mhurhangee/ep-ind-claims huggingface dataset:
A method for activating or deactivating a carrier, comprising: receiving, by a user equipment, a High Speed Shared Control Channel, HS-SCCH, order transmitted by a base station, wherein the HS-SCCH order carries indication information, the indication information comprises three bits x ord,1, x ord,2, and x ord,3, wherein x ord,1 is 0 or 1, the indication information is used to indicate activation or deactivation of at least one secondary carrier for communication between the user equipment and the base station; characterized in that the method further comprises: determining, by the user equipment, x ord,1 =0 no matter whether the value of x ord,1 in the received HS-SCCH order is 1 or 0, updating an activation or deactivation state of the at least one secondary carrier according to the determined three bits x ord,1, x ord,2, and x ord,3. receiving, by a user equipment, a High Speed Shared Control Channel, HS-SCCH, order transmitted by a base station, wherein the HS-SCCH order carries indication information, the indication information comprises three bits x ord,1, x ord,2, and x ord,3, wherein x ord,1 is 0 or 1, the indication information is used to indicate activation or deactivation of at least one secondary carrier for communication between the user equipment and the base station; characterized in that the method further comprises: determining, by the user equipment, x ord,1 =0 no matter whether the value of x ord,1 in the received HS-SCCH order is 1 or 0, updating an activation or deactivation state of the at least one secondary carrier according to the determined three bits x ord,1, x ord,2, and x ord,3. determining, by the user equipment, x ord,1 =0 no matter whether the value of x ord,1 in the received HS-SCCH order is 1 or 0, updating an activation or deactivation state of the at least one secondary carrier according to the determined three bits x ord,1, x ord,2, and x ord,3.
A biodegradable trehalose co-polymer, wherein the co-polymer consists of the general structure: R 5 -[R 1 R 2 C-CR 3 R 4] n - m -R 6, wherein R 1 -R 4 are independently selected from hydrogen or a side chain comprising at least one carbon atom, and wherein at least one of R 1 -R 4 is a side chain comprising -L-trehalose, wherein L is a linker molecule that links trehalose to the monomer through at least one of the trehalose hydroxyl groups (-OH), wherein DG is a biodegradable group, and wherein R 5 and R 6 are end groups. wherein R 1 -R 4 are independently selected from hydrogen or a side chain comprising at least one carbon atom, and wherein at least one of R 1 -R 4 is a side chain comprising -L-trehalose, wherein L is a linker molecule that links trehalose to the monomer through at least one of the trehalose hydroxyl groups (-OH), wherein DG is a biodegradable group, and wherein R 5 and R 6 are end groups.
A communication method comprising: receiving (710; 1210; 1510), by a user equipment, UE, from a network a first radio resource control, RRC, signaling carrying a first set of configuration parameters; monitoring (1230; 1520), by the UE, a first search space for a first downlink control information, DCI, message in accordance with the first set of configuration parameters; receiving (710; 1210; 1510), by the UE, from the network a second RRC signaling carrying a second set of configuration parameters; and monitoring (1230; 1530), by the UE, a second search space for a second DCI message in accordance with the second set of configuration parameters different from the first set of configuration parameters, each of the first set and second set of configuration parameters comprising at least a search space type, a candidate number for one or more aggregation levels and a control resource set, wherein the first DCI message and the second DCI message are associated with a same UE identifier. receiving (710; 1210; 1510), by a user equipment, UE, from a network a first radio resource control, RRC, signaling carrying a first set of configuration parameters; monitoring (1230; 1520), by the UE, a first search space for a first downlink control information, DCI, message in accordance with the first set of configuration parameters; receiving (710; 1210; 1510), by the UE, from the network a second RRC signaling carrying a second set of configuration parameters; and monitoring (1230; 1530), by the UE, a second search space for a second DCI message in accordance with the second set of configuration parameters different from the first set of configuration parameters, each of the first set and second set of configuration parameters comprising at least a search space type, a candidate number for one or more aggregation levels and a control resource set, wherein the first DCI message and the second DCI message are associated with a same UE identifier.
