mhurhangee/ep-ind-claims huggingface dataset:
A reconfigurable integrated circuit for carrying out a plurality of processing tasks, comprising a configuration generator; and a dynamic data path comprising one or more control units comprising configuration memory, one or more adaptive data routers and one or more data path operators, wherein the one or more adaptive data routers are arranged to route data from a data memory through the dynamic data path, the data memory storing the data to be processed, and wherein the one or more adaptive data routers couple the data memory to the one or more data path operators, wherein the one or more data path operators output the result of a required data processing function, wherein the configuration memory is adapted to store a modifiable configuration for the dynamic data path, the configuration generator is adapted to receive one or more run-time variables and to generate configuration information to modify the stored configuration in dependence on the one or more run-time variables, the one or more control units are adapted to receive and apply configuration information from the configuration generator to modify the stored configuration, wherein each of the one or more adaptive data routers is coupled to one of the one or more control units adapted to receive configuration information from the configuration generator, wherein each of the one or more adaptive data routers acts in accordance with the configuration stored in the respective one of the one or more control units, and the one or more adaptive data routers are adapted to modify the dynamic data path for a required processing task by routing data from the data memory through the dynamic data path in accordance with the modified stored configuration such that the coupling of particular areas of the data memory to the one or more data path operators is modified.
A method for determining a core network type during a handover process, comprising: during a handover, of a terminal device, from a source cell to a target cell, sending, by an access network device, a request message for requesting a core network type of the target cell, to a core network device, wherein the core network device is not changed during the handover, of the terminal device, from the source cell to the target cell; and receiving, by the access network device, the core network type of the target cell from the core network device as a feedback for the request message; and performing, by the access network device, a cell handover according to the core network type of the target cell, wherein the core network type is a 5th generation, 5G, core network, the core network device comprises an access and mobility management function, AMF, and does not comprise a mobility management entity, MME; wherein the core network device determines the core network type of the target cell according to at least one of the following: information of a preferred core network type for the target cell reported by the terminal device, subscription information of the terminal device, evolved packet system, EPS, bearer information for the terminal device, protocol data unit, PDU, session information for the terminal device, a quality of service, QoS, flow; or information of the terminal device. during a handover, of a terminal device, from a source cell to a target cell, sending, by an access network device, a request message for requesting a core network type of the target cell, to a core network device, wherein the core network device is not changed during the handover, of the terminal device, from the source cell to the target cell; and receiving, by the access network device, the core network type of the target cell from the core network device as a feedback for the request message; and performing, by the access network device, a cell handover according to the core network type of the target cell, wherein the core network type is a 5th generation, 5G, core network, the core network device comprises an access and mobility management function, AMF, and does not comprise a mobility management entity, MME; wherein the core network device determines the core network type of the target cell according to at least one of the following: information of a preferred core network type for the target cell reported by the terminal device, subscription information of the terminal device, evolved packet system, EPS, bearer information for the terminal device, protocol data unit, PDU, session information for the terminal device, a quality of service, QoS, flow; or information of the terminal device.
Pedicle screw system, comprising a pedicle screw having a screw shaft with an external thread and having a screw head supported on the screw shaft in a ball-and-socket joint relationship therewith, which screw head comprises a connecting element receptacle for a connecting element of a spinal stabilization system, the pedicle screw system further comprising a bone alignment device and a coupling device for force-locking coupling and/or form-locking coupling of the bone alignment device and the screw shaft when in an alignment position, wherein the bone alignment device is configured in the form of a bone plate, wherein the coupling device comprises first and second coupling elements (76, 78) which are in force-locking engagement and/or form-locking engagement when in the alignment position and are arranged or formed on the bone alignment device on the one hand and the screw shaft on the other, wherein the first coupling element is configured in the form of a coupling projection and wherein the second coupling element is configured in the form of a coupling receptacle corresponding to the coupling projection, characterized in that the coupling projection engages in the coupling receptacle in a form-locking manner or in an essentially form-locking manner when in the alignment position, in that the coupling projection is configured in the form of an annular flange, in that the coupling receptacle is configured in the form of a recess of the bone alignment device, in that the bone alignment device has at least one coupling device for temporary force-locking coupling and/or temporary form-locking coupling with an alignment instrument in a coupling position, in that the coupling device has at least one coupling element for force-locking coupling and/or form-locking coupling with the alignment instrument in a coupling position, in that the at least one coupling element is configured in the form of a coupling projection and/or in the form of a coupling recess, in that the at least one coupling element comprises a thread, particularly an external thread or an internal thread, or is configured in the form of a latch element, in that the pedicle screw system comprises an alignment instrument for temporary force-locking coupling and/or temporary form-locking coupling with the coupling device and in that the alignment instrument comprises on the distal side thereof a coupling end for force-locking coupling and/or form-locking coupling with the coupling device.
