mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving a signal performed by a user equipment, UE, in 3rd generation partnership project, 3GPP,-based wireless communication supporting narrowband Internet of Things, NB-IoT, operations, operating in time division duplex, TDD, the method comprising: configuring a search space for receiving a narrowband physical downlink control channel, NPDCCH, transmitted by a base station, BS; and monitoring NPDCCH candidates in a corresponding subframe based on the configured search space, wherein each NPDCCH candidate is configured with one or more narrowband control channel elements, NCCEs, based on a corresponding aggregation level, AL, characterized in that in monitoring the NPDCCH candidates: based on that the corresponding subframe is a TDD special subframe including a downlink pilot time slot, DwPTS, a guard period, GP, and an uplink pilot time slot, UpPTS, the UE monitors each NPDCCH candidate in the TDD special subframe other than an AL-1 based NPDCCH candidate with 1-NCCE. supporting narrowband Internet of Things, NB-IoT, operations, operating in time division duplex, TDD, the method comprising: configuring a search space for receiving a narrowband physical downlink control channel, NPDCCH, transmitted by a base station, BS; and monitoring NPDCCH candidates in a corresponding subframe based on the configured search space, wherein each NPDCCH candidate is configured with one or more narrowband control channel elements, NCCEs, based on a corresponding aggregation level, AL, characterized in that in monitoring the NPDCCH candidates: based on that the corresponding subframe is a TDD special subframe including a downlink pilot time slot, DwPTS, a guard period, GP, and an uplink pilot time slot, UpPTS, the UE monitors each NPDCCH candidate in the TDD special subframe other than an AL-1 based NPDCCH candidate with 1-NCCE.
An addressable node unit including connections (15a, 15b, 16) for at least two lines (17, 18a, 18b) via which the node unit is addressable, which connections (15a, 15b, 16) are connected to a circuit evaluating an addressing signal and associated with two switches (2a, 2b) bridged between the respective line (18a, 18b) by diodes (1a, 1b) sharing a cathode, so that a signal flow is enabled in the lines (18a, 18b) in two directions, wherein the node unit comprises at least one power source (4, 22) to which power can be supplied via at least one of said lines (17, 18a, 18b), characterized in that between the evaluating circuit and the respective line connection (15a, 15b) a switch is connected to the cathodes shared by the two diodes (1a, 1b), which switch is to be opened after addressing such that the power supply of the evaluating circuit is ensured by the at least one power source (4, 22) after addressing and data are exchangeable between the evaluating circuit and the node unit.
A water drainage device comprising - a cup (2; 202) into which a water supply opening opens, - an evacuation channel (3; 203) communicating with the cup (2; 202) leading to a connection to an evacuation pipe (4; 204), and - a clamping plate (10; 210) for clamping the device on a receiving tray, the clamping plate being provided with a fixing element (20; 220) for fixing the clamping plate to the cup, wherein the fixing element (20; 220) is provided to cooperate with a complementary fixing element (27; 227) located in a central part of the cup, characterized in that a plurality of dip tubes (11a, 11b, 11c; 211a, 211b, 211c), including a removable dip tube (11a, 11b, 11c; 211a, 221b, 211c) inserted into the cup (2; 202) through said water supply opening, is distributed in a plurality of compartments (2a, 2b, 2c; 202a, 202b, 202c) of the cup (2; 202). - a cup (2; 202) into which a water supply opening opens, - an evacuation channel (3; 203) communicating with the cup (2; 202) leading to a connection to an evacuation pipe (4; 204), and - a clamping plate (10; 210) for clamping the device on a receiving tray,
Ski boot having a shell, an inner boot and a removable lower-shell sole, said lower-shell sole having a heel block (5.1) and a metatarsal plate (5.2), where the heel block (5.1) and the metatarsal plate (5.2) are formed in one piece from expanded polypropylene having a density of less than 120 g/l, which has a hardness greater than 65 Shore A, and where the heel block (5.1) has a thickness (5.1.1) greater than 10 mm, preferably greater than 15 mm.
