mhurhangee/ep-ind-claims huggingface dataset:
Multi-part mould for the machined forming of containers provided with a handle of temperature-conditioned preforms made of a thermoplastic material, in particular, made of PET, wherein the mould comprises at least two mould halves (55, 56), preferably the mould furthermore comprises a base part, wherein the mould halves (55, 56) are movably arranged towards each other and arranged along a positioning motion path from a closed into an open position, wherein the mould halves (55, 56) rest on each other in their closed position along a separating plane and enclose a cavity and provide an inner contour, against which the preform is supported by introduction of a forming medium under pressure, and if necessary, is expanded in a radial direction and in a longitudinal direction by stretching by means of a stretching bar so that the finished container expanded in the mould comprises an outer contour complementary to the inner contour of the mould, wherein the inner contour of the mould comprises a handle mounting area, which is contoured for the formation of a fastening contour on the finished container for the attachment of a handle to the container after its removal from the mould, characterized in that the handle mounting area is formed as a undercut (96a, 96b) that can be gripped behind in the radial direction, which is designed to follow in the container's circumferential direction of the positioning movement path so that, when opening the mould, the handle mounting area can slide out of the fastening contour that is complementarily formed on the container.
A cradle clamp bracket assembly arranged to secure at least one cable to a ladder rack, the cradle clamp bracket assembly comprising: a ladder rung; a bracket comprising a first portion having a recessed area with a slot therein, and a raised portion with a flange extending downwardly therefrom configured to receive a cable strap or tie wrapped under the raised portion of the bracket and around the at least one cable to secure the at least one cable to the ladder rung, the raised portion being parallel to the first portion; a ladder rung nut received in the recessed area; a fastener extending through the slot of the recessed area into the ladder rung nut; and a compression spring engaging the fastener; wherein the bracket is positioned under the ladder rung and the ladder rung nut is tightened to engage the ladder rung thereby securing the bracket to the ladder rack. a ladder rung; a bracket comprising a first portion having a recessed area with a slot therein, and a raised portion with a flange extending downwardly therefrom configured to receive a cable strap or tie wrapped under the raised portion of the bracket and around the at least one cable to secure the at least one cable to the ladder rung, the raised portion being parallel to the first portion; a ladder rung nut received in the recessed area; a fastener extending through the slot of the recessed area into the ladder rung nut; and a compression spring engaging the fastener; wherein the bracket is positioned under the ladder rung and the ladder rung nut is tightened to engage the ladder rung thereby securing the bracket to the ladder rack.
A print head for depositing ink on a substrate comprising a nozzle layer comprising a) a plurality of nozzles, and b) a plurality of ventilation openings (14, 16) extending through said nozzle layer and being adapted to feed a gas to a region between the printing head and a target and/or to convey gas away from said region, wherein the print head comprises a core region with activatable nozzles and ventilation openings (14, 16), wherein the print head comprises an edge region with ventilation openings (14, 16) but without activatable nozzles, with a border extending between the core region and the edge region, characterized in that the edge region is several rows of ventilation openings (14, 16) deep, wherein a distance from the border to the outmost ventilation openings (14, 16) of the edge region is at least two times, in particular at least five times, an average inter-nozzle distance in the core region along a direction perpendicular to the border. a) a plurality of nozzles, and b) a plurality of ventilation openings (14, 16) extending through said nozzle layer and being adapted to feed a gas to a region between the printing head and a target and/or to convey gas away from said region, wherein the print head comprises a core region with activatable nozzles and ventilation openings (14, 16), wherein the print head comprises an edge region with ventilation openings (14, 16) but without activatable nozzles, with a border extending between the core region and the edge region, characterized in that the edge region is several rows of ventilation openings (14, 16) deep, wherein a distance from the border to the outmost ventilation openings (14, 16) of the edge region is at least two times, in particular at least five times, an average inter-nozzle distance in the core region along a direction perpendicular to the border. wherein the print head comprises a core region with activatable nozzles and ventilation openings (14, 16), wherein the print head comprises an edge region with ventilation openings (14, 16) but without activatable nozzles, with a border extending between the core region and the edge region, characterized in that the edge region is several rows of ventilation openings (14, 16) deep, wherein a distance from the border to the outmost ventilation openings (14, 16) of the edge region is at least two times, in particular at least five times, an average inter-nozzle distance in the core region along a direction perpendicular to the border.
