mhurhangee/ep-ind-claims huggingface dataset:
An oven comprising: - a cooking chamber wherein the trays containing the foodstuffs to be cooked are placed, - a casing surrounding the cooking chamber, configured as a box with front side open and having two opposite side walls, - a movement mechanism associated to the side walls of the casing and comprising carrying means whereon a movable tray (T m) can be placed to be moved upwards/downwards inside the cooking chamber, - a support unit having carriers for statically supporting at least one static tray (T s) in the cooking chamber, characterized in that the movement mechanism occupies a first vertical portion of each of the side walls and the support unit occupies a second different vertical portion of each of the side walls, the movable carrying means being spaced apart from each of the side walls of a distance bigger than the extension of the support unit from each of the side walls and the casing has a rear wall and a frontal aperture and the first vertical portion of each of the side walls occupied by the movement mechanism is substantially equidistant from the rear wall and the frontal aperture and the support unit comprises a frontal rack and a rear rack mounted on each of the side walls at the opposite sides of the first vertical portion occupied by the movement mechanism. - a cooking chamber wherein the trays containing the foodstuffs to be cooked are placed, - a casing surrounding the cooking chamber, configured as a box with front side open and having two opposite side walls, - a movement mechanism associated to the side walls of the casing and comprising carrying means whereon a movable tray (T m) can be placed to be moved upwards/downwards inside the cooking chamber, - a support unit having carriers for statically supporting at least one static tray (T s) in the cooking chamber,
A photocurable ink composition comprising: an amine A which is an amine compound having an α-hydrogen atom and a number-average molecular weight of less than 1,000; an amine B which is an amine compound having an α-hydrogen atom and a number-average molecular weight of 1,000 or more; and at least one of a monofunctional radical-polymerizable monomer or a bifunctional radical-polymerizable monomer, wherein a total content of the monofunctional radical-polymerizable monomer and the bifunctional radical-polymerizable monomer is 50% by mass or more based on a total amount of the photocurable ink composition, characterized in that each of the amine A and the amine B has a hindered amine structure represented by formula below: wherein * in formula represents a binding site, wherein Examples 57A and 59A of EP 3 587 512 A1 and Example 41A of EP 3 617 283 A1 are excluded from the scope of claim 1. an amine A which is an amine compound having an α-hydrogen atom and a number-average molecular weight of less than 1,000; an amine B which is an amine compound having an α-hydrogen atom and a number-average molecular weight of 1,000 or more; and at least one of a monofunctional radical-polymerizable monomer or a bifunctional radical-polymerizable monomer, wherein a total content of the monofunctional radical-polymerizable monomer and the bifunctional radical-polymerizable monomer is 50% by mass or more based on a total amount of the photocurable ink composition, characterized in that each of the amine A and the amine B has a hindered amine structure represented by formula below: wherein * in formula represents a binding site, wherein Examples 57A and 59A of EP 3 587 512 A1 and Example 41A of EP 3 617 283 A1 are excluded from the scope of claim 1.
