mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for producing alcohols, comprising: a hydroformylation reactor comprising: a nozzle for spraying olefins and a synthesis gas (CO/H 2) toward a catalyst mixture solution inside a reactor; a reactor outlet for discharging a reaction mixture of the olefins and the synthesis gas; and a distributor plate for converting a flow of the olefins and the synthesis gas (CO/H 2), in which the distributor plate is installed between the nozzle and the reactor outlet, and a hydrogenation reactor for producing alcohols by adding hydrogen to the recovered aldehydes from the hydroformylation reactor. wherein the hydrogenation reactor comprises: dual fixed reactors a nozzle for spraying the recovered aldehydes and hydrogen gas from the hydroformylation reactor inside the reactor; a nickel catalyst layer having a high activity, in which the nickel catalyst layer is located at the site of flowing aldehydes and hydrogen; a copper catalyst layer having a low activity, in which the copper catalyst layer is located after the nickel catalyst layer; and a reactor outlet for discharging the hydrogenation reaction mixture, in which the reactor outlet is located to connect to the copper catalyst layer. a hydroformylation reactor comprising: a nozzle for spraying olefins and a synthesis gas (CO/H 2) toward a catalyst mixture solution inside a reactor; a reactor outlet for discharging a reaction mixture of the olefins and the synthesis gas; and a distributor plate for converting a flow of the olefins and the synthesis gas (CO/H 2), in which the distributor plate is installed between the nozzle and the reactor outlet, and a hydrogenation reactor for producing alcohols by adding hydrogen to the recovered aldehydes from the hydroformylation reactor. wherein the hydrogenation reactor comprises: dual fixed reactors a nozzle for spraying the recovered aldehydes and hydrogen gas from the hydroformylation reactor inside the reactor; a nickel catalyst layer having a high activity, in which the nickel catalyst layer is located at the site of flowing aldehydes and hydrogen; a copper catalyst layer having a low activity, in which the copper catalyst layer is located after the nickel catalyst layer; and a reactor outlet for discharging the hydrogenation reaction mixture, in which the reactor outlet is located to connect to the copper catalyst layer. dual fixed reactors a nozzle for spraying the recovered aldehydes and hydrogen gas from the hydroformylation reactor inside the reactor; a nickel catalyst layer having a high activity, in which the nickel catalyst layer is located at the site of flowing aldehydes and hydrogen; a copper catalyst layer having a low activity, in which the copper catalyst layer is located after the nickel catalyst layer; and a reactor outlet for discharging the hydrogenation reaction mixture, in which the reactor outlet is located to connect to the copper catalyst layer.
A device for the treatment of dysphagia comprising a first flexible member mounting an imaging device for insertion into a patient and a second flexible member extending from the first flexible member beyond the imaging device in parallel plane thereto and one or more electrodes (206, 208) for imparting electrical stimulation to the patient, characterised in that the device further comprises a sleeve movable relative to the second flexible member, wherein the one or more electrodes are mounted on the sleeve and the sleeve is configured such that the one or more electrodes are freely movable relative to the imaging device along the second flexible member.