A compound which is formed of dextran sulfate or a salt thereof, and an asialoorosomucoid receptor ligand, wherein is bonded to via a linker, or which is formed of β2 microglobulin antibody modified with dextran sulfate or a salt thereof or of protein A modified with dextran sulfate or a salt thereof, and LDL, wherein is bonded to via a linker, or with no linker.
A recombinant meso-active thermo-stable protein comprising the structural stability characteristics of a thermophile protein and the activity characteristics of a mesophile protein, wherein the recombinant protein has the amino acid sequence represented by SEQ ID NO: 3.
An articulating arm assembly and a passenger seat, the articulating arm assembly comprising: a static portion attached to the passenger seat; a rotation portion attached to the static portion such that the rotation portion pivots about a rotation axis; an arm body attached to the rotation portion, the rotation portion and the arm body comprise a stowed position and a deployed position; and a wiring portion disposed inside the arm body and extending from the arm body into the rotation portion, wherein the wiring portion disposed such that it extends parallel to the rotation axis from the rotation portion toward and into the static portion or that it extends along an axis that is coincident with the rotation axis from the rotation portion toward and into the static portion, and wherein the static portion comprises a main portion and a housing portion; and the housing portion comprises a recessed area (201b.1) that is at least partially cylindrical and approximately corresponds to an external surface of the rotation portion, characterized in that the static portion comprising a plunger and at least one spring located within a cavity (201b.2) of the housing portion; and the at least one spring causes the plunger to push the rotation portion away from the stowed position. a static portion attached to the passenger seat; a rotation portion attached to the static portion such that the rotation portion pivots about a rotation axis; an arm body attached to the rotation portion, the rotation portion and the arm body comprise a stowed position and a deployed position; and a wiring portion disposed inside the arm body and extending from the arm body into the rotation portion, wherein the wiring portion disposed such that it extends parallel to the rotation axis from the rotation portion toward and into the static portion or that it extends along an axis that is coincident with the rotation axis from the rotation portion toward and into the static portion, and wherein the static portion comprises a main portion and a housing portion; and the housing portion comprises a recessed area (201b.1) that is at least partially cylindrical and approximately corresponds to an external surface of the rotation portion, characterized in that the static portion comprising a plunger and at least one spring located within a cavity (201b.2) of the housing portion; and the at least one spring causes the plunger to push the rotation portion away from the stowed position.
A method for assessing the H 2 S release capacity of a liquid sample containing one or more sulfur compounds which are able to be degraded into gaseous H 2 S with temperature, said method comprising the following steps: a) Placing a volume of the liquid sample in a purge vessel so as to obtain a liquid phase and a gaseous phase in a flask; b) Purging the gaseous phase with an inert gas stream for a determined period of time; c) Passing the purged gaseous phase through a H 2 S trap; d) Recovering H 2 S from the H 2 S trap; e) Measuring the recovered H 2 S, wherein the purge vessel is kept at a temperature from 40°C to 60°C, characterised in that the liquid sample is a corrosion inhibitor, an oil wetting agent, a solid dispersing agent, a scale inhibitor, an anti-foulant, an oxygen scavenger, a foaming agent, or a mixture thereof. a) Placing a volume of the liquid sample in a purge vessel so as to obtain a liquid phase and a gaseous phase in a flask; b) Purging the gaseous phase with an inert gas stream for a determined period of time; c) Passing the purged gaseous phase through a H 2 S trap; d) Recovering H 2 S from the H 2 S trap; e) Measuring the recovered H 2 S,
Control system for high-voltage electrical devices, said devices comprising at least one fixed contact and one moving contact, for being applied in high-voltage power distribution networks, where the control system comprises a drive which can be coupled to a moving contact of a high-voltage electrical device for the transmission of at least three switching positions, wherein the drive comprises at least one blocking means for blocking at least two positions (C, D), said blocking means being integrated in at least one transmission part (5, 5', 5") of the at least three switching positions of the electrical device, and in that the drive further comprises at least one actuator moving the at least one transmission part (5, 5', 5") of the at least three switching positions of the electrical device, where the actuator comprises a first functional position and a second functional position; characterized in that in the first position the blocking means blocks the at least one transmission part (5, 5', 5") in said first position, such that the movement of the actuator to its second functional position causes the at least one transmission part (5, 5', 5") to move and said at least one transmission part (5, 5', 5") moves the moving contact of the electrical device to a making switching position; and in that in the second position the blocking means blocks the at least one transmission part (5, 5', 5") in said second position, such that the movement of the actuator to its second functional position causes the at least one transmission part (5, 5', 5") to move and said at least one transmission part (5, 5', 5") moves the moving contact of the electrical device to a grounding switching position.
