mhurhangee/ep-ind-claims huggingface dataset:
A network node for a millimeter wave cellular communication in a wireless communication system, the network node including a processor and a transceiver, the processor being configured to: generate a set of at least two synchronization signal sequences; construct a synchronization signal for each synchronization signal sequence to create a set of synchronization signals, each of the synchronization signals in the set of synchronization signals having an auto correlation and cross correlation below a threshold value with any other synchronization signal in the set of synchronization signals; generate a set of directional beam patterns, wherein each beam pattern in the set of directional beam patterns corresponds to one of the synchronization signals in the set of synchronization signals; and wherein the transceiver is configured to transmit the synchronization signals in the set of synchronization signals using the beam pattern for each synchronization signal over a same time frequency resource; wherein the processor is further configured to superimpose the constructed synchronization signals together; where the same time frequency resource comprises resource elements that span across multiple sub-carriers and OFDM symbols. generate a set of at least two synchronization signal sequences; construct a synchronization signal for each synchronization signal sequence to create a set of synchronization signals, each of the synchronization signals in the set of synchronization signals having an auto correlation and cross correlation below a threshold value with any other synchronization signal in the set of synchronization signals; generate a set of directional beam patterns, wherein each beam pattern in the set of directional beam patterns corresponds to one of the synchronization signals in the set of synchronization signals; and wherein the transceiver is configured to transmit the synchronization signals in the set of synchronization signals using the beam pattern for each synchronization signal over a same time frequency resource; wherein the processor is further configured to superimpose the constructed synchronization signals together; where the same time frequency resource comprises resource elements that span across multiple sub-carriers and OFDM symbols.
A device to approximate multiple tissue edges, comprising a clip, the clip comprising a first arm, a second arm and a center arm positioned between the first and second arms, the first and second arms being attached to the center arm at attachment sections (846a, 846b), respectively, at a proximal region of the center arm, wherein the first and second arms (842a, 842b) are bent away from the center arm such that the distal regions of these arms make an angle with a distal region of the center arm, wherein the first arm is bent away from the center arm at a first section and the second arm is bent away from the center arm at a second section, the first section being displaced longitudinally from the second section.
A pharmaceutical composition in a solid dosage form suitable for oral administration, the composition comprising a lyophilized composition comprising arsenic (LCCA), at least one bulking agent, and at least one lubricant; wherein the LCCA comprises a surfactant and the arsenic is arsenic trioxide; and wherein the LCCA is obtainable by a method comprising: solubilizing As 2 O 3 powder in an aqueous medium, adding an alkalizing agent in about 10% to 100% the amount of the As 2 O 3 powder, and adding a surfactant in about 0.5% v/v to about 4.0% v/v, but not exceeding about 50% As 2 O 3 concentration, to form an As 2 O 3 solution; and lyophilizing said As 2 O 3 solution, wherein said step of lyophilizing comprises: freezing said As 2 O 3 solution to generate a frozen As 2 O 3 product; and drying said As 2 O 3 product to generate said lyophilized composition comprising arsenic. solubilizing As 2 O 3 powder in an aqueous medium, adding an alkalizing agent in about 10% to 100% the amount of the As 2 O 3 powder, and adding a surfactant in about 0.5% v/v to about 4.0% v/v, but not exceeding about 50% As 2 O 3 concentration, to form an As 2 O 3 solution; and lyophilizing said As 2 O 3 solution, wherein said step of lyophilizing comprises: freezing said As 2 O 3 solution to generate a frozen As 2 O 3 product; and drying said As 2 O 3 product to generate said lyophilized composition comprising arsenic. freezing said As 2 O 3 solution to generate a frozen As 2 O 3 product; and drying said As 2 O 3 product to generate said lyophilized composition comprising arsenic.