An article of footwear having an upper and a sole structure secured to the upper, the sole structure comprising: a shell having a ground portion and a footbed portion, a periphery of the footbed portion being secured to the ground portion to define a cavity between the ground portion and the footbed portion, the shell being formed from a composite material; a core located within the cavity and substantially filling the cavity, the core being formed from a polymer foam material; and mounting hardware installed in holes of the ground portion and having flange portions that protrude over a part of the inner surface of the ground portion covered by the core. a shell having a ground portion and a footbed portion, a periphery of the footbed portion being secured to the ground portion to define a cavity between the ground portion and the footbed portion, the shell being formed from a composite material; a core located within the cavity and substantially filling the cavity, the core being formed from a polymer foam material; and mounting hardware installed in holes of the ground portion and having flange portions that protrude over a part of the inner surface of the ground portion covered by the core.
A machine-implemented method for enrolling an endpoint device in a secure domain, the method comprising: storing, by a delegated registrar device, an authorizing credential for interacting with a group administrator device that controls membership in the secure domain and group connectivity parameters; in response to an enrollment request originated by an enrollee device, executing, by the DR device, a trust-establishment procedure with the enrollee device to establish initial connectivity and an initial symmetric key to be shared with the enrollee device; and providing, by the DR device, limited-use credentials for group-access key establishment, and the group connectivity parameters, to the enrollee device for interacting with the GA device to perform a group-enrollment procedure, wherein the group connectivity parameters include an address of the GA device; wherein the limited-use credentials include a first token and a second token; wherein the first token is based on session data of the initial connectivity, and on the initial symmetric key; and wherein the second token is based on the session data, and on an authorizing credential that the DR device uses for interacting with the GA device. storing, by a delegated registrar device, an authorizing credential for interacting with a group administrator device that controls membership in the secure domain and group connectivity parameters; in response to an enrollment request originated by an enrollee device, executing, by the DR device, a trust-establishment procedure with the enrollee device to establish initial connectivity and an initial symmetric key to be shared with the enrollee device; and providing, by the DR device, limited-use credentials for group-access key establishment, and the group connectivity parameters, to the enrollee device for interacting with the GA device to perform a group-enrollment procedure, wherein the group connectivity parameters include an address of the GA device; wherein the limited-use credentials include a first token and a second token; wherein the first token is based on session data of the initial connectivity, and on the initial symmetric key; and wherein the second token is based on the session data, and on an authorizing credential that the DR device uses for interacting with the GA device.
Storage system for vehicles, in particular two-wheeled vehicles, bicycles or motorcycles, having: a substantially closed housing with a storage region which is not accessible from the outside and with at least one closable loading and unloading station of the vehicles; a transportation system (3, 4, 5) for conveying the vehicles from the at least one loading and unloading station into the storage region and within the storage region, wherein the vehicles can be stored and conveyed in mutually separate containers. characterized in that each container can be at least partially deployed out of the housing at the at least one loading and unloading station. a substantially closed housing with a storage region which is not accessible from the outside and with at least one closable loading and unloading station of the vehicles; a transportation system (3, 4, 5) for conveying the vehicles from the at least one loading and unloading station into the storage region and within the storage region, wherein the vehicles can be stored and conveyed in mutually separate containers. characterized in that each container can be at least partially deployed out of the housing at the at least one loading and unloading station.
