mhurhangee/patent-ind-claim-en huggingface dataset:
Drive device for a vehicle axle (VA) of a two-track vehicle, having a drive unit which outputs drive on the output side to at least one drive shaft leading to a vehicle wheel , wherein the drive shaft is divided into a wheel-side shaft portion and into an axle-side shaft portion , which, by means of a form-fit clutch , are couplable in terms of drive to one another or decouplable in terms of drive from one another in order, during driving operation and with the drive unit (EM) deactivated, to avoid drag losses in the deactivated drive unit (EM), wherein the form-fit clutch has a sliding sleeve which is arranged rotationally conjointly but axially displaceably on a spline toothing of a first shaft portion , and wherein the actuator is assigned an actuator sleeve which is arranged on a cylindrical sliding-sleeve outer circumference , characterized in that , for rotational decoupling from the sliding sleeve , which rotates during driving operation, the actuator sleeve is mounted on the sliding-sleeve outer circumference via at least one rotary bearing so that the axial actuating force (Fs) generated by an actuator is introduced into the sliding sleeve via the rotationally decoupled actuator sleeve and the rotary bearing , and in that , by means of an axial actuating force (Fs) generated by an actuator , the sliding sleeve is displaceable between an open coupling state, in which the sliding sleeve has been brought out of form-fitting connection with the second shaft portion , and a closed coupling state, in which the sliding sleeve has been brought into form-fitting connection with the second shaft portion .
A method of controlling communication in a wireless communication network, the method comprising: a wireless communication device controlling changing of a connection of the wireless communication device to an access node of the wireless communication network between: - a relay based connection to the access node , the relay based connection extending via a device-to-device communication link between the wireless communication device and a first further wireless communication device , and - either a direct connection to the access node or another relay based connection to the access node , the other relay based connection extending via another device-to-device communication link between the wireless communication device and a second further wireless communication device ; characterized in : the wireless communication sending an indication to the access node , the indication enabling the access node to identify an existing Packet Data Convergence Protocol context, which was utilized before changing the connection, and to continue utilizing the existing Packet Data Convergence Protocol context after the changing of the connection. - a relay based connection to the access node , the relay based connection extending via a device-to-device communication link between the wireless communication device and a first further wireless communication device , and - either a direct connection to the access node or another relay based connection to the access node , the other relay based connection extending via another device-to-device communication link between the wireless communication device and a second further wireless communication device ;
A camera assembly , comprising: an auxiliary mount , a rotatable camera module , and a flexible heat conducting assembly , wherein the rotatable camera module is disposed on the auxiliary mount , the rotatable camera module comprises a rotatable mount and a camera function group disposed on the rotatable mount , the rotatable mount is rotatably connected to the auxiliary mount , the camera assembly further comprises a thermoelectric cooler fastened between the camera function group and the flexible heat conducting assembly , the flexible heat conducting assembly is fixedly connected to one end of the camera function group in a manner that a cold face of the thermoelectric cooler is disposed towards the camera function group , and a hot face of the thermoelectric cooler is disposed towards the flexible heat conducting assembly , and the flexible heat conducting assembly is further configured to be connected to a non-rotatable camera module component, to transfer heat generated by the camera function group to the non-rotatable camera module component. the rotatable camera module is disposed on the auxiliary mount , the rotatable camera module comprises a rotatable mount and a camera function group disposed on the rotatable mount , the rotatable mount is rotatably connected to the auxiliary mount , the camera assembly further comprises a thermoelectric cooler fastened between the camera function group and the flexible heat conducting assembly , the flexible heat conducting assembly is fixedly connected to one end of the camera function group in a manner that a cold face of the thermoelectric cooler is disposed towards the camera function group , and a hot face of the thermoelectric cooler is disposed towards the flexible heat conducting assembly , and the flexible heat conducting assembly is further configured to be connected to a non-rotatable camera module component, to transfer heat generated by the camera function group to the non-rotatable camera module component.
Laundry treatment appliance , with a receiving device , into which a first functional component and a second functional component can be inserted, wherein the receiving device has a blocking facility which is configured to allow displacement of the second functional component into the receiving device up to a final position (E) when the first functional component is inserted and is configured to block displacement to the final position (E) when the first functional component is not inserted, wherein the receiving device has a blocking element , the first functional component has a ramp element and the second functional component has a latch element , characterised in that it is possible for the latch element to be deflected from a rest position (R) to a release position (F) by the ramp element of the first functional component inserted into the receiving device when the second functional component is inserted into the receiving device , wherein it is possible for the second functional component to be displaced into the receiving device up to the final position (E) in the release position (F) and when the first functional component is not inserted the latch element of the second functional component is in the rest position (R), in which displacement to the final position (E) is blocked by the blocking element .