A method for arranging a separating piston in a system cavity where a liquid medium is sealed off and separated from a second medium, for example gas, by means of the separating piston, characterized in that the liquid medium is introduced or has been introduced into the cavity, in that a first part of a piston comprised in the separating piston is lowered into the liquid medium in a direction towards the inner part of the cavity, in that a second part of a piston comprised in the separating piston is lowered into the cavity and is caused to interact with the first part of the piston by the application of an interaction force, via an actuating area (18p, 18e) located on the second piston part, in that a volume of liquid is confined between the parts of the piston (18c, 18d) by the said interaction, in that, following the said interaction, the second part of the piston is subjected to downward-pressing forces, with the result that parts of the second piston are urged to continue to penetrate into the first part of the piston, in that, as a result of this, all or parts of the confined volume of liquid are forced out into the cavity under the first part of the piston via a passage in this, in that the volume of liquid thus forced out acts upon an underside of the first piston part, said underside having a lower area that is larger than the by the part in the first piston part down-ward pressed area, in that, as a result of the difference in area between the down-ward pressed area and the lower area, the downward-pressing force causes the first part of the piston to move upwards in relation to the second part of the piston and into a final position in which it is pressed together with the second piston, so that the separating piston as such is at a distance from the said inner parts of the cavity, where the parts of the piston maintain their relative positions in a pressed-together position as a result of the ratio of their areas, and in that a spring function, for example a mechanical spring, is arranged to act on the separating piston at the upper part of the second part of the piston.
A method for simulating bit accurate film grain in an ordered video sequence, comprising the steps of: providing film grain supplemental information corresponding to a plurality of intra coded pictures; and characterized by providing additional film grain supplemental information corresponding to one or more selected inter coded pictures, which in decoding order are between consecutive intra coded pictures, wherein said selected inter coded pictures are selected based on their display order. providing film grain supplemental information corresponding to a plurality of intra coded pictures; and characterized by providing additional film grain supplemental information corresponding to one or more selected inter coded pictures, which in decoding order are between consecutive intra coded pictures, wherein said selected inter coded pictures are selected based on their display order.
A method comprising: receiving by a processing device of an NFC device a request, initiated by a first application loaded in a memory of the NFC device, to modify one or more parameters of an NFC routing table of an NFC router of the NFC device, the NFC routing table having parameters indicating the devices (206, 210, 212) to which NFC messages are to be routed; retrieving by the processing device a first identifier associated with the application; transmitting by the processing device the first identifier to the NFC router; and verifying by the NFC router, based on the first identifier, whether or not the application is authorized to modify the routing table. receiving by a processing device of an NFC device a request, initiated by a first application loaded in a memory of the NFC device, to modify one or more parameters of an NFC routing table of an NFC router of the NFC device, the NFC routing table having parameters indicating the devices (206, 210, 212) to which NFC messages are to be routed; retrieving by the processing device a first identifier associated with the application; transmitting by the processing device the first identifier to the NFC router; and verifying by the NFC router, based on the first identifier, whether or not the application is authorized to modify the routing table.
A fuel injector (100; 200) for an internal combustion engine, the fuel injector being installable in a cylinder head bore of a cylinder head of the engine; the fuel injector comprising: a body region arranged to be received within the cylinder head bore, and a head region arranged to extend outside the cylinder head bore to protrude from the cylinder head when the injector is installed in the cylinder head bore; a first valve needle arranged to control the injection of a gaseous fuel from a first outlet; a second valve needle slidably received within the first valve needle and arranged to control the injection of a liquid fuel from a second outlet; wherein injection of the gaseous fuel is independent of injection of the liquid fuel; a gaseous fuel inlet for admitting the gaseous fuel to the injector; and a liquid fuel inlet for admitting the liquid fuel to the injector; characterised in that the gaseous fuel inlet is disposed in the body region of the injector, and wherein the liquid fuel inlet is disposed in the head region of the injector above first and second control valves (122, 124) disposed between the liquid fuel inlet and the gaseous fuel inlet. a body region arranged to be received within the cylinder head bore, and a head region arranged to extend outside the cylinder head bore to protrude from the cylinder head when the injector is installed in the cylinder head bore; a first valve needle arranged to control the injection of a gaseous fuel from a first outlet; a second valve needle slidably received within the first valve needle and arranged to control the injection of a liquid fuel from a second outlet; wherein injection of the gaseous fuel is independent of injection of the liquid fuel; a gaseous fuel inlet for admitting the gaseous fuel to the injector; and a liquid fuel inlet for admitting the liquid fuel to the injector; characterised in that the gaseous fuel inlet is disposed in the body region of the injector, and wherein the liquid fuel inlet is disposed in the head region of the injector above first and second control valves (122, 124) disposed between the liquid fuel inlet and the gaseous fuel inlet.