An intervertebral implant for the fusion between two vertebral bodies of a vertebral column comprising: - a fusion cage, extending from a posterior side to an anterior side, adapted to be interposed between two adjacent vertebral bodies of a patient; - a fixing plate, attached to the fusion cage on an anterior and/or antero-lateral side, having an enlarged lateral portion protruding in both caudal and cranial directions with respect to the height of the fusion cage and having a plurality of passageways (16; 17) for the insertion of bone screws; a median plane (y) of the intervertebral implant dividing the fusion cage in two substantially symmetrical halves and the fixing plate in two asymmetrical halves, said passageways (16; 17) being provided only on one of said asymmetrical halves on said enlarged lateral portion, characterized in that said enlarged lateral portion provided with said passageways (16; 17) is inclined towards the median plane (y) in the postero-anterior direction forming an angle with the median plane (y) comprised between 30° and 60°. - a fusion cage, extending from a posterior side to an anterior side, adapted to be interposed between two adjacent vertebral bodies of a patient; - a fixing plate, attached to the fusion cage on an anterior and/or antero-lateral side, having an enlarged lateral portion protruding in both caudal and cranial directions with respect to the height of the fusion cage and having a plurality of passageways (16; 17) for the insertion of bone screws;
An inclined arrangement of photovoltaic modules on a flat roof, comprising a front and a rear support profile (6, 7) that are mounted with parallel spacing on the flat roof by means of mountings (10 a/b, 11 a/b) that are fastened to the flat roof, wherein the front support profile with its bottom side is placed, in parallel with the roof, on at least two of the mountings (10 a/b, 11 a/b), wherein the rear support profile with its bottom side is placed, in parallel with the roof, on at least two of the mountings (11 a/b), and the front and the rear support profiles (6, 7) with their respective top side (26, 27) together support a PV module (4, 5) at an angle α with respect to the flat roof, wherein a greater support height is provided between the bottom side and the top side of the rear support profile than for the front support profile, and the top sides (26, 27) of the two support profiles (6, 7) are inclined at an angle α with respect to the bottom sides (16, 17) in the areas in which the PV module (4, 5) rests, wherein an undercut longitudinal groove (14, 15, 20, 21) is integrated into the bottom side (16, 17) and/or into the top side (26, 27) of at least one support profile (6, 7).
A process of patterning nano-structures on a diamond like-carbon based surface comprising: exposing part of said surface to an energetic ion flux using a low dose exposure of He + or Ga+, such that material properties of the exposed surface are modified to provide a hard mask effect at the surface; etching unexposed parts of the surface to form said nano-structures, wherein said step of etching uses a plasma; and wherein said hard mask effect is formed on said surface by energetic conversion of sp3 carbon bonds to lower energy state sp2 bonds at the surface. exposing part of said surface to an energetic ion flux using a low dose exposure of He + or Ga+, such that material properties of the exposed surface are modified to provide a hard mask effect at the surface; etching unexposed parts of the surface to form said nano-structures, wherein said step of etching uses a plasma; and wherein said hard mask effect is formed on said surface by energetic conversion of sp3 carbon bonds to lower energy state sp2 bonds at the surface.
A method for operating a Session Management Function, SMF, the method comprising: receiving, from to an Access and mobility Management Function, AMF, a request message for establishment of a Protocol Data Unit, PDU, session, based on a handover of a PDU session between a non-3rd Generation Partnership Project, non-3GPP, access and a 3GPP access; transmitting, to the AMF, a Session Management, SM, context status notify message, based on the establishment of the PDU session being failed, wherein the SM context status notify message enable the AMF to update an access type related to the PDU session based on the SM context status notify message. receiving, from to an Access and mobility Management Function, AMF, a request message for establishment of a Protocol Data Unit, PDU, session, based on a handover of a PDU session between a non-3rd Generation Partnership Project, non-3GPP, access and a 3GPP access; transmitting, to the AMF, a Session Management, SM, context status notify message, based on the establishment of the PDU session being failed, wherein the SM context status notify message enable the AMF to update an access type related to the PDU session based on the SM context status notify message.
