mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a user equipment device in a wireless communication system, the method comprising: identifying (802, 906) an amount of data to be transmitted from the user equipment device to a base station in the wireless communication system; determining (806, 912) a next scheduled transmit time for dedicated access to the base station; when the time until the next scheduled transmit time is longer than a threshold amount of time (808, 914), transmitting (818, 936), using contention-based access to the base station, a data packet containing the identified amount of data, or when both a) the time until the next scheduled transmit time is shorter than the threshold amount of time and b) the identified amount of data cannot be transmitted using only one resource allocation, transmitting, using scheduled dedicated access to the base station, a data packet containing at least some of the identified amount of data. identifying (802, 906) an amount of data to be transmitted from the user equipment device to a base station in the wireless communication system; determining (806, 912) a next scheduled transmit time for dedicated access to the base station; when the time until the next scheduled transmit time is longer than a threshold amount of time (808, 914), transmitting (818, 936), using contention-based access to the base station, a data packet containing the identified amount of data, or when both a) the time until the next scheduled transmit time is shorter than the threshold amount of time and b) the identified amount of data cannot be transmitted using only one resource allocation, transmitting, using scheduled dedicated access to the base station, a data packet containing at least some of the identified amount of data.
A door assembly (10; 110) for a laundry treatment device (1; 100), apt to open and/or close an opening (4; 104) defined in said laundry treatment device, said door assembly comprising a frame (5, 6; 105, 106), said frame including: • a front door frame (6; 106) forming a front surface (6a;106a) of the door assembly, said front surface defining a front plane; • a rear door frame (5; 105) forming a rear surface (5b; 105b) of said door assembly, said rear surface defining a closure plane, characterized in that said front plane and said closure plane intersect one the other so as to form an angle (α) different from 0° and 180°; and in that said frame further includes • a handle-carrying element (30; 130) interposed between said rear door frame (5; 105) and front door frame (6; 106), and a handle (31; 131) carried by said handle-carrying element, said handle-carrying element being apt to be mounted in at least a first and a second alternative positions, so that said handle (31; 131) can be positioned on said frame at least in a first and second different locations (L1; L2; L3; L4). • a front door frame (6; 106) forming a front surface (6a;106a) of the door assembly, said front surface defining a front plane; • a rear door frame (5; 105) forming a rear surface (5b; 105b) of said door assembly, said rear surface defining a closure plane, • a handle-carrying element (30; 130) interposed between said rear door frame (5; 105) and front door frame (6; 106), and a handle (31; 131) carried by said handle-carrying element, said handle-carrying element being apt to be mounted in at least a first and a second alternative positions, so that said handle (31; 131) can be positioned on said frame at least in a first and second different locations (L1; L2; L3; L4).
A packaging container comprising a container body, a smearing component, and a sealing cap, wherein an opening end of the container body comprises a rolling rod, the rolling rod is cylindrical in shape, a free end of the rolling rod is provided with a liquid outlet internally communicating with the container body, an inside of the smearing component is provided with a rolling hole, the smearing component is rotatably arranged around the rolling rod by matching of the rolling hole and the rolling rod the sealing cap is engaged with the rolling rod of the container body and the container body being entirely sealed by the sealing cap, characterized in that the packaging container further comprises a buckle plug, the buckle plug is fixed on the free end of the rolling rod of the container body, and a part of the buckle plug matches with an end of the smearing component, and the smearing component is positioned between the buckle plug and the container body, the buckle plug prevents the movement of the smearing component on the rolling rod in an axial direction and is provided with a channel for discharging liquid from the container body.
A motorized wheel, of the type comprising an electric motor supported by a fixing bracket, adapted to support rotationally, by way of means for reducing the rotation rate, an internally hollow wheel that is contoured to contain at least partly said electric motor and said rotation rate reduction means, said electric motor comprising a stator casing, a dome and a rotor which is internal to said stator casing, said motorized wheel being characterized in that said stator casing is inserted in a corresponding complementarily shaped annular portion that extends from said bracket and is fixed thereto by interference.
