mhurhangee/ep-ind-claims huggingface dataset:
Process for separating a mixture of carbon monoxide, nitrogen, hydrogen and possibly methane by cryogenic distillation in a separation system consisting of a turbine, a methane scrubbing column, a stripping column, a CO/CH 4 column and a denitrogenation column, the denitrogenation column being downstream of the CO/CH 4 column in which the mixture is separated to obtain a fluid enriched in carbon monoxide and containing nitrogen; this fluid is separated in the denitrogenation column, a flow of carbon monoxide from the system of columns in a compressor (V1, V2) is compressed to high pressure, possibly between 25 and 45 bars, carbon monoxide at high pressure (11, 15) is sent from the compressor to the turbine and from the turbine to the denitrogenation column, a fraction of the flow of carbon monoxide serves as product and another part of the carbon monoxide at high pressure, possibly between 25 and 45 bars, is cooled; before this other part is expanded, a first flow constituting a variable quantity of the other part of carbon monoxide at high pressure cooled in a valve is expanded at least from time to time before being sent to a tank from the denitrogenation column, and a second flow constituting a fraction of the other part of carbon monoxide at high pressure, possibly between 25 and 45 bars, is sent to the vaporiser of the stripping column tank and/or the CO/CH 4 column, characterized in that the fraction of carbon monoxide flow serving as product is at high pressure, wherein the first flow is separated from the second flow upstream of the stripping column tank vaporiser and/or the CO/CH 4 column and wherein the first flow expanded in the valve is varied according to the reboiling requirements of the denitrogenation column.
A method of parting a bonded assembly of substrate 1 and substrate 2, which comprises treating the assembly with an aqueous medium which has a temperature ≥ 50°C and a pH ≥ 7.5, the assembly being obtainable by a method of adhesively bonding a self-adhesive article, where the surface of the self-adhesive article that is coated with adhesive formulation is contacted with the surface of a substrate 2 and where the self-adhesive article is obtainable by a method which comprises coating at least one surface of a plasticizer-free substrate 1 with an adhesive formulation comprising A) a polymer A obtainable by free-radical polymerization, having a glass transition temperature ≤ -40°C (measured by means of Differential Scanning Calorimetry, midpointmeasurement, 20 K/min according to DIN 53765), and comprising in copolymerized form 0.1% to 15% by weight of at least one ethylenically unsaturated C 3 to C 6 monocarboxylic or dicarboxylic acid, the amide thereof and/or an ethylenically unsaturated monomer which comprises at least one hydroxyl or amino group (monomers A1) and 85% to 99.9% by weight of at least one further ethylenically unsaturated monomer (monomers A2) free-radically copolymerizable with the at least one monomer A1, the amounts of monomers A1 and A2 adding to 100% by weight, and B) ≥ 0.01 and ≤ 3 parts by weight of an aminotriazine compound B, based on 100 parts by weight of polymer A, and paper being used as substrate 1. A) a polymer A obtainable by free-radical polymerization, having a glass transition temperature ≤ -40°C (measured by means of Differential Scanning Calorimetry, midpointmeasurement, 20 K/min according to DIN 53765), and comprising in copolymerized form 0.1% to 15% by weight of at least one ethylenically unsaturated C 3 to C 6 monocarboxylic or dicarboxylic acid, the amide thereof and/or an ethylenically unsaturated monomer which comprises at least one hydroxyl or amino group (monomers A1) and 85% to 99.9% by weight of at least one further ethylenically unsaturated monomer (monomers A2) free-radically copolymerizable with the at least one monomer A1, the amounts of monomers A1 and A2 adding to 100% by weight, and 0.1% to 15% by weight of at least one ethylenically unsaturated C 3 to C 6 monocarboxylic or dicarboxylic acid, the amide thereof and/or an ethylenically unsaturated monomer which comprises at least one hydroxyl or amino group (monomers A1) and 85% to 99.9% by weight of at least one further ethylenically unsaturated monomer (monomers A2) free-radically copolymerizable with the at least one monomer A1, B) ≥ 0.01 and ≤ 3 parts by weight of an aminotriazine compound B, based on 100 parts by weight of polymer A, and paper being used as substrate 1.