A method for wireless communication at a wireless communication device (126, 128, 140, 142; 202; 400; 500), the method comprising: reserving (602; 702; 802) resources on a carrier for each of a plurality of reservations, each associated with a respective transmission to one or more other wireless communication devices (126, 128, 140, 142; 202; 400; 500); and missing (604; 706; 806) at least one missed reservation of the plurality of reservations; characterized by limiting (608; 714; 814) additional reservations when a missed reservation metric associated with the at least one missed reservation exceeds a missed reservation limit (414; 518). reserving (602; 702; 802) resources on a carrier for each of a plurality of reservations, each associated with a respective transmission to one or more other wireless communication devices (126, 128, 140, 142; 202; 400; 500); and missing (604; 706; 806) at least one missed reservation of the plurality of reservations; characterized by limiting (608; 714; 814) additional reservations when a missed reservation metric associated with the at least one missed reservation exceeds a missed reservation limit (414; 518).
An aircraft pressurized cabin door comprising an outer panel and a door structure (3 the door structure comprising : - two circumferential beams fastened to the lateral edges of the door ; - a plurality of longitudinal beams arranged substantially perpendicularly between the circumferential beams and fastened to the outer panel , each longitudinal beam extending from one circumferential beam to the other; and in that each longitudinal beam is an open profile of which the opening is directed toward the outer panel characterized in that said opening is closed by the internal face of the outer panel to which the longitudinal beam is fastened. - two circumferential beams fastened to the lateral edges of the door ; - a plurality of longitudinal beams arranged substantially perpendicularly between the circumferential beams and fastened to the outer panel , each longitudinal beam extending from one circumferential beam to the other;
A surgical apparatus, comprising: a delivery system having rotatable drive wires and; a self-expanding/forcibly-expanding stent , comprising a shape-memory material, set to a given shape and contracted with the delivery system to a reduced implantation size, the stent comprising; a selectively adjustable assembly with adjustable elements operatively connected to the drive wires such that, when the adjustable elements are adjusted by the drive wires, a configuration change in at least a portion of the stent occurs; wherein the delivery system comprises at least one drive wire motor connected to the drive wires for rotating the drive wires to forcibly expand the contracted stent; and wherein the delivery system is configured to: while rotating the drive wires, determine a torque applied to the drive wires; initially stop rotation of the drive wires based upon a value of the determined torque and when the stent has a first diameter; and after initially stopping rotation of the drive wires, repeatedly rotate and stop rotation of the drive wires using the drive wire motor to incrementally expand the stent from the first diameter to a second, final diameter. a delivery system having rotatable drive wires and; a self-expanding/forcibly-expanding stent , comprising a shape-memory material, set to a given shape and contracted with the delivery system to a reduced implantation size, the stent comprising; a selectively adjustable assembly with adjustable elements operatively connected to the drive wires such that, when the adjustable elements are adjusted by the drive wires, a configuration change in at least a portion of the stent occurs; wherein the delivery system comprises at least one drive wire motor connected to the drive wires for rotating the drive wires to forcibly expand the contracted stent; and wherein the delivery system is configured to: while rotating the drive wires, determine a torque applied to the drive wires; initially stop rotation of the drive wires based upon a value of the determined torque and when the stent has a first diameter; and after initially stopping rotation of the drive wires, repeatedly rotate and stop rotation of the drive wires using the drive wire motor to incrementally expand the stent from the first diameter to a second, final diameter. while rotating the drive wires, determine a torque applied to the drive wires; initially stop rotation of the drive wires based upon a value of the determined torque and when the stent has a first diameter; and after initially stopping rotation of the drive wires, repeatedly rotate and stop rotation of the drive wires using the drive wire motor to incrementally expand the stent from the first diameter to a second, final diameter.
