mhurhangee/ep-ind-claims huggingface dataset:
A command indication apparatus, configured in a network device, comprising: a memory that stores a plurality of instructions; and a processor coupled to the memory and configured to execute the instructions to: transmit, to a user equipment, UE, a command for activating or deactivating duplication transmission by using a bitmap field, to activate or deactivate duplication transmission of one or more packet data convergence protocol entities or radio bearers in the UE; wherein one bit or a plurality of bits in the bitmap field correspond(s) to one of the packet data convergence protocol entities or radio bearers, and wherein an i-th bit or an i-th pair of bits in the bitmap field correspond(s) to an i-th packet data convergence protocol entity in ranked packet data convergence protocol entities in the UE that are configured as duplication transmission. a memory that stores a plurality of instructions; and a processor coupled to the memory and configured to execute the instructions to: transmit, to a user equipment, UE, a command for activating or deactivating duplication transmission by using a bitmap field, to activate or deactivate duplication transmission of one or more packet data convergence protocol entities or radio bearers in the UE; wherein one bit or a plurality of bits in the bitmap field correspond(s) to one of the packet data convergence protocol entities or radio bearers, and wherein an i-th bit or an i-th pair of bits in the bitmap field correspond(s) to an i-th packet data convergence protocol entity in ranked packet data convergence protocol entities in the UE that are configured as duplication transmission. transmit, to a user equipment, UE, a command for activating or deactivating duplication transmission by using a bitmap field, to activate or deactivate duplication transmission of one or more packet data convergence protocol entities or radio bearers in the UE; wherein one bit or a plurality of bits in the bitmap field correspond(s) to one of the packet data convergence protocol entities or radio bearers, and wherein an i-th bit or an i-th pair of bits in the bitmap field correspond(s) to an i-th packet data convergence protocol entity in ranked packet data convergence protocol entities in the UE that are configured as duplication transmission.
Integrated circuit arrangement, comprising - a comparator having a first input in communication with a terminal of the integrated circuit arrangement, designed for connecting an external, readable component that is formed as a capacitor having a value (Cprog) out of a predetermined value set, having a second input to which a readable reference component (16, 18) is connected which is an external reference capacitor anyway provided for operating at least one functional block as a filter capacitor, or an integrated capacity, and having an output, - the circuit arrangement further comprising a control unit coupled to the output of the comparator for controlling the integrated circuit arrangement as a function of a comparison result of the comparator, wherein - a signal source for generating a reference signal is provided which is coupled to the terminal for connecting an external readable component and to the reference component (16, 18) for reading the respective component value (Cprog, Cref). - a comparator having a first input in communication with a terminal of the integrated circuit arrangement, designed for connecting an external, readable component that is formed as a capacitor having a value (Cprog) out of a predetermined value set, having a second input to which a readable reference component (16, 18) is connected which is an external reference capacitor anyway provided for operating at least one functional block as a filter capacitor, or an integrated capacity, and having an output, - the circuit arrangement further comprising a control unit coupled to the output of the comparator for controlling the integrated circuit arrangement as a function of a comparison result of the comparator, wherein - a signal source for generating a reference signal is provided which is coupled to the terminal for connecting an external readable component and to the reference component (16, 18) for reading the respective component value (Cprog, Cref).
A communications apparatus comprising a power amplifier configured to amplify a signal for transmission, a controllable switch coupled to an output of the power amplifier, an omnidirectional antenna coupled to a first output of the controllable switch, an antenna array coupled to a second output of the controllable switch, the antenna array comprising a plurality of antennas configured to form the signal into a beam of transmitted signals, the beam having a directional bias with respect to a location of the communications apparatus, and a controller configured to control the controllable switch, on the basis of a physical random access channel, PRACH, preamble forming a part of the signal received from the output of the power amplifier, to switch a between a first mode of operation of the communications apparatus in which the signal for transmission from the output of the power amplifier is fed to the omnidirectional antenna, and a second mode of operation of the communications apparatus in which the signal from the output of the power amplifier is fed to the antenna array. a power amplifier configured to amplify a signal for transmission, a controllable switch coupled to an output of the power amplifier, an omnidirectional antenna coupled to a first output of the controllable switch, an antenna array coupled to a second output of the controllable switch, the antenna array comprising a plurality of antennas configured to form the signal into a beam of transmitted signals, the beam having a directional bias with respect to a location of the communications apparatus, and a controller configured to control the controllable switch, on the basis of a physical random access channel, PRACH, preamble forming a part of the signal received from the output of the power amplifier, to switch a between a first mode of operation of the communications apparatus in which the signal for transmission from the output of the power amplifier is fed to the omnidirectional antenna, and a second mode of operation of the communications apparatus in which the signal from the output of the power amplifier is fed to the antenna array.
