mhurhangee/patent-ind-claim-en huggingface dataset:
A method for correcting a travelling trajectory of a vehicle which is executed by a control device having a function for realizing a correction of the traveling trajectory when detecting a lane by a sensor provided for a subject vehicle is impossible or difficult, the method comprising: acquiring (S101) map information including information of a fictitious lane from a database ; calculating a travelling trajectory of the subject vehicle to be a target trajectory when the subject vehicle travels on a subject vehicle travelling route based on the map information; detecting (S103) a position of another vehicle travelling on the fictitious lane located in a width direction of the subject vehicle by the sensor ; calculating (S106, S109) an offset of the position of the other vehicle in another vehicle lane, which is the fictitious lane, that the other vehicle travels based on the position of the other vehicle; and correcting (S112) the travelling trajectory of the subject vehicle in accordance with the offset. acquiring (S101) map information including information of a fictitious lane from a database ; calculating a travelling trajectory of the subject vehicle to be a target trajectory when the subject vehicle travels on a subject vehicle travelling route based on the map information; detecting (S103) a position of another vehicle travelling on the fictitious lane located in a width direction of the subject vehicle by the sensor ; calculating (S106, S109) an offset of the position of the other vehicle in another vehicle lane, which is the fictitious lane, that the other vehicle travels based on the position of the other vehicle; and correcting (S112) the travelling trajectory of the subject vehicle in accordance with the offset.
A method for providing conditional access by a drone to an area of restricted air space, in the following restricted area , the method being characterised by : receiving , by the drone, from a server , conditional access information associated with conditional access restrictions for the restricted area; comparing, by the drone, the received conditional access information for the restricted area to one or more access parameters for the drone; and accessing the restricted area by the drone based on comparing the received conditional access information and the one or more access parameters for the drone. receiving , by the drone, from a server , conditional access information associated with conditional access restrictions for the restricted area; comparing, by the drone, the received conditional access information for the restricted area to one or more access parameters for the drone; and accessing the restricted area by the drone based on comparing the received conditional access information and the one or more access parameters for the drone.
Device for lubricating a dynamic medical instrument holder, called PID, , comprising a sterile disposable lubricating set including: - a container containing a pre-dosed quantity of sterile lubricant, said quantity corresponding to the quantity required for the lubrication of a single PID , - a tubular end piece preformed with a communicating hollow core and comprising two ends, the first end of said end piece attaching to an open end of said PID in such a way as to allow the flow of the lubricant to the PID , the container being preformed with one end forming a neck and the second end of said end piece is preformed so that the end forming a neck of said container fits by friction into said end piece . - a container containing a pre-dosed quantity of sterile lubricant, said quantity corresponding to the quantity required for the lubrication of a single PID , - a tubular end piece preformed with a communicating hollow core and comprising two ends,
A spray nozzle comprising: a nozzle seat having a liquid inlet and an expansion cavity in fluid communication with the liquid inlet , the expansion cavity terminating at a downstream end wall ; a nozzle body having a generally hollow cylindrical configuration defining an internal circumferential surface; and an internal nozzle core arranged within the nozzle body , said nozzle core including a teardrop shaped pintle having an upstream end section adjacent to the upstream end wall of the expansion cavity, a radially outward curved section adjacent to the upstream end section and a radially inwardly tapered conical terminal end section , an annular discharge passage being defined between an outer surface of the pintle and the internal circumferential surface of the nozzle body that is in fluid communication with the expansion cavity of the nozzle seat; characterized by the annular discharge passage including an expansion section defined by the radially inwardly tapered conical terminal end section , wherein the expansion section has a cross-sectional area that progressively increases as the expansion section extends in the downstream direction. a nozzle seat having a liquid inlet and an expansion cavity in fluid communication with the liquid inlet , the expansion cavity terminating at a downstream end wall ; a nozzle body having a generally hollow cylindrical configuration defining an internal circumferential surface; and an internal nozzle core arranged within the nozzle body , said nozzle core including a teardrop shaped pintle having an upstream end section adjacent to the upstream end wall of the expansion cavity, a radially outward curved section adjacent to the upstream end section and a radially inwardly tapered conical terminal end section , an annular discharge passage being defined between an outer surface of the pintle and the internal circumferential surface of the nozzle body that is in fluid communication with the expansion cavity of the nozzle seat; characterized by the annular discharge passage including an expansion section defined by the radially inwardly tapered conical terminal end section , wherein the expansion section has a cross-sectional area that progressively increases as the expansion section extends in the downstream direction.