A process for producing a decellularized small particle tissue which comprises the following steps: (a) Selecting an appropriate tissue starting material from which a decellularized small particle tissue is desired to be prepared, wherein the tissue is blood-laden tissue; (b) treating the blood-laden tissue with a decellularizing agent at an acid pH to remove at least a portion of the cellular material therefrom and to yield a product comprising a liquid component and a solid component, (c) subjecting the liquid component and the solid component which is the product of step (b) to a particle separation system comprised of a plurality of filters, F 1 through F n, wherein n may be 2, or an integer higher than 2, wherein the pore size of the filter F 1 is 0.2 to 200 microns, and the pore size of the filters F n range from 100 microns to 50 microns or range from 100 Kilo Daltons to 10 Kilo Daltons, yielding filtrates and retentates, (d) recycling either of said filtrates or said retentates or both, either separately or together, to any of steps b) or c) or both, at least one time, (e) isolating a decellularized small particle tissue from any of steps b), c) or d); wherein the pore size of the sequentially last stage filter is between 10 Kilo Daltons-50 Kilo Daltons and wherein the particle separation system is designed to capture sequentially smaller particle sizes. (a) Selecting an appropriate tissue starting material from which a decellularized small particle tissue is desired to be prepared, wherein the tissue is blood-laden tissue; (b) treating the blood-laden tissue with a decellularizing agent at an acid pH to remove at least a portion of the cellular material therefrom and to yield a product comprising a liquid component and a solid component, (c) subjecting the liquid component and the solid component which is the product of step (b) to a particle separation system comprised of a plurality of filters, F 1 through F n, wherein n may be 2, or an integer higher than 2, wherein the pore size of the filter F 1 is 0.2 to 200 microns, and the pore size of the filters F n range from 100 microns to 50 microns or range from 100 Kilo Daltons to 10 Kilo Daltons, yielding filtrates and retentates, (d) recycling either of said filtrates or said retentates or both, either separately or together, to any of steps b) or c) or both, at least one time, (e) isolating a decellularized small particle tissue from any of steps b), c) or d);
Method for producing a device for bonding orthodontic brackets comprising a first step of recovering virtual data from a dental arch of a patient and, a second step of virtually positioning orthodontic brackets on the teeth of the dental arch, said method then consists of implementing at least the following steps: - virtually positioning clips according to the virtual positioning of the orthodontic brackets and by orienting said clips with a predefined position opposite said respective brackets; - virtually positioning single splints according to the virtual positioning of the clips, said single splints each comprising a central portion and two side portions which extend along a predefined orientation with respect to the virtual position of the respective clips; - virtually positioning the negatives of the occlusal portions of the teeth on the respective central portions, considering the orientation of said central portions; - laterally extending the side portions (8b, 8c) on the single splints and interconnecting the common portions of two adjacent side portions respectively belonging to two adjacent single splints together, so as to virtually constitute an overall splint; - physically produce at least the overall splint from the virtual data obtained. - virtually positioning clips according to the virtual positioning of the orthodontic brackets and by orienting said clips with a predefined position opposite said respective brackets; - virtually positioning single splints according to the virtual positioning of the clips, said single splints each comprising a central portion and two side portions which extend along a predefined orientation with respect to the virtual position of the respective clips; - virtually positioning the negatives of the occlusal portions of the teeth on the respective central portions, considering the orientation of said central portions; - laterally extending the side portions (8b, 8c) on the single splints and interconnecting the common portions of two adjacent side portions respectively belonging to two adjacent single splints together, so as to virtually constitute an overall splint; - physically produce at least the overall splint from the virtual data obtained.
An excavator, comprising: - a driveable mobile carrier that comprises a discharge; - a suction pump that is connected to a suction hose; - a container that is configured to: - temporarily store excavation material; and - simultaneously, without interruption of suction of excavation material by the suction pump, receive excavation material via an inlet that is connected to the suction hose and discharge excavation material via an outlet that is connectable to the discharge, characterized in that it further comprises: - a superstructure that comprises the container and that is rotatably connected to the mobile carrier with a radial bearing; and - an outlet guide that is arranged between the outlet and the discharge and that passes through said radial bearing. - a driveable mobile carrier that comprises a discharge; - a suction pump that is connected to a suction hose; - a container that is configured to: - temporarily store excavation material; and - simultaneously, without interruption of suction of excavation material by the suction pump, receive excavation material via an inlet that is connected to the suction hose and discharge excavation material via an outlet that is connectable to the discharge, - temporarily store excavation material; and - simultaneously, without interruption of suction of excavation material by the suction pump, receive excavation material via an inlet that is connected to the suction hose and discharge excavation material via an outlet that is connectable to the discharge, - a superstructure that comprises the container and that is rotatably connected to the mobile carrier with a radial bearing; and - an outlet guide that is arranged between the outlet and the discharge and that passes through said radial bearing.
