mhurhangee/ep-ind-claims huggingface dataset:
A User Equipment, a UE, for an HSPA enabled WCDMA system, wherein the UE being equipped with at least a first and a second transmit antenna, the UE being arranged (15, 17) to use one or more sets of pre-coding weights, each pre-coding weight in said one or more sets to be used by the UE for multiplication with information which is transmitted from one of the UE's antennas (111, 112), the UE further being arranged to receive instructions from a NodeB on the set or sets of pre-coding weights to be used, the UE also being arranged to transmit a first and a second pilot signal, and to use a first set of pre-coding weights for the first pilot signal and a second set of pre-coding weights for the second pilot signal, where the first set of pre-coding weights is the same as the UE uses for transmitting a first data stream, and to use different spreading codes for the first data stream and for the first pilot signal, characterized in that an output power of the second pilot signal is offset relative to an output power of the first pilot signal, wherein the UE being arranged to receive a value of the offset from said NodeB via radio resource signaling.
A phasing device for a threaded grinding wheel, the phasing device being used to phase the threaded grinding wheel with any one of a gear to be machined and a dresser ahead of meshing of the threaded grinding wheel with the one of the gear and the dresser at the time of a corresponding one of grinding and dressing processes, the phasing device comprising: detection means for detecting whether or not the threaded grinding wheel has come into contact with the one of the gear and the dresser; and grinding wheel phase control means for positioning the threaded grinding wheel so that the threaded grinding wheel has a phase which allows meshing, based on a phase of the threaded grinding wheel when the detection means detects the contact characterized in that the detection means comprises an acoustic emission fluid sensor which is provided on a grinding wheel head by which the threaded grinding wheel is rotatably supported and which is configured to detect elastic waves generated in the threaded grinding wheel due to vibration or friction through fluid jetted to the vicinity of the threaded grinding wheel, and is configured to make the determination whether or not the threaded grinding wheel has come into contact with the one of the gear and the dresser based on the detected elastic waves. detection means for detecting whether or not the threaded grinding wheel has come into contact with the one of the gear and the dresser; and grinding wheel phase control means for positioning the threaded grinding wheel so that the threaded grinding wheel has a phase which allows meshing, based on a phase of the threaded grinding wheel when the detection means detects the contact characterized in that the detection means comprises an acoustic emission fluid sensor which is provided on a grinding wheel head by which the threaded grinding wheel is rotatably supported and which is configured to detect elastic waves generated in the threaded grinding wheel due to vibration or friction through fluid jetted to the vicinity of the threaded grinding wheel, and is configured to make the determination whether or not the threaded grinding wheel has come into contact with the one of the gear and the dresser based on the detected elastic waves.
A fiber laser, comprising: a variably wound optical fiber (11, 710, 1011, 1111, 1211, 1311), wherein the variably wound optical fiber includes: a first length arranged in a plurality of first loops with a first constant separation distance between successive ones of the first loops; and a second length arranged in a plurality of second loops with a second constant separation distance between successive ones of the second loops; and wherein the first constant separation distance between successive ones of the first loops is different than the second constant separation distance between successive ones of the second loops; further comprising packaging to remove heat generated by the optical fiber of the fiber laser during operation of the fiber laser; wherein the variably wound optical fiber (11, 710, 1011, 1111, 1211, 1311) further includes a third length arranged in an at least partial loop in which a third separation distance between the at least partial loop and at least one of the first and second loops is non-constant, and wherein the variably wound optical fiber (11, 710, 1011, 1111, 1211, 1311) including said first length, said second length and said third length is fixably mounted to a first side only of a heat conductor (232, 1032, 1132, 1232, 1332, 1432, 1632, 1732) of the packaging. a first length arranged in a plurality of first loops with a first constant separation distance between successive ones of the first loops; and a second length arranged in a plurality of second loops with a second constant separation distance between successive ones of the second loops; and wherein the first constant separation distance between successive ones of the first loops is different than the second constant separation distance between successive ones of the second loops; further comprising packaging to remove heat generated by the optical fiber of the fiber laser during operation of the fiber laser; wherein the variably wound optical fiber (11, 710, 1011, 1111, 1211, 1311) further includes a third length arranged in an at least partial loop in which a third separation distance between the at least partial loop and at least one of the first and second loops is non-constant, and wherein the variably wound optical fiber (11, 710, 1011, 1111, 1211, 1311) including said first length, said second length and said third length is fixably mounted to a first side only of a heat conductor (232, 1032, 1132, 1232, 1332, 1432, 1632, 1732) of the packaging.
