mhurhangee/ep-ind-claims huggingface dataset:
A refrigerant system comprising: a compressor, said compressor having a compressor pump unit comprising compression elements (42,44) and a suction inlet wherein said compressor is a sealed compressor and said sealed compressor having a housing with an electric motor and the compressor pump unit; a compressed refrigerant passing from said compressor downstream to a condenser and then downstream to an expansion device; an evaporator positioned downstream of said expansion device; and a sensor for sensing a temperature of a refrigerant after heat has been added to the refrigerant downstream of the evaporator, said sensor being utilized to maintain the refrigerant thermodynamic state at a location between the expansion device and within said compression elements (42, 44) and said sensor being located such that at least a portion of the refrigerant reaching said sensor has cooled the electric motor; characterized in that the refrigerant system is arranged such that a two-phase refrigerant is permitted to exit the evaporator and liquid refrigerant therefore enters the compressor housing and receives heat from the electric motor before the refrigerant reaches the sensor. a compressor, said compressor having a compressor pump unit comprising compression elements (42,44) and a suction inlet wherein said compressor is a sealed compressor and said sealed compressor having a housing with an electric motor and the compressor pump unit; a compressed refrigerant passing from said compressor downstream to a condenser and then downstream to an expansion device; an evaporator positioned downstream of said expansion device; and a sensor for sensing a temperature of a refrigerant after heat has been added to the refrigerant downstream of the evaporator, said sensor being utilized to maintain the refrigerant thermodynamic state at a location between the expansion device and within said compression elements (42, 44) and said sensor being located such that at least a portion of the refrigerant reaching said sensor has cooled the electric motor; characterized in that the refrigerant system is arranged such that a two-phase refrigerant is permitted to exit the evaporator and liquid refrigerant therefore enters the compressor housing and receives heat from the electric motor before the refrigerant reaches the sensor.
A compound of general formula or a salt thereof wherein R 1 represents phenyl or a 5 or 6 membered monocyclic heteroaryl having 1, 2, or 3 heteroatoms independently selected from O, N or S, wherein the phenyl or the heteroaryl is optionally substituted with one or more R 3; R 2 represents aryl, a 5 or 6 membered monocyclic heteroaryl or a 8 to 10 membered bicyclic heteroaryl, the mono- or bicyclic heteroaryl having 1, 2, or 3 heteroatoms independently selected from O, N or S, wherein the aryl or the heteroaryl is optionally substituted with one or more R 4; R 3 is a halogen, a C 1-4 -alkyl or a C 3-6 -cycloalkyl, wherein the C 1-4 -alkyl or the C 3-6 -cycloalkyl is optionally substituted with one or more halogens; R 4 is a halogen, -CN, C 1-4 -alkyl, C 3-6 -cycloalkyl, -C 1-3 -alkyl -C 3-6 -cycloalkyl or -O-C 1-6 alkyl, wherein the C 1-4 -alkyl, C 3-6 -cycloalkyl, -C 1-3 -alkyl -C 3-6 -cycloalkyl or the -O-C 1-6 -alkyl is optionally substituted with one or more halogens. R 1 represents phenyl or a 5 or 6 membered monocyclic heteroaryl having 1, 2, or 3 heteroatoms independently selected from O, N or S, wherein the phenyl or the heteroaryl is optionally substituted with one or more R 3; R 2 represents aryl, a 5 or 6 membered monocyclic heteroaryl or a 8 to 10 membered bicyclic heteroaryl, the mono- or bicyclic heteroaryl having 1, 2, or 3 heteroatoms independently selected from O, N or S, wherein the aryl or the heteroaryl is optionally substituted with one or more R 4; R 3 is a halogen, a C 1-4 -alkyl or a C 3-6 -cycloalkyl, wherein the C 1-4 -alkyl or the C 3-6 -cycloalkyl is optionally substituted with one or more halogens; R 4 is a halogen, -CN, C 1-4 -alkyl, C 3-6 -cycloalkyl, -C 1-3 -alkyl -C 3-6 -cycloalkyl or -O-C 1-6 alkyl, wherein the C 1-4 -alkyl, C 3-6 -cycloalkyl, -C 1-3 -alkyl -C 3-6 -cycloalkyl or the -O-C 1-6 -alkyl is optionally substituted with one or more halogens.
