mhurhangee/ep-ind-claims huggingface dataset:
A mobile communication device, comprising: an antenna; a transceiver coupled with the antenna; a matching network coupled with the transceiver and the antenna, wherein the matching network includes a variable reactance element; and a controller coupled with the matching network, wherein the controller determines a desired tuning step to be applied to the matching network to adjust a variable reactance of the variable reactance element, wherein the controller determines a phase shift criteria associated with a modulation being implemented by the mobile communication device, and wherein the controller selects a group of tuning steps that satisfies the phase shift criteria, wherein the phase shift criteria is a maximum phase shift limit for each tuning step of the group of tuning steps, that when aggregated provide the desired tuning step; and wherein the variable reactance of the variable reactance element is adjusted utilizing the group of tuning steps. an antenna; a transceiver coupled with the antenna; a matching network coupled with the transceiver and the antenna, wherein the matching network includes a variable reactance element; and a controller coupled with the matching network, wherein the controller determines a desired tuning step to be applied to the matching network to adjust a variable reactance of the variable reactance element, wherein the controller determines a phase shift criteria associated with a modulation being implemented by the mobile communication device, and wherein the controller selects a group of tuning steps that satisfies the phase shift criteria, wherein the phase shift criteria is a maximum phase shift limit for each tuning step of the group of tuning steps, that when aggregated provide the desired tuning step;
A dishwasher comprising a cabinet, a door enabling access into the cabinet, opening in up-down direction by pivoting about horizontal axis, a locking tab fixed on the upper side of the cabinet, enabling the door to be releasably locked to the cabinet and to be retained in closed position by engaging a locking orifice provided on the upper portion of the door, a crossbar extending in horizontal direction on the upper-front portion of the cabinet, at least one opening provided on the crossbar, enabling the locking tab to be fixed to the cabinet, and a first leg and a second leg of flexible structure, passed through the opening, enabling the locking tab to be assembled to the crossbar by means of retaining extensions, - characterized by the locking tab comprising a support arm extending in horizontal direction between the first leg and the second leg, connected from one of its ends to the first leg by means of a pin so as to be rotatable about the pin axis, and whose free end is fixed to the second leg. - characterized by the locking tab comprising a support arm extending in horizontal direction between the first leg and the second leg, connected from one of its ends to the first leg by means of a pin so as to be rotatable about the pin axis, and whose free end is fixed to the second leg.
A mobile manipulator comprising: a moving apparatus configured to move from a first position to a second position; a manipulator that is connected to the moving apparatus; a controller configured to control the moving apparatus and the manipulator; and an environment acquisition sensor (10s, 10s1 to 10s5) configured to acquire environmental data (E, E1 to E4), wherein the mobile manipulator further comprises storage means configured to store the environmental data in association with the positions of the moving apparatus at which the environmental data is acquired; and the controller is configured to control at least one of the moving apparatus and the manipulator based on the environmental data (E, E1 to E4) that is acquired by the environment acquisition sensor (10s, 10s1 to 10s5), and is associated with the position at any point on a moving path between the first position and the second position. characterized in that the environmental data includes any of an amplitude of a vibration, a vibration frequency and a temperature. a moving apparatus configured to move from a first position to a second position; a manipulator that is connected to the moving apparatus; a controller configured to control the moving apparatus and the manipulator; and an environment acquisition sensor (10s, 10s1 to 10s5) configured to acquire environmental data (E, E1 to E4), wherein the mobile manipulator further comprises storage means configured to store the environmental data in association with the positions of the moving apparatus at which the environmental data is acquired; and the controller is configured to control at least one of the moving apparatus and the manipulator based on the environmental data (E, E1 to E4) that is acquired by the environment acquisition sensor (10s, 10s1 to 10s5), and is associated with the position at any point on a moving path between the first position and the second position. characterized in that the environmental data includes any of an amplitude of a vibration, a vibration frequency and a temperature.