Process for preparing a supported catalyst solid for the polymerization of olefins, the process comprising the following steps: in a first step preparing a mixture containing a catalytically active component comprising at least one late transition metal complex, a solvent, and a support; and in a second step treating the obtained mixture at a reduced pressure under a flow of inert gas at a temperature equal to or below 40°C to obtain a supported catalyst. in a first step preparing a mixture containing a catalytically active component comprising at least one late transition metal complex, a solvent, and a support; and in a second step treating the obtained mixture at a reduced pressure under a flow of inert gas at a temperature equal to or below 40°C to obtain a supported catalyst.
One or more computer-readable media storing computer-executable instructions that, when executed on one or more processors, perform acts of a guest operating system (108, 110; 204) comprising: receiving an interrupt service request from a hypervisor (112; 202); sending the interrupt service request to a virtual central processing unit, CPU, (128, 132; 206); receiving an End Of Interrupt, EOI, acknowledgment from the virtual CPU; determining whether the EOI may be lazily communicated to the hypervisor, said determining comprises reading a value indicating whether the EOI may be lazily processed from a shared memory, the shared memory facilitating communication between the hypervisor and the guest operating system; writing a value to the shared memory if the value read from the shared memory indicates that the EOI may be lazily processed, said value written to the shared memory indicating whether an EOI occurred; or sending the EOI to the hypervisor if the value read from the shared memory indicates that the EOI may not be lazily processed. receiving an interrupt service request from a hypervisor (112; 202); sending the interrupt service request to a virtual central processing unit, CPU, (128, 132; 206); receiving an End Of Interrupt, EOI, acknowledgment from the virtual CPU; determining whether the EOI may be lazily communicated to the hypervisor, said determining comprises reading a value indicating whether the EOI may be lazily processed from a shared memory, the shared memory facilitating communication between the hypervisor and the guest operating system; writing a value to the shared memory if the value read from the shared memory indicates that the EOI may be lazily processed, said value written to the shared memory indicating whether an EOI occurred; or sending the EOI to the hypervisor if the value read from the shared memory indicates that the EOI may not be lazily processed.
A wireless communication system comprising: a plurality of antennas on a base transceiver station for receiving a signal transmitted from a customer premises equipment having an antenna beam pattern comprising a plurality of beams; a timing detection module configured to extract at least one timing offset from at least one of the plurality of beams, wherein the timing offset is produced by exchanging timing information between the BTS and CPE; a first calculation module configured to calculate a distance between the BTS and the CPE based on the timing offset; a signal detection module configured to detect magnitudes and phases of the plurality of beams; a second calculation module configured to select a beam among the plurality of beams having the largest amplitude as a dominant beam and calculate a direction of arrival of the signal from the dominant beam; a third calculation module configured to calculate a location of the CPE relative to the BTS based on the distance and the DOA; and characterised in that the system further comprises a beamforming filtering module configured to eliminate the calculated DOA and distance information if the ratio of the amplitude of the dominant beam to the average amplitude of the rest of the plurality of beams is less than a given threshold. a plurality of antennas on a base transceiver station for receiving a signal transmitted from a customer premises equipment having an antenna beam pattern comprising a plurality of beams; a timing detection module configured to extract at least one timing offset from at least one of the plurality of beams, wherein the timing offset is produced by exchanging timing information between the BTS and CPE; a first calculation module configured to calculate a distance between the BTS and the CPE based on the timing offset; a signal detection module configured to detect magnitudes and phases of the plurality of beams; a second calculation module configured to select a beam among the plurality of beams having the largest amplitude as a dominant beam and calculate a direction of arrival of the signal from the dominant beam; a third calculation module configured to calculate a location of the CPE relative to the BTS based on the distance and the DOA; and characterised in that the system further comprises a beamforming filtering module configured to eliminate the calculated DOA and distance information if the ratio of the amplitude of the dominant beam to the average amplitude of the rest of the plurality of beams is less than a given threshold.