A light receiving and emitting element module, comprising: a wiring substrate; a light emitting element and a light receiving element which are disposed on the wiring substrate; and a lens member comprising a lens portion, a support portion configured to support the lens portion disposed above the light emitting element and the light receiving element and a plurality of columns (11, 20) disposed on a lower surface of the support portion, characterized in that the plurality of columns (11,20) includes a plurality of first columns and a plurality of second columns, the light emitting element and the light receiving element being disposed in between the plurality of first columns, and tip ends of the first columns being in contact with an upper surface of the wiring substrate, the light emitting element and the light receiving element being disposed in between the plurality of second columns, and tip ends of the second columns being disposed in a plurality of hole portions whose openings are disposed in the upper surface of the wiring substrate. a wiring substrate; a light emitting element and a light receiving element which are disposed on the wiring substrate; and a lens member comprising a lens portion, a support portion configured to support the lens portion disposed above the light emitting element and the light receiving element and a plurality of columns (11, 20) disposed on a lower surface of the support portion, characterized in that the plurality of columns (11,20) includes a plurality of first columns and a plurality of second columns, the light emitting element and the light receiving element being disposed in between the plurality of first columns, and tip ends of the first columns being in contact with an upper surface of the wiring substrate, the light emitting element and the light receiving element being disposed in between the plurality of second columns, and tip ends of the second columns being disposed in a plurality of hole portions whose openings are disposed in the upper surface of the wiring substrate.
Coating method for coating components with a nozzle applicator (2; 14, 15) having a plurality of nozzles, in particular for applying a paint, an adhesive, an insulating agent, a sealing agent or a primer, characterized in that the nozzle applicator (2; 14, 15) is selectively operated a) with a large area coating performance, in particular for area coating, wherein the nozzle applicator (2; 14, 15) operates in a jet mode for coating with the large area coating performance, with a coating agent jet which is connected in the longitudinal direction of the coating agent jet, in contrast to a droplet jet which consists of droplets which are separated from one another in the longitudinal direction of the droplet jet, or b) with a small area coating performance, especially for detail coating, wherein the nozzle applicator (2; 14, 15) operates in a droplet mode for coating with the small area coating performance, with a droplet jet, which consists of droplets which are separated from one another in the longitudinal direction of the droplet jet, in contrast to the coating agent jet, which is connected in the longitudinal direction of the coating agent jet. a) with a large area coating performance, in particular for area coating, wherein the nozzle applicator (2; 14, 15) operates in a jet mode for coating with the large area coating performance, with a coating agent jet which is connected in the longitudinal direction of the coating agent jet, in contrast to a droplet jet which consists of droplets which are separated from one another in the longitudinal direction of the droplet jet, or b) with a small area coating performance, especially for detail coating, wherein the nozzle applicator (2; 14, 15) operates in a droplet mode for coating with the small area coating performance, with a droplet jet, which consists of droplets which are separated from one another in the longitudinal direction of the droplet jet, in contrast to the coating agent jet, which is connected in the longitudinal direction of the coating agent jet.
A work machine comprising: a swing structure; an electric motor for driving the swing structure; an electricity storage device connected to the electric motor; an inverter that controls driving of the electric motor; a swing control lever unit that issues a drive command to the electric motor as a drive command for the swing structure; a swing speed detecting device (25 a) that detects rotational speed of the electric motor as swing speed of the swing structure; and a controller that controls torque of the electric motor, characterized in that the controller reads the swing speed of the swing structure detected by the swing speed detecting device (25 a) to thereby control such that, when the swing speed is zero, an upper limit torque of the electric motor is smaller than a maximum torque value and, when the swing speed is a first rotational speed higher than zero, the upper limit torque of the electric motor is the maximum torque value. a swing structure; an electric motor for driving the swing structure; an electricity storage device connected to the electric motor; an inverter that controls driving of the electric motor; a swing control lever unit that issues a drive command to the electric motor as a drive command for the swing structure; a swing speed detecting device (25 a) that detects rotational speed of the electric motor as swing speed of the swing structure; and a controller that controls torque of the electric motor, characterized in that the controller reads the swing speed of the swing structure detected by the swing speed detecting device (25 a) to thereby control such that, when the swing speed is zero, an upper limit torque of the electric motor is smaller than a maximum torque value and, when the swing speed is a first rotational speed higher than zero, the upper limit torque of the electric motor is the maximum torque value.