A method of adjusting buoyancy of a UUV during a subsea mission, the method comprising: measuring buoyancy drift of the UUV when underwater; docking the UUV with a subsea station; at the subsea station, changing a quantity of a flowable buoyancy-adjustment material held onboard the UUV to correct the measured buoyancy drift by transferring that material from the subsea station to the UUV or from the UUV to the subsea station, wherein the buoyancy-adjustment material is a ballast material that is negatively buoyant in seawater, and wherein when varying the quantity of buoyancy-adjustment material onboard the UUV, said material flows downwardly from the subsea station to the UUV or from the UUV to the subsea station or to the water; undocking the UUV from the subsea station; and continuing the mission. measuring buoyancy drift of the UUV when underwater; docking the UUV with a subsea station; at the subsea station, changing a quantity of a flowable buoyancy-adjustment material held onboard the UUV to correct the measured buoyancy drift by transferring that material from the subsea station to the UUV or from the UUV to the subsea station, wherein the buoyancy-adjustment material is a ballast material that is negatively buoyant in seawater, and wherein when varying the quantity of buoyancy-adjustment material onboard the UUV, said material flows downwardly from the subsea station to the UUV or from the UUV to the subsea station or to the water; undocking the UUV from the subsea station; and continuing the mission.
A method performed by a user equipment, the method comprising: receiving a first allocation of uplink resources in a mobile communication network, wherein the first allocation comprises a configured grant; receiving a second allocation of uplink resources, wherein the uplink resources of the second allocation at least partially overlap in time with the uplink resources of the first allocation, wherein the second allocation is indicated using downlink control information, wherein the downlink control information includes a parameter indicating that the second allocation is a high priority allocation, wherein the second allocation is received at a later time than the first allocation; determining whether the second allocation is associated with higher priority traffic than the first allocation, such that the second allocation preempts the first allocation; and generating a transmission block, TB, according to the second allocation in response to the second allocation being associated with higher priority traffic than the first allocation. receiving a first allocation of uplink resources in a mobile communication network, wherein the first allocation comprises a configured grant; receiving a second allocation of uplink resources, wherein the uplink resources of the second allocation at least partially overlap in time with the uplink resources of the first allocation, wherein the second allocation is indicated using downlink control information, wherein the downlink control information includes a parameter indicating that the second allocation is a high priority allocation, wherein the second allocation is received at a later time than the first allocation; determining whether the second allocation is associated with higher priority traffic than the first allocation, such that the second allocation preempts the first allocation; and generating a transmission block, TB, according to the second allocation in response to the second allocation being associated with higher priority traffic than the first allocation.
A protein comprising a variant Fc region, wherein the variant Fc region comprises: (a) amino acid substitutions at both positions 234 and 235; and (b) an amino acid alteration to arginine at position 236; wherein: (i) the amino acid substituted at position 234 is selected from the list D, E, G, H, K, Q, R, S, T; (ii) the amino acid substituted at position 235 is selected from the list A, D, E, G, H, I, K, Q, R, S, T, V; (iii) the amino acid numbering is according to the EU index as in Kabat; and (iv) the binding of the protein to human FcγRI is less than 50% of the binding of a LALAPG reference protein, optionally when measured by surface plasmon resonance.
A method of improving the quality of at least a portion, y, of an image comprising the steps of: approximating a sparse code, α*, using the minimisation: α ∗ = arg min α ‖ D l α − y ‖ 2 2 where D l is a dictionary of previously acquired low resolution image portions having a corresponding dictionary of previously acquired high resolution image portions, D h, wherein each low resolution image portion within D l corresponds with a high resolution image portion within D h; and determining a high resolution image portion x * of the image to be improved from the approximated sparse code, α*, according to: x ∗ = D h α ∗ wherein approximating the sparse code, α*, further comprises using the approximation of: α ∗ = arg min α ‖ D l α − y ‖ 2 2 ≈ D l − 1 y where D l − 1 is a pseudo inverse of D l so that x * can be found from: x ∗ = D h D l − 1 y and further wherein the pseudo inverse of D l is a Moore-Penrose pseudo inverse. approximating a sparse code, α*, using the minimisation: α ∗ = arg min α ‖ D l α − y ‖ 2 2 where D l is a dictionary of previously acquired low resolution image portions having a corresponding dictionary of previously acquired high resolution image portions, D h, wherein each low resolution image portion within D l corresponds with a high resolution image portion within D h; and determining a high resolution image portion x * of the image to be improved from the approximated sparse code, α*, according to: x ∗ = D h α ∗ wherein approximating the sparse code, α*, further comprises using the approximation of: α ∗ = arg min α ‖ D l α − y ‖ 2 2 ≈ D l − 1 y where D l − 1 is a pseudo inverse of D l so that x * can be found from: x ∗ = D h D l − 1 y and further wherein the pseudo inverse of D l is a Moore-Penrose pseudo inverse.