A method of forming an electrochemical test sensor (400, 500), the electrochemical test sensor (400, 500) including a plurality of electrodes, conductive leads and a plurality of test-sensor contacts (444, 446, 544, 546), the method comprising the acts of: providing a base (410, 510); placing electrochemically-active material (420, 520) on the base (410, 510); applying dielectric material (450, 550) over the electrochemically-active material (420, 520); laser-ablating the dielectric material (450, 550) in a first pattern to expose the electrochemically-active material (420, 520) and to assist in forming the plurality of test-sensor contacts (444, 446, 544, 546); laser-ablating the dielectric material (450, 550) and the electrochemically-active material (420, 520) in a second pattern to expose the base (410, 510) and form outer boundaries (412, 414, 512, 514) of the plurality of electrodes, the conductive leads and the plurality of test-sensor contacts (444, 446, 544, 546), the first pattern being different from the second pattern; and applying a second layer and thereby in forming a capillary channel in the test sensor, the capillary channel assisting in allowing a fluid sample to contact a reagent located therein, wherein the dielectric material (450, 550) is located between the base (410, 510) and the second layer. providing a base (410, 510); placing electrochemically-active material (420, 520) on the base (410, 510); applying dielectric material (450, 550) over the electrochemically-active material (420, 520); laser-ablating the dielectric material (450, 550) in a first pattern to expose the electrochemically-active material (420, 520) and to assist in forming the plurality of test-sensor contacts (444, 446, 544, 546); laser-ablating the dielectric material (450, 550) and the electrochemically-active material (420, 520) in a second pattern to expose the base (410, 510) and form outer boundaries (412, 414, 512, 514) of the plurality of electrodes, the conductive leads and the plurality of test-sensor contacts (444, 446, 544, 546), the first pattern being different from the second pattern; and applying a second layer and thereby in forming a capillary channel in the test sensor, the capillary channel assisting in allowing a fluid sample to contact a reagent located therein, wherein the dielectric material (450, 550) is located between the base (410, 510) and the second layer.
A method for performing a thermostable blunt-end DNA ligase reaction, comprising: combining DNA molecules to be ligated and a thermostable blunt-end DNA ligase in a solution, wherein said thermostable blunt-end DNA ligase comprises an amino acid sequence selected from the group of amino acid sequences consisting of SEQ lD NO: 1, SEQ lD NO: 13, SEQ lD NO: 14, SEQ lD NO: 15, SEQ lD NO: 16, SEQ lD NO: 17, SEQ lD NO: 18, and SEQ lD NO: 19, and wherein the thermostable blunt-end DNA ligase reaction is performed at a temperature of 60 °C or higher.
Container device configured to be mechanically mounted on a vehicle, in particular outside a passenger compartment of said vehicle, comprising: - at least one containment body internally defining at least one housing volume and with at least one access opening which places said volume in communication with an external environment; - at least one separator element placed within said housing volume and configured to separate said housing volume into at least one first compartment and at least one second compartment; - at least one closing lid which is mechanically connected to said at least one containing body and which is movable between a closed configuration in which said at least one lid at least partially obstructs said access opening and an open configuration in which it clears said access opening; - at least one tank to contain at least one liquid and/or a gel, said at least one tank is configured to be housed inside said second compartment and is provided with a front face; wherein said tank is removably inserted inside said second compartment; and characterized in that the lid is configured in such a way that, in said closed configuration, it locks said tank inside said second compartment only partially obstructing access to the second compartment, so that a part of said front face of the tank is accessible from the outside even when the lid is in the closed configuration. - at least one containment body internally defining at least one housing volume and with at least one access opening which places said volume in communication with an external environment; - at least one separator element placed within said housing volume and configured to separate said housing volume into at least one first compartment and at least one second compartment; - at least one closing lid which is mechanically connected to said at least one containing body and which is movable between a closed configuration in which said at least one lid at least partially obstructs said access opening and an open configuration in which it clears said access opening; - at least one tank to contain at least one liquid and/or a gel, said at least one tank is configured to be housed inside said second compartment and is provided with a front face; wherein said tank is removably inserted inside said second compartment; and characterized in that the lid is configured in such a way that, in said closed configuration, it locks said tank inside said second compartment only partially obstructing access to the second compartment, so that a part of said front face of the tank is accessible from the outside even when the lid is in the closed configuration.
