mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a terminal in a communication system, the method comprising; receiving, from a base station, a first message including a parameter indicating one of three modes for an uplink full power transmission of the terminal; receiving, from the base station, a second message relating to a transmit precoding matrix indicator, TPMI; scaling a transmit power for a physical uplink shared channel, PUSCH, by a scaling factor, the scaling factor being determined based on a mode indicated by the parameter; and transmitting, to the base station, PUSCH based on the scaled transmit power and the TPMI, wherein, based on the parameter indicating a first mode, the scaling factor is a ratio of a number of antenna ports with non-zero PUSCH transmission power over a maximum number of sounding reference signal, SRS, ports supported by the terminal in one SRS resource, wherein, based on the parameter indicating a second mode: the scaling factor is one, in response to the TPMI being included in a group of full power TPMIs, and the scaling factor is the ratio of the number of antenna ports with non-zero PUSCH transmission power over the number of SRS ports corresponding to the SRS resource for the TPMI, in response to the TPMI not being included in the group of full power TPMIs, and wherein, based on the parameter indicating a third mode, the scaling factor is one. receiving, from a base station, a first message including a parameter indicating one of three modes for an uplink full power transmission of the terminal; receiving, from the base station, a second message relating to a transmit precoding matrix indicator, TPMI; scaling a transmit power for a physical uplink shared channel, PUSCH, by a scaling factor, the scaling factor being determined based on a mode indicated by the parameter; and transmitting, to the base station, PUSCH based on the scaled transmit power and the TPMI, wherein, based on the parameter indicating a first mode, the scaling factor is a ratio of a number of antenna ports with non-zero PUSCH transmission power over a maximum number of sounding reference signal, SRS, ports supported by the terminal in one SRS resource, wherein, based on the parameter indicating a second mode: the scaling factor is one, in response to the TPMI being included in a group of full power TPMIs, and the scaling factor is the ratio of the number of antenna ports with non-zero PUSCH transmission power over the number of SRS ports corresponding to the SRS resource for the TPMI, in response to the TPMI not being included in the group of full power TPMIs, and the scaling factor is one, in response to the TPMI being included in a group of full power TPMIs, and the scaling factor is the ratio of the number of antenna ports with non-zero PUSCH transmission power over the number of SRS ports corresponding to the SRS resource for the TPMI, in response to the TPMI not being included in the group of full power TPMIs, and wherein, based on the parameter indicating a third mode, the scaling factor is one.
A control method for a hybrid vehicle including a generator and an electric motor, the generator being configured to charge a battery by use of power of an engine, the electric motor being configured to drive driving wheels by electric power of the battery, the control method comprising accepting mode setting to set any of a normal mode, a regeneration driving mode, and a silent mode in accordance with an operation on a mode switch, the normal mode being a mode in which the battery is charged by charging by the generator by use of the power of the engine or by charging by a regenerative braking force in the electric motor, the regeneration driving mode being a mode in which the battery is charged by charging by use of the power of the engine similarly to the normal mode or by charging by a regenerative braking force larger than the regenerative braking force in the normal mode, the silent mode being a mode in which charging by use of the power of the engine is inhibited, wherein: when the normal mode is set, setting of the silent mode is not accepted; and when the regeneration driving mode is set, setting of the silent mode is accepted. the normal mode being a mode in which the battery is charged by charging by the generator by use of the power of the engine or by charging by a regenerative braking force in the electric motor, the regeneration driving mode being a mode in which the battery is charged by charging by use of the power of the engine similarly to the normal mode or by charging by a regenerative braking force larger than the regenerative braking force in the normal mode, the silent mode being a mode in which charging by use of the power of the engine is inhibited, wherein: when the normal mode is set, setting of the silent mode is not accepted; and when the regeneration driving mode is set, setting of the silent mode is accepted. when the normal mode is set, setting of the silent mode is not accepted; and when the regeneration driving mode is set, setting of the silent mode is accepted.
An integrated multi-function window assembly comprising a first window frame having a first window, characterized in that it additionally comprises a second window frame having a second window, and in that a first window cover is mounted at the upper part of the first window frame and a first curtain cloth is located under the first window cover; one side of the first window frame is fixed to the second window frame having a second window, and the position of the second window in the second window frame is the same as the position of the first window in the first window frame.
