mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications by a base station, comprising: generating Downlink Control Information, DCI, for scheduling a physical downlink shared channel, PDSCH, to at least one user equipment, UE, according to a first DCI format, where the first DCI format schedules one PDSCH codeword; providing an indication to the UE of one or more parameters for a type of beamforming on which the scheduled PDSCH is based, wherein the indication comprises an indication of whether the PDSCH is based on open loop beamforming, OLBF, or closed loop beamforming, CLBF; and transmitting the DCI to the UE in the downlink control channel. generating Downlink Control Information, DCI, for scheduling a physical downlink shared channel, PDSCH, to at least one user equipment, UE, according to a first DCI format, where the first DCI format schedules one PDSCH codeword; providing an indication to the UE of one or more parameters for a type of beamforming on which the scheduled PDSCH is based, wherein the indication comprises an indication of whether the PDSCH is based on open loop beamforming, OLBF, or closed loop beamforming, CLBF; and transmitting the DCI to the UE in the downlink control channel.
A one component aqueous composition comprising (i) a cationic stain blocking polymer chosen from 0.01 to 7 wt.%, based on the total weight of solids in the composition, of anion exchange resin copolymer beads that have a weight average particle size, measured on a Mastersizer 2000, of from 0.1 to 20 μm and have a copolymerized crosslinker content of from 0.5 to 2.0 wt.%, based on the total weight of monomers used to make the anion exchange resin copolymer, from 1 to 30 wt.%, based on the total weight of solids in the composition, of a crosslinked cationic addition polymer which has from 20 wt.% to 96 wt.%, based on the total weight of monomers used to make the copolymer, of the copolymerized residue of a monomer chosen from a cationic monomer, a monomer that is modified to contain a cation and mixtures thereof, from 4 to 30 wt.% of a crosslinking monomer, and the remainder of one or more other monoethylenically unsaturated monomer, and mixtures thereof (ii) one or more emulsion copolymer having a copolymerized residue of at least one phosphorus acid monomer and having an anionic surfactant or its polymerization residue and a reductant or its polymerization residue, and (iii) a stabilizer of from 0.1 to 2 wt.%, based on the total weight of emulsion copolymer solids, of an inorganic phosphorus containing dispersant having multiple phosphorus-containing functional groups, and from 0.2 to 5.0 wt.%, based on the total weight of emulsion copolymer solids, of a mixture of a nonionic surfactant and an anionic surfactant, wherein when the cationic stain blocking polymer is an anion exchange resin bead it is chosen from gelular beads, beads which can be reversibly converted from a dry, gelular morphology to a macroreticular, hydrated morphology by contact with water, and mixtures thereof.
A method, comprising: determining (500, 510) that a control on an edge of a touch screen display is contacted, held, and dragged towards a center of the touch screen display by a first object, the edge comprising at least one of a top, bottom, sides or corners of the touch screen display; displaying a panel of one or more user interface components at least a portion of the panel being displayed in response to the determining, wherein the panel is associated with the control on the touch screen display; while the holding of the control by the first object is continued, allowing for interaction with one or more components of the at least a portion of the panel using a second object; determining that the control is released comprising sensing that the first object is no longer in contact with the control; and ceasing to display the at least a portion of the panel in response to sensing that the first object is no longer in contact with the control. determining (500, 510) that a control on an edge of a touch screen display is contacted, held, and dragged towards a center of the touch screen display by a first object, the edge comprising at least one of a top, bottom, sides or corners of the touch screen display; displaying a panel of one or more user interface components at least a portion of the panel being displayed in response to the determining, wherein the panel is associated with the control on the touch screen display; while the holding of the control by the first object is continued, allowing for interaction with one or more components of the at least a portion of the panel using a second object; determining that the control is released comprising sensing that the first object is no longer in contact with the control; and ceasing to display the at least a portion of the panel in response to sensing that the first object is no longer in contact with the control.
A method in a first network device in a packet network of enabling link failure detection in a multi-chassis link aggregation group, MC-LAG, the method comprising: transmitting an Internet Protocol, IP, packet over a first link that is part of the MC-LAG, wherein the MC-LAG couples the first network device with a second network device and a third network device that are part of an Inter-Chassis Redundancy, ICR, system and being characterized by the IP packet including a payload including a Bidirectional Forwarding Detection, BFD, control packet, and wherein the destination address of the IP packet is one of a multicast IP address and a broadcast IP address.
