mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor device including a plurality of unit cells aligned in one direction and a wiring group connected to the unit cells, at least one wire of the wiring group comprising: a first partial wiring (222m1, 222m2); and a second partial wiring having a Young's modulus higher than a Young's modulus of the first partial wiring and disposed along an end portion in the one direction of the semiconductor device, wherein the first partial wiring extends in the one direction; the second partial wiring extends along the end portion in a direction intersecting with the one direction; and the first partial wiring is connected to the second partial wiring. a first partial wiring (222m1, 222m2); and a second partial wiring having a Young's modulus higher than a Young's modulus of the first partial wiring and disposed along an end portion in the one direction of the semiconductor device, wherein the first partial wiring extends in the one direction; the second partial wiring extends along the end portion in a direction intersecting with the one direction; and the first partial wiring is connected to the second partial wiring.
A method of wireless communications by a base station, BS, comprising: configuring a user equipment, UE, that is capable of MIMO with different parameters for periodic and aperiodic channel state information, CSI, reporting, wherein the different parameters indicate at least one of what resources to measure or what information to report; and receiving periodic and aperiodic CSI reporting from the UE according to the configuration, wherein the configuring comprises: configuring the UE to measure and report CSI aperiodically for a first set of antenna ports; and configuring the UE to measure and report CSI periodically for a second set of antenna ports, wherein the second set of antenna ports comprises a subset of the first set of antenna ports. configuring a user equipment, UE, that is capable of MIMO with different parameters for periodic and aperiodic channel state information, CSI, reporting, wherein the different parameters indicate at least one of what resources to measure or what information to report; and receiving periodic and aperiodic CSI reporting from the UE according to the configuration, wherein the configuring comprises: configuring the UE to measure and report CSI aperiodically for a first set of antenna ports; and configuring the UE to measure and report CSI periodically for a second set of antenna ports, wherein the second set of antenna ports comprises a subset of the first set of antenna ports. configuring the UE to measure and report CSI aperiodically for a first set of antenna ports; and configuring the UE to measure and report CSI periodically for a second set of antenna ports, wherein the second set of antenna ports comprises a subset of the first set of antenna ports.
Method for reducing the cloud point of a Fischer-Tropsch derived fraction to below 0°C, wherein the method comprises: (a) mixing the Fischer-Tropsch derived fraction with a solvent mixture to obtain a solvent treatment mixture , wherein the Fischer-Tropsch derived fraction comprises more than 80% of paraffins and 90% of saturates, wherein the solvent mixture comprises a paraffinic naphtha fraction and a co-solvent comprising methyl ethyl ketone or methyl isobutyl ketone or methyl butyl ketone or methyl propyl ketone or methyl isopropyl ketone; (b) cooling the solvent treatment mixture to a temperature of less than -20 °C to obtain a wax fraction and a de-waxed fraction comprising the Fischer-Tropsch derived fraction and the solvent mixture (c) separating the wax fraction from the de-waxed fraction to form a separated de-waxed fraction comprising the dewaxed Fischer-Tropsch derived fraction and the solvent mixture; and (d) distilling the separated de-waxed fraction to form a distilled solvent and a Fischer-Tropsch derived base oil, wherein the Fischer-Tropsch derived base oil comprises a cloud point below 0°C. (a) mixing the Fischer-Tropsch derived fraction with a solvent mixture to obtain a solvent treatment mixture , wherein the Fischer-Tropsch derived fraction comprises more than 80% of paraffins and 90% of saturates, wherein the solvent mixture comprises a paraffinic naphtha fraction and a co-solvent comprising methyl ethyl ketone or methyl isobutyl ketone or methyl butyl ketone or methyl propyl ketone or methyl isopropyl ketone; (b) cooling the solvent treatment mixture to a temperature of less than -20 °C to obtain a wax fraction and a de-waxed fraction comprising the Fischer-Tropsch derived fraction and the solvent mixture (c) separating the wax fraction from the de-waxed fraction to form a separated de-waxed fraction comprising the dewaxed Fischer-Tropsch derived fraction and the solvent mixture; and (d) distilling the separated de-waxed fraction to form a distilled solvent and a Fischer-Tropsch derived base oil, wherein the Fischer-Tropsch derived base oil comprises a cloud point below 0°C.
