mhurhangee/ep-ind-claims huggingface dataset:
Letermovir according to Formula, which is in the amorphous state, obtainable by a precipitation process for isolating amorphous Letermovir, characterized by precipitation of said amorphous Letermovir from the water miscible solvents acetone or acetonitrile into excess stirred water, following isolation via filtration or centrifugation of the Letermovir obtained.
A process for the preparation of the non-solvated crystalline form of 6,6'-[[3,3',5,5'-tetrakis(1,1-dimethylethyl)-[1,1'-biphenyl]-2,2'-diyl]bis(oxy)]bis-dibenzo [d,f] [1,3,2]-dioxaphosphepine (compound I), which in an X-ray powder diffractogram at 25°C with Cu-Kα radiation displays at least 5 of the following reflections, stated as 2θ values: 5.39 ± 0.20°, 7.04 ± 0.20°, 8.44 ± 0.20°, 8.65 ± 0.20°, 9.08 ± 0.20°, 9.66 ± 0.20°, 10.66 ± 0.20°, 12.60 ± 0.20°, 16.25 ± 0.20° and 17.36 ± 0.20°, wherein 6,6'-[[3,3',5,5'-tetrakis(1,1-dimethylethyl)-[1,1'-biphenyl]-2,2'-diyl]bis(oxy)]bis-dibenzo [d,f] [1,3,2]-dioxaphosphepine is allowed to crystallize at a temperature of above 65°C or wherein 6,6'-[[3,3',5,5'-tetrakis(1,1 - dimethylethyl)-[1,1'-biphenyl]-2,2'-diyl]bis(oxy)]bis-dibenzo [d,f] [1,3,2]-dioxaphosphepine is suspended in a solvent that comprises or consists of toluene and the suspended material is agitated in the suspension at a temperature above the boiling point of toluene at ambient pressure.
A method for re-pointing beams (1510, 1540, 1550) of at least two feeds (1220, 1225, 1530) disposed on a satellite, the method comprising: at least one of receiving and transmitting, with at least two feeds (1220, 1225, 1530), electromagnetic, EM, energy towards a non-parabolic reflector (510, 680, 770, 810, 910, 1010, 1110, 1210, 1520), wherein reflected EM energy that is reflected from the non-parabolic reflector (510, 680, 770, 810, 910, 1010, 1110, 1210, 1520) at least one of originates from and generates the at least two beams (1510, 1540, 1550); rotating, each of the at least two feeds (1220, 1225, 1530), from a respective first angular position to a respective second angular position, such that each of the at least two beams (1510, 1540, 1550) shifts from a respective first coverage location to a respective second coverage location different from the first coverage location; and translating, at least one of the at least two feeds (1220, 1225, 1530), from at least one first feed location to at least one second feed location, wherein the at least one first coverage location and the at least one second coverage location are located on Earth. at least one of receiving and transmitting, with at least two feeds (1220, 1225, 1530), electromagnetic, EM, energy towards a non-parabolic reflector (510, 680, 770, 810, 910, 1010, 1110, 1210, 1520), wherein reflected EM energy that is reflected from the non-parabolic reflector (510, 680, 770, 810, 910, 1010, 1110, 1210, 1520) at least one of originates from and generates the at least two beams (1510, 1540, 1550); rotating, each of the at least two feeds (1220, 1225, 1530), from a respective first angular position to a respective second angular position, such that each of the at least two beams (1510, 1540, 1550) shifts from a respective first coverage location to a respective second coverage location different from the first coverage location; and translating, at least one of the at least two feeds (1220, 1225, 1530), from at least one first feed location to at least one second feed location, wherein the at least one first coverage location and the at least one second coverage location are located on Earth.
