mhurhangee/ep-ind-claims huggingface dataset:
Awning device comprising a roll-up awning, an electric motor for rotating the roll-up awning, which motor is electrically supplied by one or more wires, a supply cable comprising one or more wires, an electrical coupling for coupling the wires of the supply cable to the wires of the motor, which coupling comprises a male and female component which can be coupled together electrically and mechanically, wherein the male component comprises at least one contact pin (212a-212d) and the female component comprises at least one contact socket (222a-222d), characterized in that the male component comprises a printed circuit board on which the at least one contact pin is electrically coupled to at least one printed conductor on the printed circuit board, which at least one printed conductor is electrically coupled to at least one wire of one of the motor and supply cable, wherein the female component comprises a printed circuit board on which the at least one contact socket is electrically coupled to at least one printed conductor on the printed circuit board, which at least one printed conductor is electrically coupled to at least one wire of the other of the motor and the supply cable, wherein the male component comprises a housing which encloses the printed circuit board, and wherein the female component comprises a housing which encloses the printed circuit board and wherein the male and female components are suitable for coupling of said both housings in a coupling direction, and comprises steering elements (234, 255) which steer the movement of the male and female components during coupling of the male and female component in the coupling direction.
A wireless communication method performed by a User Equipment, UE, for an uplink, UL, Physical Random Access Channel, PRACH, transmission, the wireless communication method comprising: receiving a Downlink Control Information, DCI, from a network, NW; and performing the UL PRACH transmission to the NW in response of receiving the DCI, wherein: the DCI indicates a Physical Downlink Control Channel, PDCCH, order, and the PDCCH order is associated with a scheduling offset from the NW for the UE performing the UL PRACH transmission, and the scheduling offset indicates a processing delay of the UE, which is a period between a last symbol of reception of the PDCCH order and a first symbol of the UL PRACH transmission. receiving a Downlink Control Information, DCI, from a network, NW; and performing the UL PRACH transmission to the NW in response of receiving the DCI, wherein: the DCI indicates a Physical Downlink Control Channel, PDCCH, order, and the PDCCH order is associated with a scheduling offset from the NW for the UE performing the UL PRACH transmission, and the scheduling offset indicates a processing delay of the UE, which is a period between a last symbol of reception of the PDCCH order and a first symbol of the UL PRACH transmission. the DCI indicates a Physical Downlink Control Channel, PDCCH, order, and the PDCCH order is associated with a scheduling offset from the NW for the UE performing the UL PRACH transmission, and the scheduling offset indicates a processing delay of the UE, which is a period between a last symbol of reception of the PDCCH order and a first symbol of the UL PRACH transmission.
A reference signal sending method, wherein the method is used in a plurality of cycles whose cycle lengths are a first cycle length, the plurality of cycles comprise a first cycle and a second cycle, the first cycle and the second cycle each comprise M first durations, the first duration comprises N paging occasions, and location distribution of paging occasions in the first cycle is the same as location distribution of paging occasions in the second cycle, wherein M is a positive integer, and N is a positive integer greater than 1; and characterized in that the method comprises: determining, by a network device, a first target paging occasion that is in an m th first duration of the first cycle, wherein a relative location of the first target paging occasion in the first cycle is different from a relative location of a second target paging occasion in the second cycle, the second target paging occasion is a target paging occasion in an m th first duration of the second cycle, and m is any positive integer less than or equal to M; determining, by the network device based on the first target paging occasion, a time domain resource that is in the m th first duration of the first cycle, wherein the time domain resource is a time domain resource of a time-frequency resource used to transmit a reference signal; and sending, by the network device, the reference signal to a terminal device on the time-frequency resource. determining, by a network device, a first target paging occasion that is in an m th first duration of the first cycle, wherein a relative location of the first target paging occasion in the first cycle is different from a relative location of a second target paging occasion in the second cycle, the second target paging occasion is a target paging occasion in an m th first duration of the second cycle, and m is any positive integer less than or equal to M; determining, by the network device based on the first target paging occasion, a time domain resource that is in the m th first duration of the first cycle, wherein the time domain resource is a time domain resource of a time-frequency resource used to transmit a reference signal; and sending, by the network device, the reference signal to a terminal device on the time-frequency resource.