A method of measuring a parameter of a structure (212; 312) on a medical image, comprising: (i) displaying a slice of a medical image (200; 300; 400); (ii) displaying a measurement tool (220; 320) on the slice of the medical image (200; 300; 400), the measurement tool (220; 320) comprising at least two ends (230, 240), each end of the measurement tool being placed in proximity to a corresponding feature of interest (214, 216; 314, 316), the features of interest forming part of the structure (212; 312); (iii) applying an automated point detection function to at least one region of the medical image (200; 300; 400), each region comprising one of the ends of the measurement tool; (iv) the automated point detection function identifying a selected point (330, 340) within the region that optimises the placement of the respective end of the measurement tool, wherein the step of applying the automated point detection function comprises: filtering potential features within the region to provide a sub-set of candidate features of interest (422, 424, 426) within the region; identifying a candidate feature in the region that optimises the output of the measurement tool; and using the identified candidate feature as the selected point (330, 340) for the region; (v) performing a measurement of a parameter of the structure (212; 312) using the selected point or points (330, 340) identified by the automated point detection function. (i) displaying a slice of a medical image (200; 300; 400); (ii) displaying a measurement tool (220; 320) on the slice of the medical image (200; 300; 400), the measurement tool (220; 320) comprising at least two ends (230, 240), each end of the measurement tool being placed in proximity to a corresponding feature of interest (214, 216; 314, 316), the features of interest forming part of the structure (212; 312); (iii) applying an automated point detection function to at least one region of the medical image (200; 300; 400), each region comprising one of the ends of the measurement tool; (iv) the automated point detection function identifying a selected point (330, 340) within the region that optimises the placement of the respective end of the measurement tool, wherein the step of applying the automated point detection function comprises: filtering potential features within the region to provide a sub-set of candidate features of interest (422, 424, 426) within the region; identifying a candidate feature in the region that optimises the output of the measurement tool; and using the identified candidate feature as the selected point (330, 340) for the region; filtering potential features within the region to provide a sub-set of candidate features of interest (422, 424, 426) within the region; identifying a candidate feature in the region that optimises the output of the measurement tool; and using the identified candidate feature as the selected point (330, 340) for the region; (v) performing a measurement of a parameter of the structure (212; 312) using the selected point or points (330, 340) identified by the automated point detection function.
Device for reinforcing a material, in particular a cement-containing material, as a fire-resistant coating of surfaces, comprising a planar support structure and at least one spacer (10, 22, 23) for positioning the support structure at a fixed distance from the surface, wherein the spacer (10, 22, 23) has a first fastening section that extends transversely to the surface and which has means for spacing, and has at least one additional second fastening section running parallel to the surface and which forms a mounting surface for fixing the spacer to the surface, characterised in that the spacer (10, 22, 23) is designed as an elongated support element (10, 22, 23) with a lattice structure, which has the means (12, 13, 14) for spacing transversely to its longitudinal direction.