An in-vitro method for differentiating between patients requiring, for the diagnostic identification of a myocardial disorder, myocardial biopsy, and patients not requiring myocardial biopsy, and for the optional differential diagnostic differentiation between individual non-ischemic cardiomyopathies or storage diseases of the heart, characterized in that a blood serum/blood plasma sample of a patient is analyzed using a diagnostic profile comprising at least 2 microRNAs or synthetic nucleic acids having identical or complementary sequences, selected from the group consisting of the following microRNAs: hsa-let-7f-5p (SEQ ID NO: 10), hsa-miR-103a-3p (SEQ ID NO: 11), hsa-miR-197-3p (SEQ ID NO: 12), hsa-miR-215-5p (SEQ ID NO: 13), hsa-miR-223-3p (SEQ ID NO: 14), hsa-miR-23a-3p (SEQ ID NO: 15), hsa-miR-330-3p (SEQ ID NO: 16), hsa-miR-337-5p (SEQ ID NO: 17), hsa-miR-339-3p (SEQ ID NO: 18), hsa-miR-339-5p (SEQ ID NO: 19), hsa-miR-411-5p (SEQ ID NO: 20), hsa-miR-454-3p (SEQ ID NO: 21), hsa-miR-485-3p (SEQ ID NO: 22), hsa-miR-487b-3p (SEQ ID NO: 23), hsa-miR-494-3p (SEQ ID NO: 24), hsa-miR-505-3p (SEQ ID NO: 25), hsa-miR-628-5p (SEQ ID NO: 26), hsa-miR-671-3p (SEQ ID NO: 27), hsa-miR-744-5p (SEQ ID NO: 28), hsa-miR-889-3p (SEQ ID NO: 29), mmu-miR-495-3p (SEQ ID NO: 30).
Method of application for applying a sound-absorbing material to an inner cavity of a pneumatic tyre using a strip of sound-absorbing material provided on one side with an adhesive layer covered with a protective lining; the application method comprises the steps of: attaching an initial part of the protective lining to a recovery drum; partially winding the strip of sound-absorbing material around an applicator roller; pressing, by means of the applicator roller, the strip of sound-absorbing material against the inner cavity of the pneumatic tyre whilst the pneumatic tyre is caused to rotate; and rotating the recovery drum synchronously with the pneumatic tyre in order to wind the protective lining around the recovery drum, step-by-step, as the protective lining is separated from the strip of sound-absorbing material; the method of application is characterized in that it comprises the further steps of: grasping the initial part of the protective lining by means of a grip member that is integral to the recovery drum and whilst the recovery drum is at a first side of the applicator roller; and moving the recovery drum, which is holding the initial part, from the first side of the applicator roller to the second side of the applicator roller, opposite the first side, such as to partially wind the strip of sound-absorbing material around the applicator roller. attaching an initial part of the protective lining to a recovery drum; partially winding the strip of sound-absorbing material around an applicator roller; pressing, by means of the applicator roller, the strip of sound-absorbing material against the inner cavity of the pneumatic tyre whilst the pneumatic tyre is caused to rotate; and rotating the recovery drum synchronously with the pneumatic tyre in order to wind the protective lining around the recovery drum, step-by-step, as the protective lining is separated from the strip of sound-absorbing material; the method of application is characterized in that it comprises the further steps of: grasping the initial part of the protective lining by means of a grip member that is integral to the recovery drum and whilst the recovery drum is at a first side of the applicator roller; and moving the recovery drum, which is holding the initial part, from the first side of the applicator roller to the second side of the applicator roller, opposite the first side, such as to partially wind the strip of sound-absorbing material around the applicator roller. grasping the initial part of the protective lining by means of a grip member that is integral to the recovery drum and whilst the recovery drum is at a first side of the applicator roller; and moving the recovery drum, which is holding the initial part, from the first side of the applicator roller to the second side of the applicator roller, opposite the first side, such as to partially wind the strip of sound-absorbing material around the applicator roller.