A magnetically clampable rail shunt comprising: - two magnetic clamps, each clamp having a magnetic device for attaching the clamp to one of two parallel railway rails (R1, R2) of a railway track by magnetic force; and - an electrical conductor electrically connecting the two magnetic clamps for shunting the two parallel railway rails (R1, R2), characterised by a variable electrical resistor assembly for adjusting the electrical resistance of the rail shunt, said variable electrical resistor assembly being connected in series between the two magnetic clamps via said electrical conductor. - two magnetic clamps, each clamp having a magnetic device for attaching the clamp to one of two parallel railway rails (R1, R2) of a railway track by magnetic force; and - an electrical conductor electrically connecting the two magnetic clamps for shunting the two parallel railway rails (R1, R2),
A vehicle front portion structure comprising: a framework member in a gutter shape provided in a vehicle length direction from a front box to a cabin and having a side wall; and a dash lower panel that includes a gutter section having a side wall and fitted into an inside of the framework member, characterized in that the side wall of the gutter section and the side wall of the framework member are joined together. a framework member in a gutter shape provided in a vehicle length direction from a front box to a cabin and having a side wall; and a dash lower panel that includes a gutter section having a side wall and fitted into an inside of the framework member, characterized in that the side wall of the gutter section and the side wall of the framework member are joined together.
Method for removal of tubing from a hydrocarbon well, which tubing is at its upper end provided with a tubing hanger, which tubing hanger is mounted in a central passage of a wellhead, the method comprising the step: - lowering a machining device into a central passage of the tubing hanger; characterized in that the method further comprises the steps: - engaging a top portion of the tubing at its inside and below the tubing hanger using a clamping device; - machining away part of the tubing hanger, thus disconnecting the tubing from the tubing hanger and enlarging the central passage of the tubing hanger to a diameter wide enough for lifting the tubing through the central passage of the tubing hanger out of the hydrocarbon well; - holding, optionally supporting, the tubing while the machining device is machining at least part of the tubing hanger; and - lifting the disconnected tubing through the central passage of the tubing hanger out of the hydrocarbon well. - lowering a machining device into a central passage of the tubing hanger; characterized in that the method further comprises the steps: - engaging a top portion of the tubing at its inside and below the tubing hanger using a clamping device; - machining away part of the tubing hanger, thus disconnecting the tubing from the tubing hanger and enlarging the central passage of the tubing hanger to a diameter wide enough for lifting the tubing through the central passage of the tubing hanger out of the hydrocarbon well; - holding, optionally supporting, the tubing while the machining device is machining at least part of the tubing hanger; and - lifting the disconnected tubing through the central passage of the tubing hanger out of the hydrocarbon well.
Elevator comprising a car movable in an elevator shaft and a counterweight movable together with the car in the elevator shaft in a direction of movement opposite to the direction of movement of the car, the car having a car roof and a pivotable balustrade arranged on the car roof at a side of the car facing towards the counterweight, wherein the balustrade is or can be secured in a first fall protection position, in which first fall protection position the balustrade has an inclined orientation for reducing the accessible area, wherein the elevator comprises a locking mechanism (7, 9) for securing the balustrade in the first fall protection position and a locking mechanism (8, 29) for securing the balustrade in a second fall protection position.
A rare earth sintered magnet which is a sintered magnet body consisting essentially of R 1 a R 2 b T c M d B e composition, wherein R 1 is at least one element selected from rare earth elements including Sc and Y, and except for Tb and Dy, R 2 is one or two elements selected from Tb and Dy, T is Fe or Fe and Co, M is at least one element selected from the group consisting of Al, Cu, Zn, In, Si, P, S, Ti, V, Cr, Mn, Ni, Ga, Ge, Zr, Nb, Mo, Pd, Ag, Cd, Sn, Sb, Hf, Ta, and W, B is boron, a to e satisfy, by at% of the alloy composition, 12 ≤ a + b ≤ 17, 0.01 ≤ d ≤ 11, and 3 ≤ e ≤ 15, and the remainder is c, the magnet comprises a main phase particle having a Nd 2 Fe 14 B tetragonal structure, wherein a multi-layer main phase particle having multiple layers including a layer 1 having R 2 concentration, represented by at%, higher than that of a center of the particle, a layer 2 which is formed on the outside of the layer 1 and has R 2 concentration lower than that of the layer 1, and a layer 3 which is formed on the outside of the layer 2 and has R 2 concentration higher than that of the layer 2 is present at least in a portion in the vicinity of a surface of the main phase particle within at least 500 μm from a surface of the sintered magnet body.
