mhurhangee/ep-ind-claims huggingface dataset:
A heater, comprising: a ceramic body of bar shape; and a heat-generating resistor disposed in an inside of the ceramic body, when viewed in a transverse section, the heat-generating resistor comprising at least one step portion provided in an outer periphery part of the heat-generating resistor, characterised by the at least one step portion having such a shape that semicircular portions bisected in a diametrical direction of the heat-generating resistor deviate from each other along the diametrical direction. a ceramic body of bar shape; and a heat-generating resistor disposed in an inside of the ceramic body, when viewed in a transverse section, the heat-generating resistor comprising at least one step portion provided in an outer periphery part of the heat-generating resistor, characterised by the at least one step portion having such a shape that semicircular portions bisected in a diametrical direction of the heat-generating resistor deviate from each other along the diametrical direction.
A parking stand, comprising: first and second members (40, 60), wherein one of said first and second members being rotatable relative to the other of said first and second members (40, 60); wherein the first member has a first member axis defining an axial direction and further has a first member slot with a slope in the axial direction; wherein the second member has a second member boss, and the second member boss is engaged with the first member slot such that rotating of one of the first and second members (40, 60) about the first member axis causes the rotated member to move in the axial direction relative to the other of the first and second members (40, 60), and wherein the parking stand has a compact position and an expanded position, characterized in that the first member slot includes a first end aperture and a second end aperture located at opposite ends of the first member slot, and a boss biasing spring is provided to bias the second member boss through an aperture in a direction away from an outer surface of the second member and, in the compact position, the second member boss projects through the first end aperture of the first member slot, thereby releasably locking the parking stand in the compact position. first and second members (40, 60), wherein one of said first and second members being rotatable relative to the other of said first and second members (40, 60); wherein the first member has a first member axis defining an axial direction and further has a first member slot with a slope in the axial direction; wherein the second member has a second member boss, and the second member boss is engaged with the first member slot such that rotating of one of the first and second members (40, 60) about the first member axis causes the rotated member to move in the axial direction relative to the other of the first and second members (40, 60), and wherein the parking stand has a compact position and an expanded position, characterized in that the first member slot includes a first end aperture and a second end aperture located at opposite ends of the first member slot, and a boss biasing spring is provided to bias the second member boss through an aperture in a direction away from an outer surface of the second member and, in the compact position, the second member boss projects through the first end aperture of the first member slot, thereby releasably locking the parking stand in the compact position.
A method for data transmission by a terminal device using a determined transport block size, TBS, comprising: determining, by a terminal device, number of resource elements, REs, for a physical sidelink shared channel, PSSCH, in a second resource according to a first resource used for transmitting a physical sidelink control channel, PSCCH, wherein the second resource is indicated by the PSCCH and used for transmitting the PSSCH, the first resource at least partially overlaps with the second resource, and the REs for the PSSCH do not comprise REs in the first resource; and determining, by the terminal device, the TBS, for the PSSCH according to the number of the REs for the PSSCH comprising: determining, by the terminal device, number of information bits according to the number of the REs for the PSSCH; and determining, by the terminal device, the TBS according to the number of the information bits, wherein the number of the information bits satisfies N info = N RE × R × Q m × v, N RE represents the number of the REs for the PSSCH, R represents a transmission bit rate, Q m represents a modulation order, and v represents number of transmission layers; wherein determining, by the terminal device, the TBS according to the number of the information bits comprises: obtaining, by the terminal device, quantified number of information bits by quantifying the number of the information bits; and determining, by the terminal device, the TBS according to the quantified number of the information bits. determining, by a terminal device, number of resource elements, REs, for a physical sidelink shared channel, PSSCH, in a second resource according to a first resource used for transmitting a physical sidelink control channel, PSCCH, wherein the second resource is indicated by the PSCCH and used for transmitting the PSSCH, the first resource at least partially overlaps with the second resource, and the REs for the PSSCH do not comprise REs in the first resource; and determining, by the terminal device, the TBS, for the PSSCH according to the number of the REs for the PSSCH comprising: determining, by the terminal device, number of information bits according to the number of the REs for the PSSCH; and determining, by the terminal device, the TBS according to the number of the information bits, wherein the number of the information bits satisfies N info = N RE × R × Q m × v, N RE represents the number of the REs for the PSSCH, R represents a transmission bit rate, Q m represents a modulation order, and v represents number of transmission layers; wherein determining, by the terminal device, the TBS according to the number of the information bits comprises: obtaining, by the terminal device, quantified number of information bits by quantifying the number of the information bits; and determining, by the terminal device, the TBS according to the quantified number of the information bits. obtaining, by the terminal device, quantified number of information bits by quantifying the number of the information bits; and determining, by the terminal device, the TBS according to the quantified number of the information bits.