A method of wireless communications from an apparatus, comprising: supporting a broadcast of a plurality of discovery signals spaced apart in time by silent periods, wherein the plurality of discovery signals support discovery of mobile nodes in a dynamically configurable wireless network; providing a message to a server relating to a location of the apparatus; receiving a list from the server in response to the message, the list indicating whether the one or more mobile nodes are within a vicinity of the apparatus; in response to a determination, based on the list, that the one or more mobile nodes are not within the vicinity of the apparatus, remaining in a first state where a duration of the silent periods is maintained; in response to a determination, based on the list, that the one or more mobile nodes are within the vicinity of the apparatus, entering a second state that includes, in response to a determination that the apparatus is moving from a location outside a radio range of the one or more mobile nodes to a location within radio range of the one or more mobile nodes, changing the duration of the silent periods from discovery signal to discovery signal of the plurality of discovery signals such that the duration for the silent periods decreases progressively from discovery signal to discovery signal of the plurality of discovery signals; and in response to a determination that discovery of all of the one or more mobile nodes identified in the list has been completed, entering a third state that includes increasing the duration of the silent periods. supporting a broadcast of a plurality of discovery signals spaced apart in time by silent periods, wherein the plurality of discovery signals support discovery of mobile nodes in a dynamically configurable wireless network; providing a message to a server relating to a location of the apparatus; receiving a list from the server in response to the message, the list indicating whether the one or more mobile nodes are within a vicinity of the apparatus; in response to a determination, based on the list, that the one or more mobile nodes are not within the vicinity of the apparatus, remaining in a first state where a duration of the silent periods is maintained; in response to a determination, based on the list, that the one or more mobile nodes are within the vicinity of the apparatus, entering a second state that includes, in response to a determination that the apparatus is moving from a location outside a radio range of the one or more mobile nodes to a location within radio range of the one or more mobile nodes, changing the duration of the silent periods from discovery signal to discovery signal of the plurality of discovery signals such that the duration for the silent periods decreases progressively from discovery signal to discovery signal of the plurality of discovery signals; and in response to a determination that discovery of all of the one or more mobile nodes identified in the list has been completed, entering a third state that includes increasing the duration of the silent periods.
A radiosonde comprising: - a first housing, - a measurement boom partially extending through a part of the first housing, characterized in that - the first housing is made of a first biodegradable material, - the radiosonde further comprises a second housing arranged within the first housing, - wherein the second housing is made of a second biodegradable material, - wherein the second housing comprises a plurality of protrusions arranged on an outer surface of the second housing or wherein the first housing comprises a plurality of protrusions arranged on an inner surface of the first housing, - wherein a printed circuit board is arranged within the second housing and the measurement boom is coupled to the printed circuit board, and - wherein the measurement boom coupled to the printed circuit board further partially extends through a part of the second housing. - a first housing, - a measurement boom partially extending through a part of the first housing, characterized in that - the first housing is made of a first biodegradable material, - the radiosonde further comprises a second housing arranged within the first housing, - wherein the second housing is made of a second biodegradable material, - wherein the second housing comprises a plurality of protrusions arranged on an outer surface of the second housing or wherein the first housing comprises a plurality of protrusions arranged on an inner surface of the first housing, - wherein a printed circuit board is arranged within the second housing and the measurement boom is coupled to the printed circuit board, and - wherein the measurement boom coupled to the printed circuit board further partially extends through a part of the second housing.
A compound of formula wherein R 1 is selected from fluorosulfonylphenyl, and fluorosulfonylmethylphenyl; R 2 and R 3 are selected from hydrogen, hydroxyl, and halogen; R 4 is alkyl or phenylhaloalkyl; and n is 0 or 1; or a pharmaceutically acceptable salt or ester thereof wherein the term "alkyl", alone or in combination, signifies a straight-chain or branched-chain alkyl group with 1 to 8 carbon atoms and the terms "halogen" or "halo", alone or in combination, signifies fluorine, chlorine, bromine or iodine. R 1 is selected from fluorosulfonylphenyl, and fluorosulfonylmethylphenyl; R 2 and R 3 are selected from hydrogen, hydroxyl, and halogen; R 4 is alkyl or phenylhaloalkyl; and n is 0 or 1; or a pharmaceutically acceptable salt or ester thereof wherein the term "alkyl", alone or in combination, signifies a straight-chain or branched-chain alkyl group with 1 to 8 carbon atoms and the terms "halogen" or "halo", alone or in combination, signifies fluorine, chlorine, bromine or iodine.
