mhurhangee/ep-ind-claims huggingface dataset:
A downlink data sending method, comprising: determining P physical downlink shared channels, PDSCHs, in a first time unit, wherein the P PDSCHs comprise a PDSCH that has no corresponding physical downlink control channel, PDCCH, at least two of the P PDSCHs overlap in time domain, and P is an integer greater than 1; sending data to a terminal device only on M PDSCHs in the P PDSCHs, wherein M is equal to 1, or M is an integer greater than 1 and less than P, and the M PDSCHs do not overlap in time domain; and receiving feedback information corresponding to the M PDSCHs from the terminal device; and wherein a first PDSCH is the last repetition in PDSCH repetitions of first data, and the first PDSCH is a PDSCH other than the M PDSCHs in the P PDSCHs and overlaps at least one of the M PDSCHs in time domain; and the method further comprises: when the first data is sent to the terminal device on a second PDSCH, receiving feedback information for the first data from the terminal device in a feedback time unit corresponding to the first PDSCH, wherein the second PDSCH is any repetition of the first data before the first PDSCH. determining P physical downlink shared channels, PDSCHs, in a first time unit, wherein the P PDSCHs comprise a PDSCH that has no corresponding physical downlink control channel, PDCCH, at least two of the P PDSCHs overlap in time domain, and P is an integer greater than 1; sending data to a terminal device only on M PDSCHs in the P PDSCHs, wherein M is equal to 1, or M is an integer greater than 1 and less than P, and the M PDSCHs do not overlap in time domain; and receiving feedback information corresponding to the M PDSCHs from the terminal device; and wherein a first PDSCH is the last repetition in PDSCH repetitions of first data, and the first PDSCH is a PDSCH other than the M PDSCHs in the P PDSCHs and overlaps at least one of the M PDSCHs in time domain; and the method further comprises: when the first data is sent to the terminal device on a second PDSCH, receiving feedback information for the first data from the terminal device in a feedback time unit corresponding to the first PDSCH, wherein the second PDSCH is any repetition of the first data before the first PDSCH.
A composition in the form of a solution, the composition comprising sodium sulfate, potassium sulfate, and magnesium sulfate for use in the treatment of a hypercalcium concentration-related disorder in a patient in need thereof, wherein the disorder is selected from the group consisting of hypercalciuria, nephrocalcinosis, recurring calcium nephrolithiasis, calcium phosphate stone disease, stone forming disease, struvite formation, calcium-phosphate recurrent stones, absorptive hypercalciuria syndrome, vascular calcification, recurrent calcium urolithiasis, persistently high urinary pH, calciphylaxis, chronic renal failure, end stage renal disease, calcific uremic arteriolopathy.
A method for treating a surface of a diamond thin film, comprising: performing, a first substitution process for substituting part of hydrogen-terminals of the diamond thin film with fluorine-terminals in the absence of a fluorocarbon deposition process on the surface of the diamond thin film; wherein the first substitution process is to perform an inductive coupled reactive ion etching by exposing at least a part of the surface of the diamond thin film to a fluorine-based gas, and to control a power source output and a process time of the inductive coupled reactive ion etching, the method further comprising substituting any terminals other than hydrogen terminals of the surface of the diamond thin film with hydrogen terminals, prior to performing the first substitution process of the hydrogen terminals of the diamond thin film with fluorine terminals by the inductive coupled reactive ion etching in the first substitution process. performing, a first substitution process for substituting part of hydrogen-terminals of the diamond thin film with fluorine-terminals in the absence of a fluorocarbon deposition process on the surface of the diamond thin film; wherein the first substitution process is to perform an inductive coupled reactive ion etching by exposing at least a part of the surface of the diamond thin film to a fluorine-based gas, and to control a power source output and a process time of the inductive coupled reactive ion etching, the method further comprising substituting any terminals other than hydrogen terminals of the surface of the diamond thin film with hydrogen terminals, prior to performing the first substitution process of the hydrogen terminals of the diamond thin film with fluorine terminals by the inductive coupled reactive ion etching in the first substitution process.