Device for rotating at least one laser processing head about at least one axis, comprising: at least one laser processing head, two tubes (3, 4) which are coaxially arranged inside each other and are mounted such that they can be rotated about a common tube axis which forms the C-axis, and two rotary drives (6, 7) for rotating the two tubes (3, 4) about the common tube axis, wherein a laser beam is guided to the laser processing head via the inner tube, characterized in that the two rotary drives (6, 7) are formed by a double torque motor with two rotors (12a, 12b) which are axially spaced apart from one another and are mounted in a rotatable manner in a common stator housing, and with two magnet coils (13a, 13b) which are arranged in the stator housing and are axially spaced apart from one another. at least one laser processing head, two tubes (3, 4) which are coaxially arranged inside each other and are mounted such that they can be rotated about a common tube axis which forms the C-axis, and two rotary drives (6, 7) for rotating the two tubes (3, 4) about the common tube axis,
A method in a radio network node for reconfiguring mappings from Carrier Indicator Field-values, referred to as "CIF-values", to component carriers, wherein each CIF-value is mapped to a respective component carrier comprising a respective shared data channel, wherein each respective shared data channel is addressed by at least one downlink control channel carrying said each CIF-value, and the component carriers are managed by the radio network node, wherein the radio network node and the user equipment are comprised in a multi-carrier radio communication system, wherein the method comprises reconfiguring mappings from CIF-values to component carriers, while maintaining at least one mapping of CIF-value to component carrier and changing at least one mapping of CIF-value to component carrier transmitted on the component carrier of the maintained at least one mapping to a mapping to another component carrier, wherein the component carrier of the maintained at least one mapping from CIF-value to component carrier comprises said at least one downlink control channel and a shared data channel addressed by said at least one downlink control channel, and sending at least one of the reconfigured mappings from CIF-values to component carriers to the user equipment. reconfiguring mappings from CIF-values to component carriers, while maintaining at least one mapping of CIF-value to component carrier and changing at least one mapping of CIF-value to component carrier transmitted on the component carrier of the maintained at least one mapping to a mapping to another component carrier, wherein the component carrier of the maintained at least one mapping from CIF-value to component carrier comprises said at least one downlink control channel and a shared data channel addressed by said at least one downlink control channel, and sending at least one of the reconfigured mappings from CIF-values to component carriers to the user equipment.
Method for producing a panel, in particular a wall, ceiling or floor panel, comprising the following steps in the order indicated: (a) providing a carrier plate; (b) applying a layer of liquid radiation-curable acrylate which, after curing, has a Martens hardness MS1 determined according to DIN EN ISO 14577; (c) at least partially curing the layer of liquid radiation-curable acrylate applied in step (b) by means of radiation; (d) applying an intermediate layer of liquid radiation-curable acrylate to the at least partially cured layer; (e) applying a further layer S2 of liquid radiation-curable acrylate by means of a film to the previously applied uncured intermediate layer, so that partial mixing of the layers takes place, wherein the further layer is an acrylate which, after curing, has a Martens hardness MS2 determined according to DIN EN ISO 14577 and a thickness of 10 to 180 μm, wherein MS2 > MS1; (f) jointly curing at least the layers applied in steps (d) and (e) by means of radiation, characterised in that the method further comprises: repeating steps (b) and (c) until a first elastic layer S1 having a thickness of 80 to 450 μm is present, and in that MS1 after curing is between 2 and 30 N/mm 2. (a) providing a carrier plate; (b) applying a layer of liquid radiation-curable acrylate which, after curing, has a Martens hardness MS1 determined according to DIN EN ISO 14577; (c) at least partially curing the layer of liquid radiation-curable acrylate applied in step (b) by means of radiation; (d) applying an intermediate layer of liquid radiation-curable acrylate to the at least partially cured layer; (e) applying a further layer S2 of liquid radiation-curable acrylate by means of a film to the previously applied uncured intermediate layer, so that partial mixing of the layers takes place, wherein the further layer is an acrylate which, after curing, has a Martens hardness MS2 determined according to DIN EN ISO 14577 and a thickness of 10 to 180 μm, wherein MS2 > MS1; (f) jointly curing at least the layers applied in steps (d) and (e) by means of radiation, characterised in that the method further comprises: repeating steps (b) and (c) until a first elastic layer S1 having a thickness of 80 to 450 μm is present, and in that MS1 after curing is between 2 and 30 N/mm 2.