A thermoelectric material, comprising: 70 to 90 wt% of a thermoelectric powder containing Bi, Te and Sb or containing Bi, Te and Se; 0.1 to 0.8 wt% of a metal oxide; 2 to 4 wt% of a glass frit; 8 to 12.5 wt% of an organic vehicle; and 0.5 to 10 wt% of an additive, wherein the thermoelectric powder is composed of 25 to 35 wt% of a first thermoelectric powder having a particle diameter of 1 to 3 μ m, and 45 to 55 wt% of a second thermoelectric powder having a particle size of 6 to 8 μ m. 70 to 90 wt% of a thermoelectric powder containing Bi, Te and Sb or containing Bi, Te and Se; 0.1 to 0.8 wt% of a metal oxide; 2 to 4 wt% of a glass frit; 8 to 12.5 wt% of an organic vehicle; and 0.5 to 10 wt% of an additive, wherein the thermoelectric powder is composed of 25 to 35 wt% of a first thermoelectric powder having a particle diameter of 1 to 3 μ m, and 45 to 55 wt% of a second thermoelectric powder having a particle size of 6 to 8 μ m.
A pneumatic tacker for fixing pipes or cables on a substructure, comprising a housing with a punch, a handle and a pneumatic duct consisting of at least a proximal part being an internal conduit shaped inside the handle and provided at its proximal end with a proximal pipe joint suitable for pipe connection to external source of pressurized gas, and also provided with a stop valve operated by pressing a button, wherein said internal conduit has at least one gas outlet hole located between the stop valve and a distal end of the internal conduit provided with a distal pipe joint, said at least one gas outlet hole being opened when the button is in rest position and closed when the button is in pressed position, and in that the internal conduit is connected through the distal pipe joint and optionally through a distal part of the pneumatic duct to a pneumatic actuator comprised in the housing and driving a punch to insert a staple into the substructure around the upper part of the pipe or cable surface.
A method performed by a client-side network attachment point, cNAP, operating as a transparent hypertext transfer protocol, HTTP, proxy on an information-centric network, ICN, the method comprising: receiving from a client an HTTP request, wherein the HTTP request is associated with a fully-qualified domain name, FQDN, of a host, and wherein the HTTP request includes a uniform resource locator, URL, and at least one header field; generating (i) a request proxy rule identifier, PRID, based on the at least one header field, (ii) a request content identifier, CID, based on the FQDN, and (iii) a request reverse content identifier, rCID, based on the URL; storing a mapping between (i) an identifier of the client and (ii) the request rCID and the request PRID; publishing an outgoing ICN message requesting data, the outgoing ICN message comprising the request CID, the request rCID, the request PRID, a node identifier of the cNAP, and the HTTP request; in response to the outgoing ICN message, receiving an incoming ICN message comprising an HTTP response, a received PRID, and a received rCID; and in response to a determination, made using the stored mapping, that the received rCID and the received PRID are the same as the request rCID and the request PRID, respectively, providing the HTTP response to the client. receiving from a client an HTTP request, wherein the HTTP request is associated with a fully-qualified domain name, FQDN, of a host, and wherein the HTTP request includes a uniform resource locator, URL, and at least one header field; generating (i) a request proxy rule identifier, PRID, based on the at least one header field, (ii) a request content identifier, CID, based on the FQDN, and (iii) a request reverse content identifier, rCID, based on the URL; storing a mapping between (i) an identifier of the client and (ii) the request rCID and the request PRID; publishing an outgoing ICN message requesting data, the outgoing ICN message comprising the request CID, the request rCID, the request PRID, a node identifier of the cNAP, and the HTTP request; in response to the outgoing ICN message, receiving an incoming ICN message comprising an HTTP response, a received PRID, and a received rCID; and in response to a determination, made using the stored mapping, that the received rCID and the received PRID are the same as the request rCID and the request PRID, respectively, providing the HTTP response to the client.