An occupant support system for enabling an occupant to control an object when the occupant either sits, partially or fully reclines or stands on a support device, comprising: i) the support device comprising: a plurality of support members (110L/110R) configured to support an occupant; and a corresponding plurality of independently movably supported suspension systems (120L/120R) such to provide at least one independent motion selected from vertical, lateral, tilt and azimuthal motions and longitudinal roll motion of the support members; ii) a plurality of sensors (156, 158) which are operatively coupled with the support members (110L/110R) and configured to measure a parameter which is indicative of an input provided by the occupant, while occupying the device, in a hands-free manner and to produce a signal, wherein the input changes a state of the support device; iii) a memory module comprising computer-executable instructions; and iv) a processor operative to receive the produced signal and determine a state of the support device based on the produced signal and the computer-executable instructions and to provide instructions for controlling the object, characterized in that the memory module is configured to record a weight shifting pattern and/or load distribution pattern imparted by the occupant on the support device for identifying and/or authenticating the occupant. i) the support device comprising: a plurality of support members (110L/110R) configured to support an occupant; and a corresponding plurality of independently movably supported suspension systems (120L/120R) such to provide at least one independent motion selected from vertical, lateral, tilt and azimuthal motions and longitudinal roll motion of the support members; a plurality of support members (110L/110R) configured to support an occupant; and a corresponding plurality of independently movably supported suspension systems (120L/120R) such to provide at least one independent motion selected from vertical, lateral, tilt and azimuthal motions and longitudinal roll motion of the support members; ii) a plurality of sensors (156, 158) which are operatively coupled with the support members (110L/110R) and configured to measure a parameter which is indicative of an input provided by the occupant, while occupying the device, in a hands-free manner and to produce a signal, wherein the input changes a state of the support device; iii) a memory module comprising computer-executable instructions; and iv) a processor operative to receive the produced signal and determine a state of the support device based on the produced signal and the computer-executable instructions and to provide instructions for controlling the object,
Method for coding data in an OFDM signal, implemented by an emitter, comprising steps of: • selection of a collection of first frequencies in a predetermined set of mutually orthogonal frequencies, as a function of the value of a first datum, • for each first frequency, generation of a first sub-carrier at the first frequency, modulated in accordance with a first modulation scheme to transport at least one second datum, the method being characterised in that it comprises steps of: • selection of a collection of second frequencies distinct from the collection of first frequencies in the predetermined set, as a function of the value of the first datum, so that the combination of the first and second selected frequencies represents a coding of the first datum, • for each second frequency, generation of a second sub-carrier at the second frequency, wherein the second sub-carrier is of non-zero amplitude and has, in addition to its frequency, at least one other physical characteristic adapted to distinguish the second sub-carrier from each first sub-carrier. • selection of a collection of first frequencies in a predetermined set of mutually orthogonal frequencies, as a function of the value of a first datum, • for each first frequency, generation of a first sub-carrier at the first frequency, modulated in accordance with a first modulation scheme to transport at least one second datum, • selection of a collection of second frequencies distinct from the collection of first frequencies in the predetermined set, as a function of the value of the first datum, so that the combination of the first and second selected frequencies represents a coding of the first datum, • for each second frequency, generation of a second sub-carrier at the second frequency, wherein the second sub-carrier is of non-zero amplitude and has, in addition to its frequency, at least one other physical characteristic adapted to distinguish the second sub-carrier from each first sub-carrier.
A method for preparing a bridged bi-aromatic phenol ligand of formula comprising at least one step of directly di-ortho-lithiating aromatic rings of a bridged protected bi-aromatic diphenol wherein each of R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13 and R 14 is independently selected from the group consisting of hydride, halide, optionally substituted hydrocarbyl, heteroatom-containing optionally substituted hydrocarbyl, alkoxy, aryloxy, silyl, boryl, dialkyl amino, alkylthio, arylthio and seleno; optionally two or more R groups can combine together into ring structures with such ring structures having from 3 to 100 non-hydrogen atoms in the ring; B is a bridging group having from one to 50 non-hydrogen atoms; Y and Y' are independently selected from O, S, NR a and PR a wherein R a is optionally substituted hydrocarbyl; Ar is optionally substituted aryl or heteroaryl; wherein the term "alkyl" refers to a branched or unbranched saturated hydrocarbon group as well as cycloalkyl groups.