A method for producing an optically active N-(halopropyl)amino acid derivative represented by the formula, comprising the steps of: obtaining a compound represented by formula: by reacting an optically active alanine ester represented by formula: or a salt thereof with a halogenated propane represented by formula: in the presence of an inorganic base; and obtaining an optically active N-(halopropyl)amino acid derivative represented by formula: by introducing a protecting group onto the nitrogen atom of the compound represented by formula, wherein X 1 and X 2 are different from each other and are atoms selected from the group consisting of a chlorine atom, a bromine atom, and an iodine atom, X 2 is an atom that has an atomic number larger than that of X 1, R 1 is an unsubstituted, linear or branched alkyl group having 1 to 4 carbon atoms, R 2 is a phenyl group, a methyl group, a tert-butyl group, a tert-butoxy group, a benzyloxy group, a methoxy group, or a 9-fluorenylmethoxy group, and the asterisk (*) indicates an asymmetric carbon atom. obtaining a compound represented by formula: by reacting an optically active alanine ester represented by formula: or a salt thereof with a halogenated propane represented by formula: in the presence of an inorganic base; and obtaining an optically active N-(halopropyl)amino acid derivative represented by formula: by introducing a protecting group onto the nitrogen atom of the compound represented by formula, wherein X 1 and X 2 are different from each other and are atoms selected from the group consisting of a chlorine atom, a bromine atom, and an iodine atom, X 2 is an atom that has an atomic number larger than that of X 1, R 1 is an unsubstituted, linear or branched alkyl group having 1 to 4 carbon atoms, R 2 is a phenyl group, a methyl group, a tert-butyl group, a tert-butoxy group, a benzyloxy group, a methoxy group, or a 9-fluorenylmethoxy group, and the asterisk (*) indicates an asymmetric carbon atom. X 1 and X 2 are different from each other and are atoms selected from the group consisting of a chlorine atom, a bromine atom, and an iodine atom, X 2 is an atom that has an atomic number larger than that of X 1, R 1 is an unsubstituted, linear or branched alkyl group having 1 to 4 carbon atoms, R 2 is a phenyl group, a methyl group, a tert-butyl group, a tert-butoxy group, a benzyloxy group, a methoxy group, or a 9-fluorenylmethoxy group, and the asterisk (*) indicates an asymmetric carbon atom.
Kit (10, 40, 60) for producing an assembly for packaging and applying a product, notably a cosmetic product, comprising, for the one part, at least one container (20, 70) delimiting at least one internal volume (22, 72a, 72b) which contains said product and at least one free edge of which defines an opening (28, 78a, 78b) for accessing the internal volume, said opening being closed off by a temporary closure member (29, 79a, 79b) that does not have an applicator member, and, for the other part, at least one device (30, 130, 230) for applying said product that is able to be inserted at least partially into the internal volume (22, 72a, 72b) of the container (20, 70) and comprises at least one applicator member (32, 132, 232), a stem (34, 134, 234) bearing said applicator member (32, 132, 232), a gripping member (36, 136, 236) secured to said stem (34, 134, 234) and a wiping member (38, 138, 238) mounted around said stem and fixed removably thereto, said wiping member being not located in the region of the application device containing the applicator member, the gripping member (36, 136,236) forming a cap configured to replace the temporary closure member (29, 79a, 79b) so as to form an assembly for packaging and applying the cosmetic product, said gripping member (36, 136, 236) being able to close the opening (28, 78a, 78b) of said container (20, 70) in a removable manner, the applicator member (32, 132, 232) being situated inside the container (20, 70) when the gripping member closes said opening (28, 78a, 78b).
A magnetically inductive flow meter for determining the flow rate of a liquid or gaseous medium in a pipe line section, wherein the flow meter comprises at least two measuring electrodes (3a, 3b) in a magnetic field generated by a magnetic field-generating arrangement, wherein the magnetic field-generating arrangement is arranged at least partially within the free cross-section of the pipeline section, wherein the magnetic field-generating arrangement includes a mount for receiving at least one magnetic field generator and the at least two measuring electrodes (3a, 3b), characterized in that the mount is designed as a plate, wherein the plate is disposed in the free cross-section of the pipeline section.