A turbomachine system, comprising: a slug detector coupled to a main line and configured to detect a slug flow in a multiphase fluid in the main line; a compressor fluidly coupled to the main line and disposed downstream of the slug detector; a bypass line fluidly coupled to the main line upstream of the compressor and downstream of the compressor; an upstream control valve fluidly coupled to the main line upstream of the compressor and communicably coupled to the slug detector, the upstream control valve being configured to actuate between a normal position, in which the upstream control valve directs fluid to the compressor, and a bypass position, in which the upstream control valve directs fluid to the bypass line, wherein the upstream control valve is configured to actuate from the normal position to the bypass position when the slug detector detects the slug flow; a downstream control valve fluidly coupled to the main line downstream of the compressor, the downstream control valve being configured to be actuated between a normal position, in which the downstream control valve receives fluid from the compressor, and a bypass position, in which the downstream control valve receives fluid from the bypass line; a high pressure return line extending from a point downstream of the downstream control valve to a point upstream of the upstream control valve; and a check valve coupled to the bypass line upstream of the upstream control valve, wherein the check valve is configured to prevent pressure from the high pressure return line from reversing through the main line. a slug detector coupled to a main line and configured to detect a slug flow in a multiphase fluid in the main line; a compressor fluidly coupled to the main line and disposed downstream of the slug detector; a bypass line fluidly coupled to the main line upstream of the compressor and downstream of the compressor; an upstream control valve fluidly coupled to the main line upstream of the compressor and communicably coupled to the slug detector, the upstream control valve being configured to actuate between a normal position, in which the upstream control valve directs fluid to the compressor, and a bypass position, in which the upstream control valve directs fluid to the bypass line, wherein the upstream control valve is configured to actuate from the normal position to the bypass position when the slug detector detects the slug flow; a downstream control valve fluidly coupled to the main line downstream of the compressor, the downstream control valve being configured to be actuated between a normal position, in which the downstream control valve receives fluid from the compressor, and a bypass position, in which the downstream control valve receives fluid from the bypass line; a high pressure return line extending from a point downstream of the downstream control valve to a point upstream of the upstream control valve; and a check valve coupled to the bypass line upstream of the upstream control valve, wherein the check valve is configured to prevent pressure from the high pressure return line from reversing through the main line.
A method performed by a base station, the method comprising: sending, to a neighbouring base station, a resource status request which includes a periodicity at which the neighbouring base station is to send resource status update messages; receiving at least one resource status update message sent by the neighbouring base station based on the periodicity, wherein said one or more resource status update messages include data that identifies a physical resource block usage for non-guaranteed bit rate, 'non-GBR', traffic on a downlink; and performing load balancing operations in dependence upon the received one or more resource status update messages. sending, to a neighbouring base station, a resource status request which includes a periodicity at which the neighbouring base station is to send resource status update messages; receiving at least one resource status update message sent by the neighbouring base station based on the periodicity, wherein said one or more resource status update messages include data that identifies a physical resource block usage for non-guaranteed bit rate, 'non-GBR', traffic on a downlink; and performing load balancing operations in dependence upon the received one or more resource status update messages.
A panel comprising a panel body having a front surface and a back surface, and a frame member provided on a peripheral portion of the back surface of the panel body, the panel being supported by a panel support through the frame member and made of a synthetic resin, wherein the panel body has light transmissivity and the light-absorbing heat-storing property of absorbing light, converting the light into heat, and storing the heat therein; the panel body is made of a polycarbonate resin composition prepared by adding 0.0001 to 0.5 parts by mass of metal boride fine particles of at least one metal selected from the group consisting of La, Ce, Pr, Nd, Tb, Dy, Ho, Y, Sm, Eu, Er, Tm, Yb, Lu, Sr, and Ca relative to 100 parts by mass of an aromatic polycarbonate resin having a water content of 500 ppm by mass or more; the frame member has a thermal conductivity measured as indicated in the description of 3.0 W/m·K or more; and the frame member is made of a resin composition containing a polycarbonate resin, and relative to 100 parts by mass of the polycarbonate resin, 5 parts by mass or more and less than 40 parts by mass of graphitized carbon fibers having a thermal conductivity in the length direction of 100 W/m·K or more and an average fiber diameter measured with an image analyzer of 5 to 20 μm, and 5 parts by mass or more and 100 parts by mass or less of a graphite powder having an average particle diameter determined according to JIS Z8819-2 based on measurement by a laser diffraction method according to JIS Z8825-1 of 1 to 500 μm, wherein the graphitized carbon fibers are a short carbon fiber bundle produced by bundling short carbon fibers at a bulk density of 450 to 800 g/l with a sizing agent, cutting the carbon fibers into a predetermined length of 2 to 20 mm, and then graphitizing the resultant bundle by heating the bundle in an inert gas atmosphere at a temperature of 2800°C to 3300°C so that the sizing agent content is 0.1% by mass or less.