A laminated piezoelectric body having a plurality of piezoelectric element segments laminated on one another, each of the piezoelectric element segments comprising: a piezoelectric ceramic; and a pair of internal electrodes (15, 16) disposed in the piezoelectric ceramic in spaced relationship to each other, wherein the internal electrodes (15, 16) are arranged in a direction of lamination of the plurality of piezoelectric element segments in the spaced relationship to each other, the internal electrodes being oriented perpendicularly to the direction of lamination of the plurality of piezoelectric element segments, wherein adjacent ones of the plurality of piezoelectric element segments contact each other at contact portions (29A, 29B) thereof, and characterized in that one of the contact portions of the adjacent piezoelectric element segments has a triangle-shaped central projection protruding toward an opposite one of the contact portions. a piezoelectric ceramic; and a pair of internal electrodes (15, 16) disposed in the piezoelectric ceramic in spaced relationship to each other, wherein the internal electrodes (15, 16) are arranged in a direction of lamination of the plurality of piezoelectric element segments in the spaced relationship to each other, the internal electrodes being oriented perpendicularly to the direction of lamination of the plurality of piezoelectric element segments, wherein adjacent ones of the plurality of piezoelectric element segments contact each other at contact portions (29A, 29B) thereof, and characterized in that one of the contact portions of the adjacent piezoelectric element segments has a triangle-shaped central projection protruding toward an opposite one of the contact portions.
An electrochemical sensor for measuring glucose in a sample, comprising: an electrode strip, which electrode strip comprises an electrode arrangement, the electrode arrangement comprising an electrode comprising a thin working layer, which includes an enzyme and a redox mediator, which enzyme uses glucose as a substrate, said thin working layer having a thickness of 2 to 10 microns, when the thickness of the working layer is measured on glass. an electrode strip, which electrode strip comprises an electrode arrangement, the electrode arrangement comprising an electrode comprising a thin working layer, which includes an enzyme and a redox mediator, which enzyme uses glucose as a substrate, said thin working layer having a thickness of 2 to 10 microns, when the thickness of the working layer is measured on glass.
Flat knitting machine with a device for taking up function elements moveable along rails located parallel to the longitudinal axis of the flat knitting machine, in particular thread guides, with a take-up finger that can be brought into and released from engagement with the function element and also comprises at least one switching projection (12, 14) that is arranged to precede or trail the take-up finger in the running direction of the function element, and can be brought into and released from engagement with switching surface on the function element for activating a switching function of the function element, characterised in that it is immovably located on a carriage of the flat knitting machine, whereby the take-up finger is located above the centre of a cam assembly of the carriage and can be moved up and down.
Method for faceting at least one workpiece edge on at least one workpiece side (3, 4, 5) of at least one workpiece by means of an apparatus comprising at least one workpiece holder, at least one measuring device and at least one power faceting tool, which is movable relative to the workpiece holder, and a machine controller, the method comprising the following method steps: - delivering the at least one workpiece, - positioning and securing the at least one workpiece on the workpiece holder, - determining the position of the at least one workpiece edge relative to the workpiece holder by means of the measuring device, and - moving the at least one faceting tool along the at least one workpiece edge and producing the facet, characterized in that - the workpiece is a sheet, in particular a plate-shaped sheet, which is produced by means of a stamping process, a laser cutting process or a nibbling process, and - in that the securing of the workpiece on the workpiece holder is carried out magnetically and/or by means of a partial vacuum and in that the workpiece holder is activated by the machine controller. - delivering the at least one workpiece, - positioning and securing the at least one workpiece on the workpiece holder, - determining the position of the at least one workpiece edge relative to the workpiece holder by means of the measuring device, and - moving the at least one faceting tool along the at least one workpiece edge and producing the facet, - the workpiece is a sheet, in particular a plate-shaped sheet, which is produced by means of a stamping process, a laser cutting process or a nibbling process, and - in that the securing of the workpiece on the workpiece holder is carried out magnetically and/or by means of a partial vacuum and in that the workpiece holder is activated by the machine controller.
DFB laser diode with lateral coupling, comprising: a. at least one semiconductor substrate; b. at least one active layer disposed on the semiconductor substrate; c. at least one waveguide web disposed above the active layer; d. at least one periodic surface structure disposed above the active layer adjacent the waveguide web, the periodic surface structure being applied to the remaining upper cladding layer after an etching process; characterized in that e. at least one waveguide layer (30, 50) disposed below and above the active layer, wherein the lower waveguide layer has a thickness in the range from 1 μm to 5 μm, preferably 1.5 μm to 3 μm and most preferably from 2.0 μm to 2.5 μm and the upper waveguide layer has a thickness in the range from 15 nm to 100 nm and preferably from 20 nm to 50 nm. a. at least one semiconductor substrate; b. at least one active layer disposed on the semiconductor substrate; c. at least one waveguide web disposed above the active layer; d. at least one periodic surface structure disposed above the active layer adjacent the waveguide web, the periodic surface structure being applied to the remaining upper cladding layer after an etching process; e. at least one waveguide layer (30, 50) disposed below and above the active layer, wherein the lower waveguide layer has a thickness in the range from 1 μm to 5 μm, preferably 1.5 μm to 3 μm and most preferably from 2.0 μm to 2.5 μm and the upper waveguide layer has a thickness in the range from 15 nm to 100 nm and preferably from 20 nm to 50 nm.