A method of controlling a multi-reaction zone, hydroformylation process for producing normal and iso aldehydes at a N:I ratio, the process comprising contacting an olefinically unsaturated compound with carbon monoxide, hydrogen and a catalyst comprising a transition metal, an organopolyphosphoramidite, and an organomonophosphite ligand, the contacting conducted in first and one or more subsequent reaction zones and at hydroformylation conditions comprising an organomonophosphite ligand to transition metal molar ratio greater than 2:1, the method comprising the steps of measuring the N:I ratio of the hydroformylation product, and either (i) increasing the concentration of the organopolyphosphoramidite ligand up to a 1:1 organopolyphosphoramidite to transition metal molar ratio to raise the product N:I ratio or (ii) decreasing the concentration of the organopolyphosphoramidite ligand below a 1:1 organopolyphosphoramidite to transition metal molar ratio to lower the product N:I ratio; wherein the term organomonophosphite ligand includes any organomonophosphoramidite ligand.
A thermally conductive nylon compound in the form of a pellet having a length, the compound consisting of: a. from 10 to 70 weight percent, by weight of the compound, of polyamide resin; b. from 10 to 40 weight percent, by weight of the compound, of long glass fibers having an average length substantially the same as the length of the pellet and ranging from 6 mm to 25 mm, and wherein the long glass fibers are incorporated into the compound as continuous glass filaments; c. from 20 to 50 weight percent, by weight of the compound, of graphite; d. from 0 to 1 weight percent, by weight of the compound, of metal soaps; e. from 0 to 1 weight percent, by weight of the compound, of heat stabilizer; and f. from 0 to 20 weight percent, by weight of the compound, of additives selected from the group consisting of flame retardants; pigments, colorants and dyes; and combinations of them, wherein the compound when molded into an article of 4 mm thickness has a through plane thermal conductivity ranging from 1 W/m.K to 4 W/m.K measured by a transient plane source method using the C-Therm TCi TM Thermal Conductivity Analyzer with selected test method "Ceramics" (C-Therm Test) and by using a test specimen having a thickness of 4 mm and water as the contact agent, and wherein the compound when molded into an article has a surface resistivity of less than 1 × 10 5 Ohm/sq as measured by IEC 60093. a. from 10 to 70 weight percent, by weight of the compound, of polyamide resin; b. from 10 to 40 weight percent, by weight of the compound, of long glass fibers having an average length substantially the same as the length of the pellet and ranging from 6 mm to 25 mm, and wherein the long glass fibers are incorporated into the compound as continuous glass filaments; c. from 20 to 50 weight percent, by weight of the compound, of graphite; d. from 0 to 1 weight percent, by weight of the compound, of metal soaps; e. from 0 to 1 weight percent, by weight of the compound, of heat stabilizer; and f. from 0 to 20 weight percent, by weight of the compound, of additives selected from the group consisting of flame retardants; pigments, colorants and dyes; and combinations of them, wherein the compound when molded into an article of 4 mm thickness has a through plane thermal conductivity ranging from 1 W/m.K to 4 W/m.K measured by a transient plane source method using the C-Therm TCi TM Thermal Conductivity Analyzer with selected test method "Ceramics" (C-Therm Test) and by using a test specimen having a thickness of 4 mm and water as the contact agent, and wherein the compound when molded into an article has a surface resistivity of less than 1 × 10 5 Ohm/sq as measured by IEC 60093.
