mhurhangee/patent-ind-claim-en huggingface dataset:
Controller circuitry for a terminal device configured to transmit data to and receive data from a communication node in a telecommunications network and configured to: determine the speed of movement of the terminal device; and control transceiver circuitry of the terminal device to transmit an uplink reference signal that allows the communication node to determine an uplink channel quality between the communication node and the terminal device, wherein the controller circuitry is configured to determine a rate of transmission of the uplink reference signal based on the speed of movement of the terminal device and to control the transceiver circuitry to transmit the uplink reference signal at said rate of transmission, wherein the rate of transmission increases as the speed increases; wherein the controller circuitry is configured to control the transceiver circuitry to transmit the uplink reference signal using predetermined time resources that are resources allocated to the terminal device to transmit the uplink reference signal up to a maximum rate, whereby when transmitting the uplink reference signal below the maximum rate, the controller circuitry is configured to DTX one or more of the allocated resources; wherein the controller circuitry is configured to receive an indication of the predetermined time resources from the communication node. determine the speed of movement of the terminal device; and control transceiver circuitry of the terminal device to transmit an uplink reference signal that allows the communication node to determine an uplink channel quality between the communication node and the terminal device, wherein the controller circuitry is configured to determine a rate of transmission of the uplink reference signal based on the speed of movement of the terminal device and to control the transceiver circuitry to transmit the uplink reference signal at said rate of transmission, wherein the rate of transmission increases as the speed increases; wherein the controller circuitry is configured to control the transceiver circuitry to transmit the uplink reference signal using predetermined time resources that are resources allocated to the terminal device to transmit the uplink reference signal up to a maximum rate, whereby when transmitting the uplink reference signal below the maximum rate, the controller circuitry is configured to DTX one or more of the allocated resources; wherein the controller circuitry is configured to receive an indication of the predetermined time resources from the communication node.
A 4-1BB ligand (4-1BBL) trimer-containing antigen binding molecule comprising (a) one Fab domain capable of specific binding to a target cell antigen, (b) a Fc domain composed of a first and a second subunit capable of stable association, and (c) a first polypeptide comprising two ectodomains of 4-1BBL comprising the amino acid sequence of SEQ ID NO:5 that are connected to each other by a peptide linker and a second polypeptide comprising one ectodomain of said 4-1BBL comprising the amino acid sequence of SEQ ID NO:5, wherein the first polypeptide is fused at its N-terminus to the C-terminus to the first subunit of the Fc domain comprising the amino acid substitutions Y349C, T366S, L368A and Y407V (numbering according to Kabat EU index) of the hole and wherein the second polypeptide is fused at its N-terminus to the C-terminus of the second subunit of the Fc domain comprising the amino acid substitutions S354C and T366W (numbering according to Kabat EU index) of the knob and wherein the VH and CH1 domain of the Fab domain capable of specific binding to a target cell antigen is fused at the C-terminus to the N-terminus of the second subunit of the Fc domain comprising the knob mutations, wherein the 4-1BBL trimer-containing antigen binding molecule is monovalent for the binding to the target cell antigen. (a) one Fab domain capable of specific binding to a target cell antigen, (b) a Fc domain composed of a first and a second subunit capable of stable association, and (c) a first polypeptide comprising two ectodomains of 4-1BBL comprising the amino acid sequence of SEQ ID NO:5 that are connected to each other by a peptide linker and a second polypeptide comprising one ectodomain of said 4-1BBL comprising the amino acid sequence of SEQ ID NO:5, wherein the first polypeptide is fused at its N-terminus to the C-terminus to the first subunit of the Fc domain comprising the amino acid substitutions Y349C, T366S, L368A and Y407V (numbering according to Kabat EU index) of the hole and wherein the second polypeptide is fused at its N-terminus to the C-terminus of the second subunit of the Fc domain comprising the amino acid substitutions S354C and T366W (numbering according to Kabat EU index) of the knob and wherein the VH and CH1 domain of the Fab domain capable of specific binding to a target cell antigen is fused at the C-terminus to the N-terminus of the second subunit of the Fc domain comprising the knob mutations,
A method for producing discrete three-dimensional cellulose products from an air-formed cellulose blank structure in a rotary forming mould system , wherein the rotary forming mould system comprises at least one first mould part and at least one second mould part , wherein the at least one first mould part and the at least one second mould part are rotatably arranged in relation to each other, wherein during rotational movements the at least one first mould part is rotatably interacting with the at least one second mould part , wherein the method comprises the steps; providing the air-formed cellulose blank structure , wherein the cellulose blank structure is air-formed from cellulose fibres; transporting the air-formed cellulose blank structure to the rotary forming mould system ; feeding the air-formed cellulose blank structure to a position between a first mould part and a second mould part , and heating the air-formed cellulose blank