mhurhangee/patent-ind-claim-en huggingface dataset:
A base station comprising: a memory configured to store a plurality of instructions; and a processor coupled to the memory and configured to execute the instructions to: transmit a transmission configuration via a physical downlink control channel, PDCCH, the transmission configuration indicating whether a random access channel, RACH, resource is available via transmission direction, wherein: t he RACH resource is semi-statically configured via a RACH configuration, and the RACH resource includes a time resource and a frequency resource, t he RACH resource spans a plurality of symbols within a slot, and t he processor is further configured to determine that the RACH resource is available when the transmission direction of all of the symbols where the RACH resource is located is an uplink direction. a memory configured to store a plurality of instructions; and a processor coupled to the memory and configured to execute the instructions to: transmit a transmission configuration via a physical downlink control channel, PDCCH, the transmission configuration indicating whether a random access channel, RACH, resource is available via transmission direction, wherein: t he RACH resource is semi-statically configured via a RACH configuration, and the RACH resource includes a time resource and a frequency resource, t he RACH resource spans a plurality of symbols within a slot, and t he processor is further configured to determine that the RACH resource is available when the transmission direction of all of the symbols where the RACH resource is located is an uplink direction. t he RACH resource is semi-statically configured via a RACH configuration, and the RACH resource includes a time resource and a frequency resource, t he RACH resource spans a plurality of symbols within a slot, and t he processor is further configured to determine that the RACH resource is available when the transmission direction of all of the symbols where the RACH resource is located is an uplink direction.
A self-rotating device (1; 101) comprises: a light transmissive outer container having an internal cavity shaped and dimensioned to contain an amount of a fluid (6; 106; 206) and a self-powered hollow rotating body (4; 104; 204) immersed in said fluid (6; 106; 206); wherein said outer container is sealed; further comprising said fluid and said body (4; 104; 204) which comprises: an outer wall (9; 109; 209) substantially impermeable to said fluid; a top shell (11; 111) and a bottom shell (12; 112) joined along a seam (13; 113) by a bond; an inner chamber (26, 27; 127; 227); at least one conduit (31; 131; 231) passing through said outer wall (9; 109; 209) and defining a fluid passageway in fluid communication between said cavity and said inner chamber (27; 127; 227); and a portion of said fluid (6; 106; 206) located in said inner chamber (27; 127; 227), and an amount of a gas (38; 138) in said inner chamber (27; 127; 227), wherein said at least one conduit comprises a gap between said top shell and said bottom shell along said seam , wherein said gap is formed by an absence of said bond. a light transmissive outer container having an internal cavity shaped and dimensioned to contain an amount of a fluid (6; 106; 206) and a self-powered hollow rotating body (4; 104; 204) immersed in said fluid (6; 106; 206); wherein said outer container is sealed; further comprising said fluid and said body (4; 104; 204) which comprises: an outer wall (9; 109; 209) substantially impermeable to said fluid; a top shell (11; 111) and a bottom shell (12; 112) joined along a seam (13; 113) by a bond; an inner chamber (26, 27; 127; 227); at least one conduit (31; 131; 231) passing through said outer wall (9; 109; 209) and defining a fluid passageway in fluid communication between said cavity and said inner chamber (27; 127; 227); and a portion of said fluid (6; 106; 206) located in said inner chamber (27; 127; 227), and an amount of a gas (38; 138) in said inner chamber (27; 127; 227), an outer wall (9; 109; 209) substantially impermeable to said fluid; a top shell (11; 111) and a bottom shell (12; 112) joined along a seam (13; 113) by a bond; an inner chamber (26, 27; 127; 227); at least one conduit (31; 131; 231) passing through said outer wall (9; 109; 209) and defining a fluid passageway in fluid communication between said cavity and said inner chamber (27; 127; 227); and a portion of said fluid (6; 106; 206) located in said inner chamber (27; 127; 227), and an amount of a gas (38; 138) in said inner chamber (27; 127; 227), wherein said at least one conduit comprises a gap between said top shell and said bottom shell along said seam , wherein said gap is formed by an absence of said bond.
Air conditioning device for conditioning an air stream conducted in a supply air duct for climate control in a room, wherein the supply air duct has an inlet-side end and an outlet-side end and a nozzle block arranged therebetween for humidifying the air stream as required, characterized in that - a main heat exchanger , designed such that the air stream can flow therethrough, is arranged in the supply air duct downstream of the nozzle block , and connections are provided for passing through said main heat exchanger a heating fluid and/or cooling fluid coming respectively from a heat source and/or cold source , - wherein a pre-heat exchanger , which is operatively connected to a heat recovery device , is arranged in the supply air duct between the inlet-side end and the nozzle block , and - wherein a switching element , in particular one or more multiway valves, is provided, by which the energy obtained from the heat recovery device can optionally be supplied to the main heat exchanger and/or to the pre-heat exchanger . - a main heat exchanger , designed such that the air stream can flow therethrough, is arranged in the supply air duct downstream of the nozzle block , and connections are provided for passing through said main heat exchanger a heating fluid and/or cooling fluid coming respectively from a heat source and/or cold source , - wherein a pre-heat exchanger , which is operatively connected to a heat recovery device , is arranged in the supply air duct between the inlet-side end and the nozzle block , and - wherein a switching element , in particular one or more multiway valves, is provided, by which the energy obtained from the heat recovery device can optionally be supplied to the main heat exchanger and/or to the pre-heat exchanger .