A bone-tendon-bone reconstruction system (100,200) comprising: a first and/or a second bone block(s), a graft attached to said first bone block and a second bone block; and a button/loop (10,50) construct attached to one of said first and second bone blocks, the button/loop construct comprising a button and a continuous flexible loop attached to the button, the flexible loop having a joined connection region between opposite ends of the loop, the joined connection region separating a proximal loop from a distal loop relative to the button, characterized in that the distal loop is cinched over the joined connection region and distal to the button to form a cinch knot. a first and/or a second bone block(s), a graft attached to said first bone block and a second bone block; and a button/loop (10,50) construct attached to one of said first and second bone blocks, the button/loop construct comprising a button and a continuous flexible loop attached to the button, the flexible loop having a joined connection region between opposite ends of the loop, the joined connection region separating a proximal loop from a distal loop relative to the button,
A method for wireless communication, comprising: identifying a first set of resources allocated for control and data signaling for a first type of communications, wherein the first set of resources comprises a first frequency region of a system bandwidth and a first set of transmission time intervals, TTIs, each having a first duration; identifying a second set of resources allocated for control and data signaling for a second type of communications, wherein the second set of resources comprises a second frequency region of the system bandwidth, wherein the first type of communications comprises communications having a first nominal latency constraint that is stricter than a second nominal latency constraint for the second type of communications; and communicating on resources of the second set punctured to include the data signaling for the first type of communications based at least in part on a control message received on resources of the first set, wherein the second type of communications comprises mobile broadband, MBB, communications and the second set of resources comprises a second set of TTIs each having a second duration that is an integer multiple of the first duration, wherein: the second set of resources comprises a first subset of resources reserved for the MBB communications, which are not available for puncturing to include the data signaling for the first type of communications, and a second subset of resources available for puncturing to include the data signaling for the first type of communications. identifying a first set of resources allocated for control and data signaling for a first type of communications, wherein the first set of resources comprises a first frequency region of a system bandwidth and a first set of transmission time intervals, TTIs, each having a first duration; identifying a second set of resources allocated for control and data signaling for a second type of communications, wherein the second set of resources comprises a second frequency region of the system bandwidth, wherein the first type of communications comprises communications having a first nominal latency constraint that is stricter than a second nominal latency constraint for the second type of communications; and communicating on resources of the second set punctured to include the data signaling for the first type of communications based at least in part on a control message received on resources of the first set, wherein the second type of communications comprises mobile broadband, MBB, communications and the second set of resources comprises a second set of TTIs each having a second duration that is an integer multiple of the first duration, wherein: the second set of resources comprises a first subset of resources reserved for the MBB communications, which are not available for puncturing to include the data signaling for the first type of communications, and a second subset of resources available for puncturing to include the data signaling for the first type of communications.
A spirit level comprising a generally central elongate bar, and two pairs of arm members, each pair being pivotally coupled at a respective end of said bar for movement between a first, extended, generally H-shaped configuration in which said arm members extend from said end of said bar at an angle thereto, and a second folded configuration, in which a side-wall of each of said arm members is substantially parallel to and located against or adjacent to a side edge of said central bar, wherein at least one bulb containing a bubble is provided in or on said central bar and oriented substantially parallel to its longitudinal axis, and at least one bulb containing a bubble is provided in or on one of said arm members and oriented substantially parallel to the longitudinal axis of the corresponding arm member wherein each arm member comprises a distal end and a proximal end and is pivotally coupled at its respective proximal end to an end of said central bar so as to be pivotal toward and away from a respective one of the opposing longitudinal side edges of said central bar.
A method of monitoring an area, comprising setting up an ad-hoc network of wireless sensor stations (1 - 6), wherein at least some of the sensor stations comprise one or more sensors suitable for monitoring one or more physical parameters of interest, the sensor stations collecting information using said sensors; the sensor stations providing the collected information with spatial and temporal information; the sensor stations processing the collected information using appropriate distributed computational algorithms such that at least two nearby sensor stations exchange information with each other and at least one of the sensor stations provides distributed computational processing to at least one other nearby sensor station in response to an inquiry in said ad-hoc network to evaluate the situation in a specific location at a specific moment in time employing combined information of said at least two nearby sensor stations in the area, including said spatial and temporal information; determining roles of the sensor stations in the information collecting and the distributed computational processing at runtime by sensor stations themselves according to the data requests made to the network and the capabilities, locations and properties of the sensor stations; and the sensor stations transmitting, if decided by the sensors stations based on the evaluation, information on the situation via said ad-hoc network to information consumers.