A method for selecting a thermally optimal airlink for a portable computing device, comprising: monitoring a temperature of the portable computing device; determining if the portable computing device has reached a threshold temperature range; determining an estimated volume of data to be sent over one or more airlinks; determining an estimated duration for the data using one or more airlinks; determining a quality of service needed for the data; comparing one or more available airlinks for the data; identifying one or more thermally optimal airlinks based on the estimated volume, estimated data rate, and estimated duration; characterised in determining if the portable computing device is proximate to an operator; and if the portable computing device is proximate to the operator, then adjusting output power of a selected airlink such that the portable computing device radiates at safe levels relative to the operator. monitoring a temperature of the portable computing device; determining if the portable computing device has reached a threshold temperature range; determining an estimated volume of data to be sent over one or more airlinks; determining an estimated duration for the data using one or more airlinks; determining a quality of service needed for the data; comparing one or more available airlinks for the data; identifying one or more thermally optimal airlinks based on the estimated volume, estimated data rate, and estimated duration; characterised in determining if the portable computing device is proximate to an operator; and if the portable computing device is proximate to the operator, then adjusting output power of a selected airlink such that the portable computing device radiates at safe levels relative to the operator.
A power supply system comprising: a power supply unit including a power supply side coil to which electric power is supplied; and a power reception unit including a power reception side coil arranged to electromagnetically resonate with the power supply side coil and receive the electric power from the power supply side coil, characterized in that impedances of the power supply unit and the power reception unit are matched at a position where a center axis of the power supply side coil is displaced with respect to a center axis of the power reception side coil. a power supply unit including a power supply side coil to which electric power is supplied; and a power reception unit including a power reception side coil arranged to electromagnetically resonate with the power supply side coil and receive the electric power from the power supply side coil, characterized in that impedances of the power supply unit and the power reception unit are matched at a position where a center axis of the power supply side coil is displaced with respect to a center axis of the power reception side coil.
An information transmission method performed by a network device, the method comprises: sending configuration information of a first configuration of a physical uplink shared channel or a physical downlink shared channel; determining Redundancy Versions, RV, corresponding to Transmission Occasions, TO, in a second configuration of the physical uplink shared channel or the physical downlink shared channel according to the configuration information, wherein, RVs corresponding to TOs overlapped in time domain in the first configuration and in the second configuration are the same; receiving the physical uplink shared channel or sending the physical downlink shared channel according to the RVs; wherein, determining the RVs corresponding to the TOs in the second configuration of the physical uplink shared channel or the physical downlink shared channel according to the configuration information comprises: determining an RV corresponding to a first TO in the first configuration according to the configuration information; determining, according to the RV corresponding to the first TO, an RV corresponding to a second TO overlapping with the first TO in time domain in the second configuration. sending configuration information of a first configuration of a physical uplink shared channel or a physical downlink shared channel; determining Redundancy Versions, RV, corresponding to Transmission Occasions, TO, in a second configuration of the physical uplink shared channel or the physical downlink shared channel according to the configuration information, wherein, RVs corresponding to TOs overlapped in time domain in the first configuration and in the second configuration are the same; receiving the physical uplink shared channel or sending the physical downlink shared channel according to the RVs; wherein, determining the RVs corresponding to the TOs in the second configuration of the physical uplink shared channel or the physical downlink shared channel according to the configuration information comprises: determining an RV corresponding to a first TO in the first configuration according to the configuration information; determining, according to the RV corresponding to the first TO, an RV corresponding to a second TO overlapping with the first TO in time domain in the second configuration. determining an RV corresponding to a first TO in the first configuration according to the configuration information; determining, according to the RV corresponding to the first TO, an RV corresponding to a second TO overlapping with the first TO in time domain in the second configuration.
Oil burner for combustion of difficult to burn material comprising a fuel inlet, and an inner tube in which fuel flows, further comprising an outer tube for air or steam and a jet nut screwed on with one of its ends at the end of the outer tube, the jet nut being provided on the opposite end with a stopper and with a tapered chamfer, further comprising an atomizer with its one end mounted on the inner tube and its second end leaning against the stopper, the atomiser being provided with a tapered chamfer which continues into the tapered chamfer on the jet nut, wherein the atomizer has an inlet mixing chamber which is terminated by an outlet nozzle and a jet part in front of the outlet nozzle in the direction of fuel flow, and wherein a pair of tangential nozzles is arranged at the beginning of the mixing chamber in up to 80 rows, characterised in that the jet part of the atomizer has an outlet hollow provided with the tapered chamfer, and in that the jet part of the atomizer tapers towards the outlet nozzle and an inclined wall is created, where four nozzles are drilled perpendicularly through this inclined wall and are distributed regularly on its circumference.
A binder resin composition for an electrode of a nonaqueous electrolyte battery, comprising a polymer having a vinyl cyanide monomer unit and optionally another monomer unit not encompassing a phosphoric acid group-containing monomer, the content of the vinyl cyanide monomer in the polymer being from more than 50 mol% to 100 mol%, and a polymer containing a phosphoric acid group-containing monomer unit, wherein the vinyl cyanide monomer unit is acrylonitrile.