A filtration device comprising a first and a second support plate, wherein the first and second support plates are formed of polyvinylidene fluoride, the first and second support plates each having a first surface facing each other and a second surface opposite the first surface of each support plate, the first and second support plates each having at least one port formed from the first surface to the second surface of each support plate respectively, wherein the first surface of the first support plate is heat bonded to a porous membrane selected from the group consisting of polysulfone, polyethersulfone, blends thereof and copolymers thereof and the first surface of the first support plate is heat bonded to the first surface of the second support plate around a periphery of the first surface, wherein the periphery is an area outside of the area where the first surface of the first support plate is heat bonded to the porous membrane, thereby providing an integrally sealed porous membrane to the first support plate and a liquid tight integrally sealed second support plate to the first support plate.
A method for wireless communication at user equipment, UE, comprising: receiving a first uplink configured grant configuration corresponding to a first value of a control resource set pool index; receiving a second uplink configured grant configuration corresponding to a second value of the control resource set pool index different from the first value of the control resource set pool index; and transmitting a first uplink transmission during a first uplink grant occasion according to the first uplink configured grant configuration and a second uplink transmission during a second uplink grant occasion according to the second uplink configured grant configuration, wherein both the first uplink transmission and the second uplink transmission correspond to a same transport block and hybrid automatic repeat request identifier. receiving a first uplink configured grant configuration corresponding to a first value of a control resource set pool index; receiving a second uplink configured grant configuration corresponding to a second value of the control resource set pool index different from the first value of the control resource set pool index; and transmitting a first uplink transmission during a first uplink grant occasion according to the first uplink configured grant configuration and a second uplink transmission during a second uplink grant occasion according to the second uplink configured grant configuration, wherein both the first uplink transmission and the second uplink transmission correspond to a same transport block and hybrid automatic repeat request identifier.
A base station comprising: a receiver configured to receive, from each of a plurality of wireless communication terminals, an association request frame containing usage request information of resource blocks wherein the usage request information includes at least one set of: a smallest resource block number or a largest resource block number of consecutive resource blocks to request to be allocated; and resource block width information specifying a number or bandwidth of the consecutive resource blocks; controlling circuitry configured to allocate two or more consecutive resource blocks to each of the wireless communication terminals based on the usage request information; a transmitter configured to transmit an association response frame containing allocation information specifying the resource blocks allocated to each of the wireless communication terminals wherein the allocation information includes at least one set of: a smallest resource block number or a largest resource block number of consecutive resource blocks having been allocated; and resource block width information specifying a number or bandwidth of the consecutive resource blocks having been allocated; and wherein the transmitter is configured to transmit data frames to the wireless communication terminals simultaneously via the resource blocks specified in the allocation information, the receiver is configured to receive acknowledgement frames from the wireless communication terminals simultaneously via the resource blocks specified in the allocation information in response to the data frames. a receiver configured to receive, from each of a plurality of wireless communication terminals, an association request frame containing usage request information of resource blocks wherein the usage request information includes at least one set of: a smallest resource block number or a largest resource block number of consecutive resource blocks to request to be allocated; and resource block width information specifying a number or bandwidth of the consecutive resource blocks; controlling circuitry configured to allocate two or more consecutive resource blocks to each of the wireless communication terminals based on the usage request information; a transmitter configured to transmit an association response frame containing allocation information specifying the resource blocks allocated to each of the wireless communication terminals wherein the allocation information includes at least one set of: a smallest resource block number or a largest resource block number of consecutive resource blocks having been allocated; and resource block width information specifying a number or bandwidth of the consecutive resource blocks having been allocated; and wherein the transmitter is configured to transmit data frames to the wireless communication terminals simultaneously via the resource blocks specified in the allocation information, the receiver is configured to receive acknowledgement frames from the wireless communication terminals simultaneously via the resource blocks specified in the allocation information in response to the data frames.