A method of joining web conferences on a mobile device, comprising: running a program on the mobile device to display a list of web conference invitations for web conferences scheduled to be held contemporaneously with a current time indicated by the mobile device; receiving a user selection of a web conference invitation from the list of web conference invitations; and initiating a web conference for the selected web conference invitation using a web conference client installed on the mobile device, wherein the method further comprises the program on the mobile device querying a set of calendar databases to obtain the list of web conference invitations, and wherein querying the set of calendar databases includes identifying any calendar events in the set of calendar databases scheduled to be conducted within a specified time range proximate to the current time and that include a URL (Uniform Resource Locator) having a predetermined text pattern indicative of a web conference link. running a program on the mobile device to display a list of web conference invitations for web conferences scheduled to be held contemporaneously with a current time indicated by the mobile device; receiving a user selection of a web conference invitation from the list of web conference invitations; and initiating a web conference for the selected web conference invitation using a web conference client installed on the mobile device, wherein the method further comprises the program on the mobile device querying a set of calendar databases to obtain the list of web conference invitations, and wherein querying the set of calendar databases includes identifying any calendar events in the set of calendar databases scheduled to be conducted within a specified time range proximate to the current time and that include a URL (Uniform Resource Locator) having a predetermined text pattern indicative of a web conference link.
A membrane vacuum pump, comprising at least one working space (13, 13a, 13b) which is bounded by a membrane deformable to change the size of the working space (13, 13a, 13b) and by a wall (17, 17a, 17b) in which at least one inlet (23a, 23b) and at least one outlet (25a, 25b) are formed for a medium which is sucked into the working space (13, 13a, 13b) which increases in size in so doing in a suction phase via the inlet (23a, 23b) and which is expelled out of the working space (13, 13a, 13b) which decreases in size in so doing in a compression phase via the outlet (25a, 25b); and comprising a controllable actuator unit (31, 31a, 31b) for deforming the membrane by a contactless action on the membrane by means of electrical and/or magnetic fields, wherein the working space (13, 13a, 13b) has an axis along which the membrane is deformable and which is surrounded by an annular sealing region between the membrane and the wall (17, 17a, 17b), characterized in that the inlet (23a, 23b) comprises one or more openings which are formed in the wall (17, 17a, 17b) in the region of the annular sealing region between the membrane and the wall (17, 17a, 17b), with the inlet (23a, 23b) being closable by means of the membrane.
Air dome with one or more membrane shells made of plastic film material, at least one heat-reflecting mat in the form of a multi-layer hybrid insulating mat being arranged on the inside of at least one membrane shell, the same consisting of several layers of metallised IR-reflecting aluminium foils for highly effective infrared reflection and with low intrinsic emission and of two to eight layers of absorption-reducing air cushion foils for achieving convective distances through the enclosed air in the studs and thus for an optimum convective effect for reducing the transmission heat losses, for highly effective infrared reflection with low intrinsic emission and for effective shielding against high-frequency rays, waves and fields, characterised in that A) said one or more multi-layer hybrid insulation mats are either inserted into flat pockets arranged in a matrix-like manner on the membrane shell, filling the pockets on the open side thereof, wherein the pockets are welded to the inside of the membrane shell and the open sides thereof are closed by means of a Velcro fastener or by means of a zip fastener after insertion of the heat reflection mats, or B) in the case of several membrane shells made of plastic film material, the outer and inner membranes are constructed from several separate membrane strips which extend parallel to each other in a uniform direction over the entire air dome, and which are connected along their longitudinal edges via at least one piping to a piping connecting profile with a piping fitting profile in the transverse direction to the membrane strips in a tension-locking manner, each such membrane strip forming an airtight pocket in which one or more heat-reflecting mats are inserted to fill the pocket. A) said one or more multi-layer hybrid insulation mats are either inserted into flat pockets arranged in a matrix-like manner on the membrane shell, filling the pockets on the open side thereof, wherein the pockets are welded to the inside of the membrane shell and the open sides thereof are closed by means of a Velcro fastener or by means of a zip fastener after insertion of the heat reflection mats, or B) in the case of several membrane shells made of plastic film material, the outer and inner membranes are constructed from several separate membrane strips which extend parallel to each other in a uniform direction over the entire air dome, and which are connected along their longitudinal edges via at least one piping to a piping connecting profile with a piping fitting profile in the transverse direction to the membrane strips in a tension-locking manner, each such membrane strip forming an airtight pocket in which one or more heat-reflecting mats are inserted to fill the pocket.