A loudspeaker system for placement in an at least partially enclosed space, the at least partially enclosed space having boundary walls including ceiling boundary walls and at least one listener position (401, 420), the system including: a loudspeaker element to be positioned within the space integral with one of the boundary walls proximate the at least one listener position (401, 420) and mounted in a ceiling boundary wall, and a channeling device acoustically coupled to the loudspeaker element to deflect a sound field emitted from the loudspeaker element so that an indirect sound field and a direct sound field is produced at the at least one listener position (401, 420), wherein the channeling device is implemented comprising a mechanical baffle to be positioned between the loudspeaker element and the listener positions (401, 420), and wherein the baffle is operable to produce a greater indirect sound pressure than a direct sound pressure at a listener position (401, 420), and wherein the indirect sound field is reflected by at least one surface of the at least partially enclosed space before reaching the at least one listener position (401, 420), and wherein the channeling device further comprises an acoustic lens positioned proximate to and between a radiating surface of the loudspeaker element and the baffle. a loudspeaker element to be positioned within the space integral with one of the boundary walls proximate the at least one listener position (401, 420) and mounted in a ceiling boundary wall, and a channeling device acoustically coupled to the loudspeaker element to deflect a sound field emitted from the loudspeaker element so that an indirect sound field and a direct sound field is produced at the at least one listener position (401, 420), wherein the channeling device is implemented comprising a mechanical baffle to be positioned between the loudspeaker element and the listener positions (401, 420), and wherein the baffle is operable to produce a greater indirect sound pressure than a direct sound pressure at a listener position (401, 420), and wherein the indirect sound field is reflected by at least one surface of the at least partially enclosed space before reaching the at least one listener position (401, 420), and wherein the channeling device further comprises an acoustic lens positioned proximate to and between a radiating surface of the loudspeaker element and the baffle.
Internal combustion engine having a fuel tank, having a fuel vapor store for storing fuel vapors which escape from the fuel tank, having a connecting line between the fuel vapor store and an air intake section of the internal combustion engine in order to pass fuel vapors from the fuel vapor store into the air intake section during a regeneration phase, having a valve arranged in the connecting line, having an air admission line for the fuel vapor store, and having a valve unit, which is arranged in the air admission line, for controlling the admission of air to the fuel vapor store, wherein a purge air pump, which supplies the fuel vapor store with purge air in order to clean the latter, is arranged in the air admission line for the fuel vapor store, the purge air pump is integrated into the valve unit for controlling the admission of air to the fuel vapor store, has a common housing therewith and is arranged with its impeller axis as an extension of the valve body of the valve unit, said valve body controlling the purge air supply into the air admission line, characterized in that the purge air pump is integrated into a valve unit which additionally serves to control the venting of the fuel vapor store, and in that the valve unit additionally has a control element which raises the valve body mechanically from the seat in order to vent the fuel tank.
System for releasing beneficial mites comprising a compartment, the mite compartment, holding a population of a beneficial mite species, preferably in association with a carrier, and a food source for the beneficial mites wherein said mite compartment is enclosed by an enclosing material having an inner surface bordering the mite compartment, an outer surface at the exterior of the mite compartment and comprising a gas barrier material having a water vapour transmission rate of ≤ 5, such as ≤ 4, ≤ 3, ≤ 2.5 g/m 2 *24 hours, said mite compartment having a volume of x mm 3, wherein x is between 3*10 3 to 600*10 3 mm 3 and wherein the system further comprises a number of connections that connect the mite compartment with the space outside the mite compartment, said number of connections each having an area y, wherein y is between 0.1 and 4.0 mm 2, wherein the sum of the areas of the number of connections is Σy and wherein 5*10 3 mm ≤ x/Σy ≤ 70*10 3 mm, preferably 6*10 3 mm ≤ x/Σy ≤ 60*10 3 mm, more preferably 7*10 3 mm ≤ x/Σy ≤ 50*10 3 mm, characterized in that the outer surface of the enclosing material comprises a water film maintaining material.
An automatic takeoff system, comprising: an inertial sensor configured to be onboard an aircraft, configured to sense pointing direction of the aircraft; and at least one processor configured to generate a virtual centerline reference during an initial portion of a takeoff roll wherein a computer acquires and stores a succession of data points indicative of headings of the aircraft as the pilot steers the aircraft down the runway along the runway centerline, the virtual centerline reference indicating the track of the aircraft as it is following a runway centerline, the processor being further configured to compare deviation between pointing direction of the aircraft and the generated virtual centerline reference and automatically output an actuator control signal that conforms aircraft pointing direction to the generated virtual centerline reference. an inertial sensor configured to be onboard an aircraft, configured to sense pointing direction of the aircraft; and at least one processor configured to generate a virtual centerline reference during an initial portion of a takeoff roll wherein a computer acquires and stores a succession of data points indicative of headings of the aircraft as the pilot steers the aircraft down the runway along the runway centerline, the virtual centerline reference indicating the track of the aircraft as it is following a runway centerline, the processor being further configured to compare deviation between pointing direction of the aircraft and the generated virtual centerline reference and automatically output an actuator control signal that conforms aircraft pointing direction to the generated virtual centerline reference.