A semiconductor device comprising: a plurality of bus masters ; a plurality of buses which are coupled to the bus masters, respectively; a plurality of memories (151,152,153,154,155 each of which is coupled to at least any of the plurality of buses and each including at least one storage region; a control device for controlling an access from each of the bus masters to any of the plurality of memories via the bus coupled to the bus master; and characterized in further comprising a storage device for storing a management table holding a corresponding relation among identification information identifying each of the storage regions, a group to which said storage region belongs, and a use state of said storage region, and storing an application program , wherein the control device is adapted, upon receipt, from the application program, of an instruction of assuring a storage region to be used by one of the plurality of bus masters and designating a group (S310,S710), to specify (S715) one or more storage regions belonging to the designated group by referring to the management table, assure (S760,S770,S790,S795) a storage region from the specified one or more storage regions on the basis of the use state of the storage region held in the management table, and output (S340) address information for accessing the assured storage region to the application program. a plurality of bus masters ; a plurality of buses which are coupled to the bus masters, respectively; a plurality of memories (151,152,153,154,155 each of which is coupled to at least any of the plurality of buses and each including at least one storage region; a control device for controlling an access from each of the bus masters to any of the plurality of memories via the bus coupled to the bus master; and characterized in further comprising a storage device for storing a management table holding a corresponding relation among identification information identifying each of the storage regions, a group to which said storage region belongs, and a use state of said storage region, and storing an application program , wherein the control device is adapted, upon receipt, from the application program, of an instruction of assuring a storage region to be used by one of the plurality of bus masters and designating a group (S310,S710), to specify (S715) one or more storage regions belonging to the designated group by referring to the management table, assure (S760,S770,S790,S795) a storage region from the specified one or more storage regions on the basis of the use state of the storage region held in the management table, and output (S340) address information for accessing the assured storage region to the application program.
Dressing for negative pressure therapy comprising a multi-layer structure comprising a first layer and a second layer , linked together by their respective perimeter edges, wherein the first layer consists of a lamellar body comprising: - a first inner face , intended to be inward facing and facing the second layer ; - a first outer face , intended to face outwards; and - a plurality of first through holes allowing fluid to pass through; being the dressing characterized in that the second layer comprises two lamellar bodies solidly linked together, each of which comprises a plurality of second through holes allowing the passage of fluid, and a plurality of tubular elements arranged between the lamellar bodies , and inside which a pressurized gaseous fluid is housed and maintained, wherein the first layer and the second layer overlap each other so that the first and second through holes face each other, creating channels that allow the passage of negative pressure between two opposite sides of the dressing. - a first inner face , intended to be inward facing and facing the second layer ; - a first outer face , intended to face outwards; and - a plurality of first through holes allowing fluid to pass through; being the dressing characterized in that the second layer comprises two lamellar bodies solidly linked together, each of which comprises a plurality of second through holes allowing the passage of fluid, and a plurality of tubular elements arranged between the lamellar bodies , and inside which a pressurized gaseous fluid is housed and maintained, wherein the first layer and the second layer overlap each other so that the first and second through holes face each other, creating channels that allow the passage of negative pressure between two opposite sides of the dressing.
A hollow trawl door, said hollow trawl door having one or more chambers and an airfoil cross-section, comprising - a first side panel having a curvature forming a back surface, - a second side panel having a curvature forming a front surface, - an upper panel forming a top of the trawl door and a bottom panel forming a bottom of the trawl door, and - a reinforcing pipe along the leading edge of the airfoil and a reinforcing bar along the trailing edge of the airfoil to increase the strength of the hollow trawl door, wherein the first side panel and second side panel are connected at a leading edge and at a trailing edge of the airfoil, and wherein the trawl door comprises one or more openings to allow water to flow in and out of the one or more chambers of the trawl door. - a first side panel having a curvature forming a back surface, - a second side panel having a curvature forming a front surface, - an upper panel forming a top of the trawl door and a bottom panel forming a bottom of the trawl door, and - a reinforcing pipe along the leading edge of the airfoil and a reinforcing bar along the trailing edge of the airfoil to increase the strength of the hollow trawl door,
A medical wrap assembly, comprising: a foldable wrap body including a front surface, the front surface configured to define a sterile field; a component placement area disposed on the front surface of the wrap body and configured for the placement thereon of a plurality of medical components, the medical components arranged in a predetermined order of use for a medical procedure; and at least one folded edge included on the wrap body , the at least one folded edge configured to retain the medical components on the front surface of the wrap body , wherein the at least one folded edge includes a compound-folded S-shaped cross-sectional configuration. a foldable wrap body including a front surface, the front surface configured to define a sterile field; a component placement area disposed on the front surface of the wrap body and configured for the placement thereon of a plurality of medical components, the medical components arranged in a predetermined order of use for a medical procedure; and at least one folded edge included on the wrap body , the at least one folded edge configured to retain the medical components on the front surface of the wrap body , wherein the at least one folded edge includes a compound-folded S-shaped cross-sectional configuration.