structure to a forming temperature in the range of 100°C to 300°C; forming the three-dimensional cellulose products from the air-formed cellulose blank structure in the rotary forming mould system , by pressing the heated air-formed cellulose blank structure with a forming pressure (P F ) of at least 1 MPa, preferably 4-20 MPa, between the first mould part and the second mould part , wherein during forming the first mould part is rotating around a first rotational axis (A R1 ) and the second mould part is rotating around a second rotational axis (A R2 ). providing the air-formed cellulose blank structure , wherein the cellulose blank structure is air-formed from cellulose fibres; transporting the air-formed cellulose blank structure to the rotary forming mould system ; feeding the air-formed cellulose blank structure to a position between a first mould part and a second mould part , and heating the air-formed cellulose blank structure to a forming temperature in the range of 100°C to 300°C; forming the three-dimensional cellulose products from the air-formed cellulose blank structure in the rotary forming mould system , by pressing the heated air-formed cellulose blank structure with a forming pressure (P F ) of at least 1 MPa, preferably 4-20 MPa, between the first mould part and the second mould part , wherein during forming the first mould part is rotating around a first rotational axis (A R1 ) and the second mould part is rotating around a second rotational axis (A R2 ).
A system for drawing and transferring wires arranged in one or more racks of the system, each rack supporting a plurality of reels held in uniform rows (Rx) and uniform columns (Cx) along a predetermined length, and each reel supporting a wire that is conveyed towards an outlet of the rack during a method for drawing and transferring wires performed by the system, characterized in that the system comprises: - a mobile structure comprising a frame , a base and one or more mobile means that allow the mobile structure to be moved along the length of the rack , the frame comprising: - upper and lower supports that are substantially parallel and spaced apart by a predetermined distance allowing the loading of the roller panels in correspondence with the wires leaving reels of the rack ; and - one or more holding means that are substantially parallel and spaced apart by a predetermined distance in correspondence with roller panels loaded on the frame, each holding means comprising a holding and alignment means for guiding the wires passing through from a corresponding roller panel towards one or more installations downstream of the system ; - one or more roller panels made up of horizontal and vertical rollers that allow the wires to be organized relative to the reels ; and - a fixed structure disposed at the end of the rack and comprising a frame and a base , the frame of the fixed structure comprising upper and lower supports that are substantially parallel and spaced apart by a predetermined distance allowing the transfer of the roller panels from the frame of the mobile structure towards the fixed structure without loss of alignment of the wires, wherein the mobile structure is positioned next to the fixed structure . - a mobile structure comprising a frame , a base and one or more mobile means that allow the mobile structure to be moved along the length of the rack , the frame comprising: - upper and lower supports that are substantially parallel and spaced apart by a predetermined distance allowing the loading of the roller panels in correspondence with the wires leaving reels of the rack ; and - one or more holding means that are substantially parallel and spaced apart by a predetermined distance in correspondence with roller panels loaded on the frame, each holding means comprising a holding and alignment means for guiding the wires passing through from a corresponding roller panel towards one or more installations downstream of the system ; - one or more roller panels made up of horizontal and vertical rollers that allow the wires to be organized relative to the reels ; and - a fixed structure disposed at the end of the rack and comprising a frame and a base , the frame of the fixed structure comprising upper and lower supports that are substantially parallel and spaced apart by a predetermined distance allowing the transfer of the roller panels from the frame of the mobile structure towards the fixed structure without loss of alignment of the wires, wherein the mobile structure is positioned next to the fixed structure .
A method for producing a value, security or identity document which has a smart card with a card body , wherein, in the card body , there are provided at least one sensor for detecting environmental parameters, a memory coupled to the sensor , which memory stores the detected values of the environmental parameters of the sensor , a chip on which the person- and/or document-specific information may be stored, as well as at least one interface for reading the memory and/or the chip , said method comprising the following steps: - providing the sensor , the memory as well as the interface ; - producing the card body , wherein at least portions of the sensor , the memory and the interface are arranged in the card body , wherein the card body is laminated, injection moulded, or produced in a 3D printing method; and - detecting environmental parameters with the sensor during the production of the card body and storing the detected values of the environmental parameters in the memory . - providing the sensor , the memory as well as the interface ; - producing the card body , wherein at least portions of the sensor , the memory and the interface are arranged in the card body , wherein the card body is laminated, injection moulded, or produced in a 3D printing method; and - detecting environmental parameters with the sensor during the production of the card body and storing the detected values of the environmental parameters in the memory .