A process to suppress minority carrier lifetime degradation related to a minority carrier lifetime degradation defect in a silicon wafer comprising boron, boron being present in the wafer in a concentration of at least about 10 13 atoms/cm 3, the degradation defect comprising a fast-diffusing component and a dimeric oxygen-containing component, the process comprising: heating the silicon wafer to a temperature T 1, which is sufficient to dissolve pre-existing nano-precipitates of the fast-diffusing component of the degradation defect; cooling the silicon wafer from T 1 to a temperature T 2 at a cooling rate R 1 of at least about 100°C/sec; and cooling the silicon wafer from T 2 to a temperature T 3 at a cooling rate R 2, wherein minority charge carriers are generated while the wafer is cooled from T 2 to T 3, and wherein the ratio of R 1 to R 2 is at least about 2:1. heating the silicon wafer to a temperature T 1, which is sufficient to dissolve pre-existing nano-precipitates of the fast-diffusing component of the degradation defect; cooling the silicon wafer from T 1 to a temperature T 2 at a cooling rate R 1 of at least about 100°C/sec; and cooling the silicon wafer from T 2 to a temperature T 3 at a cooling rate R 2, wherein minority charge carriers are generated while the wafer is cooled from T 2 to T 3, and wherein the ratio of R 1 to R 2 is at least about 2:1.
Reactor (101,102) having a case and a cylindrical coil assembly stored in the case and formed to have a coil covered with resin, an iron-resin composite containing iron powder for sealing the coil assembly, wherein the reactor (101,102) comprises a pillar and one or a plurality of ring-shaped core members, the ring-shaped core member or members are provided outside an outer peripheral surface of the pillar such that the pillar is inserted inside an inner peripheral surface of the ring-shaped core member or members, the coil assembly is provided outside an outer peripheral surface of the ring-shaped core member or members such that the ring-shaped core member or members are inserted inside an inner peripheral surface of the coil assembly, the ring-shaped core member or members are sealed with the iron-resin composite, the reactor (101,102) includes a bobbin that is open at an opening end portion and formed of an end surface and a side wall extending vertically from a peripheral edge of the end surface, the bobbin is provided inside an inner peripheral surface of the coil assembly so as to cover the ring-shaped core member or members, the bobbin has a flange on said opening end portion of the bobbin, and an axial end face of the coil assembly is in contact with the flange.
A process for producing cumene, the process comprising: (a) contacting benzene with a C 3 alkylating agent comprising isopropanol, and optionally propylene, under alkylation conditions in the presence of a molecular sieve alkylation catalyst such that at least part of said C 3 alkylating agent reacts with the benzene to produce an alkylation effluent comprising cumene, unreacted benzene and water; (b) recovering cumene from said alkylation effluent; (c) removing water from said alkylation effluent to form a dried effluent stream; (d) treating an aliquot of the dried effluent stream to remove nitrogenous impurities therefrom and produce a purified recycle stream; and (e) recycling at least part of the purified recycle stream to said contacting (a). (a) contacting benzene with a C 3 alkylating agent comprising isopropanol, and optionally propylene, under alkylation conditions in the presence of a molecular sieve alkylation catalyst such that at least part of said C 3 alkylating agent reacts with the benzene to produce an alkylation effluent comprising cumene, unreacted benzene and water; (b) recovering cumene from said alkylation effluent; (c) removing water from said alkylation effluent to form a dried effluent stream; (d) treating an aliquot of the dried effluent stream to remove nitrogenous impurities therefrom and produce a purified recycle stream; and (e) recycling at least part of the purified recycle stream to said contacting (a).
A generator for converting wave motion in a body of water to useful energy, the generator comprising: at least one energy capturing float which is movable in response to said wave motion; a reaction member to be positioned below the energy capturing float; connection means (5a, 5b, 5c, 5d) for connecting said at least one energy capturing float to said reaction member; energy conversion means (6a, 6b, 6c, 6d) for converting relative movement between said reaction member and said at least one respective energy capturing float to the useful energy; wherein the generator includes adaptable depth setting means (3a, 3b, 3c, 3d) for setting, over a predetermined range, the depth of the reaction member in the body of water and the height of the reaction member from a bed of the body of water, wherein both the float and the reaction member have a positive buoyancy; and characterised in that the generator comprises at least one submerged operating mode in which the reaction member and energy capturing float are submerged using the depth setting means (3a, 3b, 3c, 3d).