A server blade configured to be receivable as a field replaceable unit in a carrier of a blade server system, the server blade comprising: a blade enclosure that is substantially rectangular-shaped with two opposing side faces (106, 107), a front edge face, a rear edge face, an upper edge face and a lower edge face; and an injector lever mechanism for facilitating insertion and removal of the server blade with respect to the carrier, wherein the blade enclosure includes at least one ventilation opening (115, 117) on each of the front and rear edge faces to permit a flow of cooling air through the enclosure between the front and rear edge faces; wherein the blade enclosure is configured (108, 113) to be slidably mountable in the carrier such that the rear edge face is inserted first; and wherein the blade enclosure includes connections accessible externally to the blade enclosure and located on the rear edge face; wherein the blade enclosure has an elongate form; wherein the side faces and the upper and lower edge faces have substantially the same length, but the upper and lower edge faces are narrower than the side faces; and wherein the front and rear edge faces have a length that is substantially the same as the width of the side faces and a width substantially the same as the width of the upper and lower edge faces. a blade enclosure that is substantially rectangular-shaped with two opposing side faces (106, 107), a front edge face, a rear edge face, an upper edge face and a lower edge face; and an injector lever mechanism for facilitating insertion and removal of the server blade with respect to the carrier, wherein the blade enclosure includes at least one ventilation opening (115, 117) on each of the front and rear edge faces to permit a flow of cooling air through the enclosure between the front and rear edge faces; wherein the blade enclosure is configured (108, 113) to be slidably mountable in the carrier such that the rear edge face is inserted first; and wherein the blade enclosure includes connections accessible externally to the blade enclosure and located on the rear edge face; wherein the blade enclosure has an elongate form; wherein the side faces and the upper and lower edge faces have substantially the same length, but the upper and lower edge faces are narrower than the side faces; and wherein the front and rear edge faces have a length that is substantially the same as the width of the side faces and a width substantially the same as the width of the upper and lower edge faces.
Insulating element for the insulated coupling of electrical conductors (3, 4) in gas-insulated switchgear assemblies which have a first insulated electrically conductive conductor, which is connected to a first insulating body, and a second insulated electrically conductive conductor, which is connected to a second insulating body, wherein these conductors (3, 4) are electrically coupled to one another by way of a multipartite connecting means, the conductors (3, 4) and also the connecting means are received in a housing (7, 8), composed of a first housing part and a second housing part, and also a protective sheathing, and the insulating element is adapted for electrically insulating the conductors (3, 4) and the connecting means from the housing (7, 8) and also the protective sheathing, wherein the flexible insulating element is highly flexible, consists of a stable flexible sleeve, is of tubular design, has a cavity for receiving the conductors (3, 4) and the connecting means and has a collar at each of its two ends, each of which collars are adapted for a clamping device to be able to engage therein in order to thereby maintain the pressure on the insulating element and thereby to prevent the formation of a gap at a boundary surface between the insulating bodies (1, 2) and the insulating element, and the flexible insulating element is flexibly deformable in such a way that it can be turned inside out, as a result of which it can release the connecting means, and the insulating element is characterized in that the flexible sleeve is a flexible silicone sleeve which is filled with an insulating agent, wherein the insulating agent is formed from a liquid or gel-like material, and the insulating agent is silicone oil or high-viscosity silicone gel.
Procedure designed to determine a flow rate or a flow velocity of a medium, which at least interacts with a first and a second temperature sensor element (T 1, T 2) and a heating element (H 1), wherein said procedure comprises the following steps: - Heating of the medium by means of the heating element (H 1) for a predefined heating period, wherein, prior to the heating, the medium is largely in thermal equilibrium with at least the first and the second temperature sensor element (T 1, T 2); - Measurement of at least a first and a second measured value (9, 10), wherein the second measured value is chronologically after the first measured value, with the aid of the first temperature sensor element (T 1) and at least a third and a fourth measured value (11, 12), wherein the fourth measured value is chronologically after the third measured value, with the aid of the second temperature sensor element (T 2), for the purpose of characterizing a first and a second temperature increase (7, 8) of the medium; - Determination of the flow rate or the flow velocity of the medium using the at least two temperature increases (7, 8), characterized in that in order to characterize the two temperature increases (7, 8), a first constant (a 1) and a first slope value (b 1) are determined for the first temperature increase, and a second constant (a 2) and a second slope value (b 2) are determined for the second temperature increase, wherein Ohmic resistance values (R 1, R 2) for the temperature sensor element (T 1, T 2) are determined in thermal equilibrium by means of the two constants (a 1, a 2), and a temperature increase (ΔT 1, ΔT 2) for the temperature sensor element (T 1, T 2) is determined by means of the two slope values (b 1, b 2), wherein the constants and the slope values are determined following a transformation