An isolated nucleic acid sequence encoding: (a) a polypeptide comprising a CDR3 of a TCR α chain polypeptide that specifically binds to CLAVEEVSL (SEQ ID NO:1); and/or (b) a polypeptide comprising a CDR3 of a TCR β chain polypeptide that specifically binds to CLAVEEVSL (SEQ ID NO:1). (a) a polypeptide comprising a CDR3 of a TCR α chain polypeptide that specifically binds to CLAVEEVSL (SEQ ID NO:1); and/or (b) a polypeptide comprising a CDR3 of a TCR β chain polypeptide that specifically binds to CLAVEEVSL (SEQ ID NO:1).
A vane inlet device for use in a vessel to receive and redistribute a fluid stream entering the vessel, said vane inlet device comprising: a passageway bounded by a top plate and a bottom plate spaced from the top plate, said passageway having an inlet end for receiving the fluid stream when it enters the vessel, an opposite end, and first and second sides; a first array of vanes positioned in spaced apart relationship to each other along said first side of the passageway for receiving a first portion of said fluid stream when flowing from the inlet end of the passageway toward the opposite end and redirecting it out said first side of the passageway; a second array of vanes positioned in spaced apart relationship to each other along said second side of the passageway for receiving a second portion of said fluid stream when flowing from the inlet end of the passageway toward the opposite end and redirecting it out said second side of the passageway, wherein a spacing between the first array of vanes and the second array of vanes progressively decreases in a direction from the inlet end of the passageway toward the opposite end; and a beam extending from the top plate to the bottom plate between said first and second arrays of vanes to reduce flexure of the top and bottom plates. a passageway bounded by a top plate and a bottom plate spaced from the top plate, said passageway having an inlet end for receiving the fluid stream when it enters the vessel, an opposite end, and first and second sides; a first array of vanes positioned in spaced apart relationship to each other along said first side of the passageway for receiving a first portion of said fluid stream when flowing from the inlet end of the passageway toward the opposite end and redirecting it out said first side of the passageway; a second array of vanes positioned in spaced apart relationship to each other along said second side of the passageway for receiving a second portion of said fluid stream when flowing from the inlet end of the passageway toward the opposite end and redirecting it out said second side of the passageway, wherein a spacing between the first array of vanes and the second array of vanes progressively decreases in a direction from the inlet end of the passageway toward the opposite end; and a beam extending from the top plate to the bottom plate between said first and second arrays of vanes to reduce flexure of the top and bottom plates.
A reference signal transmission method for a multi-user MIMO communication system, comprising: generating (S101), by a network side device, a transmission unit, wherein the transmission unit comprises a shared demodulation reference signal, shared DM-RS, specific to a user group and time-frequency regions with a physical layer function, the user group comprises more than one user equipment, and no precoding is performed on the shared DM-RS or same precoding is performed on the shared DM-RS for user equipments in the user group, so that a same DM-RS symbol is reused or shared for reducing overheads of the shared DM-RS; sending (S102) the transmission unit to the user group, so that all users in the user group demodulate more than one of the time-frequency regions with a physical layer function by using the shared DM-RS, wherein the time-frequency regions with a physical layer function comprise any combination of the following time-frequency regions: a time-frequency region for shared control, a time-frequency region for unicast control, a time-frequency region for physical control format indication, or a time-frequency region for data multicast/broadcast, and allocating one or more shared DM-RS ports to the user group, wherein at least some of the shared DM-RS ports are reused or shared to demodulate at least two of the time-frequency regions with a physical layer function. generating (S101), by a network side device, a transmission unit, wherein the transmission unit comprises a shared demodulation reference signal, shared DM-RS, specific to a user group and time-frequency regions with a physical layer function, the user group comprises more than one user equipment, and no precoding is performed on the shared DM-RS or same precoding is performed on the shared DM-RS for user equipments in the user group, so that a same DM-RS symbol is reused or shared for reducing overheads of the shared DM-RS; sending (S102) the transmission unit to the user group, so that all users in the user group demodulate more than one of the time-frequency regions with a physical layer function by using the shared DM-RS, wherein the time-frequency regions with a physical layer function comprise any combination of the following time-frequency regions: a time-frequency region for shared control, a time-frequency region for unicast control, a time-frequency region for physical control format indication, or a time-frequency region for data multicast/broadcast, and allocating one or more shared DM-RS ports to the user group, wherein at least some of the shared DM-RS ports are reused or shared to demodulate at least two of the time-frequency regions with a physical layer function.