A heterophasic polyolefin composition having an MFR of 7 to 100 g/10min and having a Tm of 150 °C or higher comprising a propylene butylene copolymer matrix phase and a rubber phase selected from ethylene / C3-C12 alpha olefin plastomers the composition being obtainable by blending A) 60.0 to 99.0 wt.-% of a propylene butylene copolymer which comprises monomer units derived from a) propylene in an amount of 88-98 wt.-% b) butylenes in an amount of 2-12 wt.-% with respect to the total weight of the propylene butylene copolymer B) 1.0 - 40.0 wt.-% of ethylene / C3-C12 alpha olefin plastomers having a density of less than 904 kg/m 3 and optionally a nucleating agent in an amount of less than 0.25 wt.-% with respect to the total of the heterophasic composition. A) 60.0 to 99.0 wt.-% of a propylene butylene copolymer which comprises monomer units derived from a) propylene in an amount of 88-98 wt.-% b) butylenes in an amount of 2-12 wt.-% with respect to the total weight of the propylene butylene copolymer a) propylene in an amount of 88-98 wt.-% b) butylenes in an amount of 2-12 wt.-% B) 1.0 - 40.0 wt.-% of ethylene / C3-C12 alpha olefin plastomers having a density of less than 904 kg/m 3 and
A pouch container comprising at least a first wall-surface portion and a second wall-surface portion opposed to the first wall-surface portion as wall-surface portions , and also comprising a sealing portion where rear surfaces of the respective wall-surface portions are bonded to each other, wherein the first and second wall-surface portions each include a base film and a sealant layer provided on a rear surface side of the base film , at least one of the first and second wall-surface portions includes a platelessly printed layer formed between the base film and the sealant layer , and an edge (E22) of the platelessly printed layer is defined at a position spaced apart from a container end face (E1, E2, E3), characterized in that at least one of the first and second wall-surface portions includes a plate-printed layer formed between the container end face (E1) and the edge (E22) of the platelessly printed layer so that the plate-printed layer is exposed in the container end face (E1), wherein the edge (E22) of the platelessly printed layer overlaps an edge of the plate-printed layer , or the edge (E22) of the platelessly printed layer is spaced apart from the edge of the plate-printed layer such that the plate-printed layer does not overlap with the platelessly printed layer .
A method of operating a user terminal, UT, to perform a handoff from a first satellite to a second satellite , comprising: communicating with a first gateway over a forward link and a return link via the first satellite ; receiving a handoff message from the first gateway via the first satellite , wherein the handoff message comprises information sufficient for the UT to identify the second satellite for the handoff, and to determine a time for the handoff from the first satellite to the second satellite ; identifying the second satellite for the handoff and determining the time for the handoff from the first satellite to the second satellite based on the received handoff message; scheduling the handoff from the first satellite to the second satellite in accordance with the identified second satellite and the determined time; transmitting a handoff acknowledgement message to the first gateway via the first satellite in response to receiving the handoff message, wherein the handoff acknowledgement message comprises a projected time required for repointing an antenna to the second satellite ; and executing the handoff from the first satellite to the second satellite. communicating with a first gateway over a forward link and a return link via the first satellite ; receiving a handoff message from the first gateway via the first satellite , wherein the handoff message comprises information sufficient for the UT to identify the second satellite for the handoff, and to determine a time for the handoff from the first satellite to the second satellite ; identifying the second satellite for the handoff and determining the time for the handoff from the first satellite to the second satellite based on the received handoff message; scheduling the handoff from the first satellite to the second satellite in accordance with the identified second satellite and the determined time; transmitting a handoff acknowledgement message to the first gateway via the first satellite in response to receiving the handoff message, wherein the handoff acknowledgement message comprises a projected time required for repointing an antenna to the second satellite ; and executing the handoff from the first satellite to the second satellite.
