mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a transistor device comprising a germanium based channel layer, said method comprising: - providing a gate structure on said germanium based channel layer provided on a substrate, said gate structure being provided between a germanium based source area and a germanium based drain area at opposite sides of said germanium based channel layer, said germanium based channel layer comprising more than 80% Germanium, and said germanium based source area and said germanium based drain area comprising more than 80% Germanium, - providing a capping layer on said germanium based source and said germanium based drain area (3,4), said capping layer comprising Si and Ge; - depositing a metal layer on said capping layer; - performing a temperature step, thereby transforming part of said capping layer into a metal germano- silicide portion which is not soluble in a predetermined etchant adapted for dissolving said metal; - selectively removing non-consumed metal from said substrate by means of said predetermined etchant; - providing a premetal dielectric layer; wherein the thickness of the metal layer with respect to the thickness of said capping layer is adapted for preventing any exposure of the germanium based channel layer and germanium based source and drain areas (3, 4) to said predetermined etchant, such that an unreacted layer or portion of said capping layer protects the underlying germanium based source and drain areas (3, 4) from galvanic corrosion during said selective removing, wherein that the capping layer comprises a top layer adapted for reacting with the metal layer, the top layer comprising Si and Ge with a Ge concentration above 50%, and a bottom layer adapted to act as an etch-stop layer, the bottom layer comprising Si and Ge with a Ge concentration below 50%. - providing a gate structure on said germanium based channel layer provided on a substrate, said gate structure being provided between a germanium based source area and a germanium based drain area at opposite sides of said germanium based channel layer, said germanium based channel layer comprising more than 80% Germanium, and said germanium based source area and said germanium based drain area comprising more than 80% Germanium, - providing a capping layer on said germanium based source and said germanium based drain area (3,4), said capping layer comprising Si and Ge; - depositing a metal layer on said capping layer; - performing a temperature step, thereby transforming part of said capping layer into a metal germano- silicide portion which is not soluble in a predetermined etchant adapted for dissolving said metal; - selectively removing non-consumed metal from said substrate by means of said predetermined etchant; - providing a premetal dielectric layer;
Use of an equilibration buffer comprising 13 - 33 mM MES and 50 - 70mM NaCl at a pH of 5.1-5.9, a first wash buffer comprising 15 - 35mM MOPs at a pH of 6.6 - 7.4, a second wash buffer comprising 13 - 33mM MES and 5 - 20mM NaCl at a pH of 5.1 - 5.9, and an elution buffer comprising 13 - 33 mM MES and 160 - 190 mM NaCl at a pH of 5.4-5.6 in purifying Bevacizumab.
A compound chosen among the group comprising: • N-(3-Dimethylamino-propyl)-3-(4-trifluoromethoxy-phenylamino)-benzamide; • 4-(4-Methoxy-phenylamino)-3-methyl-N-(3-methyl-butyl)-benzamide; • 3-Methyl-N-(3-methyl-butyl)-4-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Dimethylamino-ethyl)-2-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Diethylamino-ethyl)-2-(4-trifluoromethoxyphenylamino)-benzamide; • N-(2-Diethylamino-propyl)-2-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(3-Imidazol-1-yl-propyl)-2-(4-methoxy-phenylamino)-benzamide; • N-(3-Imidazol-1-yl-propyl)-2-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Dimethylamino-ethyl)-4-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Dimethylamino-ethyl)-4-(4-methoxy-phenylamino)-3-methyl-benzamide; • N-(3-Diethylamino-propyl)-4-(4-methoxy-phenylamino)-3-methyl-benzamide; • N-(3-Diethylamino-propyl)-3-methyl-4-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Dimethylamino-ethyl)-3-methyl-4-(4-trifluoromethoxy-phenylamino)-benzamide; • [4-(5-Chloro-1H-imidazol-2-yl)-2-methyl-phenyl]-(4-methoxy-phenyl)-amine; • N-(2-Dimethylamino-ethyl)-2-(4-methoxy-phenylamino)-benzamide; • N-(3-Imidazol-1-yl-propyl)-4-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Diethylamino-ethyl)-2-(4-methoxy-phenylamino)-benzamide; • N-(3-Dimethylamino-propyl)-3-(4-methoxy-phenylamino)-benzamide; and • N-(3-Dimethylamino-propyl)-2-(4-methoxy-phenylamino)-benzamide. • N-(3-Dimethylamino-propyl)-3-(4-trifluoromethoxy-phenylamino)-benzamide; • 4-(4-Methoxy-phenylamino)-3-methyl-N-(3-methyl-butyl)-benzamide; • 3-Methyl-N-(3-methyl-butyl)-4-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Dimethylamino-ethyl)-2-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Diethylamino-ethyl)-2-(4-trifluoromethoxyphenylamino)-benzamide; • N-(2-Diethylamino-propyl)-2-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(3-Imidazol-1-yl-propyl)-2-(4-methoxy-phenylamino)-benzamide; • N-(3-Imidazol-1-yl-propyl)-2-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Dimethylamino-ethyl)-4-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Dimethylamino-ethyl)-4-(4-methoxy-phenylamino)-3-methyl-benzamide; • N-(3-Diethylamino-propyl)-4-(4-methoxy-phenylamino)-3-methyl-benzamide; • N-(3-Diethylamino-propyl)-3-methyl-4-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Dimethylamino-ethyl)-3-methyl-4-(4-trifluoromethoxy-phenylamino)-benzamide; • [4-(5-Chloro-1H-imidazol-2-yl)-2-methyl-phenyl]-(4-methoxy-phenyl)-amine; • N-(2-Dimethylamino-ethyl)-2-(4-methoxy-phenylamino)-benzamide; • N-(3-Imidazol-1-yl-propyl)-4-(4-trifluoromethoxy-phenylamino)-benzamide; • N-(2-Diethylamino-ethyl)-2-(4-methoxy-phenylamino)-benzamide; • N-(3-Dimethylamino-propyl)-3-(4-methoxy-phenylamino)-benzamide; and • N-(3-Dimethylamino-propyl)-2-(4-methoxy-phenylamino)-benzamide.
Radial fan, in particular roof fan, which has the following features: a) a motor housing, b) a motor mounted on a motor plate arranged on the base of the motor housing, c) an impeller arranged outside the motor housing and connected non-rotatably to the motor, d) a cooling air duct opening into the motor housing, wherein e) the motor housing and the cooling air duct are designed as double-walled in such a manner that a convection duct, which encases them, is formed, f) the impeller comprises a backplate with back blading pointing towards the motor housing, thus forming a device for radially discharging cooling air and convection air. a) a motor housing, b) a motor mounted on a motor plate arranged on the base of the motor housing, c) an impeller arranged outside the motor housing and connected non-rotatably to the motor, d) a cooling air duct opening into the motor housing, wherein e) the motor housing and the cooling air duct are designed as double-walled in such a manner that a convection duct, which encases them, is formed, f) the impeller comprises a backplate with back blading pointing towards the motor housing, thus forming a device for radially discharging cooling air and convection air.
An optical reformatter for generating an output beam, comprising: a collimator which receives an input light and produces a first collimated beam; a first optical element which (i) redirects one or more portions of the first collimated beam so they are non-parallel to the first collimated beam and received by the collimator which produces one or more reimaging beams; and (ii) allows one or more portions of the first collimated beam to pass by the first optical element to form part of the output beam; a second optical element which redirects one or more portions of the reimaging beams so they are received by the collimator which produces additional collimated beams; wherein one or more portions of the additional collimated beams also form parts of the output beam. a collimator which receives an input light and produces a first collimated beam; a first optical element which (i) redirects one or more portions of the first collimated beam so they are non-parallel to the first collimated beam and received by the collimator which produces one or more reimaging beams; and (ii) allows one or more portions of the first collimated beam to pass by the first optical element to form part of the output beam; (i) redirects one or more portions of the first collimated beam so they are non-parallel to the first collimated beam and received by the collimator which produces one or more reimaging beams; and (ii) allows one or more portions of the first collimated beam to pass by the first optical element to form part of the output beam; a second optical element which redirects one or more portions of the reimaging beams so they are received by the collimator which produces additional collimated beams; wherein one or more portions of the additional collimated beams also form parts of the output beam.