A method for transducing light, the method comprising: receiving a light beam using an optical structure including a first waveguide and a second waveguide, the received light beam propagating from the first waveguide to the second waveguide that has a different width to the first waveguide; and generating an electrical current by transducing the light beam using a light absorbing layer, forming a semiconductor mesa, that is disposed on the first waveguide and the second waveguide, such that the first waveguide and the second waveguide are disposed in parallel under the light absorbing layer and are beside each other in a direction of their widths, wherein the first waveguide and second waveguide are connected in a sequence by a passive waveguide such that the light beam passes sequentially in the first waveguide and second waveguide. receiving a light beam using an optical structure including a first waveguide and a second waveguide, the received light beam propagating from the first waveguide to the second waveguide that has a different width to the first waveguide; and generating an electrical current by transducing the light beam using a light absorbing layer, forming a semiconductor mesa, that is disposed on the first waveguide and the second waveguide, such that the first waveguide and the second waveguide are disposed in parallel under the light absorbing layer and are beside each other in a direction of their widths, wherein the first waveguide and second waveguide are connected in a sequence by a passive waveguide such that the light beam passes sequentially in the first waveguide and second waveguide.
A method of at least partly controlling energy consumption and energy provision in a power grid, wherein a plurality of groups comprising at least one of a consumer unit, a provider unit and a storage unit are each represented by a respective lower level energy manager (LEM 1, LEM 2, LEM n) and wherein each lower level energy manager (LEM 1, LEM 2, LEM n) is able to communicate with a higher level energy manager, each higher level energy manager representing at least two lower level energy managers (LEM 1, LEM 2, LEM n), said method being performed by one of said higher level managers and including the steps of: - receiving a request by a first lower level energy manager (LEM 1) for consuming or providing a particular first amount of energy for a future interval in time, - determining to what extent the request may be complied with according to a first pre-determined criterion, - responding to the request by indicating to said first lower level energy manager (LEM 1) a second amount of energy for said future interval in time which is the same as or different from the first amount of energy, and wherein the higher level energy manager emits a clock signal for synchronizing the respective lower level energy managers such as to be able to divide the overall time in time slots, and wherein the future interval in time is a future time slot. - receiving a request by a first lower level energy manager (LEM 1) for consuming or providing a particular first amount of energy for a future interval in time, - determining to what extent the request may be complied with according to a first pre-determined criterion, - responding to the request by indicating to said first lower level energy manager (LEM 1) a second amount of energy for said future interval in time which is the same as or different from the first amount of energy, and
A scaffolding protein preparation obtained from sheep wool by the following process: placing of 1 kg of sheep's wool in 1% lye and mixing for 1 hour at room temperature, then draining off the lye and washing twice in water and suspending the wool in water, acidifying the suspension with hydrochloric acid to pH 2.2 and adding pepsin, agitating the mixture for 3 hours at 35°C, and then draining off the wool solids, washing twice in water and sieving to collect particles of less than 1 mm in length, inundating the produced preparation with 1% lye and then draining after 1 h, washing in water and then in 1% hydrochloric acid and draining, suspending the remainder in water, acidifying to pH 2.2 and adding pepsin, mixing the suspension for 2 h at 35°C, then draining, washing three times in water, drying and adsorbing a biologically active substance selected from Merlot wine, green tea polyphenols and colchicine on the scaffolding protein preparation. placing of 1 kg of sheep's wool in 1% lye and mixing for 1 hour at room temperature, then draining off the lye and washing twice in water and suspending the wool in water, acidifying the suspension with hydrochloric acid to pH 2.2 and adding pepsin, agitating the mixture for 3 hours at 35°C, and then draining off the wool solids, washing twice in water and sieving to collect particles of less than 1 mm in length, inundating the produced preparation with 1% lye and then draining after 1 h, washing in water and then in 1% hydrochloric acid and draining, suspending the remainder in water, acidifying to pH 2.2 and adding pepsin, mixing the suspension for 2 h at 35°C, then draining, washing three times in water, drying and adsorbing a biologically active substance selected from Merlot wine, green tea polyphenols and colchicine on the scaffolding protein preparation.