A method for assembling a plurality of harvested micro tissue grafts , the method comprising: a) arranging the plurality of micro tissue grafts in a desired orientation; and b) forming a tissue construct containing the plurality of micro tissue grafts arranged in the desired orientation, the tissue construct being a solid, three-dimensional construct that maintains the plurality of micro tissue grafts therein in the desired orientation for application of the tissue construct to a recipient site, wherein the tissue construct includes the plurality of micro tissue grafts arranged in the desired orientation within a supportive material , and characterised in that step b) includes rolling a strip of the supportive material and attaching the plurality of micro tissue grafts attached to the strip at spaced-apart intervals during rolling. a) arranging the plurality of micro tissue grafts in a desired orientation; and b) forming a tissue construct containing the plurality of micro tissue grafts arranged in the desired orientation, the tissue construct being a solid, three-dimensional construct that maintains the plurality of micro tissue grafts therein in the desired orientation for application of the tissue construct to a recipient site, wherein the tissue construct includes the plurality of micro tissue grafts arranged in the desired orientation within a supportive material , and characterised in that step b) includes rolling a strip of the supportive material and attaching the plurality of micro tissue grafts attached to the strip at spaced-apart intervals during rolling. wherein the tissue construct includes the plurality of micro tissue grafts arranged in the desired orientation within a supportive material , and characterised in that step b) includes rolling a strip of the supportive material and attaching the plurality of micro tissue grafts attached to the strip at spaced-apart intervals during rolling.
An article of footwear configured to support a foot, the article of footwear comprising: a sole structure ; and an upper that is attached to the sole structure, the upper including a forefoot region that is configured to receive a plurality of toes of the foot, the upper including: a first zone having a first elasticity; a second zone having a second elasticity; and a third zone having a third elasticity, the third zone disposed between the first zone and the second zone; the third elasticity being greater than the first elasticity and the second elasticity; the third zone configured to bias the first zone and the second zone toward each other; the article of footwear being characterized in that the third zone is biased generally toward the sole structure and is configured to be received in a space formed between two of the plurality of toes of the foot when the forefoot region is unstretched. a sole structure ; and an upper that is attached to the sole structure, the upper including a forefoot region that is configured to receive a plurality of toes of the foot, the upper including: a first zone having a first elasticity; a second zone having a second elasticity; and a third zone having a third elasticity, the third zone disposed between the first zone and the second zone; the third elasticity being greater than the first elasticity and the second elasticity; the third zone configured to bias the first zone and the second zone toward each other; the article of footwear being characterized in that the third zone is biased generally toward the sole structure and is configured to be received in a space formed between two of the plurality of toes of the foot when the forefoot region is unstretched. a first zone having a first elasticity; a second zone having a second elasticity; and a third zone having a third elasticity, the third zone disposed between the first zone and the second zone; the third elasticity being greater than the first elasticity and the second elasticity; the third zone configured to bias the first zone and the second zone toward each other; the article of footwear being characterized in that the third zone is biased generally toward the sole structure and is configured to be received in a space formed between two of the plurality of toes of the foot when the forefoot region is unstretched.
Method for destacking trays , wherein the trays comprise a first side with mostly concave receptacles, and a second side with mostly convex protuberances , the method comprising the following steps: - Loading, in receiving means, a plurality of stacked trays , such that said trays are mostly in a horizontal position; - Lifting the stacked trays with a lifting platform up to separating means having one or more suction cups , said lifting platform comprising the receiving means arranged to receive the stack of trays ; - Positioning the one or more suction cups on the second side with convex protuberances of the upper tray of the stack; - Sucking to fix the suction cups to the tray ; - Separating the upper tray from the stack; - Moving the separated tray up to a specified delivery place; and - Flipping over the trays before leaving, so that the first side with concave receptacles is facing upwards and therefore makes it possible to directly deposit the objects to be carried on it. - Loading, in receiving means, a plurality of stacked trays , such that said trays are mostly in a horizontal position; - Lifting the stacked trays with a lifting platform up to separating means having one or more suction cups , said lifting platform comprising the receiving means arranged to receive the stack of trays ; - Positioning the one or more suction cups on the second side with convex protuberances of the upper tray of the stack; - Sucking to fix the suction cups to the tray ; - Separating the upper tray from the stack; - Moving the separated tray up to a specified delivery place; and - Flipping over the trays before leaving, so that the first side with concave receptacles is facing upwards and therefore makes it possible to directly deposit the objects to be carried on it.