Process for the production of a wood-based laminate comprising the steps of - provision of, as supportive board, at least one wood-based board selected from the group comprising chipboard, high-density wood fibreboard, medium-density wood fibreboard, OSB and WPC board; - provision of at least one resin-impregnated paper ply with weight from 40 to 250 g/m 2 and with degree of resinification from 40 to 180%, at least one resin-impregnated decorative paper ply with weight from 35 to 180 g/m 2 and with degree of resinification from 80 to 180%, and at least one resin-impregnated abrasion-resistant paper ply with weight from 10 to 80 g/m 2 and with degree of resinification from 200 to 900%, to form at least one upper-side layer structure on the at least one supportive board; - provision of at least one resin-impregnated paper ply with weight from 40 to 250 g/m 2 and with degree of resinification from 40 to 180% to form at least one lower-side layer structure on the at least one supportive board; - formation, in the form of a stack, of an arrangement of the supportive board and of the paper plies forming the upper-side and lower-side layer structure, where the paper plies of the upper-side layer structure are provided above the at least one supportive board and the paper plies of the lower-side layer structure are provided below the at least one supportive board; - introduction of the arrangement in the form of a stack into at least one press device and pressing of the arrangement in the form of a stack to give a wood-based laminate at a press temperature of from 180°C to 220°C. - provision of, as supportive board, at least one wood-based board selected from the group comprising chipboard, high-density wood fibreboard, medium-density wood fibreboard, OSB and WPC board; - provision of at least one resin-impregnated paper ply with weight from 40 to 250 g/m 2 and with degree of resinification from 40 to 180%, at least one resin-impregnated decorative paper ply with weight from 35 to 180 g/m 2 and with degree of resinification from 80 to 180%, and at least one resin-impregnated abrasion-resistant paper ply with weight from 10 to 80 g/m 2 and with degree of resinification from 200 to 900%, to form at least one upper-side layer structure on the at least one supportive board; - provision of at least one resin-impregnated paper ply with weight from 40 to 250 g/m 2 and with degree of resinification from 40 to 180% to form at least one lower-side layer structure on the at least one supportive board; - formation, in the form of a stack, of an arrangement of the supportive board and of the paper plies forming the upper-side and lower-side layer structure, where the paper plies of the upper-side layer structure are provided above the at least one supportive board and the paper plies of the lower-side layer structure are provided below the at least one supportive board; - introduction of the arrangement in the form of a stack into at least one press device and pressing of the arrangement in the form of a stack to give a wood-based laminate at a press temperature of from 180°C to 220°C.
A memory device comprises: a plurality of memory circuits (10-0 ∼ 10-3), each of the plurality of memory circuits (10-0 ∼ 10-3) having a volatile memory and a nonvolatile memory that stores a specification information of data input and output of the volatile memory; and a memory interface circuit that is connected to a processing device, that performs data input and output control of the volatile memory via a memory bus, via a control bus and is connected to the nonvolatile memory via the control bus, characterized in that the memory interface circuit comprises: a processing circuit (42, 48, 50, 52) that reads the specification information in the nonvolatile memory of the plurality of memory circuits (10-0 ∼ 10-3) via the control bus and determines whether or not at least the plurality of memory circuits (10-0 ∼ 10-3) meet requirements for memory expansion from the specification information of the plurality of memory circuits (10-0 ∼ 10-3) which were read; and a storage unit that is connected to the processing unit via the control bus and stores a determination result of the processing circuit (42, 48, 50, 52) for initialization process of the processing device. a plurality of memory circuits (10-0 ∼ 10-3), each of the plurality of memory circuits (10-0 ∼ 10-3) having a volatile memory and a nonvolatile memory that stores a specification information of data input and output of the volatile memory; and a memory interface circuit that is connected to a processing device, that performs data input and output control of the volatile memory via a memory bus, via a control bus and is connected to the nonvolatile memory via the control bus, characterized in that the memory interface circuit comprises: a processing circuit (42, 48, 50, 52) that reads the specification information in the nonvolatile memory of the plurality of memory circuits (10-0 ∼ 10-3) via the control bus and determines whether or not at least the plurality of memory circuits (10-0 ∼ 10-3) meet requirements for memory expansion from the specification information of the plurality of memory circuits (10-0 ∼ 10-3) which were read; and a storage unit that is connected to the processing unit via the control bus and stores a determination result of the processing circuit (42, 48, 50, 52) for initialization process of the processing device. a processing circuit (42, 48, 50, 52) that reads the specification information in the nonvolatile memory of the plurality of memory circuits (10-0 ∼ 10-3) via the control bus and determines whether or not at least the plurality of memory circuits (10-0 ∼ 10-3) meet requirements for memory expansion from the specification information of the plurality of memory circuits (10-0 ∼ 10-3) which were read; and a storage unit that is connected to the processing unit via the control bus and stores a determination result of the processing circuit (42, 48, 50, 52) for initialization process of the processing device.