A method for individually assessing the cleanness of one of an upper (2; 102) and a lower (3; 103) bed support in a process column (1; 101), said method comprising the steps of: a) providing a process column (1; 101) comprising an upper (2; 102) and a lower (3; 103) bed support, a column chamber (4;104), an upper outlet (6; 106) and a lower outlet (7; 107); a') unpacking said process column; a") filling said column chamber with a liquid; b) after steps a') and a") conveying liquid through one of the lower and upper bed supports, and; c) measuring a differential pressure over said one of an upper and a lower bed support; wherein said column further comprises a movable adaptor (5; 105) and wherein in step b) one of said upper and lower outlets is closed and the other is open and liquid is conveyed through said one of the lower and upper bed supports by moving said adaptor downwards. a) providing a process column (1; 101) comprising an upper (2; 102) and a lower (3; 103) bed support, a column chamber (4;104), an upper outlet (6; 106) and a lower outlet (7; 107); a') unpacking said process column; a") filling said column chamber with a liquid; b) after steps a') and a") conveying liquid through one of the lower and upper bed supports, and; c) measuring a differential pressure over said one of an upper and a lower bed support;
A method for detecting downlink control information at a user equipment, UE, in a wireless communication system, the method comprising: receiving a subframe for monitoring an enhanced physical downlink control channel, EPDCCH, indicated by a radio resource control, RRC, signaling; and monitoring a search space related with the EPDCCH according to a pre-defined aggregation level set to detect a downlink control information transmission, wherein the pre-defined aggregation level set is determined according to a number of enhanced resource regions for transmission of the downlink control information, wherein the search space is configured based on the number of Enhanced Control Channel Elements, ECCEs, in an EPDCCH-physical resource block, EPDCCH-PRB, set of the subframe and the number of EPDCCH candidates to monitor according to the predetermined aggregation level set. receiving a subframe for monitoring an enhanced physical downlink control channel, EPDCCH, indicated by a radio resource control, RRC, signaling; and monitoring a search space related with the EPDCCH according to a pre-defined aggregation level set to detect a downlink control information transmission, wherein the pre-defined aggregation level set is determined according to a number of enhanced resource regions for transmission of the downlink control information, wherein the search space is configured based on the number of Enhanced Control Channel Elements, ECCEs, in an EPDCCH-physical resource block, EPDCCH-PRB, set of the subframe and the number of EPDCCH candidates to monitor according to the predetermined aggregation level set.
A fabricating method of an electrode assembly comprising: forming a radical unit having a four-layered structure obtained by stacking a first electrode, a first separator, a second electrode, and a second separator one by one or a radical unit having an eight-layered structure formed by stacking the first electrode, the first separator, the second electrode, the second separator, the first electrode, the first separator, the second electrode and the second separator one by one; and stacking at least two of said radical units one by one to form a unit stack part, wherein the unit stack part further comprises a second auxiliary unit stacked on a second distal end separator, the second distal end separator being the second separator positioned at an uppermost or a lowermost portion of the unit stack part, when the first electrode being a cathode, and the second electrode being an anode, the second auxiliary unit being formed by stacking from the second distal end separator, the cathode, and when the first electrode being an anode and the second electrode being a cathode, the second auxiliary unit being formed by stacking from the second distal end separator, the anode, the separator and the cathode one by one, wherein the cathode of the second auxiliary unit comprises: a current collector; and an active material coated only on one side facing the radical unit among both sides of the current collector. forming a radical unit having a four-layered structure obtained by stacking a first electrode, a first separator, a second electrode, and a second separator one by one or a radical unit having an eight-layered structure formed by stacking the first electrode, the first separator, the second electrode, the second separator, the first electrode, the first separator, the second electrode and the second separator one by one; and stacking at least two of said radical units one by one to form a unit stack part, wherein the unit stack part further comprises a second auxiliary unit stacked on a second distal end separator, the second distal end separator being the second separator positioned at an uppermost or a lowermost portion of the unit stack part, when the first electrode being a cathode, and the second electrode being an anode, the second auxiliary unit being formed by stacking from the second distal end separator, the cathode, and when the first electrode being an anode and the second electrode being a cathode, the second auxiliary unit being formed by stacking from the second distal end separator, the anode, the separator and the cathode one by one, wherein the cathode of the second auxiliary unit comprises: a current collector; and an active material coated only on one side facing the radical unit among both sides of the current collector. a current collector; and an active material coated only on one side facing the radical unit among both sides of the current collector.
A method of amplifying a target nucleic acid in a sample with reduced primer-primer interaction comprising: a. a primer extension step, wherein the sample is contacted with a nucleic acid polymerase and a first primer complementary to the target nucleic acid comprising at least one modified nucleotide that stalls nucleotide incorporation by the polymerase, to generate a primer extension product; and b. ligating said to a double stranded adaptor; and c. an exponential amplification step wherein the sample is contacted with a second primer complementary to the primer extension product. wherein the exponential amplification step utilizes a polymerase tolerant of the modified nucleotide. a. a primer extension step, wherein the sample is contacted with a nucleic acid polymerase and a first primer complementary to the target nucleic acid comprising at least one modified nucleotide that stalls nucleotide incorporation by the polymerase, to generate a primer extension product; and b. ligating said to a double stranded adaptor; and c. an exponential amplification step wherein the sample is contacted with a second primer complementary to the primer extension product. wherein the exponential amplification step utilizes a polymerase tolerant of the modified nucleotide.