A wire guided device, comprising: a sheath, a working assembly, comprising: a working portion, configured to contact an intended tissue, a connector, connecting the working portion and the sheath, and a wire guide, disposed at and connected to the sheath, wherein the wire guide is configured to allow a guide wire to pass through, wherein the wire guide is disposed at a predetermined distance from a distal end of the working assembly, and wherein the wire guide and the guide wire do not interfere with an operation of the working portion, characterized in that an internal surface of the wire guide is configured and sized to limit potential movements of the guide wire to be nonparallel to an axis direction of the working assembly. a sheath, a working assembly, comprising: a working portion, configured to contact an intended tissue, a connector, connecting the working portion and the sheath, and a wire guide, disposed at and connected to the sheath, wherein the wire guide is configured to allow a guide wire to pass through, wherein the wire guide is disposed at a predetermined distance from a distal end of the working assembly, and wherein the wire guide and the guide wire do not interfere with an operation of the working portion, characterized in that an internal surface of the wire guide is configured and sized to limit potential movements of the guide wire to be nonparallel to an axis direction of the working assembly. a working portion, configured to contact an intended tissue, a connector, connecting the working portion and the sheath, and a wire guide, disposed at and connected to the sheath, wherein the wire guide is configured to allow a guide wire to pass through, wherein the wire guide is disposed at a predetermined distance from a distal end of the working assembly, and wherein the wire guide and the guide wire do not interfere with an operation of the working portion, characterized in that an internal surface of the wire guide is configured and sized to limit potential movements of the guide wire to be nonparallel to an axis direction of the working assembly.
A tantalum sputtering target, comprising 1 mass ppm or more and 50 mass ppm or less of boron as an essential component, and wherein the purity of the tantalum sputtering target excluding boron and gas components is 99.998 wt % or higher.
Connector for a heatable fluid duct, in particular of an SCR system or a water injection system; said connector comprising: - a thermally conductive body defining a passage for a fluid to flow through said duct; - electric heating means situated on at least a portion of said body around said passage; and - a clip mounted around a portion of said body and comprising at least one receptacle which is situated peripherally with respect to said body and is a substantially C-shaped channel; said clip has a central hollow portion which is a substantially C-shaped channel clipped around said body; said connector being characterized in that said connector comprises an electrically thermo-shrinkable insulating sleeve, wherein said electric heating means comprises an electric connection, said connection comprising two terminal ends (22a, 22b) of conductive wires joined together, wherein the electrically thermo-shrinkable insulating sleeve embeds and protects the electric connection, the electrically thermo-shrinkable insulating sleeve being fitted in a snap-in manner in said receptacle. - a thermally conductive body defining a passage for a fluid to flow through said duct; - electric heating means situated on at least a portion of said body around said passage; and - a clip mounted around a portion of said body and comprising at least one receptacle which is situated peripherally with respect to said body and is a substantially C-shaped channel; said clip has a central hollow portion which is a substantially C-shaped channel clipped around said body;
A protective cover comprising: a padding layer (202, 502); and at least one backing layer comprising a network of fiber-reinforced plastic threads that are woven or knitted into a piece of fabric, wherein the piece of fabric comprises a first plurality of FRP threads substantially along a first direction and a second plurality of FRP threads substantially along a second direction, wherein a surface of the at least one backing layer is substantially rectangular comprising a first side (214, 218), and wherein a plurality of the FRP threads are arranged along a direction that is oblique relative to the first side. a padding layer (202, 502); and at least one backing layer comprising a network of fiber-reinforced plastic threads that are woven or knitted into a piece of fabric, wherein the piece of fabric comprises a first plurality of FRP threads substantially along a first direction and a second plurality of FRP threads substantially along a second direction, wherein a surface of the at least one backing layer is substantially rectangular comprising a first side (214, 218), and wherein a plurality of the FRP threads are arranged along a direction that is oblique relative to the first side.