An indoor unit for an air conditioner buried in a ceiling and including a heat exchanger with respect to an indoor space defined by a bottom surface, the ceiling, and a plurality of wall surfaces (311, 312, 313, 314), comprising a front panel provided with a suction part suctioning air of the indoor space; a discharge hole placed on at least one side of the suction part and discharging heat-exchanged air from the heat exchanger; an opening member provided movably to selectively open the discharge hole; and a distance sensing unit (170; 270) sensing at least one of a distance up to the bottom surface from the front panel or the indoor unit and a distance up to the wall surface (311, 312, 313, 314) from the indoor unit, a temperature sensing unit sensing the temperature of the indoor space; and characterized in that the indoor unit comprises: a controller controlling the opening degree of the opening member and compensating for a difference between a set temperature and the temperature of the indoor space, based on a sensing result sensed by the distance sensing unit (170; 270), and wherein the controller recognizes a first temperature difference between the temperature of the indoor space sensed by the temperature sensing unit and a set temperature and compensates for the first temperature difference as a second temperature difference larger than the first temperature difference when the installation height of the indoor unit is higher than a predetermined height. a controller controlling the opening degree of the opening member and compensating for a difference between a set temperature and the temperature of the indoor space, based on a sensing result sensed by the distance sensing unit (170; 270), and wherein the controller recognizes a first temperature difference between the temperature of the indoor space sensed by the temperature sensing unit and a set temperature and compensates for the first temperature difference as a second temperature difference larger than the first temperature difference when the installation height of the indoor unit is higher than a predetermined height.
A vehicle engine cooling arrangement comprising a fan, a radiator and a mounting plate, said mounting plate providing a fan mounting surface and a radiator mounting surface so that the fan and radiator are in a spaced arrangement, said plate extending from under the fan at the front of the vehicle to under the radiator and wherein said mounting plate guides air from the fan to the radiator, said mounting plate comprises a sloped surface between the fan mounting surface and the radiator mounting surface so that there is a difference in the relative heights of the two mounting surfaces (8,9) characterized in that the radiator is located downstream of the fan and in that the sloped surface forms a channel with a part of a fan shroud to channel air from the fan to the radiator.
A computer-implemented method for calculating a fluence map for radiation therapy, the method comprising: selecting a volume of interest; selecting a plurality of voxels within the volume of interest, wherein each of the voxels has an acceptable dose range; selecting a set of candidate beamlets b={b i} having initial beamlet intensity weights x 0 ={x i 0}; calculating a dose matrix A for the volume of interest based on the set of candidate beamlets b, wherein the dose matrix A represents per-voxel dose delivered to each of the plurality of voxels by the set of candidate beamlets b; the method being characterized by the following step: calculating a fluence map having a final set of beamlet intensity weights x k by adjusting the initial beamlet intensity weights according to a proximal gradient method (x k-1 →x k) with a penalty function containing one or more linear penalties that iterates on the initial beamlet intensity weights until the adjusted beamlet intensity weights converge on a final set of beamlet intensity weights such that changes between iterations of the beamlet intensity weights are less than a predetermined residual criterion. selecting a volume of interest; selecting a plurality of voxels within the volume of interest, wherein each of the voxels has an acceptable dose range; selecting a set of candidate beamlets b={b i} having initial beamlet intensity weights x 0 ={x i 0}; calculating a dose matrix A for the volume of interest based on the set of candidate beamlets b, wherein the dose matrix A represents per-voxel dose delivered to each of the plurality of voxels by the set of candidate beamlets b;
A wound therapy system comprising: a negative pressure circuit configured to apply negative pressure to a wound; a pump fluidly coupled to the negative pressure circuit and operable to control the negative pressure within the negative pressure circuit; a pressure sensor (113, 130) configured to measure the negative pressure within the negative pressure circuit or at the wound; and a controller communicably coupled to the pump and the pressure sensor (113, 130), the controller characterised b) being configured to execute a pressure testing procedure comprising operating the pump to establish the negative pressure within the negative pressure circuit and applying a pressure stimulus to the negative pressure circuit after the negative pressure has been established within the negative pressure circuit; observe a dynamic pressure response of the negative pressure