A compound of formula I: wherein: R is hydrogen, methyl, or ethyl; R 1 and R 2 are independently methyl, ethyl, allyl, propargyl, i-propyl, n-propyl, cyclopropyl, cyclopropylmethyl, or n-butyl; Z is -NR 4 R 5; R 4 is methyl, ethyl, cyclopropyl, cyclopropylmethyl and R 5 is -C R 6, wherein R 6 is heteroaryl optionally substituted with 1, 2 or 3 substituents independently selected from halo, cyano, nitro, halo(C 1 -C 8)alkyl, -C R a, -COOR a, and -C NR b R c, and wherein R a, R b and R c are independently hydrogen, methyl, ethyl, propyl, isopropyl, or cyclopropyl; or wherein -X(Z 1) n -Z is selected from the group consisting of and a pharmaceutically acceptable salt thereof. R is hydrogen, methyl, or ethyl; R 1 and R 2 are independently methyl, ethyl, allyl, propargyl, i-propyl, n-propyl, cyclopropyl, cyclopropylmethyl, or n-butyl; Z is -NR 4 R 5; R 4 is methyl, ethyl, cyclopropyl, cyclopropylmethyl and R 5 is -C R 6, wherein R 6 is heteroaryl optionally substituted with 1, 2 or 3 substituents independently selected from halo, cyano, nitro, halo(C 1 -C 8)alkyl, -C R a, -COOR a, and -C NR b R c, and wherein R a, R b and R c are independently hydrogen, methyl, ethyl, propyl, isopropyl, or cyclopropyl; or wherein -X(Z 1) n -Z is selected from the group consisting of and a pharmaceutically acceptable salt thereof.
Method for reducing the forces affecting a person sitting on a safety seat in a motor vehicle, the safety seat being lifted together with the vehicle to top dead centre by the force of an explosion acting substantially vertically upwards, the safety seat either being shifted as a whole relative to the vehicle, under the load of the person, during a rising phase which lasts from the time of the impact of the force until top dead centre is reached, or having a seat surface unit which is shifted downwards at least partially relative to a back unit of the safety seat during the rising phase, wherein the relative shift between the safety seat and the vehicle or the relative shifting of the seat surface unit is detected by a detection unit which is operatively connected to an actuating means, wherein the actuating means triggers a protecting means (11, 12) before top dead centre is reached, the protecting means preventing unrestrained impact of the person against the vehicle and/or reducing the forces acting on the person.
A barrel with a cap, comprising: a tubular barrel (1, 4) having a nozzle (11, 41) at its distal end, the nozzle being attachable to a connection-receiving body of slip-in type; a cap (2, 5) to be attached to the nozzle so as to sealingly close the nozzle; and a tubular connector (3, 6) into which the nozzle is inserted, the connector having a threaded portion (31, 61) for threadedly engaging a connection-receiving body of Luer lock type to be connected to the nozzle, characterized in that the connector is detachably coupled to the cap and is separated from the barrel together with the cap when the connector is located at an initial position in which the connector is attached to the barrel via the cap, and the connector comprises a connector-side engaging part (33, 63) that engages the barrel when the connector is located at an attached position that is located closer to a proximal end in an axial direction of the barrel than the initial position is, thereby allowing the connector to remain attached to the barrel by being detached from the cap separated from the nozzle. a tubular barrel (1, 4) having a nozzle (11, 41) at its distal end, the nozzle being attachable to a connection-receiving body of slip-in type; a cap (2, 5) to be attached to the nozzle so as to sealingly close the nozzle; and a tubular connector (3, 6) into which the nozzle is inserted, the connector having a threaded portion (31, 61) for threadedly engaging a connection-receiving body of Luer lock type to be connected to the nozzle, characterized in that the connector is detachably coupled to the cap and is separated from the barrel together with the cap when the connector is located at an initial position in which the connector is attached to the barrel via the cap, and the connector comprises a connector-side engaging part (33, 63) that engages the barrel when the connector is located at an attached position that is located closer to a proximal end in an axial direction of the barrel than the initial position is, thereby allowing the connector to remain attached to the barrel by being detached from the cap separated from the nozzle.