Device for the individualized monitoring of milk for a milking installation, said monitoring device comprising: - a buffer tank, - a weighing system configured to weigh the buffer tank, - a connecting pipe which has a first end (42.1) configured to be connected to a milk pipeline and a second end (42.2) that opens into the upper part of the buffer tank, - a milking pipe having a first end connected to a milking cluster and a second end connected to the buffer tank, - a discharge pipe which has a first end (54.1) configured to be connected to the milk pipeline and a second end (54.2) connected to the lower part of the buffer tank, and - a first valve, at the discharge pipe, configured to occupy a closed state in which it prevents fluid from flowing through the discharge line and an open state in which it allows fluid to flow through the discharge line, characterized in that the monitoring device comprises a second valve configured to occupy an open state in which it allows milking and a closed state in which it stops the milking, and in that the second end of the milking pipe is connected to a branch positioned in the upper part of the buffer tank. - a buffer tank, - a weighing system configured to weigh the buffer tank, - a connecting pipe which has a first end (42.1) configured to be connected to a milk pipeline and a second end (42.2) that opens into the upper part of the buffer tank, - a milking pipe having a first end connected to a milking cluster and a second end connected to the buffer tank, - a discharge pipe which has a first end (54.1) configured to be connected to the milk pipeline and a second end (54.2) connected to the lower part of the buffer tank, and - a first valve, at the discharge pipe, configured to occupy a closed state in which it prevents fluid from flowing through the discharge line and an open state in which it allows fluid to flow through the discharge line,
Blood treatment unit having a dialysis unit, at least two pressure sensors, a central computation unit and a storage unit, wherein the central computation unit and the storage unit are configured to carry out following method: a) determination of the filter characteristics prior to the actual dialysis sitting by means of the determination of at least two pressure measurement values at at least two pressure sensors within the blood treatment unit with a reference solution, b) comparison of the pressure measurement values with reference values, stored in the storage unit, of the same patient, which were gained in earlier dialysis sittings, or with reference values, stored in the storage unit, of a patient group, c) calculation of a substitution target on the basis of the values according to step a) and step b), d) setting of the flow rates of blood, dialysate and/or substituate when at least one pressure measurement value differs from a reference pressure measurement value stored in the storage unit, in order in a fixed treatment time to achieve as closely as possible the substitution target or at a fixed substitution target to change as little as possible the treatment duration. a) determination of the filter characteristics prior to the actual dialysis sitting by means of the determination of at least two pressure measurement values at at least two pressure sensors within the blood treatment unit with a reference solution, b) comparison of the pressure measurement values with reference values, stored in the storage unit, of the same patient, which were gained in earlier dialysis sittings, or with reference values, stored in the storage unit, of a patient group, c) calculation of a substitution target on the basis of the values according to step a) and step b), d) setting of the flow rates of blood, dialysate and/or substituate when at least one pressure measurement value differs from a reference pressure measurement value stored in the storage unit, in order in a fixed treatment time to achieve as closely as possible the substitution target or at a fixed substitution target to change as little as possible the treatment duration.
Connector shell comprising a connector cover and a cable-guiding sleeve comprising a curved conduit, the cover being adapted to be mounted at the rear of a connector, wherein the cover and the cable-guiding sleeve are made up of at least two separate elements, wherein the cable-guiding sleeve is mounted on the cover so as to be rotatable about an axis of rotation essentially perpendicular to a rear face of the connector, and wherein the cable-guiding sleeve and the cover comprise means (25, 29) for blocking the rotation of the cable-guiding sleeve on the cover in at least two different pre-set angular positions about the axis of rotation, these blocking means (25, 29) comprising shapes that engage with each other in a complementary way, and that are adapted to release each other and allow the passage from one angular position to the next, characterized - in that the cover comprises a neck having a wall wherein two circularly arcuate apertures are formed, - in that the blocking means (25, 29) comprise at least two notches formed in the cable-guiding sleeve, and a blocking tab extending, in each of the circularly arcuate apertures, between a fixed end connected to the wall of the neck, on one edge of a circularly arcuate aperture and a free end, the free end of each blocking tab being equipped with a tooth adapted to interact with each of these notches, the tooth being elastically connected by the blocking tab to the cover. - in that the cover comprises a neck having a wall wherein two circularly arcuate apertures are formed, - in that the blocking means (25, 29) comprise at least two notches formed in the cable-guiding sleeve, and a blocking tab extending, in each of the circularly arcuate apertures, between a fixed end connected to the wall of the neck, on one edge of a circularly arcuate aperture and a free end, the free end of each blocking tab being equipped with a tooth adapted to interact with each of these notches, the tooth being elastically connected by the blocking tab to the cover.