A human artificial chromosome vector comprising: (i) human antibody heavy chain genes encoding the γ chain, the μ chain, the α chain, the δ chain, and the ε chain; and (ii) human antibody light chain genes encoding the κ chain and/or the λ chain; wherein a part of the DNA encoding a human IgM heavy chain constant region on the human artificial chromosome vector is substituted with DNA encoding a bovine IgM heavy chain constant region such that: (a) DNA encoding the CH1 domain, the CH2 domain, the CH3 domain, the CH4 domain, the TM1 domain, and the TM2 domain in said human IgM heavy chain constant region gene is substituted with DNA encoding the CH1 domain, the CH2 domain, the CH3 domain, the CH4 domain, the TM1 domain, and the TM2 domain in the bovine IgM heavy chain constant region gene, respectively; or (b) DNA encoding the CH2 domain, the CH3 domain, the CH4 domain, the TM1 domain, and the TM2 domain in said human IgM heavy chain constant region gene is substituted with DNA encoding the CH2 domain, the CH3 domain, the CH4 domain, the TM1 domain, and the TM2 domain of the bovine IgM heavy chain constant region gene, respectively. (i) human antibody heavy chain genes encoding the γ chain, the μ chain, the α chain, the δ chain, and the ε chain; and (ii) human antibody light chain genes encoding the κ chain and/or the λ chain; (a) DNA encoding the CH1 domain, the CH2 domain, the CH3 domain, the CH4 domain, the TM1 domain, and the TM2 domain in said human IgM heavy chain constant region gene is substituted with DNA encoding the CH1 domain, the CH2 domain, the CH3 domain, the CH4 domain, the TM1 domain, and the TM2 domain in the bovine IgM heavy chain constant region gene, respectively; or (b) DNA encoding the CH2 domain, the CH3 domain, the CH4 domain, the TM1 domain, and the TM2 domain in said human IgM heavy chain constant region gene is substituted with DNA encoding the CH2 domain, the CH3 domain, the CH4 domain, the TM1 domain, and the TM2 domain of the bovine IgM heavy chain constant region gene, respectively.
Arrangement in a vehicle seat, in which arrangement a support device is fitted in connection with a seat of a vehicle, and the arrangement includes two separate support devices, which are adapted at an interval of each other, and the support device includes a support element and fastening devices, with which the support element is fastened in connection with a backrest included in the seat, and the fastening devices include a fastening element provided with adjustment elements for varying the length of the fastening element, and the support element being arranged as a lateral support, and the support devices are mirror-like constructions releasably fitted in connection with the seat, characterised in that, the fastening devices include anchoring members at both ends of the support element including an elongated frame construction, and the anchoring member for the lower part of the support element is quick-releasable, and in the support element two support components are arranged; one support component for the head and another support component for the body of the passenger.
A method for automatically switching a handheld mode, comprising the step of: Updating, when it is detected that a duration during which handheld positions of a wireless handheld device, where the user's fingers touch and hold the wireless handheld device, do not match a preset first handheld mode of the wireless handheld device exceeds a first preset duration, a first user interface matching the first handheld mode to a second user interface matching a second handheld mode, wherein a layout of controls on the second user interface is a flip horizontal of a layout of controls on the first user interface, further comprising the step of updating, when the wireless handheld device is in a user-interface locked state, and it is detected that the duration during which the handheld positions of the wireless handheld device do not match the preset first handheld mode of the wireless handheld device exceeds the first preset duration, the first user interface matching the first handheld mode to the second user interface matching the second handheld mode. Updating, when it is detected that a duration during which handheld positions of a wireless handheld device, where the user's fingers touch and hold the wireless handheld device, do not match a preset first handheld mode of the wireless handheld device exceeds a first preset duration, a first user interface matching the first handheld mode to a second user interface matching a second handheld mode, wherein a layout of controls on the second user interface is a flip horizontal of a layout of controls on the first user interface, further comprising the step of updating, when the wireless handheld device is in a user-interface locked state, and it is detected that the duration during which the handheld positions of the wireless handheld device do not match the preset first handheld mode of the wireless handheld device exceeds the first preset duration, the first user interface matching the first handheld mode to the second user interface matching the second handheld mode.