A method of forming an article from an α-β titanium alloy consisting of, in weight percentages, from 2.9 to 5.0 aluminium, from 2.0 to 3.0 vanadium, from 0.4 to 2.0 iron, from 0.2 to 0.3 oxygen, from 0.005 to 0.3 carbon, from 0.001 to 0,02 nitrogen, less than 0.5 of other elements, balance titanium and incidental impurities, the method comprising: hot working the α-β titanium alloy at a temperature greater than 871 °C (1600°F); cold working the α-β titanium alloy at a temperature no greater than 677°C (1250°F); and annealing the α-β titanium alloy. hot working the α-β titanium alloy at a temperature greater than 871 °C (1600°F); cold working the α-β titanium alloy at a temperature no greater than 677°C (1250°F); and annealing the α-β titanium alloy.
A method performed by a first fronthaul network unit (RU1, RU2,..., RUm; DU1, DU2,..., DUn) for synchronizing with a second fronthaul network unit (GM; DU1, DU2,..., DUn) across a fronthaul network carrying Time-Division Duplex, TDD, radio transmissions, the method comprising obtaining control information indicating uplink, UL, and downlink, DL, time periods for the TDD radio transmissions over a radio interface; obtaining local timing information in the first fronthaul network unit indicating the actual timing of the TDD radio transmissions over the fronthaul network; determining, based on the obtained control and local timing information, fronthaul DL time intervals ( C i, A i+ 1) during which there are no TDD radio transmissions transferred between the first and second fronthaul network unit in the fronthaul DL direction, and fronthaul UL time intervals ( H i- 1, F i) during which there are no TDD radio transmissions transferred between the first and second fronthaul network unit in the fronthaul UL direction; and determining first sets () of synchronization messages that has been transferred between the first and second fronthaul network unit within the determined fronthaul DL and UL time intervals, and second sets () of synchronization messages that has been transferred between the first and second fronthaul network unit outside the determined fronthaul DL and UL time intervals; and synchronizing, based on the synchronization messages, time and/or frequency information in the first fronthaul network unit depending on which of the first and/or second sets () the synchronization messages belong to. obtaining control information indicating uplink, UL, and downlink, DL, time periods for the TDD radio transmissions over a radio interface; obtaining local timing information in the first fronthaul network unit indicating the actual timing of the TDD radio transmissions over the fronthaul network; determining, based on the obtained control and local timing information, fronthaul DL time intervals ( C i, A i+ 1) during which there are no TDD radio transmissions transferred between the first and second fronthaul network unit in the fronthaul DL direction, and fronthaul UL time intervals ( H i- 1, F i) during which there are no TDD radio transmissions transferred between the first and second fronthaul network unit in the fronthaul UL direction; and determining first sets () of synchronization messages that has been transferred between the first and second fronthaul network unit within the determined fronthaul DL and UL time intervals, and second sets () of synchronization messages that has been transferred between the first and second fronthaul network unit outside the determined fronthaul DL and UL time intervals; and synchronizing, based on the synchronization messages, time and/or frequency information in the first fronthaul network unit depending on which of the first and/or second sets () the synchronization messages belong to.
A flow division apparatus comprising a process gas inlet communicating with a process gas outlet by means of a fluid flow path, and a divider apparatus, a separation apparatus comprising two or more separator (2,4) being arranged downstream of the process gas outlet and the divider apparatus being arranged in the fluid flow path such that, in use, process gas flowing along the fluid flow path from the process gas inlet to the process gas outlet and to the said separation apparatus passes through the divider apparatus, wherein a divider plate is provided, downstream of the process gas inlet, for dividing the process gas flow between the said two or more separator (2,4), characterised in that the divider apparatus further comprising a rotatable member provided upstream of the divider plate and close to the divider plate such that, in use, process gas divides and passes around the rotatable member and passes either side of the divider plate.
A biocompatible composite that enables generation of reactive oxidative species comprising: a first hydrolytically degradable semi-crystalline polymeric material and a second hydrolytically degradable semi-crystalline polymeric material, wherein the first and second materials have different reactive oxidative species generation profiles and wherein at least one of said first and second polymeric materials comprises stabilized free radicals; wherein the biocompatible composite, upon contact with aqueous media, enable multi-phasic generation of reactive oxidative species, and wherein the first polymeric material and the second polymeric material have been subjected to different doses of ionizing radiation, said doses having a dose rate of less than 50 kGy. a first hydrolytically degradable semi-crystalline polymeric material and a second hydrolytically degradable semi-crystalline polymeric material,