A neutron source, comprising: a neutron producing material layer configured to produce neutron beams upon receipt of irradiation of proton beams or deuteron beams; wherein said neutron producing material layer contains a neutron producing material which is selected from the group consisting of Be, a Be compound, Li, and a Li compound; a metal layer joined with the neutron producing material layer, wherein the metal layer contains a number of moles of a metal element which is greater than 50 % of the total numbers of moles of the molecules constituting said metal layer, wherein said metal element has a hydrogen diffusion coefficient of not less than 10 -11 (m 2 /sec.) at 60° C, wherein said metal element is selected from the group consisting of V, Ni, and alloys of any combination of V, Ni and Ti, wherein said metal element is arranged in said neutron source so as to be irradiated from said neutron beams characterised in that said metal is further configured,upon said irradiation from said neutron beams, to produce radionuclides including ones having a half-life not longer than 12 hours which are the radionuclides with the largest total radiation dose among the radionuclides generated from the metal element. a neutron producing material layer configured to produce neutron beams upon receipt of irradiation of proton beams or deuteron beams; wherein said neutron producing material layer contains a neutron producing material which is selected from the group consisting of Be, a Be compound, Li, and a Li compound; a metal layer joined with the neutron producing material layer, wherein the metal layer contains a number of moles of a metal element which is greater than 50 % of the total numbers of moles of the molecules constituting said metal layer, wherein said metal element has a hydrogen diffusion coefficient of not less than 10 -11 (m 2 /sec.) at 60° C, wherein said metal element is selected from the group consisting of V, Ni, and alloys of any combination of V, Ni and Ti, wherein said metal element is arranged in said neutron source so as to be irradiated from said neutron beams characterised in that said metal is further configured,upon said irradiation from said neutron beams, to produce radionuclides including ones having a half-life not longer than 12 hours which are the radionuclides with the largest total radiation dose among the radionuclides generated from the metal element.
A riser assembly for transporting fluids from a subsea location comprising: a riser (1200, 1300); at least one buoyancy compensating element attached to the riser; and at least one damped biasing element (828, 928, 1230, 1330) for controlling movement of the riser about a neutral position with respect to an adjacent underwater structure; wherein the at least one damped biasing element is directly or indirectly connected to the riser and is directly or indirectly connected to the adjacent underwater structure; and wherein the riser assembly further comprises an elongate beam (820, 920, 1020, 1220, 1320) connected to the riser via two or more tethering elements (827, 926, 927), wherein the elongate beam is a spreader beam, and characterized in that the at least one damped biasing element is connected to the riser in a manner that allows the at least one damped biasing element to articulate with respect to the riser, and in that the at least one damped biasing element comprises a shock absorber or a damped coil spring or a hydraulic cylinder or a pneumatic cylinder, or an oleo strut type system. a riser (1200, 1300); at least one buoyancy compensating element attached to the riser; and at least one damped biasing element (828, 928, 1230, 1330) for controlling movement of the riser about a neutral position with respect to an adjacent underwater structure; wherein the at least one damped biasing element is directly or indirectly connected to the riser and is directly or indirectly connected to the adjacent underwater structure; and wherein the riser assembly further comprises an elongate beam (820, 920, 1020, 1220, 1320) connected to the riser via two or more tethering elements (827, 926, 927), wherein the elongate beam is a spreader beam, and characterized in that the at least one damped biasing element is connected to the riser in a manner that allows the at least one damped biasing element to articulate with respect to the riser, and in that the at least one damped biasing element comprises a shock absorber or a damped coil spring or a hydraulic cylinder or a pneumatic cylinder, or an oleo strut type system.
A method for displaying a cyclic peptide on the surface of a bacteriophage particle comprising the following steps: (a) providing a host cell harbouring a nucleic acid sequence encoding a precursor cyclic peptide; (b) causing or allowing the expression of said precursor cyclic peptide; (c) enzymatic dehydration of one or more amino acid residues within the precursor cyclic peptide; (d) forming one or more intramolecular bonds by coupling of said one or more dehydrated residues to a cysteine or a lysine, thereby forming a cyclic peptide; and (e) producing bacteriophage particles in said host cell, wherein said bacteriophage particles display said cyclic peptide on the surface and wherein said cyclic peptide is attached to the C-terminus of a coat protein of said bacteriophage particles. (a) providing a host cell harbouring a nucleic acid sequence encoding a precursor cyclic peptide; (b) causing or allowing the expression of said precursor cyclic peptide; (c) enzymatic dehydration of one or more amino acid residues within the precursor cyclic peptide; (d) forming one or more intramolecular bonds by coupling of said one or more dehydrated residues to a cysteine or a lysine, thereby forming a cyclic peptide; and (e) producing bacteriophage particles in said host cell, wherein said bacteriophage particles display said cyclic peptide on the surface and wherein said cyclic peptide is attached to the C-terminus of a coat protein of said bacteriophage particles.