A patient interface for delivery of respiratory therapy to a patient, the patient interface comprising: a nozzle assembly adapted to form a seal with the patient's nares and a mouth covering assembly including a cushion that is adapted to form a seal around the exterior of the patient's mouth, at least one of the mouth covering assembly and the nozzle assembly being adapted to connect to at least one inlet conduit to deliver a supply of breathable gas at positive pressure and the nozzle assembly providing a second chamber and the mouth covering assembly defining a first chamber so that no seal is formed on a nasal bridge region of the patient's face; and a headgear assembly to maintain the mouth covering assembly and the nozzle assembly in a desired position on the patient's face, wherein the patient interface further comprises a vent for CO2 removal, and a structure (19, 41, 43, 45, 47, 90) to provide flexibility between the mouth covering assembly and the nozzle assembly wherein said structure including a conduit that allows gas to pass between the second chamber and first chamber. a nozzle assembly adapted to form a seal with the patient's nares and a mouth covering assembly including a cushion that is adapted to form a seal around the exterior of the patient's mouth, at least one of the mouth covering assembly and the nozzle assembly being adapted to connect to at least one inlet conduit to deliver a supply of breathable gas at positive pressure and the nozzle assembly providing a second chamber and the mouth covering assembly defining a first chamber so that no seal is formed on a nasal bridge region of the patient's face; and a headgear assembly to maintain the mouth covering assembly and the nozzle assembly in a desired position on the patient's face, wherein the patient interface further comprises a vent for CO2 removal, and a structure (19, 41, 43, 45, 47, 90) to provide flexibility between the mouth covering assembly and the nozzle assembly wherein said structure including a conduit that allows gas to pass between the second chamber and first chamber.
Jalousie window device, comprising at least first and second louvres pivoting about a common axis between a position in which the two louvres (16, 18) overlap and a position of angular separation of the louvres (16, 18) about the common axis, the common axis consisting of a first connecting trunnion integral with the first louvre, intended to cooperate with a connecting bearing integral with the second louvre, characterised in that the common axis also consists of another connecting bearing integral with the first louvre, intended to cooperate with a second connecting trunnion integral with the second louvre.
A method of forming a particle, the method comprising: in a disperse phase within an aqueous suspension, polymerizing a plurality of monomers having the formula: wherein R 1 is an alkyl group having between 3 and 10 carbons or is a polyether group having between 1 and 10 ether units, wherein R 2 is a linear or branched alkyl group having between 3 and 8 carbons or a silyl group, and wherein R 3 is hydrogen or an alkyl group having between 1 and 6 carbons; thereby forming a polymeric particle including a plurality of the hydrophobic protection groups; and converting the polymeric particle to a hydrophilic particle. wherein R 1 is an alkyl group having between 3 and 10 carbons or is a polyether group having between 1 and 10 ether units, wherein R 2 is a linear or branched alkyl group having between 3 and 8 carbons or a silyl group, and wherein R 3 is hydrogen or an alkyl group having between 1 and 6 carbons; thereby forming a polymeric particle including a plurality of the hydrophobic protection groups; and converting the polymeric particle to a hydrophilic particle.
A method for producing polysilicon, the method comprising the steps of: a) producing polysilicon by the Siemens process with use of a chemical reactor, the chemical reactor being connected to a waste gas processing facility via a waste gas pipe, the waste gas pipe including a blocking valve configured to allow the chemical reactor to be connected to the waste gas processing facility in such a manner that the chemical reactor can be disconnected from the waste gas processing facility, the blocking valve being provided at a location at or within 10 m of a waste gas outlet of the chemical reactor; and b) cooling a waste gas in a portion of the waste gas pipe, which portion is located between the waste gas outlet of the chemical reactor and the blocking valve, with use of a shell and tube cooler, in the step b), a temperature of the waste gas passing through the blocking valve being adjusted to not lower than 200°C and not higher than 500°C. a) producing polysilicon by the Siemens process with use of a chemical reactor, the chemical reactor being connected to a waste gas processing facility via a waste gas pipe, the waste gas pipe including a blocking valve configured to allow the chemical reactor to be connected to the waste gas processing facility in such a manner that the chemical reactor can be disconnected from the waste gas processing facility, the blocking valve being provided at a location at or within 10 m of a waste gas outlet of the chemical reactor; and the chemical reactor being connected to a waste gas processing facility via a waste gas pipe, the waste gas pipe including a blocking valve configured to allow the chemical reactor to be connected to the waste gas processing facility in such a manner that the chemical reactor can be disconnected from the waste gas processing facility, the blocking valve being provided at a location at or within 10 m of a waste gas outlet of the chemical reactor; and b) cooling a waste gas in a portion of the waste gas pipe, which portion is located between the waste gas outlet of the chemical reactor and the blocking valve, with use of a shell and tube cooler, in the step b), a temperature of the waste gas passing through the blocking valve being adjusted to not lower than 200°C and not higher than 500°C.
