first cell and the second cell related to the unaligned frame boundary, wherein a reference time duration related to the time offset is based on a reference subcarrier spacing, SCS, for the time offset, wherein, a start of a slot 0 for the first cell coincides with a start of a slot N for the second cell and the N is an integer based on the slot offset and the reference SCS, wherein the reference SCS is a maximum of a lowest SCS among at least one SCS configured for the first cell and a lowest SCS among at least one SCS configured for the second cell, wherein, based on the communicating in the first cell and the second cell, physical downlink shared channel, PDSCH, is received from the base station by the UE , and wherein, based on discontinuous reception, DRX, being configured, a physical downlink control channel, PDCCH, for the PDSCH is monitored by the UE within an on duration associated with the DRX.
A control for a motor vehicle having at least two steerable front wheels and two control elements , wherein the respective control element is movable in a transverse direction of the vehicle and an actuating force is measurable in the transverse direction of the vehicle by a control element force sensor system and/or a control element torque sensor system , and is a basis for calculating a target value for the transverse movement of the vehicle, whilst a control element angle of the control element can be influenced at least by an electromotive control element actuator , whose rotational speed and torque are convertible by a control element gearbox , characterized in that the actuating forces exerted on the control elements in the transverse direction of the vehicle are averaged and filtered using a speed-dependent filter at least of first order, wherein the averaged and filtered actuating force is provided as a target value specification for the transverse movement of the vehicle and thus for influencing the radius of the trajectory of the vehicle.
Forceps for removing dental implant fixture, the forceps comprising: a pair of handles ; coupling portions extended from the handles , crossed, and hingedly coupled; pinching portions connected to the coupling portions ; and holding pieces protruding from ends of the pinching portions in a direction toward a center of a dental implant fixture and each having an arc corresponding to at least a part of an outer circumference of the fixture so that the holding pieces can be inserted into a trough of a threaded portion formed on the outer circumference of the fixture, characterized in that each pinching portion has a groove at an end thereof, the groove starts with the arc of the holding piece and gradually decreases toward the coupling portion , each groove being adapted to receive an upper end of the fixture. a pair of handles ; coupling portions extended from the handles , crossed, and hingedly coupled; pinching portions connected to the coupling portions ; and holding pieces protruding from ends of the pinching portions in a direction toward a center of a dental implant fixture and each having an arc corresponding to at least a part of an outer circumference of the fixture so that the holding pieces can be inserted into a trough of a threaded portion formed on the outer circumference of the fixture, characterized in that each pinching portion has a groove at an end thereof, the groove starts with the arc of the holding piece and gradually decreases toward the coupling portion , each groove being adapted to receive an upper end of the fixture.
A method comprising: receiving by a first device a reset pulse; operating the first device in a standard speed single wire protocol if the width of the reset pulse is between 480 and 640 micro seconds; operating the first device in an overdrive speed single wire protocol if the width of the reset pulse is between 48 and 80 micro seconds; and operating the first device in a universal asynchronous receiver-transmitter (UART) protocol if the width of the reset pulse is between 240 and 480 micro seconds. receiving by a first device a reset pulse; operating the first device in a standard speed single wire protocol if the width of the reset pulse is between 480 and 640 micro seconds; operating the first device in an overdrive speed single wire protocol if the width of the reset pulse is between 48 and 80 micro seconds; and operating the first device in a universal asynchronous receiver-transmitter (UART) protocol if the width of the reset pulse is between 240 and 480 micro seconds.
A method for producing a rolling bearing ring having an improved robustness against the formation of white etching cracks (WEC), wherein the rolling bearing ring is formed from a sub-eutectoid heat-treated steel, having the following composition (data in %): C: 0.45 Si: 0.23 Mn: 0.64 P: 0.004 S: 0.001 Cr: 1.18 Mo: 0.28 Ni: 0.75 Cu: 0.12 Al: 0.02 and the remainder being iron and trace elements, and is inductively heated to form a hardened surface layer, then quenched and then tempered, wherein the heating takes place at a frequency of 8-11 kHz, in particular 9-10 kHz, for a period of 3-10 s, in particular 4-7 s.