A cultivation substrate with integrated irrigation, in particular for planting roofs, the substrate comprising a first layer of plant-material fibres, at least one fluid-supply pipe , a layer for reinforcing and holding said at least one pipe, and a second layer of plant-material fibres, the first and second layers being connected by carding; characterised in that the reinforcing and holding layer is a net.
A refrigeration cycle apparatus comprising: a compressor configured to compress refrigerant; a condenser configured to condense the refrigerant output from the compressor; an expansion valve configured to decompress the refrigerant output from the condenser; an evaporator configured to evaporate the refrigerant output from the expansion valve for output to the compressor; a pressure sensor configured to detect a pressure of the refrigerant at an outlet of the evaporator ; a temperature sensor configured to detect a temperature of the refrigerant at the outlet of the evaporator ; characterized by a controller configured to calculate a degree of superheat of the refrigerant output from the evaporator to the compressor based on detection values by the pressure sensor and the temperature sensor , and execute control for increasing the degree of superheat, and then to stop the compressor; a bypass pipe connecting a first pipe and a second pipe , the first pipe being configured to supply the refrigerant output from the compressor to the condenser, the second pipe being configured to supply the refrigerant output from the expansion valve to the evaporator; and an adjusting valve provided in the bypass pipe, wherein the control comprises control for switching the adjusting valve from a closed state to an open state. a compressor configured to compress refrigerant; a condenser configured to condense the refrigerant output from the compressor; an expansion valve configured to decompress the refrigerant output from the condenser; an evaporator configured to evaporate the refrigerant output from the expansion valve for output to the compressor; a pressure sensor configured to detect a pressure of the refrigerant at an outlet of the evaporator ; a temperature sensor configured to detect a temperature of the refrigerant at the outlet of the evaporator ; characterized by a controller configured to calculate a degree of superheat of the refrigerant output from the evaporator to the compressor based on detection values by the pressure sensor and the temperature sensor , and execute control for increasing the degree of superheat, and then to stop the compressor; calculate a degree of superheat of the refrigerant output from the evaporator to the compressor based on detection values by the pressure sensor and the temperature sensor , and execute control for increasing the degree of superheat, and then to stop the compressor; a bypass pipe connecting a first pipe and a second pipe , the first pipe being configured to supply the refrigerant output from the compressor to the condenser, the second pipe being configured to supply the refrigerant output from the expansion valve to the evaporator; and an adjusting valve provided in the bypass pipe, wherein the control comprises control for switching the adjusting valve from a closed state to an open state.
A composition comprising - at least 60 wt.% aromatic polycarbonate and at most 40 wt.% of polyester comprising poly(butylene terephthalate), based on the combined amounts of aromatic polycarbonate and polyester - from 1 - 10 wt.% of impact modifier, based on the weight of the composition, wherein - the composition comprises the aromatic polycarbonate and the polyester - the aromatic polycarbonate has an endcap level of at least 75 mol%, preferably at least 80 mol% - the aromatic polycarbonate comprises melt polycarbonate, - the endcap level is determined in accordance with the method set out in the description. - at least 60 wt.% aromatic polycarbonate and at most 40 wt.% of polyester comprising poly(butylene terephthalate), based on the combined amounts of aromatic polycarbonate and polyester - from 1 - 10 wt.% of impact modifier, based on the weight of the composition, - the composition comprises the aromatic polycarbonate and the polyester - the aromatic polycarbonate has an endcap level of at least 75 mol%, preferably at least 80 mol% - the aromatic polycarbonate comprises melt polycarbonate, - the endcap level is determined in accordance with the method set out in the description.