A turbomachine, comprising: an aft stage (Sa) including a rotor disk having a rotor disk bore hole and a rotor disk rim; a valve disposed within the turbomachine and in fluid communication with the rotor disk bore hole, wherein the valve is in selective fluid communication with a first pressure source (113, 115), such that in a first position, the valve allows fluid to flow from the first pressure source, forward through the rotor disk bore hole of the aft stage, and radially outward along the aft rotor disk toward, and through, the aft rotor disk rim; and a forward stage rotor disk sealed at a forward stage rotor disk bore to prevent flow from any rotor disk aft thereof from flowing therethrough; characterised by: the rotor disk rim including a sealing feature and aft bleeds, allowing fluid to flow through the aft rotor disk rim and forward over the sealing feature. an aft stage (Sa) including a rotor disk having a rotor disk bore hole and a rotor disk rim; a valve disposed within the turbomachine and in fluid communication with the rotor disk bore hole, wherein the valve is in selective fluid communication with a first pressure source (113, 115), such that in a first position, the valve allows fluid to flow from the first pressure source, forward through the rotor disk bore hole of the aft stage, and radially outward along the aft rotor disk toward, and through, the aft rotor disk rim; and a forward stage rotor disk sealed at a forward stage rotor disk bore to prevent flow from any rotor disk aft thereof from flowing therethrough; characterised by: the rotor disk rim including a sealing feature and aft bleeds, allowing fluid to flow through the aft rotor disk rim and forward over the sealing feature.
A set of a mixing tip and a nozzle tip, the mixing tip being used to mix and discharge a pasty dental material and the nozzle tip being to be inserted and locked into a discharging port (Ma) provided on a tip-end side of the mixing tip, wherein the discharging port (Ma) is provided with a cylindrical portion (Maa) having an inner diameter (d 1) and a protrusion portion (Mab) having an inner diameter (d 2) on a tip-end side of the cylindrical portion (Maa), wherein the nozzle tip comprises an insertion portion which is to be inserted into the discharging port (Ma) of the mixing tip, wherein the insertion portion consists of a cylindrical portion for temporary fixing, a taper portion, and a cylindrical portion for engaging, wherein the cylindrical portion for temporary fixing has a first outer diameter (D 1) which is equal to the inner diameter (d 2) of the protrusion portion (Mab) of the mixing tip, wherein the taper portion is continuously provided on the cylindrical portion for temporary fixing, and an outer diameter thereof increasing toward the tip-end side of the nozzle tip up to a second outer diameter (D 2) and decreasing to a third outer diameter (D 3) at a step portion, wherein the second outer diameter (D 2) is smaller than the inner diameter (d 1) of the cylindrical portion (Maa) of the mixing tip, and wherein the cylindrical portion for engaging is continuously provided on the step portion of the taper portion, and has an outer diameter which is equal to the third outer diameter (D 3) and a length which is longer than a length of the protrusion portion (Mab) of the mixing tip, characterized in that the third outer diameter (D 3) is larger than the inner diameter (d 2) of the protrusion portion (Mab) of the mixing tip.