An apparatus, comprising: a body of pre-vapor formulation configured to be contained within a reservoir , the pre-vapor formulation being a gel formulation; and a surface heater including a wire in contact with a surface of the body of gel formulation , the surface heater being configured to heat the body of gel formulation to form a vapor. a body of pre-vapor formulation configured to be contained within a reservoir , the pre-vapor formulation being a gel formulation; and a surface heater including a wire in contact with a surface of the body of gel formulation , the surface heater being configured to heat the body of gel formulation to form a vapor.
A process for the preparation of ethylene homopolymers or copolymers in a facility, the facility comprising a high-pressure tubular reactor used in a continuous flow mode with a reaction fluid comprising or consisting of ethylene being introduced into the reactor at a reactor inlet and polymer leaving the reactor at a reactor outlet and the facility further comprising a preheater having an inlet and an outlet, wherein the process comprises the following steps: a) compressing the reaction fluid to an elevated pressure; b) heating at least a portion of the reaction fluid in the preheater; c) introducing the reaction fluid heated in step b) into the reactor at the reactor inlet; and d) polymerizing the reaction fluid at the elevated pressure in the presence of free-radical polymerization initiators in the reactor, wherein the average velocity of the reaction fluid at the outlet of the preheater is lower than the average velocity of the reaction fluid in the tubular reactor at the reactor inlet and the ratio of the average velocity of the reaction fluid in the tubular reactor at the reactor inlet to the average velocity of the reaction fluid in the preheater at the outlet of the preheater is in the range from 1.5 to 5. a) compressing the reaction fluid to an elevated pressure; b) heating at least a portion of the reaction fluid in the preheater; c) introducing the reaction fluid heated in step b) into the reactor at the reactor inlet; and d) polymerizing the reaction fluid at the elevated pressure in the presence of free-radical polymerization initiators in the reactor,
A sheath comprising: an inner liner , an outer layer , at least one spaghetti tube, at least one pullwire , and at least one electrical trace ; wherein the inner liner comprises an inner wall, and wherein the inner wall defines a central major lumen extending through the sheath along a longitudinal axis; wherein the at least one spaghetti tube defines a minor lumen (38 1 , 38 2 ), wherein the at least one pullwire is disposed within the minor lumen (38 1 , 38 2 ), and wherein the at least one spaghetti tube is coupled to an exterior wall of the inner liner ; at least one electrode coupled to a distal portion of said sheath , wherein the at least one electrode is electrically coupled to at least one electrical trace , wherein the at least one electrical trace is disposed within the outer layer , characterised by a tracing support placed over and around and coupled to the exterior of the sheath for supporting the at least one electrical trace and the at least one electrode . an inner liner , an outer layer , at least one spaghetti tube, at least one pullwire , and at least one electrical trace ; wherein the inner liner comprises an inner wall, and wherein the inner wall defines a central major lumen extending through the sheath along a longitudinal axis; wherein the at least one spaghetti tube defines a minor lumen (38 1 , 38 2 ), wherein the at least one pullwire is disposed within the minor lumen (38 1 , 38 2 ), and wherein the at least one spaghetti tube is coupled to an exterior wall of the inner liner ; at least one electrode coupled to a distal portion of said sheath , wherein the at least one electrode is electrically coupled to at least one electrical trace , wherein the at least one electrical trace is disposed within the outer layer , characterised by a tracing support placed over and around and coupled to the exterior of the sheath for supporting the at least one electrical trace and the at least one electrode .
A positive airway pressure device (2; 602; 802; 902; 4002), comprising: a casing (5; 605; 805; 4005); and a blower (10; 610; 4010) provided within the casing, the casing including at least first (6 , 606 , 806 , 4006 ) and second (6 , 606 , 806 , 4006 ) chambers and a plurality of flow conduits (105; 607; 807; 907; 4007-1) that allow air to pass from the first chamber to the second chamber, each flow conduit extending from the first chamber to the second chamber, the plurality of flow conduits arranged to provide acoustic impedance and flow measurement by providing a defined pressure drop. a casing (5; 605; 805; 4005); and a blower (10; 610; 4010) provided within the casing, the casing including at least first (6 , 606 , 806 , 4006 ) and second (6 , 606 , 806 , 4006 ) chambers and a plurality of flow conduits (105; 607; 807; 907; 4007-1) that allow air to pass from the first chamber to the second chamber, each flow conduit extending from the first chamber to the second chamber, the plurality of flow conduits arranged to provide acoustic impedance and flow measurement by providing a defined pressure drop.