A video encoder for encoding a current picture belonging to a temporal level identified by a temporal_id, the encoder comprises a unit for determining a Reference Picture Set, RPS, for the current picture indicating reference pictures that are kept in a decoded picture buffer, DPB, when decoding the current picture, and characterized by an RPS controlling unit configured to ensure that the RPS of the current picture includes no picture having a temporal id greater than or equal to the temporal id of the current picture when the current picture is a temporal layer switching point, wherein the current picture, being a temporal layer switching point, is a temporal sub-layer access, TSA, picture, wherein the TSA picture is defined such that the TSA picture and all coded pictures with temporal_id greater than or equal to the temporal_id of the TSA picture that follow the TSA picture in decoding order shall not include any picture in their reference picture set that precedes the TSA picture in decoding order and for which temporal id is greater than or equal to the temporal_id of the TSA picture, and wherein the temporal layer switching point indicates that at this picture it is possible for a decoder to start decoding more temporal layers than what was decoded before the temporal layer switching point.
A packaged liquid container comprising: a packaging body; and a liquid container, the liquid container comprising a containing chamber in which liquid is contained; characterized in that: a member partitioning the containing chamber has a hydrogen penetration amount of 0.0001 ml/(cm 2 ·day·atm) (0.987 cm 3 /m 2 ·24h·0.1 MPa) or more and 0.01 ml/(cm 2 ·day·atm) (98.7 cm 3 / m 2 ·24h·0.1 MPa) or lower, a hydrogen penetration amount of the packaging body is equal to or larger than the hydrogen penetration amount of the member partitioning the containing chamber, and a vapor penetration amount of the packaging body is lower than a vapor penetration amount of the member partitioning the containing chamber. a packaging body; and a liquid container, the liquid container comprising a containing chamber in which liquid is contained; characterized in that: a member partitioning the containing chamber has a hydrogen penetration amount of 0.0001 ml/(cm 2 ·day·atm) (0.987 cm 3 /m 2 ·24h·0.1 MPa) or more and 0.01 ml/(cm 2 ·day·atm) (98.7 cm 3 / m 2 ·24h·0.1 MPa) or lower, a hydrogen penetration amount of the packaging body is equal to or larger than the hydrogen penetration amount of the member partitioning the containing chamber, and a vapor penetration amount of the packaging body is lower than a vapor penetration amount of the member partitioning the containing chamber. a member partitioning the containing chamber has a hydrogen penetration amount of 0.0001 ml/(cm 2 ·day·atm) (0.987 cm 3 /m 2 ·24h·0.1 MPa) or more and 0.01 ml/(cm 2 ·day·atm) (98.7 cm 3 / m 2 ·24h·0.1 MPa) or lower, a hydrogen penetration amount of the packaging body is equal to or larger than the hydrogen penetration amount of the member partitioning the containing chamber, and a vapor penetration amount of the packaging body is lower than a vapor penetration amount of the member partitioning the containing chamber.
A photovoltaic device (100, 200), comprising: a layer stack (110, 210); a back contact layer (140, 230); and an absorber layer (120, 220) disposed on the layer stack (110, 210), the absorber layer (120, 220) comprising a front interface and a back interface; wherein: the absorber layer (120, 220) is an alloy comprising cadmium, tellurium, and selenium; an atomic concentration of selenium varies non-linearly across a thickness of the absorber layer (120, 220); and the absorber layer (120, 220) includes a varying concentration of selenium such that there is a higher concentration of selenium near the front interface relative to the back interface. a layer stack (110, 210); a back contact layer (140, 230); and an absorber layer (120, 220) disposed on the layer stack (110, 210), the absorber layer (120, 220) comprising a front interface and a back interface; wherein: the absorber layer (120, 220) is an alloy comprising cadmium, tellurium, and selenium; an atomic concentration of selenium varies non-linearly across a thickness of the absorber layer (120, 220); and the absorber layer (120, 220) includes a varying concentration of selenium such that there is a higher concentration of selenium near the front interface relative to the back interface. the absorber layer (120, 220) is an alloy comprising cadmium, tellurium, and selenium; an atomic concentration of selenium varies non-linearly across a thickness of the absorber layer (120, 220); and the absorber layer (120, 220) includes a varying concentration of selenium such that there is a higher concentration of selenium near the front interface relative to the back interface.