circuit to the pressure stimulus using pressure measurements recorded by the pressure sensor (113, 130); and estimate a wound volume of the wound based on the dynamic pressure response. a negative pressure circuit configured to apply negative pressure to a wound; a pump fluidly coupled to the negative pressure circuit and operable to control the negative pressure within the negative pressure circuit; a pressure sensor (113, 130) configured to measure the negative pressure within the negative pressure circuit or at the wound; and a controller communicably coupled to the pump and the pressure sensor (113, 130), the controller characterised b) being configured to execute a pressure testing procedure comprising operating the pump to establish the negative pressure within the negative pressure circuit and applying a pressure stimulus to the negative pressure circuit after the negative pressure has been established within the negative pressure circuit; observe a dynamic pressure response of the negative pressure circuit to the pressure stimulus using pressure measurements recorded by the pressure sensor (113, 130); and estimate a wound volume of the wound based on the dynamic pressure response. execute a pressure testing procedure comprising operating the pump to establish the negative pressure within the negative pressure circuit and applying a pressure stimulus to the negative pressure circuit after the negative pressure has been established within the negative pressure circuit; observe a dynamic pressure response of the negative pressure circuit to the pressure stimulus using pressure measurements recorded by the pressure sensor (113, 130); and estimate a wound volume of the wound based on the dynamic pressure response.
Method of extracting organic substances from aqueous media, comprising the steps of: - adding a water-soluble organic solvent to the aqueous media comprising organic compounds, - freezing-out of the aqueous part under the action of centrifugal force, - extracting dissolved organic compounds in said added water-soluble organic solvent which is Isolated into a separate liquid in the freezing process in a centrifugal force field, when the aqueous part is frozen. - adding a water-soluble organic solvent to the aqueous media comprising organic compounds, - freezing-out of the aqueous part under the action of centrifugal force, - extracting dissolved organic compounds in said added water-soluble organic solvent which is Isolated into a separate liquid in the freezing process in a centrifugal force field, when the aqueous part is frozen.
A control method of an information processing apparatus, comprising: installing a predetermined program; and executing a predetermined notification to notify and prompt a user to reboot the information processing apparatus based on a case where a predetermined function is enabled in the information processing apparatus, the predetermined function being related to processing for a case where a shutdown operation of the information processing apparatus is performed, wherein the predetermined function is a function of setting the information processing apparatus to hibernation instead of completely shutting down the information processing apparatus in a case where the shutdown operation of the information processing apparatus is performed, and the information processing apparatus is completely shut down in a case where the shutdown operation of the information processing apparatus is performed while the predetermined function is not enabled; characterized in that the execution executes the predetermined notification upon completion of processing performed by the installing; and in a case where the predetermined function is enabled (S905:YES), the executing executes the predetermined notification to notify the user that a reboot of the information processing apparatus is required to apply updated contents as a result of said installation, and that said updated contents will not be applied if the shutdown operation is performed. installing a predetermined program; and executing a predetermined notification to notify and prompt a user to reboot the information processing apparatus based on a case where a predetermined function is enabled in the information processing apparatus, the predetermined function being related to processing for a case where a shutdown operation of the information processing apparatus is performed, wherein the predetermined function is a function of setting the information processing apparatus to hibernation instead of completely shutting down the information processing apparatus in a case where the shutdown operation of the information processing apparatus is performed, and the information processing apparatus is completely shut down in a case where the shutdown operation of the information processing apparatus is performed while the predetermined function is not enabled; characterized in that the execution executes the predetermined notification upon completion of processing performed by the installing; and in a case where the predetermined function is enabled (S905:YES), the executing executes the predetermined notification to notify the user that a reboot of the information processing apparatus is required to apply updated contents as a result of said installation, and that said updated contents will not be applied if the shutdown operation is performed.