Method of allocating resources in a cellular radio communication network comprising a plurality of user equipments (UE1-UE6, UE10-UE16) and a cluster composed of at least one local access point (AP1-AP8, AP) to the network covering a microcell (Mc), including the following steps: - for each local access point (AP1-AP8, AP) in the cluster: ▪ determining the presence of user equipments (T1-T6) in a coverage zone (C1-C8, Cp, Cs) of the microcell associated with the local access point (AP1-AP8, AP); ▪ generating a local coverage message specifying equipments determined as present in the microcell coverage zone; - genereting a global coverage message by aggregation of the local coverage message of each local access point in the cluster; - modifying at least one operating parameter of at least one local access point in the cluster as a function of the global coverage message; characterized in that it comprises, for each local access point in the cluster, the following steps performed for each user equipment specified in the local coverage message: - determining an activity state of the user equipment; - accordingly entering a field in said local coverage message with data representing the activity of the equipment. - for each local access point (AP1-AP8, AP) in the cluster: ▪ determining the presence of user equipments (T1-T6) in a coverage zone (C1-C8, Cp, Cs) of the microcell associated with the local access point (AP1-AP8, AP); ▪ generating a local coverage message specifying equipments determined as present in the microcell coverage zone; ▪ determining the presence of user equipments (T1-T6) in a coverage zone (C1-C8, Cp, Cs) of the microcell associated with the local access point (AP1-AP8, AP); ▪ generating a local coverage message specifying equipments determined as present in the microcell coverage zone; - genereting a global coverage message by aggregation of the local coverage message of each local access point in the cluster; - modifying at least one operating parameter of at least one local access point in the cluster as a function of the global coverage message; - determining an activity state of the user equipment; - accordingly entering a field in said local coverage message with data representing the activity of the equipment.
Wastewater collecting tank for a wastewater pumping system with a tank bottom sloping towards a deep section, in which there is a chamber over the deep section from which the wastewater is suctioned out of the collecting tank in the course of intended use, characterised by two oblong indentations in the tank bottom that slope towards and extend respectively to their own deep section with a rise located between the indentations, with a chamber for the intended suctioning of the wastewater respectively over the deep sections.
A radiation source for verifying the measurement accuracy of a non-contact thermal measurement device, comprising: a non-resistive heat source, wherein the non-resistive heat source comprises a transistor; a thermally conductive face having a controlled long-wave infrared emissivity wherein the thermally conductive face is in thermal contact with the non-resistive heat source; a temperature detector positioned to detect a temperature of the thermally conductive face; a printed circuit positioned to support the non-resistive heat source and the temperature detector; and a thermally conductive interface positioned between the thermally conductive face and the printed circuit board, wherein the thermally conductive interface is electrically non-conductive. a non-resistive heat source, wherein the non-resistive heat source comprises a transistor; a thermally conductive face having a controlled long-wave infrared emissivity wherein the thermally conductive face is in thermal contact with the non-resistive heat source; a temperature detector positioned to detect a temperature of the thermally conductive face; a printed circuit positioned to support the non-resistive heat source and the temperature detector; and a thermally conductive interface positioned between the thermally conductive face and the printed circuit board, wherein the thermally conductive interface is electrically non-conductive.