A method for tracking and analyzing motion of a user of a natural user interface system, the system comprising a processor (112; 244) and a capture device that captures 3D image data of the user for tracking the user, the method, performed by the processor, comprising: accessing the 3D image data of the user from the capture device that tracks the user; forming a body model for the user that includes a plurality of body parts and plurality of joints based on the image data; computing a center of mass for different ones of the plurality of body parts; and determining a center of mass for the user as a whole based on the center of mass of the different body parts, wherein determining the center of mass for the user further comprises determining a center of mass state vector for the user for a plurality of points in time, the center of mass state vector for the user comprising position of the center of mass for the user, velocity of the center of mass for the user, orientation of a rigid body for the user, and angular velocity for the user; determining a change in the center of mass state vector for the user between two points in time; and determining a force that one or more constraint points would need in order to result in the change in the center of mass state vector for the user, the constraint points corresponding to parts of the user's body determined from the body model. accessing the 3D image data of the user from the capture device that tracks the user; forming a body model for the user that includes a plurality of body parts and plurality of joints based on the image data; computing a center of mass for different ones of the plurality of body parts; and determining a center of mass for the user as a whole based on the center of mass of the different body parts, wherein determining the center of mass for the user further comprises determining a center of mass state vector for the user for a plurality of points in time, the center of mass state vector for the user comprising position of the center of mass for the user, velocity of the center of mass for the user, orientation of a rigid body for the user, and angular velocity for the user; determining a change in the center of mass state vector for the user between two points in time; and determining a force that one or more constraint points would need in order to result in the change in the center of mass state vector for the user, the constraint points corresponding to parts of the user's body determined from the body model.
A resource configuration method, comprising: receiving, by a terminal, first configuration information sent by a network device, wherein the first configuration information at least comprises configuration information of a first Bandwidth Part, BWP, and the configuration information of the first BWP comprises a plurality of numerologies corresponding to the first BWP, and transmitting, by the terminal, a signal using at least one of the plurality of numerologies when the first BWP is in an activated state; characterised in that the method further comprises: receiving, by the terminal, first control information sent by the network device, wherein the first control information is used for scheduling resources, wherein the first control information comprises at least one resource allocation element, the resource allocation element being used for allocating resources based on numerologies, wherein allocated resources have correspondences with the numerologies; and determining, by the terminal, the first numerology used by the scheduled resources according to the at least one resource allocation element in the first control information. receiving, by a terminal, first configuration information sent by a network device, wherein the first configuration information at least comprises configuration information of a first Bandwidth Part, BWP, and the configuration information of the first BWP comprises a plurality of numerologies corresponding to the first BWP, and transmitting, by the terminal, a signal using at least one of the plurality of numerologies when the first BWP is in an activated state; characterised in that the method further comprises: receiving, by the terminal, first control information sent by the network device, wherein the first control information is used for scheduling resources, wherein the first control information comprises at least one resource allocation element, the resource allocation element being used for allocating resources based on numerologies, wherein allocated resources have correspondences with the numerologies; and determining, by the terminal, the first numerology used by the scheduled resources according to the at least one resource allocation element in the first control information. receiving, by the terminal, first control information sent by the network device, wherein the first control information is used for scheduling resources, wherein the first control information comprises at least one resource allocation element, the resource allocation element being used for allocating resources based on numerologies, wherein allocated resources have correspondences with the numerologies; and determining, by the terminal, the first numerology used by the scheduled resources according to the at least one resource allocation element in the first control information.
A method for forming bumps on electrodes of a wiring board, comprising the steps of: (a) supplying a fluid containing conductive particles and a gas bubble generating agent onto a first region including a plurality of electrodes on the wiring board; (b) disposing a substrate having a protruding surface formed on a main surface thereof so that the protruding surface faces the first region of the wiring board; and (c) heating the fluid at a temperature at which gas bubbles are generated from the gas bubble generating agent contained in the fluid, and the conducting particles are not melted; characterized by after the step (c), (d) heating the fluid at a temperature at which the conductive particles contained in the fluid are melted, wherein the first region is a single continuous region; the protruding surface has an area substantially equal to the area of the first region, in the step (c), the fluid is self-assembled on the electrodes by the gas bubbles generated from the gas bubble generating agent, and in the step (d), the conductive particles contained in the fluid self-assembled on the electrodes are melted to form the bumps made of the conductive particles which have been melted on the electrodes. (a) supplying a fluid containing conductive particles and a gas bubble generating agent onto a first region including a plurality of electrodes on the wiring board; (b) disposing a substrate having a protruding surface formed on a main surface thereof so that the protruding surface faces the first region of the wiring board; and (c) heating the fluid at a temperature at which gas bubbles are generated from the gas bubble generating agent contained in the fluid, and the conducting particles are not melted;