Method of artificial intervention in the natural climate of a selected area in order to prevent the phenomenon of fog, wherein fans are mounted in clusters, all along the area that is desired to prevent creation of fog, for example into runways or highways, characterised in that each fan has an electric motor, a reducer and a propeller, the motor being installed on top of a tower connected with an angular gear through a flexible coupling and supplied with voltage from control panel through electrical conductor, and the propeller is connected to the gear shaft with floating cylindrical hub so that the depreciation of the oscillations produced, can be possible, and wherein these fans, mounted in clusters, are connected to a computer unit, equipped with the appropriate software, processing the climatic parameters and when it notes their convergence leads to the appearance of fog, it activates the cluster of fans thus directed to the area the fog is not desirable, it increases the temperature of the atmosphere, by varying climatic data that would lead to the creation of fog, wherein the connection of the flaps of the propeller in the hub is effected by bolts through a flange having oval holes in order to allow selection of a different pitch, depending on the available power, which is accomplished by varying the position of the bolts relative to the axis of rotation and the angle of incidence of the blade, via a relative calibration onto the fixed flange of the hub, wherein a complex formed by the motor and a reducer are placed in semi-horizontal position on top of the tower with possibility of adjusting the angle compared to the vertical in order to direct the wind to the desired height, or in horizontal, adjustable position, coaxially, with simple gearing reducer at whose output rests the propeller.
An interface system for a building, comprising: a building control system configured to send control signals to a plurality of field devices (109a-n) within the building; building information indicia positioned at a location in the building, the building information indicia defining indicia data; wherein said building information indicia being a physical world hyperlink linking a physical location within the building that is associated with the building information indicia with at least one mobile computing device that reads the building information indicia; and at least one mobile computing device in wireless communication with the building control system, the at least one mobile computing device configured to read the building information indicia and transmit the indicia data to the building control system; wherein the building control system is configured to control the field devices (109a-n) based at least in part on the indicia data received from the at least one mobile computing device. a building control system configured to send control signals to a plurality of field devices (109a-n) within the building; building information indicia positioned at a location in the building, the building information indicia defining indicia data; wherein said building information indicia being a physical world hyperlink linking a physical location within the building that is associated with the building information indicia with at least one mobile computing device that reads the building information indicia; and at least one mobile computing device in wireless communication with the building control system, the at least one mobile computing device configured to read the building information indicia and transmit the indicia data to the building control system; wherein the building control system is configured to control the field devices (109a-n) based at least in part on the indicia data received from the at least one mobile computing device.
A combustor assembly for a gas turbine assembly wherein hydrogen can be used, comprising: • at least one combustor unit provided with a premix combustor and with a reheat combustor, which is arranged downstream the premix combustor along the gas flow direction; wherein the combustor unit comprises a mixer arranged between the premix combustor and the reheat combustor; • a water/steam injection assembly comprising a water/steam source and a water/steam circuit configured to supply water/steam to the at least one combustor unit of the combustor assembly; the water/steam circuit comprising, for each combustor unit, at least two injecting layouts; wherein the premix combustor comprises at least one premix burner and a first combustion chamber; characterized in that the injecting layouts are arranged in at least one air channel (42; 44; 31) of the combustor unit; a first injecting layout being arranged in an air chamber (42; 44) supplying air to the at least one premix burner; wherein the mixer comprises a mixing chamber defined by a double wall mixing liner wherein a cooling interspace is formed; the cooling interspace supplying air to the mixer; a second injecting layout being arranged in the cooling interspace; wherein the double wall mixing liner comprises holes connecting the cooling interspace and the mixing chamber; the second injecting layout being arranged in the cooling interspace upstream of the holes along the gas flow direction. • at least one combustor unit provided with a premix combustor and with a reheat combustor, which is arranged downstream the premix combustor along the gas flow direction; wherein the combustor unit comprises a mixer arranged between the premix combustor and the reheat combustor; • a water/steam injection assembly comprising a water/steam source and a water/steam circuit configured to supply water/steam to the at least one combustor unit of the combustor assembly; the water/steam circuit comprising, for each combustor unit, at least two injecting layouts; wherein the premix combustor comprises at least one premix burner and a first combustion chamber;