An information detection method for a High Speed Downlink Shared Control Channel, HS-SCCH, the information detection method being carried out by a user equipment, comprising: rate de-matching a front detection signal of a first part control information of each HS-SCCH in a HS-SCCH monitor set, obtaining a piece of rate de-matched information corresponding to the front detection signal of each HS-SCCH monitor channel; removing a user mask for each rate de-matched information, the user mask corresponding to the user equipment; Viterbi decoding each rate de-matched information of which the user mask is removed, obtaining Viterbi-decoding 0 state accumulated metric corresponding to the front detection signal of each HS-SCCH monitor channel, and summing a sum of the absolute values of the soft information of each HS-SCCH information sequence obtained after removing the user mask respectively; and obtaining determination variables of each HS-SCCH by: dividing the Viterbi 0 state accumulated metric corresponding to the front detection signal of each HS-SCCH by the corresponding sum of absolute values of the soft information of each HS-SCCH information sequence; selecting a maximum from the obtained determination variables of HS-SCCH, comparing the maximum with the preset threshold, if the maximum is greater than the threshold, determining that the HS-SCCH of the user equipment is detected and using the HS-SCCH corresponding to the selected maximum determination variable as the HS-SCCH of the user equipment; otherwise, determining that the HS-SCCH of the user equipment is not detected. rate de-matching a front detection signal of a first part control information of each HS-SCCH in a HS-SCCH monitor set, obtaining a piece of rate de-matched information corresponding to the front detection signal of each HS-SCCH monitor channel; removing a user mask for each rate de-matched information, the user mask corresponding to the user equipment; Viterbi decoding each rate de-matched information of which the user mask is removed, obtaining Viterbi-decoding 0 state accumulated metric corresponding to the front detection signal of each HS-SCCH monitor channel, and summing a sum of the absolute values of the soft information of each HS-SCCH information sequence obtained after removing the user mask respectively; and obtaining determination variables of each HS-SCCH by: dividing the Viterbi 0 state accumulated metric corresponding to the front detection signal of each HS-SCCH by the corresponding sum of absolute values of the soft information of each HS-SCCH information sequence; selecting a maximum from the obtained determination variables of HS-SCCH, comparing the maximum with the preset threshold, if the maximum is greater than the threshold, determining that the HS-SCCH of the user equipment is detected and using the HS-SCCH corresponding to the selected maximum determination variable as the HS-SCCH of the user equipment; otherwise, determining that the HS-SCCH of the user equipment is not detected.
A heating system component, comprising: a temperature monitoring and/or control unit (310a, 310b; 510a, 510b; 930a, 930b; 1230a, 1230b) comprising a lower surface; a carrier unit (520; 1260) comprising an upper surface; wherein at least a part of said lower surface of said temperature monitoring and/or control unit (310a, 310b; 510a, 510b; 930a, 930b; 1230a, 1230b) is in thermal contact with at least a part of said upper surface of said carrier unit (520; 1260); wherein said lower surface of said temperature monitoring and/or control unit (310a, 310b; 510a, 510b; 930a, 930b;1230a, 1230b) and said upper surface of said carrier unit (520; 1260) are attached to each other by means of a welded seam (530a, 530b), preferably by means of a laser-welded seam (530a, 530b); characterized in that said carrier unit (520; 1260) is in form of a circular disc having a circular hole in concentric relationship with its central axis; wherein said temperature monitoring and/or control unit (310a, 310b; 510a, 510b; 930a, 930b; 1230a, 1230b) comprises a lower part having a beveled edge (550a, 550b; 910); wherein said beveled edge (550a, 550b; 910) is adjacent to said lower surface; wherein said beveled edge (550a, 550b; 910) comprises a bevel angle of less than 90°; and wherein said welded seam (530a, 530b) is located essentially along said beveled edge (550a, 550b; 910). a temperature monitoring and/or control unit (310a, 310b; 510a, 510b; 930a, 930b; 1230a, 1230b) comprising a lower surface; a carrier unit (520; 1260) comprising an upper surface; wherein at least a part of said lower surface of said temperature monitoring and/or control unit (310a, 310b; 510a, 510b; 930a, 930b; 1230a, 1230b) is in thermal contact with at least a part of said upper surface of said carrier unit (520; 1260); wherein said lower surface of said temperature monitoring and/or control unit (310a, 310b; 510a, 510b; 930a, 930b;1230a, 1230b) and said upper surface of said carrier unit (520; 1260) are attached to each other by means of a welded seam (530a, 530b), preferably by means of a laser-welded seam (530a, 530b); characterized in that said carrier unit (520; 1260) is in form of a circular disc having a circular hole in concentric relationship with its central axis; wherein said temperature monitoring and/or control unit (310a, 310b; 510a, 510b; 930a, 930b; 1230a, 1230b) comprises a lower part having a beveled edge (550a, 550b; 910); wherein said beveled edge (550a, 550b; 910) is adjacent to said lower surface; wherein said beveled edge (550a, 550b; 910) comprises a bevel angle of less than 90°; and wherein said welded seam (530a, 530b) is located essentially along said beveled edge (550a, 550b; 910).