of the time values for the linearization of the temperature increase. - Heating of the medium by means of the heating element (H 1) for a predefined heating period, wherein, prior to the heating, the medium is largely in thermal equilibrium with at least the first and the second temperature sensor element (T 1, T 2); - Measurement of at least a first and a second measured value (9, 10), wherein the second measured value is chronologically after the first measured value, with the aid of the first temperature sensor element (T 1) and at least a third and a fourth measured value (11, 12), wherein the fourth measured value is chronologically after the third measured value, with the aid of the second temperature sensor element (T 2), for the purpose of characterizing a first and a second temperature increase (7, 8) of the medium; - Determination of the flow rate or the flow velocity of the medium using the at least two temperature increases (7, 8),
A method for producing a lignocellulose-containing sheet-type material, wherein the following steps are carried out: - production of a sheet-type pressed body with a top principal surface (2.1), a bottom principal surface (2.2) and at least one narrow side surface (2.3) by pressing lignocellulose-containing material provided with binder under raised pressure and at raised temperature, - provision of a material strip in a thickness (d) of at most 3 mm as edge strip comprising one or more layers (4.1) of resin-impregnated paper, ABS, PP, PVC and /or melamine, wherein the roughness of the edge strip at least on one side is less than that of the narrow surface (2.3) onto which the edge strip is applied, - application of the edge strip, which can be printed with a resolution of at least 60 dpi, on at least a part of the at least one narrow surface (2.3) and - printing of the edge strip with an optical code after the application on the at least one narrow surface (2.3), wherein the code is printed on the edge strip in a resolution of at least 60 dpi and corresponds to data which are stored in a data processing system and which relate to the lignocellulose-containing sheet-type material. - production of a sheet-type pressed body with a top principal surface (2.1), a bottom principal surface (2.2) and at least one narrow side surface (2.3) by pressing lignocellulose-containing material provided with binder under raised pressure and at raised temperature, - provision of a material strip in a thickness (d) of at most 3 mm as edge strip comprising one or more layers (4.1) of resin-impregnated paper, ABS, PP, PVC and /or melamine, wherein the roughness of the edge strip at least on one side is less than that of the narrow surface (2.3) onto which the edge strip is applied, - application of the edge strip, which can be printed with a resolution of at least 60 dpi, on at least a part of the at least one narrow surface (2.3) and - printing of the edge strip with an optical code after the application on the at least one narrow surface (2.3), wherein the code is printed on the edge strip in a resolution of at least 60 dpi and corresponds to data which are stored in a data processing system and which relate to the lignocellulose-containing sheet-type material.
A light reflector comprising: a substrate; a light reflecting layer formed of Ag or an Ag-based alloy and formed on a surface of the substrate; and a top coat layer formed to cover a surface of the light reflecting layer; an undercoat layer is formed between the substrate and the light reflecting layer, wherein the top coat layer is formed by coating a straight silicone-based coating agent containing a straight silicone resin as a main ingredient on the surface of the light reflecting layer; and the light reflecting layer is an Ag-based alloy containing 0.1 to 1 atomic% of Nd or Y and containing 0.1 to 2 atomic% of Au or Cu, the undercoat layer is made of a material other than the straight silicone-based coating agent, formed by selecting either one of an epoxy-modified silicone-based coating agent or a cresol novolac-type epoxy-based coating agent, and by coating it on the surface of the substrate.
A method in a first base station serving a first cell having a first coverage area at least partly overlapping with a second coverage area of a second cell served by a second base station, the first base station operating within a first transmission power range and the second base station operating within a second transmission power range, the first transmission power range having transmission power levels being higher than transmission power levels of the second transmission power range, the method comprising the steps of: - determining radio link quality of a user equipment connected to the first base station and being located in an adjustable extended coverage range of the second base station, - requesting from the second base station, interference-related measurements for unused physical channels or for physical channels at least partially overlapping with physical channels used by the user equipment connected to the first base station and having the radio link quality falling below a threshold value thus indicating poor radio link quality to the first base station, - deciding for the user equipment connected to the first base station, based on the interference-related measurements, if a handover to the second base station should be performed. - determining radio link quality of a user equipment connected to the first base station and being located in an adjustable extended coverage range of the second base station, - requesting from the second base station, interference-related measurements for unused physical channels or for physical channels at least partially overlapping with physical channels used by the user equipment connected to the first base station and having the radio link quality falling below a threshold value thus indicating poor radio link quality to the first base station, - deciding for the user equipment connected to the first base station, based on the interference-related measurements, if a handover to the second base station should be performed.