A method for producing a counterform (20, 30a, 30b) for manufacturing a part of complex shape (1; 24d) by means of pressure sintering densification, characterized in that the counterform (20; 30a, 30b) is formed of successive layers produced by means of digitally controlled three-dimensional additive printing according to the following steps: - digitally recording a three-dimensional negative of the part to be produced (1; 24d) in a control unit of a three-dimensional additive printing system in order to make a print of the counterform (20; 30, 30b) to be produced, the rest of the counterform having faces of suitable shape for a mold for manufacturing the part (1; 24d); - producing the counterform (30a, 30b) by means of a 3D additive printing technique, the size of the counterform (20; 30a, 30b) being increased by a density stretch factor that compensates for a shrinkage in the size of the part to be manufactured (1; 24d) in the direction of the uniaxial pressure applied during the sintering densification of the part to be manufactured; and - completing the additive printing of the counterform (20; 30a, 30b) by sintering. - digitally recording a three-dimensional negative of the part to be produced (1; 24d) in a control unit of a three-dimensional additive printing system in order to make a print of the counterform (20; 30, 30b) to be produced, the rest of the counterform having faces of suitable shape for a mold for manufacturing the part (1; 24d); - producing the counterform (30a, 30b) by means of a 3D additive printing technique, the size of the counterform (20; 30a, 30b) being increased by a density stretch factor that compensates for a shrinkage in the size of the part to be manufactured (1; 24d) in the direction of the uniaxial pressure applied during the sintering densification of the part to be manufactured; and - completing the additive printing of the counterform (20; 30a, 30b) by sintering.
A compound represented by Formula or a pharmaceutically acceptable salt, or solvate thereof for use in treating cancer: wherein R 1 represents OAc, NEt 2, NMe(CH 2 CH 2 OH), NH(CH 2 CH 2 NMe 2), NEt(CH 2 CH 2 NMe 2), N(CH 2 CH 2 OMe) 2, N + O - (CH 2 CH 2 OMe) 2, NMe(CH 2) 3 Me, or N(CH 2 CH 2 Me) 2; R 2 represents Ac or H; and R 3 represents H, Cl, F, or Br.
A polynucleotide comprising in order in the 5' to 3' direction: i) a 5' long terminal repeat; ii) a sequence that is a reverse complement of a sequence encoding modified human beta-globin comprising a βT87Q mutation (B-globinM), wherein the sequence encoding the B-globinM comprises a first intron (intron 1) between exon 1 and exon 2, and a second intron (intron 2) between exon 2 and exon 3 of said B-globinM sequence, wherein intron 2 comprises more than 476 nucleotides of human B-globinM intron 2 sequence, wherein said sequence is under the control of a beta globin promoter, and wherein said sequence further comprises a 3' enhancer and a polyadenylation signal after exon 3; iii) a globin gene locus control region; iv) a self-inactivating 3' LTR comprising an ankyrin insulator element (Ank); v) a Woodchuck Post-Regulatory Element (WPRE); vi) a bovine growth hormone polyadenylation signal; and vii) a SV40 origin of replication and polyadenylation signal. i) a 5' long terminal repeat; ii) a sequence that is a reverse complement of a sequence encoding modified human beta-globin comprising a βT87Q mutation (B-globinM), wherein the sequence encoding the B-globinM comprises a first intron (intron 1) between exon 1 and exon 2, and a second intron (intron 2) between exon 2 and exon 3 of said B-globinM sequence, wherein intron 2 comprises more than 476 nucleotides of human B-globinM intron 2 sequence, wherein said sequence is under the control of a beta globin promoter, and wherein said sequence further comprises a 3' enhancer and a polyadenylation signal after exon 3; iii) a globin gene locus control region; iv) a self-inactivating 3' LTR comprising an ankyrin insulator element (Ank); v) a Woodchuck Post-Regulatory Element (WPRE); vi) a bovine growth hormone polyadenylation signal; and vii) a SV40 origin of replication and polyadenylation signal.