A microfluidic system, comprising: a cartridge having a plurality of microfluidic channels coupled to one or more chambers; characterized in that it further comprises: a container configured to hold dry chemicals and having a housing with a first cylindrical opening and a second opening smaller than the first cylindrical opening, wherein the container is inserted into an opening of the cartridge, such that the container is independently secured within the opening of the cartridge and is fluidically coupled with a microfluidic channel of the plurality of microfluidic channels via the second opening of the container; and a lid configured to cover the first cylindrical opening and comprising a first protruding structure that extends around an external circumference of a top portion of the lid, and a second protruding structure that extends around an external circumference of a bottom portion of the lid between slotted openings through the bottom portion of the lid. a cartridge having a plurality of microfluidic channels coupled to one or more chambers; characterized in that it further comprises: a container configured to hold dry chemicals and having a housing with a first cylindrical opening and a second opening smaller than the first cylindrical opening, wherein the container is inserted into an opening of the cartridge, such that the container is independently secured within the opening of the cartridge and is fluidically coupled with a microfluidic channel of the plurality of microfluidic channels via the second opening of the container; and a lid configured to cover the first cylindrical opening and comprising a first protruding structure that extends around an external circumference of a top portion of the lid, and a second protruding structure that extends around an external circumference of a bottom portion of the lid between slotted openings through the bottom portion of the lid. a container configured to hold dry chemicals and having a housing with a first cylindrical opening and a second opening smaller than the first cylindrical opening, wherein the container is inserted into an opening of the cartridge, such that the container is independently secured within the opening of the cartridge and is fluidically coupled with a microfluidic channel of the plurality of microfluidic channels via the second opening of the container; and a lid configured to cover the first cylindrical opening and comprising a first protruding structure that extends around an external circumference of a top portion of the lid, and a second protruding structure that extends around an external circumference of a bottom portion of the lid between slotted openings through the bottom portion of the lid.
A plant control system comprising: a target value calculating part configured to calculate a target value of a control output of a plant based on one or more of predetermined parameters of the plant; a target value correcting part configured to correct the target value in a direction suppressing overshoot of the control output so as to calculate a corrected target value; and a feedback controller configured to determine a control input of the plant so that the control output approaches the corrected target value, wherein the target value correcting part is configured to, if making the control output change to the target value, set the corrected target value so that the amount of correction of the target value becomes equal to or less than the predetermined value when a difference of the target value and a current value of the control output is larger than a first reference value, change the corrected target value so that the amount of correction of the target value becomes greater than the predetermined value when the difference reaches the first reference value, and change the corrected target value so that the amount of correction of the target value becomes equal to or less than the predetermined value when the difference reaches a second reference value, and wherein the second reference value is smaller than the first reference value. a target value calculating part configured to calculate a target value of a control output of a plant based on one or more of predetermined parameters of the plant; a target value correcting part configured to correct the target value in a direction suppressing overshoot of the control output so as to calculate a corrected target value; and a feedback controller configured to determine a control input of the plant so that the control output approaches the corrected target value, wherein the target value correcting part is configured to, if making the control output change to the target value, set the corrected target value so that the amount of correction of the target value becomes equal to or less than the predetermined value when a difference of the target value and a current value of the control output is larger than a first reference value, change the corrected target value so that the amount of correction of the target value becomes greater than the predetermined value when the difference reaches the first reference value, and change the corrected target value so that the amount of correction of the target value becomes equal to or less than the predetermined value when the difference reaches a second reference value, and wherein the second reference value is smaller than the first reference value.
A control method, wherein the method is applied to a wireless communications system for switching a user equipment from an idle state to an active state, the wireless communications system comprises the user equipment, a base station in which a current cell of the user equipment is located, a gateway device including a serving gateway and a packet data network gateway, a local control plane device, and a remote control plane device including a mobility management entity, and the method comprises: obtaining, by the local control plane device, context information of the user equipment from the remote control plane device according to an interaction process between the user equipment and the remote control plane device; and setting up, by the local control plane device according to the context information of the user equipment, a radio bearer between the user equipment and the base station in which the current cell of the user equipment is located. obtaining, by the local control plane device, context information of the user equipment from the remote control plane device according to an interaction process between the user equipment and the remote control plane device; and setting up, by the local control plane device according to the context information of the user equipment, a radio bearer between the user equipment and the base station in which the current cell of the user equipment is located.
A method of configuring the Precoding Control Information, PCI, vector in a User Equipment, UE, configured in uplink Closed-loop Transmit Diversity, CLTD, the method comprising the steps of: - receiving an RRC reconfiguration message that indicates a serving cell change procedure, and - setting the PCI vector to a default value upon receipt of the RRC reconfiguration message. - receiving an RRC reconfiguration message that indicates a serving cell change procedure, and - setting the PCI vector to a default value upon receipt of the RRC reconfiguration message.