A contact lens demolding apparatus comprising: a separator, comprising a curved wedge having a leading end, a trailing end, a circumferential outer edge, a circumferential inner edge, a concentric central axis, an increasing thickness circumferentially from the leading end towards the trailing end, and an increasing radial thickness from the outer circumferential edge towards the central axis; and a driver for rotating the separator around its concentric central axis. a separator, comprising a curved wedge having a leading end, a trailing end, a circumferential outer edge, a circumferential inner edge, a concentric central axis, an increasing thickness circumferentially from the leading end towards the trailing end, and an increasing radial thickness from the outer circumferential edge towards the central axis; and a driver for rotating the separator around its concentric central axis.
A cleaner for the bottom of launched vessels comprising a floating body, a shaft and an angled member arranged between the floating body and the shaft, as well as cleaning elements arranged on the floating body, wherein the floating body is cylindrical with a central longitudinal channel, and wherein the angled member is a pipe which is bent into an angle of about 90°, one end of which being arranged to receive one end of the shaft and the other end of which being adapted for connection with said floating body characterized in that it comprises a locking and stabilizing member in the form of a pipe or a rod having a diameter corresponding to the diameter of the central longitudinal channel in the floating body, in that the other end of the angled member is provided with a through-opening having a diameter corresponding to the diameter of the central longitudinal channel of the floating body, and in that the floating body has a radial opening arranged in a central area thereof, which radial opening extends from the outer surface of the cylindrical body to the central longitudinal channel, and which radial opening is adapted to receive the other end of the angled member with its through - opening arranged in alignment with the central longitudinal channel of the floating body when the other end of the angled member is fully inserted into the radial opening, so that the angled member and the floating body in a simple and safe way can be locked to each other, and be disengaged from each other, respectively, by inserting said locking and stabilizing member in, respectively removing it from, the central longitudinal channel through the through-opening.
The tibial part of a knee prosthesis, in particular unicompartimentary, comprising a tibial plate having a lower, or distal face, bounded by a surrounding edge having at least one lateral portion from which projects at least one anchoring post (4, 5) intended to be anchored in the tibia, the at least one post (4, 5) comprising at least one part forming a stem having a longitudinal centre line and a part forming the head, the stem part and the head part together defining an interface which corresponds to the transverse section of the post, perpendicular to the longitudinal centre line, called the anchoring section, which is located at the point (s) on the lateral surface of the post which is, or are, furthest from the centre line, the distance being measured perpendicular to the centre line, characterised in that the transverse section at the base of the stem and the anchoring section are mutually offset.
A process for producing and isolating feruloylated arabinoxylans (AXs) from a cereal crop, comprising subjecting said cereal crop to a) pressurized hot water extraction, b) a subsequent enzymatic treatment of the insoluble residues with an endo-beta-xylanase and a feruloyl esterase, and c) one or more step(s) of subsequent membrane ultrafiltration to further purify the extracts. a) pressurized hot water extraction, b) a subsequent enzymatic treatment of the insoluble residues with an endo-beta-xylanase and a feruloyl esterase, and c) one or more step(s) of subsequent membrane ultrafiltration to further purify the extracts.
A circuit comprising: a Hall effect transducer having a first output terminal, a second output terminal, and two bias terminals; a differential amplifier comprising a first transistor and a second transistor, wherein the first output terminal of the hall effect transducer is coupled to a base ofthe first transistor and the second output terminal of the hall effect transducer is coupled to a base of the second transistor; a first active load transistor coupled to a collector of the first transistor and a second active load transistor coupled to a collector of the second transistor; an active load reference transistor, wherein a base of the active load reference transistor is coupled to a base of the first active load transistor and a base ofthe second active load transistor; and a center tap coupled to the center of the hall effect transducer, wherein the center tap ofthe hall effect transducer is coupled to the base of a third transistor to provide bias to the active load transistor. a Hall effect transducer having a first output terminal, a second output terminal, and two bias terminals; a differential amplifier comprising a first transistor and a second transistor, wherein the first output terminal of the hall effect transducer is coupled to a base ofthe first transistor and the second output terminal of the hall effect transducer is coupled to a base of the second transistor; a first active load transistor coupled to a collector of the first transistor and a second active load transistor coupled to a collector of the second transistor; an active load reference transistor, wherein a base of the active load reference transistor is coupled to a base of the first active load transistor and a base ofthe second active load transistor; and a center tap coupled to the center of the hall effect transducer, wherein the center tap ofthe hall effect transducer is coupled to the base of a third transistor to provide bias to the active load transistor.