A building array comprising at least two building elements comprising fibre cement, wherein the at least two building elements each comprise a first face, a second face and a peripheral edge member, the first face and second face being spaced apart to define an intermediate portion, the peripheral edge member extending around the intermediate portion whereby at least a portion of the peripheral edge member comprises an edge profile, wherein the edge profile divides the peripheral edge member of each building element into a first portion and a second portion, the first portion corresponding to the section of the building element including and adjacent to the first face and the second portion of the building element including and adjacent to the second face; at least one boundary element comprising a planar base member removably attachable to a structural support element, two spaced apart flanges (306, 308) extending substantially orthogonally from the planar base member and a planar edge restraining formation extending laterally from each flange (306, 308) remote from the planar base member, the edge restraining formation extending substantially parallel to the planar base member, wherein the planar base member together with flanges (306, 308) and planar edge restraining formation are configured to provide three conjoined channels, wherein the central channel is a "U"-shaped channel and the channels (302a, 302b) on either side of the central channel are 'C'-shaped channels facing in opposing directions, planar base member and flanges (306, 308) forming the base member and side members of the central channel respectively and flanges (306, 308), planar base member and planar edge restraining formation forming the base members and side members of each respective side channel (302a, 302b); wherein the edge restraining formation is configured for releasably engaging with the edge profile of the building element; at least one cover element for concealing at least a portion of a boundary element, wherein the cover element comprises a top member including a first cover element face and a second cover element face and a pair of legs (710, 712), each leg extending substantially orthogonally from the second cover element face, wherein at least a portion of the cover element is seated within the central channel; and wherein the at least one boundary element and at least one cover element are positioned intermediate the at least two building elements such that the at least two building elements, the at least one boundary element and at least one cover element are arrangable together in series on a structural support element to form the building array.
A system for alkaline water electrolysis, the system comprising: - one or more electrolysis cells each comprising an anode, a cathode, and a porous diaphragm dividing the electrolysis cell into a cathode compartment containing the cathode and an anode compartment containing the anode, - a hydrogen separator tank and a first piping from the cathode compartments of the electrolysis cells to an upper portion of the hydrogen separator tank, - an oxygen separator tank and a second piping from the anode compartments of the electrolysis cells to an upper portion of the oxygen separator tank, and - a third piping for conducting liquid electrolyte from a lower portion of the hydrogen separator tank and from a lower portion of the oxygen separator tank to the electrolysis cells, characterized in that the system comprises an ultrasound source attached to the first piping and for applying ultrasound on the liquid electrolyte contained by the first piping to separate dissolved hydrogen gas from the liquid electrolyte contained by the first piping. - one or more electrolysis cells each comprising an anode, a cathode, and a porous diaphragm dividing the electrolysis cell into a cathode compartment containing the cathode and an anode compartment containing the anode, - a hydrogen separator tank and a first piping from the cathode compartments of the electrolysis cells to an upper portion of the hydrogen separator tank, - an oxygen separator tank and a second piping from the anode compartments of the electrolysis cells to an upper portion of the oxygen separator tank, and - a third piping for conducting liquid electrolyte from a lower portion of the hydrogen separator tank and from a lower portion of the oxygen separator tank to the electrolysis cells,