An antenna system comprising: an electric circuit board on which an electronic component is mounted, the electric circuit board including an antenna formed on one of the surfaces of the electric circuit board ; a protection member covering the one of the surfaces of the electric circuit board ; and a heat transfer part which is configured to transfer heat generated by the electronic component mounted on the electric circuit board to the protection member , wherein a sub resonator whose resonance frequency is equal to that of the antenna formed on the electric circuit board is provided on a surface of the protection member , the heat transfer part includes a connection member by which the one surface of the electric circuit board and the sub resonator are thermally coupled to each other, wherein the heat transfer part is configured to transfer at least part of the heat generated by the electronic component to the sub resonator via the connection member, and then radiate it outside of the antenna system. an electric circuit board on which an electronic component is mounted, the electric circuit board including an antenna formed on one of the surfaces of the electric circuit board ; a protection member covering the one of the surfaces of the electric circuit board ; and a heat transfer part which is configured to transfer heat generated by the electronic component mounted on the electric circuit board to the protection member , wherein a sub resonator whose resonance frequency is equal to that of the antenna formed on the electric circuit board is provided on a surface of the protection member , the heat transfer part includes a connection member by which the one surface of the electric circuit board and the sub resonator are thermally coupled to each other, wherein the heat transfer part is configured to transfer at least part of the heat generated by the electronic component to the sub resonator via the connection member, and then radiate it outside of the antenna system.
Cover sheet for sealing containers , which cover sheet is made from a packaging film comprising a carrier layer having a grammage (d1) between 20 g/m 2 and 100 g/m 2 and a barrier layer connected to the carrier layer , which barrier layer has a thickness (d2) between 5 μm and 70 μm and is made of a plastics material, the carrier layer being made of glassine, characterized in that the material of the barrier layer is selected from polyesters, starch polymers, polylactic acids, lignin-based polymers, polyhydroxyalkanoates, cellulose acetate, cellulose hydrate, or combinations thereof.
Apparatus for deblocking a lens from a block piece , on which the lens is blocked by means of a block material , wherein a block side of the lens is optionally provided with a protective layer , with a working space , with a first holding device for holding of the lens in the working space , with a second holding device for holding of the block piece in the working space , wherein the first holding device has a rotary drive , and with multiple nozzle devices for dispensing fluid jets (F1, F2, F3) in the working space , wherein the second holding device has a rotary drive and wherein the apparatus has three nozzle devices for generating a first, a second, and an additional fluid jet (F1, F2, F3) in the working space , wherein the first fluid jet (F1) can be used to detach the lens with the protective layer , if present, from the block material , the second fluid jet (F2) can be used to remove block material from the block piece , and the additional fluid jet (F3) can be used to remove the protective layer and/or block material from the lens . with a working space , with a first holding device for holding of the lens in the working space , with a second holding device for holding of the block piece in the working space , wherein the first holding device has a rotary drive , and with multiple nozzle devices for dispensing fluid jets (F1, F2, F3) in the working space , wherein the second holding device has a rotary drive and wherein the apparatus has three nozzle devices for generating a first, a second, and an additional fluid jet (F1, F2, F3) in the working space , wherein the first fluid jet (F1) can be used to detach the lens with the protective layer , if present, from the block material , the second fluid jet (F2) can be used to remove block material from the block piece , and the additional fluid jet (F3) can be used to remove the protective layer and/or block material from the lens .
Vehicle, in particular a heavy-duty vehicle, which has a chassis with at least one steerable undercarriage having at least one axis , whereby on the chassis a rotary arrangement for receiving an elongated object (O) to be transported is rotably arranged, by way of its rotary movement the at least one steerable axis of the vehicle can be steered, wherein the vehicle comprises a braking device by which the rotary movement of the rotary arrangement can be braked, and whereby a steering device acts on the at least one steerable axis , whereby by an actuation of which a steering movement of the wheel or the wheels of the steerable axis can be carried out, characterized In that the braking device of the vehicle acts upon the steering device of the at least one steerable undercarriage , and that the steering device and the rotary arrangement are directly connected via at least one hydraulic circuit in which an Incompressible hydraulic medium is contained, so that by means of said direct coupling between the steering device and the rotary arrangement the action of the braking device on the steering device of at least one steerable undercarriage counteracts the movement of the rotary arrangement .
A method for providing a user interface, UI, by an electronic device, said electronic device comprising a display unit , a touch screen configured to receive a touch input at a location corresponding to the display unit and a controller , the method comprising: displaying, by the controller , a control Ul on the display unit ; receiving, by the controller , a first drag input via the displayed control Ul , wherein the displayed control Ul is being dragged while touching the control Ul ; and if a direction of the first drag input corresponds to a first direction, displaying, by the controller , a cursor Ul so as to first appear at a location according to the first direction. displaying, by the controller , a control Ul on the display unit ; receiving, by the controller , a first drag input via the displayed control Ul , wherein the displayed control Ul is being dragged while touching the control Ul ; and if a direction of the first drag input corresponds to a first direction, displaying, by the controller , a cursor Ul so as to first appear at a location according to the first direction.