A hair trimming system comprising a handle and a head , the head comprising a cutting unit for cutting hairs, and the head being moveable relative to the handle , wherein: the head comprises a base configured to be received in the handle , wherein the base comprises a connecting portion configured to cooperate with the handle to connect the handle and the head , and to permit pivoting movement of the head with respect to the handle about the connecting portion , and the base comprises a main indentation and an intermediate indentation ; the handle comprises a holding mechanism comprising a moveable stop configured to be received separately in each of the main indentation and in the intermediate indentation , to restrict pivoting movement of the head relative to the handle about the connecting portion so as to secure the head to the handle , wherein the stop is biased to a locked position relative to the handle , wherein in the locked position, the stop is received in one of the main indentation and the intermediate indentation , to secure the head to the handle , wherein when the stop is received in the main indentation , the base of the head is received within the handle in an operational configuration, and when the stop is received in the intermediate indentation , the head is pivoted away from the handle relative to the operational configuration, in an open configuration. the head comprises a base configured to be received in the handle , wherein the base comprises a connecting portion configured to cooperate with the handle to connect the handle and the head , and to permit pivoting movement of the head with respect to the handle about the connecting portion , and the base comprises a main indentation and an intermediate indentation ; the handle comprises a holding mechanism comprising a moveable stop configured to be received separately in each of the main indentation and in the intermediate indentation , to restrict pivoting movement of the head relative to the handle about the connecting portion so as to secure the head to the handle , wherein the stop is biased to a locked position relative to the handle , wherein in the locked position, the stop is received in one of the main indentation and the intermediate indentation , to secure the head to the handle , wherein when the stop is received in the main indentation , the base of the head is received within the handle in an operational configuration, and when the stop is received in the intermediate indentation , the head is pivoted away from the handle relative to the operational configuration, in an open configuration.
A method for preparing high-performance natural silk fiber, comprising the following steps: Preparing a silk swelling liquid, the silk swelling liquid comprising acid and water; Soaking a natural silk fiber in the silk swelling liquid of step , the soaking time being 5 seconds to 5 minutes, and shrinking or stretching the soaked natural silk fibers; Washing the treated natural silk fiber obtained in step with deionized water, neutralizing the excess acid in an aqueous sodium hydroxide solution of 1 wt.-%, washing again with water, and drying in an oven at a specific temperature of 55 °C, 60 °C or 70 °C to obtain the high performance natural silk fiber, in which the natural silk β-sheet structure is removed. Preparing a silk swelling liquid, the silk swelling liquid comprising acid and water; Soaking a natural silk fiber in the silk swelling liquid of step , the soaking time being 5 seconds to 5 minutes, and shrinking or stretching the soaked natural silk fibers; Washing the treated natural silk fiber obtained in step with deionized water, neutralizing the excess acid in an aqueous sodium hydroxide solution of 1 wt.-%, washing again with water, and drying in an oven at a specific temperature of 55 °C, 60 °C or 70 °C to obtain the high performance natural silk fiber, in which the natural silk β-sheet structure is removed.
Arrangement for controlling a hydraulic three-point hitch, comprising a hydraulic cylinder with a working chamber , to which pressurized hydraulic fluid can be admitted to change the lifting position of a lower arm comprised by the hydraulic three-point hitch , and also first and second seat valves communicating with the working chamber , the first seat valve being designed for producing a flow connection to a high-pressure source and the second seat valve being designed for producing a return connection to a hydraulic reservoir , characterized in that it involves a double-acting hydraulic cylinder with a further working chamber , which is connected to a control valve arrangement by means of which a specified target pressure can be set in the further working chamber .
A method comprising: operating a swarm of autonomous vehicles to maximize a number of intercepted targets, wherein, for each of said autonomous vehicles, the method comprises: identifying a plurality of objects in an operational area as targets or obstacles ; determining a location parameter for each of said plurality of objects; calculating a trajectory of motion for said autonomous vehicle based at least in part on said location parameters of each of said plurality of objects, wherein said calculating maximizes: (i) a probability of intercepting each of said targets, and (ii) a probability of avoiding collisions with each of said obstacles; and moving said autonomous vehicle along said trajectory of motion, wherein said calculating is performed by each of said autonomous vehicles separately of all other said autonomous vehicles in said swarm of autonomous vehicles. identifying a plurality of objects in an operational area as targets or obstacles ; determining a location parameter for each of said plurality of objects; calculating a trajectory of motion for said autonomous vehicle based at least in part on said location parameters of each of said plurality of objects, wherein said calculating maximizes: (i) a probability of intercepting each of said targets, and (ii) a probability of avoiding collisions with each of said obstacles; and (i) a probability of intercepting each of said targets, and (ii) a probability of avoiding collisions with each of said obstacles; and moving said autonomous vehicle along said trajectory of motion, wherein said calculating is performed by each of said autonomous vehicles separately of all other said autonomous vehicles in said swarm of autonomous vehicles.