A windshield monitoring system, comprising: a plurality of light emitters (108; 208; 320) forming an array, each emitter (108; 208; 320) arranged to direct a beam of light (106; 206; 322) into an edge of a vehicle windshield (104; 204; 304) at an angle of incidence arranged to subject the beam of light (106; 206; 322) to total internal reflection at a windshield to air interface to propagate the beam of light (106; 206; 322) across the windshield (104; 204; 304) to an opposing edge thereof, the angle of incidence being arranged to refract the light beam (106; 206; 322) away from the windshield (104; 204; 304) at a windshield to contaminant interface, wherein the emitters (108; 208; 320) are separated substantially across a length of the windshield (104; 204; 304); and a light detector (110; 210; 324) arranged to detect that light from the beam of light (106; 206; 322) has been refracted away from the windshield (104; 204; 304); the system being characterised in that each emitter (108; 208; 320) comprises a pulsar (120; 220; 330) to pulsate, strobe or shutter the light beam according to a predefined pattern. a plurality of light emitters (108; 208; 320) forming an array, each emitter (108; 208; 320) arranged to direct a beam of light (106; 206; 322) into an edge of a vehicle windshield (104; 204; 304) at an angle of incidence arranged to subject the beam of light (106; 206; 322) to total internal reflection at a windshield to air interface to propagate the beam of light (106; 206; 322) across the windshield (104; 204; 304) to an opposing edge thereof, the angle of incidence being arranged to refract the light beam (106; 206; 322) away from the windshield (104; 204; 304) at a windshield to contaminant interface, wherein the emitters (108; 208; 320) are separated substantially across a length of the windshield (104; 204; 304); and a light detector (110; 210; 324) arranged to detect that light from the beam of light (106; 206; 322) has been refracted away from the windshield (104; 204; 304); the system being characterised in that each emitter (108; 208; 320) comprises a pulsar (120; 220; 330) to pulsate, strobe or shutter the light beam according to a predefined pattern.
A key management method in connection with handover of a user equipment from a source wireless communication system to a target wireless communication system, the method comprises: deriving a first 4G-master key based on a 5G key, K AMF, available at an Access and Mobility management Function constituting a core network node supporting mobility management in a source 5G wireless communication system, and on a 5G-freshness parameter; forwarding the first 4G-master key to a target mobility managing entity of the core network of a target 4G wireless communication system for enabling deriving a second 4G-master key based on the first 4G-master key and on a 4G-freshness parameter; and forwarding the 5G-freshness parameter to the user equipment for enabling deriving the first 4G-master key based on the 5G key, K AMF, and the 5G-freshness parameter and deriving the second 4G-master key based on the first 4G-master key and on the 4G-freshness parameter. deriving a first 4G-master key based on a 5G key, K AMF, available at an Access and Mobility management Function constituting a core network node supporting mobility management in a source 5G wireless communication system, and on a 5G-freshness parameter; forwarding the first 4G-master key to a target mobility managing entity of the core network of a target 4G wireless communication system for enabling deriving a second 4G-master key based on the first 4G-master key and on a 4G-freshness parameter; and forwarding the 5G-freshness parameter to the user equipment for enabling deriving the first 4G-master key based on the 5G key, K AMF, and the 5G-freshness parameter and deriving the second 4G-master key based on the first 4G-master key and on the 4G-freshness parameter.