A system for visualizing an interior of a body from an exterior position, comprising: a navigation system having a monitor and a camera, wherein the camera is fixed to the monitor and serves as a reference system, and wherein the monitor is movably positionable between an operator and the body; an optical reference unit (40, 40', 40") adapted to be attached to the body for tracking movements of the body; an electronic processing device in communication with the navigation system; and an image data set comprising features of the interior of the body, the image data set being accessible to the processing device; wherein the processing device receives an optical image of an exterior surface of the body obtained with the camera, registers the image data set with respect to the reference system by correlating a position of the optical reference unit (40, 40', 40") in the image data set with a position of the optical reference unit (40, 40', 40") in the optical image, and causes the monitor to display the image data set superimposed and in registration with the optical image in a position and orientation that represents an angle of viewing and an aperture angle of the camera relative to the body. a navigation system having a monitor and a camera, wherein the camera is fixed to the monitor and serves as a reference system, and wherein the monitor is movably positionable between an operator and the body; an optical reference unit (40, 40', 40") adapted to be attached to the body for tracking movements of the body; an electronic processing device in communication with the navigation system; and an image data set comprising features of the interior of the body, the image data set being accessible to the processing device;
A method for manufacturing a quantum dot light emitting diode subpixel array, comprising: a quantum dot accepting layer forming step of forming a quantum dot accepting layer (206, 306, 406, 506, 606) including a surface functional group on a substrate (202, 302, 402, 502, 602); a thermosensitive quantum dot material layer applying step of applying a thermosensitive quantum dot material layer (210, 220, 230, 310, 320, 330, 410, 420, 430, 540, 640) containing a thermosensitive organic ligand on the quantum dot accepting layer (206, 306, 406, 506, 606); and a thermosensitive quantum dot material transferring step of subjecting the organic ligand of thermosensitive quantum dot material in a predetermined area of the thermosensitive quantum dot material layer (210, 220, 230, 310, 320, 330, 410, 420, 430, 540, 640) to a chemical reaction with the surface functional group of the quantum dot accepting layer (206, 306, 406, 506, 606) by heating to form weak-force bond such that the thermosensitive quantum dot material in the predetermined area is transferred onto a corresponding subpixel region on the quantum dot accepting layer (206, 306, 406, 506, 606). a quantum dot accepting layer forming step of forming a quantum dot accepting layer (206, 306, 406, 506, 606) including a surface functional group on a substrate (202, 302, 402, 502, 602); a thermosensitive quantum dot material layer applying step of applying a thermosensitive quantum dot material layer (210, 220, 230, 310, 320, 330, 410, 420, 430, 540, 640) containing a thermosensitive organic ligand on the quantum dot accepting layer (206, 306, 406, 506, 606); and a thermosensitive quantum dot material transferring step of subjecting the organic ligand of thermosensitive quantum dot material in a predetermined area of the thermosensitive quantum dot material layer (210, 220, 230, 310, 320, 330, 410, 420, 430, 540, 640) to a chemical reaction with the surface functional group of the quantum dot accepting layer (206, 306, 406, 506, 606) by heating to form weak-force bond such that the thermosensitive quantum dot material in the predetermined area is transferred onto a corresponding subpixel region on the quantum dot accepting layer (206, 306, 406, 506, 606).
A control device comprising: a detection unit configured to: extract, from an image of a real space captured by an imaging unit imaging the surroundings of a user and being arranged to perform imaging with a view direction of a user, a plurality of target objects (50A, 50B, 50C) which exists in the real space within a predetermined distance from the imaging unit, wherein the predetermined distance is a distance estimated as a distance in which the user can perform a manipulation with a manipulator which is a part of the user's body or an object held by the user; and detect, as a manipulation region, a flat region of the plurality of target objects (50A, 50B, 50C) that is largest among the plurality of target objects (50A, 50B, 50C); a function setting unit configured to perform function setting in a manner that a predetermined manipulation function is associated with the manipulation region detected by the detection unit; and a control unit configured to perform the manipulation function associated with the manipulation region based on a positional relation between the manipulation region and the manipulator. a detection unit configured to: extract, from an image of a real space captured by an imaging unit imaging the surroundings of a user and being arranged to perform imaging with a view direction of a user, a plurality of target objects (50A, 50B, 50C) which exists in the real space within a predetermined distance from the imaging unit, wherein the predetermined distance is a distance estimated as a distance in which the user can perform a manipulation with a manipulator which is a part of the user's body or an object held by the user; and detect, as a manipulation region, a flat region of the plurality of target objects (50A, 50B, 50C) that is largest among the plurality of target objects (50A, 50B, 50C); extract, from an image of a real space captured by an imaging unit imaging the surroundings of a user and being arranged to perform imaging with a view direction of a user, a plurality of target objects (50A, 50B, 50C) which exists in the real space within a predetermined distance from the imaging unit, wherein the predetermined distance is a distance estimated as a distance in which the user can perform a manipulation with a manipulator which is a part of the user's body or an object held by the user; and detect, as a manipulation region, a flat region of the plurality of target objects (50A, 50B, 50C) that is largest among the plurality of target objects (50A, 50B, 50C); a function setting unit configured to perform function setting in a manner that a predetermined manipulation function is associated with the manipulation region detected by the detection unit; and a control unit configured to perform the manipulation function associated with the manipulation region based on a positional relation between the manipulation region and the manipulator.