A process for manufacturing a noise reducing layer designed to be housed inside the cavity of a tyre; said process being characterized in that it comprises: - a stacking step, during which a stack of fibre-reinforced rubber or pre-preg layers is created, in which between one layer and the other there is interposed a plurality of anti-sticking elements spaced apart from one another; said anti-sticking elements being arranged in a staggered position along the two faces of a same fibre-reinforced rubber or pre-preg layer; - a vulcanization step, during which said stack of fibre-reinforced rubber or pre-preg layers is subjected to a compacting pressure and to a fibre-reinforced rubber vulcanization temperature; said anti-sticking elements being in a liquid state. - a stacking step, during which a stack of fibre-reinforced rubber or pre-preg layers is created, in which between one layer and the other there is interposed a plurality of anti-sticking elements spaced apart from one another; said anti-sticking elements being arranged in a staggered position along the two faces of a same fibre-reinforced rubber or pre-preg layer; - a vulcanization step, during which said stack of fibre-reinforced rubber or pre-preg layers is subjected to a compacting pressure and to a fibre-reinforced rubber vulcanization temperature;
An electro-acoustic conversion device , comprising: a housing provided with a sound chamber and a sound outlet communicating with the sound chamber ; an electro-acoustic component arranged in the sound chamber ; and a vibration element fixed to the housing and configured to generate sound waves to atomize liquid entering the sound chamber , to discharge the atomized liquid outside the sound chamber through the sound outlet ; wherein the sound chamber comprises a rear sound chamber and a front sound chamber , wherein the front sound chamber communicates with the rear sound chamber and the sound outlet respectively; characterized in that the housing comprises a rear housing and a front housing connected to the rear housing , wherein the rear housing encloses the rear sound chamber , and the front housing encloses the front sound chamber ; wherein the electro-acoustic component is arranged in the rear housing and housed in the rear sound chamber , and the vibration element is fixed to the front housing . a housing provided with a sound chamber and a sound outlet communicating with the sound chamber ; an electro-acoustic component arranged in the sound chamber ; and a vibration element fixed to the housing and configured to generate sound waves to atomize liquid entering the sound chamber , to discharge the atomized liquid outside the sound chamber through the sound outlet ; wherein the sound chamber comprises a rear sound chamber and a front sound chamber , wherein the front sound chamber communicates with the rear sound chamber and the sound outlet respectively; characterized in that the housing comprises a rear housing and a front housing connected to the rear housing , wherein the rear housing encloses the rear sound chamber , and the front housing encloses the front sound chamber ; wherein the electro-acoustic component is arranged in the rear housing and housed in the rear sound chamber , and the vibration element is fixed to the front housing .
A closed turbocompressor impeller , said closed turbocompressor impeller comprising: - a hub ; - a set of blades provided on said hub ; - a shroud provided on top of the blades ; whereby said hub is provided with a part with a first internal cavity , whereby this first internal cavity is in fluid communication with a back part of the impeller , or with an inlet of the impeller , or with an arbitrary location in the impeller channels that extend between the blades , whereby the shroud comprises a second internal cavity , the impeller being characterised in that the second internal cavity is in fluid communication with the inlet of the impeller . - a hub ; - a set of blades provided on said hub ; - a shroud provided on top of the blades ;
A line guiding device which is provided as energy guiding chain for receiving and guiding energy lines between a connecting member which can be arranged stationarily and a movable connecting member, the members of which chain respectively have two oppositely disposed side portions which are connected together by transverse limbs in at least some of the members , wherein adjoining side portions of directly adjacent members have joint connections, and which chain can be arranged to form at least one loop , wherein the loop has a first run which is closer to the connecting member which can be arranged stationarily over the course of the line guiding device and a second run which is more remote in relation to the connecting member which can be arranged stationarily over the course of the line guiding device, which runs are connected together by an arcuate connecting region , wherein the runs and the connecting region have a space which is continuous between the two connecting members for receiving the energy lines and the connecting region is bendable at least in the plane in which the runs are arranged over a spread angle (> 0°), wherein the connecting region is so designed or there is provided a device which causes a restoring force to be produced in the spread-open state of the runs , in which the connecting region is bent open, the runs being moved back into their folded-together position by the restoring force, characterised in that the runs of a loop have rigid regions which do not substantially bend upon the movement of the movable connecting member and the movement that occurs therewith of the line guiding device or the members of the run of a loop , that is more remote from the connecting member which can be arranged stationarily, have abutments which block a pivotal movement of adjacent members of said run outwardly out of a straight arrangement, that is to say away from the oppositely disposed run of the loop , but permit a pivotal movement of the members inwardly out of the straight position, that is to say towards the oppositely disposed run, wherein for causing the restoring force at least one elastic band that engages with opposing sides of the runs of a loop is provided and which applies a restoring force to the runs when spread out from a substantially parallel arrangement of the runs or an arrangement touching the end remote from the connecting region , or wherein in the region of the connecting region or the runs of a loop a restoring actuator is provided which is controllable by a control device and by which a restoring force can be exerted on the spread-open runs in the actuated state of the actuator.