A method of controlling operation of an arrangement for a helicopter having at least a first turboshaft engine and a second turboshaft engine, each turboshaft engine (10,30) having a first electric machine on a compressor spool, the compressor spool having both at least one turbine stage and at least one compressor stage, and a second electric machine on a power spool, the power spool having a low-pressure turbine stage, the method is characterised by comprising: determining an increase in power requirement, upon determining, extracting electrical power from the power spool of the first turboshaft engine using the second electric machine of the first turboshaft engine, and the first electric machine of the second turboshaft engine imparting mechanical rotation power to the corresponding compressor spool using a portion of the extracted electrical power. determining an increase in power requirement, upon determining, extracting electrical power from the power spool of the first turboshaft engine using the second electric machine of the first turboshaft engine, and the first electric machine of the second turboshaft engine imparting mechanical rotation power to the corresponding compressor spool using a portion of the extracted electrical power.
Method for detecting an obstacle in front of a vehicle by means of a radar sensor, wherein the radar sensor monitors a monitoring area in front of the vehicle, wherein an object (24,25) detected by means of the radar sensor in the monitoring area is classified, wherein the monitoring area is divided into monitoring sub-areas (20,21) and a first classification rule is used for classification for a first monitoring sub-area and a second classification rule is used for classification for a second monitoring sub-area, wherein the first classification rule is independent of an ego speed of the object detected in the monitoring area, wherein the second classification rule comprises classifying the object detected in the monitoring area on the basis of an ego speed of the object detected in the monitoring area, wherein the second classification rule comprises classifying the object detected in the monitoring area as an obstacle when it is detected by means of the radar sensor that the object detected in the monitoring area has an ego speed different from zero or had it at an earlier time, characterized in that the first monitoring sub-area extends between the radar sensor and a ground intersection line and the second monitoring sub-area extends between the ground intersection line and a maximum monitoring distance, wherein the ground intersection line is determined by means of the radar sensor, wherein the ground intersection line is defined by virtue of the fact that the radar lobe of the radar sensor touches the ground in the area of the ground intersection line.
A liquid electrolyte for a lithium-sulfur battery comprising: a lithium salt; and a non-aqueous solvent, wherein the non-aqueous solvent includes linear ether and cyclic ether including one oxygen in a ring structure; and, in the linear ether, bond dissociation energy of a C-O bond when receiving one electron is greater than -19.9 kcal/mol when calculating using a DFT M06-2X method; wherein the linear ether is one or more types selected from the group consisting of dimethyl ether, diethyl ether, dipropyl ether, diisopropyl ether, dibutyl ether, diisobutyl ether, dipentyl ether, dihexyl ether, ethylmethyl ether, methylpropyl ether, butylmethyl ether, ethylpropyl ether, butylpropyl ether, phenylmethyl ether, diphenyl ether, dibenzyl ether, bis(fluoromethyl)ether, 2-fluoromethyl ether, 1,1,2,2-tetrafluoroethyl-2,2,3,3-tetrafluoropropyl ether, bis(2,2,2-trifluoroethyl)ether, propyl-1,1,2,2-tetrafluoroethyl ether, isopropyl-1,1,2,2-tetrafluoroethyl ether, 1,1,2,2-tetrafluoroethylisobutyl ether, 1,1,2,3,3,3-hexafluoropropylethyl ether, 1H,1H,2'H,3H-decafluorodipropyl ether and 1H,1H,2'H-perfluorodipropyl ether; and wherein the cyclic ether is tetrahydrofuran or tetrahydropyran unsubstituted or substituted with a C1 to C4 alkyl group or alkoxy group. a lithium salt; and a non-aqueous solvent, wherein the non-aqueous solvent includes linear ether and cyclic ether including one oxygen in a ring structure; and, in the linear ether, bond dissociation energy of a C-O bond when receiving one electron is greater than -19.9 kcal/mol when calculating using a DFT M06-2X method; wherein the linear ether is one or more types selected from the group consisting of dimethyl ether, diethyl ether, dipropyl ether, diisopropyl ether, dibutyl ether, diisobutyl ether, dipentyl ether, dihexyl ether, ethylmethyl ether, methylpropyl ether, butylmethyl ether, ethylpropyl ether, butylpropyl ether, phenylmethyl ether, diphenyl ether, dibenzyl ether, bis(fluoromethyl)ether, 2-fluoromethyl ether, 1,1,2,2-tetrafluoroethyl-2,2,3,3-tetrafluoropropyl ether, bis(2,2,2-trifluoroethyl)ether, propyl-1,1,2,2-tetrafluoroethyl ether, isopropyl-1,1,2,2-tetrafluoroethyl ether, 1,1,2,2-tetrafluoroethylisobutyl ether, 1,1,2,3,3,3-hexafluoropropylethyl ether, 1H,1H,2'H,3H-decafluorodipropyl ether and 1H,1H,2'H-perfluorodipropyl ether; and wherein the cyclic ether is tetrahydrofuran or tetrahydropyran unsubstituted or substituted with a C1 to C4 alkyl group or alkoxy group.