Surgical tubular shaft instrument, comprising a handle part, a tubular shaft having a proximal and a distal end, a tool arranged at the distal end of the shaft and a force transmission element, wherein the force transmission element is arranged in the shaft in guided relation thereto and is coupled to the handle part on the one hand and to the tool on the other hand for transmitting an actuating force from the handle part to the tool, wherein the shaft is held on the handle part for rotation about its longitudinal axis, wherein the instrument further comprises a locking device for fixing the shaft in a predetermined rotational position relative to the handle part, characterized in that the instrument comprises a coupling device rotatably held on the handle part, wherein the proximal end of the shaft is releasably and rotationally fixedly held on the coupling device, wherein the rotational position of the coupling device is fixable relative to the handle part by way of the locking device in a manner corresponding to the predetermined rotational position of the shaft relative to the handle part, wherein the locking device has a proximal and a distal end (70; 74) and a mid-section arranged therebetween, wherein the distal end is fixable to the proximal end of the shaft or to the coupling device, wherein the proximal end of the locking device is fixable to the handle part in rotationally fixed relation thereto, wherein the coupling device and the mid-section of the locking device are engageable with each other and wherein at least the proximal or the distal end is releasably fixable to the instrument.
A torque detection device for use in an electrical power steering device comprising a housing divided into an input shaft-side portion for an input shaft rotatably supported by a bearing and an output shaft-side portion for an output shaft rotatably supported by bearings (6b, 6c), the input shaft and the output shaft being connected to each other via a torsion bar placed in the input shaft, the input shaft, the torsion bar and the output shaft being coaxially arranged, a worm wheel that meshes with a worm driven by an electrical motor, the torque detection device comprising: a torsion bar including one end connected to the input shaft and another end connected to the output shaft; a cylindrical member located outside a sensor shaft formed in the input shaft coaxially with the sensor shaft, the cylindrical member and the sensor shaft are made of a nonmagnetic material and magnetic material, respectively, the cylindrical member having a plurality of windows (12a, 12b) arranged in a circumferential direction; a pair of detection coils (13a, 13b), impedances of the pair of detection coils (13a, 13b) changing in a direction opposite to each other depending on a torque generated in the input shaft; a torque calculation circuit configured to calculate the torque on the basis of voltages output from the detection coils (13a, 13b); two reel coil bobbins (18A, 18B, 18C) around which the pair of detection coils (13a, 13b) are respectively wound; electromagnetic yokes (15a, 15b) comprising cylindrical portions which respectively hold the two coil bobbins (18A, 18B, 18C) fitted thereinto; and one yoke cover fitted by pressing into the inner diameters of the cylindrical portions of the two electromagnetic yokes (15a, 15b) at an intermediate position between the two electromagnetic yokes (15a, 15b) and the two reel coil bobbins (18A, 18B, 18C) axially opposed to each other; characterized in that each of the two coil bobbins comprises pressing portions (18c, 18d, 18g, 18h, 18k, 18p, 18q) which include: a plurality of first projecting portions formed to project radially outward at a plurality of circumferential positions of a radial outer end portion of respective flange portions (18a, 18b) of the two coil bobbins (18A, 18B, 18C) and second projecting portions (181, 182, 183, 184) projecting axially from a radial outer end portion of each of the first projecting portions, wherein each of the second projecting portions of the first coil bobbin abut against the corresponding second projecting portion of the second coil bobbin and wherein the axial length of the respective second projecting portions is set to allow their axial end portions to abut against each other and push against each other, the pressing portions act between the two coil bobbins (18A, 18B, 18C) to axially press the two coil bobbins (18A, 18B, 18C).