An optical sensor for detecting objects in a monitoring area, having at least one transmitter emitting light beams, having at least one receiver receiving light beams, and having an evaluation unit in which an object detection signal is generated as a function of received signals from the receiver, whereby an amplitude modulation is imparted to the light beams, wherein the evaluation unit has an analogue-digital converter, in which the received signals are digitised in a clock of the analogue-digital converter, and a digital filter, by means of which the digitised received signal is transformed into a complex-value signal, characterised in that the evaluation unit has a multiplier, in which the complex-value signal is multiplied by a complex-value auxiliary signal, a complex-value output signal being obtained at the output of the multiplier in a baseband whose frequencies are lower than the frequencies of the amplitude modulation, and the object detection signal being generated from the complex-value output signal. whereby an amplitude modulation is imparted to the light beams, wherein the evaluation unit has an analogue-digital converter, in which the received signals are digitised in a clock of the analogue-digital converter, and a digital filter, by means of which the digitised received signal is transformed into a complex-value signal, characterised in that the evaluation unit has a multiplier, in which the complex-value signal is multiplied by a complex-value auxiliary signal, a complex-value output signal being obtained at the output of the multiplier in a baseband whose frequencies are lower than the frequencies of the amplitude modulation, and the object detection signal being generated from the complex-value output signal.
Revolver component (10, 10a, 10b, 10c) for a reagent container, which has a revolver outer wall formed such that the revolver outer wall corresponds to an inner wall of a reagent container for a centrifuge and/or for a pressure varying device, and the revolver component (10, 10a, 10b, 10c) can be inserted into the reagent container; the revolver component (10, 10a, 10b, 10c) inserted into the reagent container being rotatable about an axis of rotation and adjustable along the axis of rotation by means of a ball-point pen mechanism; and at least one container structure, into which at least one liquid can be or has been put, being formed on the revolver component (10, 10a, 10b, 10c); characterized by at least one capillary structure (18, 40) arranged on and/or in the at least one container structure, by means of which a capillary force (Fk) can be exerted on the at least one liquid, by means of which the at least one liquid can be sucked at least partly into an internal volume of the at least one capillary structure (18, 40).
A method for controlling a three-dimensional image conversion apparatus that converts a two-dimensional image into a 3D image, the method comprising: displaying (S201, S401) the 2D image to be converted into the 3D image; determining a scenery type of the 2D image; displaying one or more messages inviting user designation of one or more object types included in the 2D image based on the scenery type; receiving (S203, S403, S705) a user input within an inside of at least one object included in the 2D image corresponding to the or more object types, the user input designating a type of each of the at least one object; obtaining (S205, S405, S707) boundaries of the at least one object included in the 2D image based on the location of the received user input; segmenting the 2D image into at least one segmented object based on the obtained boundaries; obtaining (S207, S407, S709) depth information of each of the at least one segmented object from the 2D image; and generating (S209, S411, S711) the 3D image by arranging each of the at least one segmented object based on the obtained depth information. displaying (S201, S401) the 2D image to be converted into the 3D image; determining a scenery type of the 2D image; displaying one or more messages inviting user designation of one or more object types included in the 2D image based on the scenery type; receiving (S203, S403, S705) a user input within an inside of at least one object included in the 2D image corresponding to the or more object types, the user input designating a type of each of the at least one object; obtaining (S205, S405, S707) boundaries of the at least one object included in the 2D image based on the location of the received user input; segmenting the 2D image into at least one segmented object based on the obtained boundaries; obtaining (S207, S407, S709) depth information of each of the at least one segmented object from the 2D image; and generating (S209, S411, S711) the 3D image by arranging each of the at least one segmented object based on the obtained depth information.