Stabilizing device adapted to stabilize a fresh product stored in a refrigerated space, comprising - a stabilizing product, which includes alumina or a zeolite, - an openwork envelope, which lets the prevailing atmosphere pass into the refrigerated space and which encloses the stabilizing product, wherein the openwork envelope has the shape of a strand. - a stabilizing product, which includes alumina or a zeolite, - an openwork envelope, which lets the prevailing atmosphere pass into the refrigerated space and which encloses the stabilizing product,
A transmission method for a physical layer operations, administration and maintenance, PLOAM, message in a passive optical network, the transmission method comprising: a transmitter dividing a PLOAM message carrying a plurality of kinds of information to generate more than two new PLOAM messages carrying only one kind of information, wherein each of the more than two new PLOAM messages only has a single function, and each of the more than two new PLOAM messages comprises at least a message identification, Message ID, field, wherein each Message ID identifies one kind of function, and simultaneously identifies a new PLOAM message; and the transmitter transmitting the new PLOAM messages; wherein, in the step of the transmitter transmitting the new PLOAM messages, the transmitter transmits the new PLOAM messages in any one of following ways: assembling n arbitrary new PLOAM messages into one PLOAM message group to transmit, wherein n≥2 and n is an integer; assembling part of fields of n new PLOAM messages into one PLOAM message group to transmit; assembling n new PLOAM messages with an undivided PLOAM message into one PLOAM message group to transmit; assembling part of fields of n new PLOAM messages with an undivided PLOAM message into one PLOAM message group to transmit; wherein there are t ONU IDs in the assembled PLOAM message group, 0≤t≤n, and t is an integer. a transmitter dividing a PLOAM message carrying a plurality of kinds of information to generate more than two new PLOAM messages carrying only one kind of information, wherein each of the more than two new PLOAM messages only has a single function, and each of the more than two new PLOAM messages comprises at least a message identification, Message ID, field, wherein each Message ID identifies one kind of function, and simultaneously identifies a new PLOAM message; and the transmitter transmitting the new PLOAM messages; wherein, in the step of the transmitter transmitting the new PLOAM messages, the transmitter transmits the new PLOAM messages in any one of following ways: assembling n arbitrary new PLOAM messages into one PLOAM message group to transmit, wherein n≥2 and n is an integer; assembling part of fields of n new PLOAM messages into one PLOAM message group to transmit; assembling n new PLOAM messages with an undivided PLOAM message into one PLOAM message group to transmit; assembling part of fields of n new PLOAM messages with an undivided PLOAM message into one PLOAM message group to transmit; wherein there are t ONU IDs in the assembled PLOAM message group, 0≤t≤n, and t is an integer. assembling n arbitrary new PLOAM messages into one PLOAM message group to transmit, wherein n≥2 and n is an integer; assembling part of fields of n new PLOAM messages into one PLOAM message group to transmit; assembling n new PLOAM messages with an undivided PLOAM message into one PLOAM message group to transmit; assembling part of fields of n new PLOAM messages with an undivided PLOAM message into one PLOAM message group to transmit; wherein there are t ONU IDs in the assembled PLOAM message group, 0≤t≤n, and t is an integer.
A system for dosing vibrations of a tool an operator using this tool is exposed to, comprising: ▪ on the tool, a RFID tag with an electronic identification chip containing the own vibration level of the tool and a RF emitter for transmitting such a level, and ▪ a strap with means for receiving the own vibration level of the tool, means for determining an exposure duration of the vibrations, means for determining the corresponding dose of vibrations and means for integrating a plurality of doses. ▪ on the tool, a RFID tag with an electronic identification chip containing the own vibration level of the tool and a RF emitter for transmitting such a level, and ▪ a strap with means for receiving the own vibration level of the tool, means for determining an exposure duration of the vibrations, means for determining the corresponding dose of vibrations and means for integrating a plurality of doses.
A radio base station (eNB#1) which is configured to function as a first radio base station (eNB#1) of a mobile communication system allowing a mobile station to perform carrier aggregation using a first cell (#A) managed by the first radio base station (eNB#1) and a second cell (#B) managed by a second radio base station (eNB#10), the radio base station (eNB#1) comprising: a transmission unit configured to directly notify the second radio base station (eNB#10) that the second cell (#B) is activated in a case where the transmission unit transmits a command to activate the second cell (#B) to the mobile station. a transmission unit configured to directly notify the second radio base station (eNB#10) that the second cell (#B) is activated in a case where the transmission unit transmits a command to activate the second cell (#B) to the mobile station.