A method for transmitting uplink control information through a Physical Uplink Shared Channel, PUSCH, by a user equipment in a wireless communication system, the method comprising: receiving a Radio Resource Control, RRC, message indicating a time interval for periodic PUSCH transmission; receiving a Physical Downlink Control Channel, PDCCH signal indicating activation of the periodic PUSCH transmission; said method characterized by: transmitting a first PUSCH signal according to the time interval, the first PUSCH signal including channel quality information based on a Channel State Information Reference Signal, CSI-RS, from a serving cell and on interference from a Common Reference Signal, CRS, of another cell, wherein, if transmission of the first PUSCH signal fails, a second PUSCH signal is transmitted according to a Hybrid ARQ, HARQ, timing, wherein the second PUSCH signal includes channel quality information based on the CSI-RS used for the first PUSCH signal and on newly updated interference from a CRS of said another cell, wherein the CSI-RS is transmitted every N subframes, the CRS is transmitted every subframe, and N is a positive integer other than 1. receiving a Radio Resource Control, RRC, message indicating a time interval for periodic PUSCH transmission; receiving a Physical Downlink Control Channel, PDCCH signal indicating activation of the periodic PUSCH transmission; said method characterized by: transmitting a first PUSCH signal according to the time interval, the first PUSCH signal including channel quality information based on a Channel State Information Reference Signal, CSI-RS, from a serving cell and on interference from a Common Reference Signal, CRS, of another cell, wherein, if transmission of the first PUSCH signal fails, a second PUSCH signal is transmitted according to a Hybrid ARQ, HARQ, timing, wherein the second PUSCH signal includes channel quality information based on the CSI-RS used for the first PUSCH signal and on newly updated interference from a CRS of said another cell, wherein the CSI-RS is transmitted every N subframes, the CRS is transmitted every subframe, and N is a positive integer other than 1. transmitting a first PUSCH signal according to the time interval, the first PUSCH signal including channel quality information based on a Channel State Information Reference Signal, CSI-RS, from a serving cell and on interference from a Common Reference Signal, CRS, of another cell, wherein, if transmission of the first PUSCH signal fails, a second PUSCH signal is transmitted according to a Hybrid ARQ, HARQ, timing, wherein the second PUSCH signal includes channel quality information based on the CSI-RS used for the first PUSCH signal and on newly updated interference from a CRS of said another cell, wherein the CSI-RS is transmitted every N subframes, the CRS is transmitted every subframe, and N is a positive integer other than 1.
A method for forwarding an Ethernet frame by a Time-Sensitive Networking Ethernet bridge provided by means of a mobile radio communication system comprising: receiving the Ethernet frame at a an ingress port of the Ethernet bridge provided by an ingress port Time-Sensitive Networking, TSN, translator (207, 307); the ingress port TSN translator (207, 307) determining an internal priority value of the Ethernet frame; forwarding the Ethernet frame along with the determined internal priority value from the ingress port TSN translator to an egress port TSN (206, 306) translator providing an egress port of the Ethernet bridge; and the egress port TSN translator (206, 306) outputting the Ethernet frame by the egress port depending on the internal priority value; wherein the ingress port TSN translator (207, 307) matches the Ethernet frame against multiple stream filters and submits the Ethernet frame to a stream gate associated with a matching stream filter, wherein the stream gate defines the internal priority value. receiving the Ethernet frame at a an ingress port of the Ethernet bridge provided by an ingress port Time-Sensitive Networking, TSN, translator (207, 307); the ingress port TSN translator (207, 307) determining an internal priority value of the Ethernet frame; forwarding the Ethernet frame along with the determined internal priority value from the ingress port TSN translator to an egress port TSN (206, 306) translator providing an egress port of the Ethernet bridge; and the egress port TSN translator (206, 306) outputting the Ethernet frame by the egress port depending on the internal priority value; wherein the ingress port TSN translator (207, 307) matches the Ethernet frame against multiple stream filters and submits the Ethernet frame to a stream gate associated with a matching stream filter, wherein the stream gate defines the internal priority value.
A multi-input multi-output system, comprising: a first directional coupler and a second directional coupler, one of which is arranged to direct signals to a splitter in the case where signals are sent out by the multi-input multi-output system in a single path; the splitter arranged to split the signals from the first directional coupler or the second directional coupler into two paths and send the two paths of signals to a first amplifier and a second amplifier respectively; the first amplifier and the second amplifier, which are arranged to amplify the signals received respectively and send the amplified signals to a combiner, respectively; and the combiner arranged to combine the signals received from the first amplifier and the second amplifier and send the combined signals. a first directional coupler and a second directional coupler, one of which is arranged to direct signals to a splitter in the case where signals are sent out by the multi-input multi-output system in a single path; the splitter arranged to split the signals from the first directional coupler or the second directional coupler into two paths and send the two paths of signals to a first amplifier and a second amplifier respectively; the first amplifier and the second amplifier, which are arranged to amplify the signals received respectively and send the amplified signals to a combiner, respectively; and the combiner arranged to combine the signals received from the first amplifier and the second amplifier and send the combined signals.