A node apparatus that is connectable to one or more base stations and is configured to control uplink data transmission by vehicles traveling in cells formed by the one or more base stations, the node apparatus comprising: acquiring means for acquiring, from each of the one or more base stations, a measured traffic volume in a target cell, that is each of the cells formed by the one or more base stations; prediction means for predicting a traffic volume after a unit time in the target cell, based on the measured traffic volume acquired by the acquiring means; determination means for determining, upon an inquiry regarding whether or not uplink data transmission is permitted being received from a vehicle in the target cell, whether or not to permit uplink data transmission by the vehicle, wherein the determination is performed based on a prediction result of the prediction means predicting the traffic volume, and on a volume of data to be transmitted by the vehicle, and wherein the volume of data to be transmitted by the vehicle is indicated by information included in the inquiry that has been received from the vehicle; and transmission means for transmitting, to the vehicle that has transmitted the inquiry, a response indicating whether or not to permit uplink data transmission in accordance with the determination made by the determination means. acquiring means for acquiring, from each of the one or more base stations, a measured traffic volume in a target cell, that is each of the cells formed by the one or more base stations; prediction means for predicting a traffic volume after a unit time in the target cell, based on the measured traffic volume acquired by the acquiring means; determination means for determining, upon an inquiry regarding whether or not uplink data transmission is permitted being received from a vehicle in the target cell, whether or not to permit uplink data transmission by the vehicle, wherein the determination is performed based on a prediction result of the prediction means predicting the traffic volume, and on a volume of data to be transmitted by the vehicle, and wherein the volume of data to be transmitted by the vehicle is indicated by information included in the inquiry that has been received from the vehicle; and transmission means for transmitting, to the vehicle that has transmitted the inquiry, a response indicating whether or not to permit uplink data transmission in accordance with the determination made by the determination means.
A resource indication method in a wireless local area network, wherein the method comprises: generating, by an access point, a data frame that comprises a preamble, wherein the preamble comprises a signaling indication part B SIG-B, the signaling indication part B SIG-B comprises a common part and a user part following the common part, the common part is used to indicate information used for determining an end location or an end time of the common part, identification information of the scheduled station, and a location of communication resource information of the scheduled station in the user part, the user part is used to indicate the communication resource information of the scheduled station, and the communication resource information comprises resource indication information, MCS information of a data part, spatial flow quantity information, or power control information; and sending the data frame. generating, by an access point, a data frame that comprises a preamble, wherein the preamble comprises a signaling indication part B SIG-B, the signaling indication part B SIG-B comprises a common part and a user part following the common part, the common part is used to indicate information used for determining an end location or an end time of the common part, identification information of the scheduled station, and a location of communication resource information of the scheduled station in the user part, the user part is used to indicate the communication resource information of the scheduled station, and the communication resource information comprises resource indication information, MCS information of a data part, spatial flow quantity information, or power control information; and sending the data frame.
Calendering apparatus for mechanical compaction of an electrode, especially a twodimensional electrode, wherein the apparatus comprises - a compacting device (110, 120), - a guide roll, wherein the guide roll is configured to feed the electrode to the compacting device (110, 120) in operation of the calendering apparatus, - characterized in that the guide roll has first regions and second regions in sections on its rolling surface, wherein the first and the second regions (135, 260) have different thermal conductivities. - a compacting device (110, 120), - a guide roll, wherein the guide roll is configured to feed the electrode to the compacting device (110, 120) in operation of the calendering apparatus, - characterized in that