Process for the preparation of a heterophasic propylene copolymer comprising mixing a polymer composition comprising 55-95 wt% of a propylene polymer and 5-45 wt% of an ethylene-propylene rubber with 0.01-1 wt% of an organic peroxide with a decomposition half-life time of 6 minutes at a temperature between 80 and 109 °C and 0.001-1.5 wt% of a co-agent, wherein all weight percentages are based on the total weight of the polymer composition, wherein the mixing is performed at a temperature which is below the temperature where the organic peroxide has a decomposition half-life time of 6 minutes to obtain a mixed polymer composition, and subsequently melt-mixing the mixed polymer composition to prepare the heterophasic propylene copolymer.
A tubular element for the insertion of a probe, a catheter or a cannula inside a cardiovascular conduit, comprising a pointed end consisting of: - a distal end having a front edge inclined relative to the main axis of extension in such a way as to form a first operating angle (α); - an intermediate portion configured to join the distal end to the main body and having a front edge inclined with respect to the main axis of extension in such a way as to form a second operating angle (β) which is different from said first operating angle (α); the first operating angle (α) is between 40° and 50°, and the second operating angle (β) is between 10° and 30°; characterized in that said first operating angle (α) is equal to 45° and said second operating angle (β) is equal to 20°. - a distal end having a front edge inclined relative to the main axis of extension in such a way as to form a first operating angle (α); - an intermediate portion configured to join the distal end to the main body and having a front edge inclined with respect to the main axis of extension in such a way as to form a second operating angle (β) which is different from said first operating angle (α); the first operating angle (α) is between 40° and 50°, and the second operating angle (β) is between 10° and 30°; characterized in that said first operating angle (α) is equal to 45° and said second operating angle (β) is equal to 20°.
A composition for treating a hard surface comprising (a) at least one adhesion promoter selected from polyalkoxyalkanes including from 18 to 50 ethoxy groups; (b) at least one surfactant, selected from the group consisting of: anionic, nonionic, cationic, amphoteric, zwitterionic, and combinations thereof; (c) mineral oil; (d) a non-ethoxylated blend of linear primary alcohols wherein each alcohol of said non-ethoxylated blend includes a carbon chain containing 9 to 17 carbons, or an ethoxylated blend of linear primary alcohols wherein each alcohol of said ethoxylated blend includes a carbon chain containing 9 to 17 carbons; (e) water; and (f) optionally, at least one solvent; and wherein the composition is self-adhering upon application to a surface to be treated, and wherein the composition provides a wet film to said surface when water passes over said composition and surface; and wherein the components as defined in (a) to (f) are different. (a) at least one adhesion promoter selected from polyalkoxyalkanes including from 18 to 50 ethoxy groups; (b) at least one surfactant, selected from the group consisting of: anionic, nonionic, cationic, amphoteric, zwitterionic, and combinations thereof; (c) mineral oil; (d) a non-ethoxylated blend of linear primary alcohols wherein each alcohol of said non-ethoxylated blend includes a carbon chain containing 9 to 17 carbons, or an ethoxylated blend of linear primary alcohols wherein each alcohol of said ethoxylated blend includes a carbon chain containing 9 to 17 carbons; (e) water; and (f) optionally, at least one solvent; and
A compound of general formula IIA below or a pharmaceutical composition comprising said compound, or a pharmaceutically acceptable salt thereof, or a solvate or hydrate thereof, or a stereoisomer thereof, for use in the treatment or prevention of a Neisseria gonorrhoeae infection in a subject wherein: R 7 to R 9 are each independently selected from the group consisting of: H; OR wherein R is H or a C 1 to C 6 linear, branched, saturated or unsaturated alkyl or cycloalkyl; XCYR wherein X and Y are each independently O or S and R is a C 1 to C 6 linear, branched, saturated or unsaturated alkyl or cycloalkyl or R is a substituted or unsubstituted phenyl or alkyl phenyl; NR'R" wherein R' and R" are each independently H, a C 1 to C 6 linear, branched, saturated or unsaturated alkyl or cycloalkyl, or R' and R" together with N form a 5- or 6-member ring, optionally the ring is substituted with a C 1 to C 3 alkyl; NH-acetyl; NH-thio-acetyl; NH-azido-acetyl; NH-(D-alanyl); NH-(N-acetyl-D-alanyl); N 3; O-Sia; O-Glc; benzamido [NHCOPh]; NH-Gly; NH-Succ; hexanoylamido [NHCO(CH 2) 4 CH 3]; O-lactyl; O-phosphate; O-sulfate; and a halogen atom which is F, Cl, Br or I.