Tube-type sedimentation system , having a shaft that is accessible from above and having a horizontally arranged sedimentation chamber that is designed in the form of a tube, an inlet hole that is disposed inside the shaft and and that opens out into the sedimentation chamber near a first end of the sedimentation chamber and having an outlet hole that is disposed near to a second end of the sedimentation chamber in the upper circumferential half of the sedimentation chamber , characterised in that a pre-chamber that incorporates an untreated-water inlet and is separated from the sedimentation chamber by a partition wall is disposed upstream of the sedimentation chamber , where a flow channel extends over the partition wall to the inlet hole of the sedimentation chamber and the inlet hole can be optionally closed by means of a flap and where the flap is provided with a float in such a way that, if the water level rises, the flap automatically takes up its closed position. having a shaft that is accessible from above and having a horizontally arranged sedimentation chamber that is designed in the form of a tube, an inlet hole that is disposed inside the shaft and and that opens out into the sedimentation chamber near a first end of the sedimentation chamber and having an outlet hole that is disposed near to a second end of the sedimentation chamber in the upper circumferential half of the sedimentation chamber , characterised in that a pre-chamber that incorporates an untreated-water inlet and is separated from the sedimentation chamber by a partition wall is disposed upstream of the sedimentation chamber , where a flow channel extends over the partition wall to the inlet hole of the sedimentation chamber and the inlet hole can be optionally closed by means of a flap and where the flap is provided with a float in such a way that, if the water level rises, the flap automatically takes up its closed position.
A unitary dispensing nozzle for co-injecting two or more liquids, comprising: (a) a first end ; (b) a second, opposite end ; (c) one or more sidewalls between said first and second ends ; (d) one or more first flow passages for flowing a first fluid through said nozzle , wherein each of said first flow passages is defined by a first inlet and a first outlet , wherein said first inlet(s) is/are located at the first end of said nozzle , and wherein said first outlet(s) is/are located at the second end of said nozzle ; and (e) one or more second flow passages for flowing a second fluid through said nozzle , where said second fluid is different from said first fluid in viscosity, solubility, and/or miscibility, wherein each of said second flow passages is defined by a second inlet and a second outlet , wherein said second outlet(s) is/are substantially surrounded by said first outlet(s) and located at the second end of said nozzle wherein said unitary dispensing nozzle is an integral piece free of any movable parts and substantially free of dead space, characterized in that said second inlet(s) is/are located on or near at least one of said sidewalls so that said one or more second flow passages extend through said at least one of the sidewalls and the second end of said nozzle . (a) a first end ; (b) a second, opposite end ; (c) one or more sidewalls between said first and second ends ; (d) one or more first flow passages for flowing a first fluid through said nozzle , wherein each of said first flow passages is defined by a first inlet and a first outlet , wherein said first inlet(s) is/are located at the first end of said nozzle , and wherein said first outlet(s) is/are located at the second end of said nozzle ; and (e) one or more second flow passages for flowing a second fluid through said nozzle , where said second fluid is different from said first fluid in viscosity, solubility, and/or miscibility, wherein each of said second flow passages is defined by a second inlet and a second outlet , wherein said second outlet(s) is/are substantially surrounded by said first outlet(s) and located at the second end of said nozzle wherein said unitary dispensing nozzle is an integral piece free of any movable parts and substantially free of dead space, characterized in that said second inlet(s) is/are located on or near at least one of said sidewalls so that said one or more second flow passages extend through said at least one of the sidewalls and the second end of said nozzle .
A compound according to formula (I) wherein A is selected from the group consisting of phenyl, thienophenyl, benzothiophenyl and benzofuranyl, unsubstituted or substituted with one or two members of the group R 1 selected from -CN, halogen, C 1-4 -alkyl, O-C 1-4 -alkyl, C 1-4 -fluoroalkyl, O-C 1-4 -fluoroalkyl, C 3-4 -cycloalkyl, O-C 3-4 -cycloalkyl, C 3-4 -cyclofluoroalkyl and O-C 3-4 -cyclofluoroalkyl.
A portable hairdressing appliance comprising an on-board blower module for generating an air flow, and a manual grip handle extended by a blowing head , said blowing head being provided with at least one first air outlet and one second air outlet , said first and second air outlets being distinct and having openings of different geometries, said blowing head being rotatably mounted relative to the handle , between at least one first position in which said air flow is blown by the blowing head via said first air outlet and a second position in which said air flow is blown by the blowing head via said second air outlet , the appliance further comprising a heating element designed to raise the temperature of said air flow generated by the blower module , said heating element being arranged within said handle or said blowing head , and an electronic module designed to control the operation of said blower module and/or said heating element , characterized in that the electronic module is arranged within said blowing head .