A controller for driving a motor in a electric power-assisted vehicle, the controller comprising: a detection part that detects a start signal or stop signal for regeneration control from a rider; a control coefficient computing part that identifies, as a first vehicle speed, the speed of the vehicle when the detection part detects the start signal for regeneration control, the control coefficient computing part assigning a prescribed value to a control coefficient that determines a value of a control parameter that controls the motor relative to a target value of the control parameter, the target value being a value of the control parameter at which the motor achieves a desired power generation efficiency, characterized by the control coefficient computing part increasing the control coefficient if a current vehicle speed becomes faster than the first vehicle speed and decreasing the control coefficient if the current vehicle speed becomes slower than the first vehicle speed, the control coefficient computing part continuing the increasing and decreasing until the detection part detects the stop signal for regeneration control; and a control part (1203, 1204) that derives a value of the control parameter in accordance with the target value of the control parameter and the control coefficient computed by the control coefficient computing part, the control part (1203, 1204) forwarding the derived value of the control parameter to the motor to control driving of the motor. a detection part that detects a start signal or stop signal for regeneration control from a rider; a control coefficient computing part that identifies, as a first vehicle speed, the speed of the vehicle when the detection part detects the start signal for regeneration control, the control coefficient computing part assigning a prescribed value to a control coefficient that determines a value of a control parameter that controls the motor relative to a target value of the control parameter, the target value being a value of the control parameter at which the motor achieves a desired power generation efficiency, characterized by the control coefficient computing part increasing the control coefficient if a current vehicle speed becomes faster than the first vehicle speed and decreasing the control coefficient if the current vehicle speed becomes slower than the first vehicle speed, the control coefficient computing part continuing the increasing and decreasing until the detection part detects the stop signal for regeneration control; and a control part (1203, 1204) that derives a value of the control parameter in accordance with the target value of the control parameter and the control coefficient computed by the control coefficient computing part, the control part (1203, 1204) forwarding the derived value of the control parameter to the motor to control driving of the motor.
An in vitro method for determining the risk of developing a radio-induced sarcoma in a patient treated with radiotherapy, said method comprising a step of detecting, in a biological sample obtained from said patient, a nucleotide change in the sequence of at least 11 genes selected from the group consisting of KLRF1, Clorf234, PKD2L2, ZNF845, GRB2, TMEM117, KIRREL2, GCNT7, USP3, C1R, TOE1, QSER1, SCAMP1, SEPT7, SLC4A3, TBC1D10A, ZFP41, ZNF2, ICAM2, PRG4, MZT1, SYCE1, MAP1B, PRSS35, RPL11, JMJD4, SHISA4, FZD5, ISCU, LGI1, OSCAR, KDM4B, MIR3199-1, MIR3199-2, LIPI, ATP11C, ESF1, BCAS3, FAM63A, SNAP47, MUTYH, TTC28-AS1, and SPRNP1.
A tower segment (103, 200) for a tower of a wind power installation, for attaching to a support structure, in particular to a foundation, comprising - a tower base element having ∘ an upper end and a lower end, and ∘ a threaded opening arranged at the lower end, - a flange, which is arranged at the lower end, having a first flange opening and a second flange opening, - wherein the tower base element and the flange are connected by a fastening element arranged in the threaded opening and the first flange opening, and - wherein the second flange opening is formed in such a way that a connecting element of the support structure can extend through the second flange opening, and - a load element, which is arranged on the flange, having a first load element opening, wherein the fastening element is partially arranged within the first load element opening. - a tower base element having ∘ an upper end and a lower end, and ∘ a threaded opening arranged at the lower end, ∘ an upper end and a lower end, and ∘ a threaded opening arranged at the lower end, - a flange, which is arranged at the lower end, having a first flange opening and a second flange opening, - wherein the tower base element and the flange are connected by a fastening element arranged in the threaded opening and the first flange opening, and - wherein the second flange opening is formed in such a way that a connecting element of the support structure can extend through the second flange opening, and - a load element, which is arranged on the flange, having a first load element opening, wherein the fastening element is partially arranged within the first load element opening.
Method for joining two materials (1,3) which are not directly weldable to each other in a lap joint configuration, the first material, so called the unweldable material, being non-weldable to the second material being a metallic material, material, characterized in that in a first step, a thermomechanical or mechanical surface protection layer is applied on a surface of the unweldable material by thermal spraying using at least one method selected from the group consisting of flame spraying, arc spraying, plasma spraying, laser spraying, cold gas spraying, detonation spraying, high velocity oxygen fuel spraying and molten pool spraying, the thickness of the thermally sprayed layer being in the range 0.25 to 1.5 mm and in a second step, the sprayed layer is joined to the metallic material using a thermal joining process.