A rail system for an overhead hoist system suspended from the rail system, and wherein the rail system includes a primary rail which is a four-edged profile with a hollow cross-section and a longitudinal slot at the bottom, at which the slot and the hollow cross-section are adapted for receiving and supporting part of the suspended hoist system, characterised in that the rail system includes at least one angular secondary rail which on one leg thereof is provided with connecting means formed as a C-shaped projection, which C-shaped projection interacts with connecting means formed as a circular groove at the side of the primary rail, and which angular secondary rail on its other leg is provided a support surface for supporting an adjacent ceiling board.
A steel wire comprising, as a chemical composition, by mass%, C: 0.70% to 1.20%, Si: 0.15% to 0.60%, Mn: 0.10% to 1.00%, N: 0.0010% to 0.0050%, Al: 0% to 0.010%, Ti: 0% to 0.10%, Cr: 0% to 0.50%, Co: 0% to 0.50%, V: 0% to 0.50%, Cu: 0% to 0.20%, Nb: 0% to 0.100%, Mo: 0% to 0.20%, W: 0% to 0.200%, B: 0% to 0.0030%, REM: 0% to 0.0050%, Ca: 0% to 0.0050%, Mg: 0% to 0.0050%, Zr: 0% to 0.0100%, and a remainder including Fe and impurities, wherein a wire diameter R of the steel wire is 1.0 mm to 3.5 mm, a soft portion is formed along an outer circumference of the steel wire, a Vickers hardness of the soft portion is lower than that of the steel wire at a depth of 1/4 of the wire diameter R by a Hv 30 or higher, a thickness of the soft portion is 5 μm to 0.1×R mm, a metallographic structure of the steel wire other than the soft portion contains 95% to 100% of pearlite by area%, an average lamellar spacing of the pearlite in a region from a surface of the steel wire to a depth of 5 μm is less than that of the pearlite at the center of the steel wire, a difference between the average lamellar spacing of the pearlite in the region from the surface of the steel wire to the depth of 5 μm and the average lamellar spacing of the pearlite at the center of the steel wire is 3 nm to 60 nm, and a tensile strength is 1100 MPa or higher. C: 0.70% to 1.20%, Si: 0.15% to 0.60%, Mn: 0.10% to 1.00%, N: 0.0010% to 0.0050%, Al: 0% to 0.010%, Ti: 0% to 0.10%, Cr: 0% to 0.50%, Co: 0% to 0.50%, V: 0% to 0.50%, Cu: 0% to 0.20%, Nb: 0% to 0.100%, Mo: 0% to 0.20%, W: 0% to 0.200%, B: 0% to 0.0030%, REM: 0% to 0.0050%, Ca: 0% to 0.0050%, Mg: 0% to 0.0050%, Zr: 0% to 0.0100%, and a remainder including Fe and impurities, wherein a wire diameter R of the steel wire is 1.0 mm to 3.5 mm, a soft portion is formed along an outer circumference of the steel wire, a Vickers hardness of the soft portion is lower than that of the steel wire at a depth of 1/4 of the wire diameter R by a Hv 30 or higher, a thickness of the soft portion is 5 μm to 0.1×R mm, a metallographic structure of the steel wire other than the soft portion contains 95% to 100% of pearlite by area%, an average lamellar spacing of the pearlite in a region from a surface of the steel wire to a depth of 5 μm is less than that of the pearlite at the center of the steel wire, a difference between the average lamellar spacing of the pearlite in the region from the surface of the steel wire to the depth of 5 μm and the average lamellar spacing of the pearlite at the center of the steel wire is 3 nm to 60 nm, and a tensile strength is 1100 MPa or higher.