A sampling circuit board for a battery module, characterized by comprising: a main board comprising a plurality of electrical connection areas; and a plurality of sampling terminals respectively electrically connected to the plurality of the electrical connection areas, and an end of each of the sampling terminals extends away from the main board, and each of the sampling terminals is connected to a respective one of the electrical connection areas of the main board via a respective connection member, wherein the connection member comprises a main body and at least one hook assembly provided on the main body, and the hook assembly stacks and bonds one of the sampling terminals and one of the electrical connection areas of the main board. a main board comprising a plurality of electrical connection areas; and a plurality of sampling terminals respectively electrically connected to the plurality of the electrical connection areas, and an end of each of the sampling terminals extends away from the main board, and each of the sampling terminals is connected to a respective one of the electrical connection areas of the main board via a respective connection member, wherein the connection member comprises a main body and at least one hook assembly provided on the main body, and the hook assembly stacks and bonds one of the sampling terminals and one of the electrical connection areas of the main board.
A combat sports glove, comprising: an inner layer configured to accommodate a wearer's hand; an outer layer covering at least a part of the inner layer; a padding layer between the inner and outer layers, configured to absorb and/or redirect energy of an impact between the glove and an object; and a sliding interface between the inner layer and the outer layer at which the inner layer and the outer layer are configured to slide relative to each other in response to an impact between the glove and an object, characterised in that: the inner layer comprises a plurality of inner layer segments (1C-1F), each inner layer segment being configured to slide relative to the padding and/or outer layers at a sliding interface and each inner layer segment being configured to slide independently of each other inner layer segment, and/or the outer layer comprises a plurality of outer plates, the outer plates being mounted on the padding layer such that, under an impact to an outer plate, the outer plate can slide across the padding layer and move relative to other outer plates. an inner layer configured to accommodate a wearer's hand; an outer layer covering at least a part of the inner layer; a padding layer between the inner and outer layers, configured to absorb and/or redirect energy of an impact between the glove and an object; and a sliding interface between the inner layer and the outer layer at which the inner layer and the outer layer are configured to slide relative to each other in response to an impact between the glove and an object, characterised in that: the inner layer comprises a plurality of inner layer segments (1C-1F), each inner layer segment being configured to slide relative to the padding and/or outer layers at a sliding interface and each inner layer segment being configured to slide independently of each other inner layer segment, and/or the outer layer comprises a plurality of outer plates, the outer plates being mounted on the padding layer such that, under an impact to an outer plate, the outer plate can slide across the padding layer and move relative to other outer plates. the inner layer comprises a plurality of inner layer segments (1C-1F), each inner layer segment being configured to slide relative to the padding and/or outer layers at a sliding interface and each inner layer segment being configured to slide independently of each other inner layer segment, and/or the outer layer comprises a plurality of outer plates, the outer plates being mounted on the padding layer such that, under an impact to an outer plate, the outer plate can slide across the padding layer and move relative to other outer plates.