Method for generating nitric oxide for therapeutic applications, which comprises the steps of: guiding a process gas into a reaction chamber, wherein the process gas comprises nitrous oxide in a carrier gas in a concentration in the range of ≤ 2vol-%, and heating the process gas to a temperature which is sufficiently high to enable a reaction of nitrous oxide to form nitric oxide, thereby forming a gas which at least partly comprises nitric oxide. guiding a process gas into a reaction chamber, wherein the process gas comprises nitrous oxide in a carrier gas in a concentration in the range of ≤ 2vol-%, and heating the process gas to a temperature which is sufficiently high to enable a reaction of nitrous oxide to form nitric oxide, thereby forming a gas which at least partly comprises nitric oxide.
Exhaust member of an internal combustion engine comprising an exhaust manifold with an inner sheet and an outer sheet, which manifold is welded to a turbocharger via an inlet duct with an internal sheet and an external sheet, characterized in that the internal sheet of the inlet duct is welded to the outer sheet of the exhaust manifold and that the inner sheet of the manifold is connected by a sliding connection to the inlet duct.
A solid pharmaceutical nano particle of a compound selected from the group consisting of and which is characterised by being obtained by pouring a solution of the compound dissolved in a water-miscible organic solvent into water.
An arrangement for coating substrate surfaces by means of electric arc discharge in a vacuum chamber, in which electric arc discharges are ignited between a target electrically connected as a cathode, which is formed from a metallic material, and an anode arranged at a distance from the target to form a plasma formed with metallic material of the target, the target being connected to a first electrical current source and the anode being connected to a second electrical current source, the absolute values of the electrical voltages connected to the target and to the anode differing from one another. characterized in that a plurality of anodes (2, 5, 7) are arranged at a distance from one another and in the direction of the respective substrate surface to be coated and are each connected to a separate electrical current source (4, 6, 8), the anodes (2, 5, 7) each being connected to different electrical voltage potentials and therein a difference in the positive electrical voltage potential between two anodes arranged next to each other is maintained and the electrical voltage potentials increase in the direction of the substrate surface to be coated.
A method for reducing permeability in a first region of a formation, comprising: injecting a first composition in the first region from a first location near and/or adjacent the first region, the first composition comprising a polymer gel; and injecting a second composition in the first region from a second location near and/or adjacent the first region, the second composition comprising at least one crosslinker, a molar ratio of the second composition to the first composition being less than 1:1, the second location being separate from the first location; wherein the first composition and the second composition are configured to react so as to form a crosslinked polymer gel as a reaction product capable of reducing the permeability in at least a portion of the first region; and wherein the viscosity of the first composition is greater than the viscosity of the second composition such that the injecting of the second composition creates a viscous fingering of the second composition through the first composition so as to promote a mixing of the first composition and the second composition within the first region. injecting a first composition in the first region from a first location near and/or adjacent the first region, the first composition comprising a polymer gel; and injecting a second composition in the first region from a second location near and/or adjacent the first region, the second composition comprising at least one crosslinker, a molar ratio of the second composition to the first composition being less than 1:1, the second location being separate from the first location; wherein the first composition and the second composition are configured to react so as to form a crosslinked polymer gel as a reaction product capable of reducing the permeability in at least a portion of the first region; and wherein the viscosity of the first composition is greater than the viscosity of the second composition such that the injecting of the second composition creates a viscous fingering of the second composition through the first composition so as to promote a mixing of the first composition and the second composition within the first region.
A use of an antenna device for performing communication with a non-contact IC card disposed in either a first region or a second region, the antenna device comprising: a metal portion which has a surface; and a coil section which is provided above the surface of the metal portion at a predetermined distance separated from the surface of the metal portion and has an opening portion, wherein a surface of the coil section in which the opening portion is formed is approximately perpendicular to the surface of the metal portion, and wherein the coil section is disposed in the vicinity of an edge of the metal portion, wherein the first region is a region located directly above the antenna device in a main communication surface and the second region is a region located directly across the antenna device and located in a line extended from the metal portion, and the antenna device is arranged such that an axis of a magnetic flux in operation of the antenna device is inclined to the outside of the metal portion. a metal portion which has a surface; and a coil section which is provided above the surface of the metal portion at a predetermined distance separated from the surface of the metal portion and has an opening portion, wherein a surface of the coil section in which the opening portion is formed is approximately perpendicular to the surface of the metal portion, and wherein the coil section is disposed in the vicinity of an edge of the metal portion, wherein the first region is a region located directly above the antenna device in a main communication surface and the second region is a region located directly across the antenna device and located in a line extended from the metal portion, and the antenna device is arranged such that an axis of a magnetic flux in operation of the antenna device is inclined to the outside of the metal portion.