A method for connecting a D2D communication device (110, 710) being not part of an established D2D communication network and another D2D communication device (106e, 906) of the established D2D communication network to one another via at least one intermediate D2D communication device (106c, 106d, 806) of the established D2D communication network, the method being performed by the D2D communication device (110, 710) and comprising: - receiving (222, 322), from the at least one intermediate D2D communication device (106c, 106d, 806), a broadcast type message comprising an identifier of the another D2D communication device (106e, 906), - determining (224, 324), based on the received identifier, whether to connect to the another D2D communication device (106e, 906), and - sending (226, 326) a unicast type message comprising the received identifier to the at least one intermediate D2D communication device (106c, 106d, 806) for connecting the D2D communication device (110, 710) and the another D2D communication device (106e, 906) to one another, wherein the broadcast type message further comprises synchronization level information indicating a synchronization level of the another D2D communication device (106e, 906) with respect to a synchronization source (106e, 108a,108b), wherein the step of determining (224, 324) is further based on the synchronization level information. - receiving (222, 322), from the at least one intermediate D2D communication device (106c, 106d, 806), a broadcast type message comprising an identifier of the another D2D communication device (106e, 906), - determining (224, 324), based on the received identifier, whether to connect to the another D2D communication device (106e, 906), and - sending (226, 326) a unicast type message comprising the received identifier to the at least one intermediate D2D communication device (106c, 106d, 806) for connecting the D2D communication device (110, 710) and the another D2D communication device (106e, 906) to one another,
An optically variable security element for securing valuable articles, having a substrate having opposing first and second main surfaces and, arranged on the first main surface, an optically variable pattern that comprises an embossing pattern and a coating, wherein - the coating comprises at least one imprinted line grid and one background layer that contrasts with the line grid, wherein the contrasting background layer is formed by a highly reflective background layer or a glossy background layer, - the embossing pattern comprises a two-dimensional grid of elevated and/or depressed embossing elements, - the coating and the embossing pattern are combined in such a way that substantially on every embossing element lies at least one line segment of a line in the line grid, and - at least one of the parameters 'position of the line segment on the embossing element', 'orientation of the line segment on the embossing element' and 'form of the line segment' varies location dependently across the dimension of the optically variable pattern such that, due to the line grid, a movement effect, especially a pump or rotation effect, is created when the security element is tilted. - the coating comprises at least one imprinted line grid and one background layer that contrasts with the line grid, wherein the contrasting background layer is formed by a highly reflective background layer or a glossy background layer, - the embossing pattern comprises a two-dimensional grid of elevated and/or depressed embossing elements, - the coating and the embossing pattern are combined in such a way that substantially on every embossing element lies at least one line segment of a line in the line grid, and - at least one of the parameters 'position of the line segment on the embossing element', 'orientation of the line segment on the embossing element' and 'form of the line segment' varies location dependently across the dimension of the optically variable pattern such that, due to the line grid, a movement effect, especially a pump or rotation effect, is created when the security element is tilted.
Method for cultivating a nitrile hydratase producing microorganism, comprising the steps of: (a) contacting said microorganism with an aqueous composition comprising a saccharide (i) and an organic acid (ii); and (b) cultivating said microorganism in said aqueous composition of (a), wherein the ratio of saccharide (i) to organic acid (ii) is 3:7 to 7:3 by weight, wherein the saccharide is selected from the group consisting of glucose, fructose, mannose and ribose, wherein the organic acid is selected from the lactic acid, tartaric acid, malic acid, citric acid and succinic acid. (a) contacting said microorganism with an aqueous composition comprising a saccharide (i) and an organic acid (ii); and (b) cultivating said microorganism in said aqueous composition of (a),
An apparatus for communication comprising: a memory device; and a processing circuit coupled to the memory device and configured to: identify, for each of a plurality of other wireless communication apparatuses, a performance requirement; determine, based on a corresponding performance requirement for each of the other wireless communication apparatuses, different structures within a unified frame structure for communication with the other wireless communication apparatuses, wherein the different structures comprise different control structures including a time division multiplexing control channel structure and a frequency division multiplexing control channel structure; and communicate an indication of the unified frame structure via a communication interface to the plurality of other wireless communication apparatuses. a memory device; and a processing circuit coupled to the memory device and configured to: identify, for each of a plurality of other wireless communication apparatuses, a performance requirement; determine, based on a corresponding performance requirement for each of the other wireless communication apparatuses, different structures within a unified frame structure for communication with the other wireless communication apparatuses, wherein the different structures comprise different control structures including a time division multiplexing control channel structure and a frequency division multiplexing control channel structure; and communicate an indication of the unified frame structure via a communication interface to the plurality of other wireless communication apparatuses. identify, for each of a plurality of other wireless communication apparatuses, a performance requirement; determine, based on a corresponding performance requirement for each of the other wireless communication apparatuses, different structures within a unified frame structure for communication with the other wireless communication apparatuses, wherein the different structures comprise different control structures including a time division multiplexing control channel structure and a frequency division multiplexing control channel structure; and communicate an indication of the unified frame structure via a communication interface to the plurality of other wireless communication apparatuses.