Method of creating a detachment region in a solid-state body , wherein the solid-state body includes or consists of silicon carbide, comprising: creating modifications within the solid-state body with at least one laser beam, wherein the laser beam is a pico- or femtosecond laser beam, wherein the laser beam penetrates into the solid-state body via a main surface of the solid-state body , wherein, as a result of the modifications , a crystal lattice of the solid-state body undergoes subcritical tearing at least in a fraction of each of the regions surrounding the modifications , wherein subcritical cracks are each propagated parallel or essentially parallel to the main surface , wherein the subcritical cracks in the region of the modifications define the detachment region ; and wherein the subcritical cracks join along the detachment region to form a main crack, wherein the main crack separates a fraction of the solid-state body from the solid-state body . creating modifications within the solid-state body with at least one laser beam, wherein the laser beam is a pico- or femtosecond laser beam, wherein the laser beam penetrates into the solid-state body via a main surface of the solid-state body , wherein, as a result of the modifications , a crystal lattice of the solid-state body undergoes subcritical tearing at least in a fraction of each of the regions surrounding the modifications , wherein subcritical cracks are each propagated parallel or essentially parallel to the main surface , wherein the subcritical cracks in the region of the modifications define the detachment region ; and wherein the subcritical cracks join along the detachment region to form a main crack, wherein the main crack separates a fraction of the solid-state body from the solid-state body .
A method for wireless communication performed by a user equipment, UE, the UE configured with a dual protocol stack, comprising: receiving (1002, 4.) a pre-allocation resource for a target cell via a handover command for handover from a source cell to the target cell; in response to receipt of the handover command, establishing the dual protocol stack as a temporary dual stack that comprises a first stack for the source cell and a second stack for the target cell, and continuing to receive downlink packets from and transmit uplink packets to the source cell via the first stack; synchronizing (7.) to the target cell, while concurrently receiving from the target cell and the source cell; receiving (11a.) from the target cell, a target cell downlink packet together with a MAC control element, CE, that includes a measured timing advance, TA, and a pre-allocated uplink grant; transmitting (1004, 12.), to the source cell, a physical layer acknowledgment based on the target cell downlink packet; receiving (1006, 14.), from the source cell, an indication for communication with the target cell, in response to the physical layer acknowledgement; and accessing (1008, 17.) the target cell using the pre-allocated resource to complete the handover, based on the indication for communication with the target cell. receiving (1002, 4.) a pre-allocation resource for a target cell via a handover command for handover from a source cell to the target cell; in response to receipt of the handover command, establishing the dual protocol stack as a temporary dual stack that comprises a first stack for the source cell and a second stack for the target cell, and continuing to receive downlink packets from and transmit uplink packets to the source cell via the first stack; synchronizing (7.) to the target cell, while concurrently receiving from the target cell and the source cell; receiving (11a.) from the target cell, a target cell downlink packet together with a MAC control element, CE, that includes a measured timing advance, TA, and a pre-allocated uplink grant; transmitting (1004, 12.), to the source cell, a physical layer acknowledgment based on the target cell downlink packet; receiving (1006, 14.), from the source cell, an indication for communication with the target cell, in response to the physical layer acknowledgement; and accessing (1008, 17.) the target cell using the pre-allocated resource to complete the handover, based on the indication for communication with the target cell.
Method for detecting asparagus in ground for asparagus harvest, the method comprising the steps of : inserting at least one proximity sensor below a ground surface at a scanning depth, wherein the at least one proximity sensor is arranged for detecting asparagus in proximity of the proximity sensor , characterised by : moving, at the scanning depth below the ground surface, the at least one proximity sensor through the ground for defining a scanning movement path of the sensor below the ground surface; and adjusting said movement path of the proximity sensor upon local proximity detection of an asparagus by the at least one proximity sensor . moving, at the scanning depth below the ground surface, the at least one proximity sensor through the ground for defining a scanning movement path of the sensor below the ground surface; and adjusting said movement path of the proximity sensor upon local proximity detection of an asparagus by the at least one proximity sensor .