A method for controlling a reference signal, RS, transmission by a terminal in a communication system, the method comprising: receiving, from a base station, downlink control information, DCI, the DCI including an information element, IE, configuring the RS transmission; identifying, by the terminal, a RS activation IE comprising two binary elements in the DCI; suspending, by the terminal, the RS transmission, if the two binary elements of the RS activation IE have a value '00'; and transmitting (950, 960, 970), by the terminal, an RS, if the two binary elements of the RS activation IE have one of values other than '00', wherein each of the values other than '00' indicates a respective set of parameters for the RS transmission, the method further comprising: interpreting the DCI as conveying a scheduling assignment, SA, to the terminal, if the two binary elements of the RS activation IE have the value '00'; and interpreting the DCI as activating the RS transmission from the terminal, if the two binary elements of the RS activation IE have said one of the values other than '00'. receiving, from a base station, downlink control information, DCI, the DCI including an information element, IE, configuring the RS transmission; identifying, by the terminal, a RS activation IE comprising two binary elements in the DCI; suspending, by the terminal, the RS transmission, if the two binary elements of the RS activation IE have a value '00'; and transmitting (950, 960, 970), by the terminal, an RS, if the two binary elements of the RS activation IE have one of values other than '00', wherein each of the values other than '00' indicates a respective set of parameters for the RS transmission, the method further comprising: interpreting the DCI as conveying a scheduling assignment, SA, to the terminal, if the two binary elements of the RS activation IE have the value '00'; and interpreting the DCI as activating the RS transmission from the terminal, if the two binary elements of the RS activation IE have said one of the values other than '00'. interpreting the DCI as conveying a scheduling assignment, SA, to the terminal, if the two binary elements of the RS activation IE have the value '00'; and interpreting the DCI as activating the RS transmission from the terminal, if the two binary elements of the RS activation IE have said one of the values other than '00'.
An inductive heating assembly (5, 2005, 2705, 2805, 2905, 3705) configured to inductively heat an aerosol-forming substrate (130, 430, 530, 630, 2130, 3130) to a pre-determined operating temperature, wherein the heating assembly (5, 2005, 2705, 2805, 2905, 3705) comprises: - an induction source configured to generate an alternating electromagnetic field; - a susceptor assembly (120, 220, 260, 320, 420, 520, 620, 1020, 2060, 2160, 2360, 2760, 2860, 2960, 3760) for inductively heating the aerosol-forming substrate (130, 430, 530, 630, 2130, 3130) under the influence of the alternating magnetic field generated by the induction source, wherein the susceptor assembly (120, 220, 260, 320, 420, 520, 620, 1020, 2060, 2160, 2360, 2760, 2860, 2960, 3760) comprises a first susceptor (121, 221, 261, 321, 421, 521, 621, 1021, 2061, 2161, 2361, 2761, 2861, 2961, 3761) comprising a first susceptor material and a second susceptor (122, 222, 262, 322, 422, 522, 622, 1022, 2062, 2162, 2362, 2762, 2862, 2962, 3762) comprising a second susceptor material having a Curie temperature at least 50 degree Celsius below the operating temperature of the heating assembly (5, 2005, 2705, 2805, 2905, 3705). - an induction source configured to generate an alternating electromagnetic field; - a susceptor assembly (120, 220, 260, 320, 420, 520, 620, 1020, 2060, 2160, 2360, 2760, 2860, 2960, 3760) for inductively heating the aerosol-forming substrate (130, 430, 530, 630, 2130, 3130) under the influence of the alternating magnetic field generated by the induction source, wherein the susceptor assembly (120, 220, 260, 320, 420, 520, 620, 1020, 2060, 2160, 2360, 2760, 2860, 2960, 3760) comprises a first susceptor (121, 221, 261, 321, 421, 521, 621, 1021, 2061, 2161, 2361, 2761, 2861, 2961, 3761) comprising a first susceptor material and a second susceptor (122, 222, 262, 322, 422, 522, 622, 1022, 2062, 2162, 2362, 2762, 2862, 2962, 3762) comprising a second susceptor material having a Curie temperature at least 50 degree Celsius below the operating temperature of the heating assembly (5, 2005, 2705, 2805, 2905, 3705).