A method performed by a transmitting device operating in a communications network , the method comprising: - receiving an indication from a receiving device operating in the communications network , the indication instructing the transmitting device to perform a buffer reset, wherein the indication is a value in a field in a Protocol Data Unit, PDU, received from the receiving device , wherein the PDU is a Packet Data Convergence Protocol, PDCP, control PDU, - resetting the buffer, based on the received indication, wherein the indication is a third indication, and - sending a fourth indication to the receiving device , the fourth indication indicating that the buffer reset has been performed. - receiving an indication from a receiving device operating in the communications network , the indication instructing the transmitting device to perform a buffer reset, wherein the indication is a value in a field in a Protocol Data Unit, PDU, received from the receiving device , wherein the PDU is a Packet Data Convergence Protocol, PDCP, control PDU, - resetting the buffer, based on the received indication, wherein the indication is a third indication, and - sending a fourth indication to the receiving device , the fourth indication indicating that the buffer reset has been performed.
Membrane element for an air humidifying device, wherein the membrane material of the membrane element is a microporous material which is preferably hydrophobic, wherein the membrane element has a frame formed from frame bridges (61 to 64) with a front side and a rear side and side walls, on which frame the membrane material is arranged flat on at least one side, and on which frame the membrane material is preferably arranged flat on both sides, front side and rear side, and wherein the membrane material is attached watertightly to the respective frame surfaces of the front side and rear side of the frame, so that a watertight but for water vapour permeable space limited by the frame and the membrane surfaces is formed within the frame, or optionally a space bounded by a membrane surface and a non-membrane surface is formed, the frame having at least one first opening as a water inlet and at least one second opening as a water outlet on the side walls, characterized in that the frame has at least one bridge in its interior which connects inner side walls of the frame, which bridge has substantially the same thickness (D) as the frame bridges over a first portion thereof and a smaller thickness (D1) than the frame bridges over a second portion of its length, which portion of smaller thickness forms a water passage within the frame, and wherein the membrane surfaces are attached to the first portion of the bridge in a watertight manner, or optionally a non-membrane surface is water-tightly connected to the bridge.
A hydrous silica for rubber reinforcing filler satisfying the following BET specific surface areas and a) to c): the BET-specific surface area ranges from 230 to 350 m 2 /g; a): the pore volume of 1.9-100 nm pore radius measured by the mercury press-in method (V HP-Hg ) ranges from 1.40 to 2.00 cm 3 /g; b): the total pore volume in the range of 1.6 to 100 nm pore radius by nitrogen adsorption/desorption method (V N2 ) ranges from 1.60 to 2.20 cm 3 /g; and c): the pore volume ratio of (a) and (b) V HP-Hg /V N2 ranges from 0.70 to 0.95. a): the pore volume of 1.9-100 nm pore radius measured by the mercury press-in method (V HP-Hg ) ranges from 1.40 to 2.00 cm 3 /g; b): the total pore volume in the range of 1.6 to 100 nm pore radius by nitrogen adsorption/desorption method (V N2 ) ranges from 1.60 to 2.20 cm 3 /g; and c): the pore volume ratio of (a) and (b) V HP-Hg /V N2 ranges from 0.70 to 0.95.
A transmitter unit for transmitting a series of encoded speech frames over a communications channel to a receiver unit, wherein the transmitter unit comprises: an encoder responsive to speech data input for generating the series of encoded speech frames; wherein the transmitter unit includes packet control means for resending packets in response to an ACK/NAK and/or an error rate signal from the receiver unit, wherein the error rate signal represents the frame error rate for the transmitting unit averaged over a predetermined period of time and gives an indication of the various factors that can affect signal transmission; the packet control means includes a priority means and a packet data channel control means; the priority means is responsive to at least said ACK/NAK and/or said error rate signal and to a frame importance signal from said encoder for generating and sending to said packet data channel control means a priority signal; and the packet data channel control means is responsive to said priority signal for reducing or suppressing retransmission. an encoder responsive to speech data input for generating the series of encoded speech frames; wherein the transmitter unit includes packet control means for resending packets in response to an ACK/NAK and/or an error rate signal from the receiver unit, wherein the error rate signal represents the frame error rate for the transmitting unit averaged over a predetermined period of time and gives an indication of the various factors that can affect signal transmission; the packet control means includes a priority means and a packet data channel control means; the priority means is responsive to at least said ACK/NAK and/or said error rate signal and to a frame importance signal from said encoder for generating and sending to said packet data channel control means a priority signal; and the packet data channel control means is responsive to said priority signal for reducing or suppressing retransmission.