A process for the production of ethylene by oxidative dehydrogenation of ethane, comprising: a) supplying ethane and oxygen to a first oxidative dehydrogenation zone which is formed by multiple reactor tubes containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; b) contacting the ethane and oxygen with the catalyst in the multiple reactor tubes in the first oxidative dehydrogenation zone resulting in multiple effluent streams, wherein the multiple reactor tubes are cooled by a coolant; c) mixing at least a portion of the multiple effluent streams from step b) resulting in a mixture comprising ethylene, unconverted ethane, unconverted oxygen, carbon dioxide, carbon monoxide and acetylene; d) supplying at least a portion of the mixture from step c) to a second oxidative dehydrogenation zone containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; e) contacting at least a portion of the mixture from step c) with the catalyst in the second oxidative dehydrogenation zone resulting in a stream comprising ethylene, unconverted ethane, carbon dioxide, carbon monoxide and acetylene; f) separating at least a portion of the stream resulting from step e) into a stream comprising carbon monoxide and a stream comprising ethylene, unconverted ethane and acetylene; g) subjecting at least a portion of the stream comprising ethylene, unconverted ethane and acetylene resulting from step f) to acetylene hydrogenation resulting in a stream comprising ethylene and unconverted ethane. a) supplying ethane and oxygen to a first oxidative dehydrogenation zone which is formed by multiple reactor tubes containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; b) contacting the ethane and oxygen with the catalyst in the multiple reactor tubes in the first oxidative dehydrogenation zone resulting in multiple effluent streams, wherein the multiple reactor tubes are cooled by a coolant; c) mixing at least a portion of the multiple effluent streams from step b) resulting in a mixture comprising ethylene, unconverted ethane, unconverted oxygen, carbon dioxide, carbon monoxide and acetylene; d) supplying at least a portion of the mixture from step c) to a second oxidative dehydrogenation zone containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; e) contacting at least a portion of the mixture from step c) with the catalyst in the second oxidative dehydrogenation zone resulting in a stream comprising ethylene, unconverted ethane, carbon dioxide, carbon monoxide and acetylene; f) separating at least a portion of the stream resulting from step e) into a stream comprising carbon monoxide and a stream comprising ethylene, unconverted ethane and acetylene; g) subjecting at least a portion of the stream comprising ethylene, unconverted ethane and acetylene resulting from step f) to acetylene hydrogenation resulting in a stream comprising ethylene and unconverted ethane.
Pipe for extracting reservoir fluids present in an underground reservoir, said pipe extending into said reservoir and comprising at least one flow control device for controlling the inflow of said reservoir fluids, which flow control device is arranged in an opening in the wall of the pipe, wherein the pipe has a first thickness in a first area of the pipe comprising said flow control valve, and a second thickness in a second area of the pipe, which first thickness is greater than the second thickness for compensating for the loss of strength due to the presence of the opening, wherein said first area extends around the periphery of the pipe over a first length of the pipe, characterised in that the pipe comprises a cylindrical sleeve that is provided around the outer periphery of said pipe over said first length, which cylindrical sleeve comprises a second opening that is in register with the opening in the wall of the pipe, and wherein the first thickness is defined by the combined thickness of the pipe and the cylindrical sleeve.
Plant of the metallurgical industry, with a plurality of operating regions, at least one movable group with a unit for transmitting, receiving and storing data associated with the group, and a control station for control or process guidance of the plant of the metallurgical industry, wherein the operating regions each comprise at least one communications means for communication with the unit of the group, characterised in that the operating regions each comprise at least one sensor network for detecting groups present in the operating region, the data associated with the group reproduce a virtual state of the group, wherein the state of the group relates to the temperature, the wear, the degree of contamination, lime deposits, maintenance history, calibration parameters, use history, remaining service life, expected service life to the next maintenance, current position, old or new installation position or any other characteristic of the group which is influenced by the use or operation of the group in the plant of the metallurgical industry, the operating regions are shown as virtual spaces, which adapt the virtual state of the group, which is present in the virtual space, with respect to the use of the group in the operating region, wherein the virtual spaces describe the use of the group in the physical operating region, the control station in the control or process guidance of the plant of the metallurgical industry takes into account the data, which are stored in the units of the groups, concerning the virtual state of the groups with respect to a current and/or future use of the groups. a plurality of operating regions, at least one movable group with a unit for transmitting, receiving and storing data associated with the group, and a control station for control or process guidance of the plant of the metallurgical industry, wherein the operating regions each comprise at least one communications means for communication with the unit of the group, characterised in that the operating regions each comprise at least one sensor network for detecting groups present in the operating region, the data associated with the group reproduce a virtual state of the group, wherein the state of the group relates to the temperature, the wear, the degree of contamination, lime deposits, maintenance history, calibration parameters, use history, remaining service life, expected service life to the next maintenance, current position, old or new installation position or any other characteristic of the group which is influenced by the use or operation of the group in the plant of the metallurgical industry, the operating regions are shown as virtual spaces, which adapt the virtual state of the group, which is present in the virtual space, with respect to the use of the group in the operating region, wherein the virtual spaces describe the use of the group in the physical operating region, the control station in the control or process guidance of the plant of the metallurgical industry takes into account the data, which are stored in the units of the groups, concerning the virtual state of the groups with respect to a current and/or future use of the groups.