A device for cooling of at least one electrical cable which is arranged within a thermally insulated cryostat which comprises also a hollow space for the through passing of a cooling medium, wherein the cryostat is enlarged at least at one end in the form of a vacuum insula te d ho using which contains a termination for the cable and is connected to a store device for the cooling medium, characterized in - that on top of the cryostata vacuum insulated container is mounted which contains cooling medium and is connected to the store device, and - that between the container and the hollow space of the cryostat two tubes (11,12) are mounted which are arranged concentrically to each other, which are open atboth ends and which penetrate with their one end into the hollow space of the cryostat and with their other end into the cooling medium of the container. - that on top of the cryostata vacuum insulated container is mounted which contains cooling medium and is connected to the store device, and - that between the container and the hollow space of the cryostat two tubes (11,12) are mounted which are arranged concentrically to each other, which are open atboth ends and which penetrate with their one end into the hollow space of the cryostat and with their other end into the cooling medium of the container.
A scroll compressor comprising a compression mechanism including a fixed scroll, and an orbiting scroll eccentrically rotating relative to the fixed scroll, where a first compression chamber facing an outer peripheral surface of a wrap of the orbiting scroll, and a second compression chamber facing an inner peripheral surface of the wrap of the orbiting scroll are formed by allowing a scroll wrap of the fixed scroll to mesh with the scroll wrap of the orbiting scroll, wherein an end plate of the fixed scroll is provided with: a discharge port formed in a middle part of the end plate to discharge fluid compressed in the compression chambers (24a, 24b) to a discharge space; a plurality of relief ports (31a, 31b, 32a, 32b, 33) formed outside the discharge port and each having one end which is open to the associated compression chambers (24a, 24b) and the other end connected with the discharge space; and relief valves (37, 38, 39) for opening and closing the associated relief ports (31a, 31b, 32a, 32b, 33), and characterized in that the plurality of relief ports include: a first relief port (31a, 31b) configured to open only to the first compression chamber of both the compression chambers (24a, 24b); a second relief port (32a, 32b) configured to open only to the second compression chamber of both the compression chambers (24a, 24b); and a third relief port configured so that eccentric rotation of the orbiting scroll allows the third relief port to open to the first compression chamber and the second compression chamber alternately.
A material for use in wound healing and skin reconstruction containing a self-assembling peptide having the amino acid sequence of SEQ ID NO.1 and basic fibroblast growth factor (bFGF).
A communication method in a communication network comprising a plurality of nodes, at least one node comprising a plurality of access categories, ACs, for serving data traffic at different priorities the method comprising, at the node: computing, for each AC, an associated queue backoff value from contention parameters, using each backoff value associated with each AC to contend for access to a communication channel in order to transmit data stored in the respective AC in an enhanced distributed channel access, EDCA, transmission opportunity, TXOP; the method further comprising, at the node: using a plurality of timers, each one associated with one of the ACs, each timer counting down a predetermined duration, during which the contention parameters remain set to MU-EDCA parameters for the corresponding AC, and at an expiry of which the contention parameters are set back to EDCA parameters different from the MU-EDCA parameters, wherein the contention parameters for an AC are set to the MU-EDCA parameters for the corresponding predetermined duration upon transmitting data stored in the AC over one or more accessed resource units provided by another node within one or more transmission opportunities granted to the other node on the communication channel. computing, for each AC, an associated queue backoff value from contention parameters, using each backoff value associated with each AC to contend for access to a communication channel in order to transmit data stored in the respective AC in an enhanced distributed channel access, EDCA, transmission opportunity, TXOP; the method further comprising, at the node: using a plurality of timers, each one associated with one of the ACs, each timer counting down a predetermined duration, during which the contention parameters remain set to MU-EDCA parameters for the corresponding AC, and at an expiry of which the contention parameters are set back to EDCA parameters different from the MU-EDCA parameters, wherein the contention parameters for an AC are set to the MU-EDCA parameters for the corresponding predetermined duration upon transmitting data stored in the AC over one or more accessed resource units provided by another node within one or more transmission opportunities granted to the other node on the communication channel. using a plurality of timers, each one associated with one of the ACs, each timer counting down a predetermined duration, during which the contention parameters remain set to MU-EDCA parameters for the corresponding AC, and at an expiry of which the contention parameters are set back to EDCA parameters different from the MU-EDCA parameters, wherein the contention parameters for an AC are set to the MU-EDCA parameters for the corresponding predetermined duration upon transmitting data stored in the AC over one or more accessed resource units provided by another node within one or more transmission opportunities granted to the other node on the communication channel.
A crankcase gas separator comprising a separator housing delimiting at least part of a separation space, a rotor arranged in the separation space, wherein the rotor comprises a separation aid in the form of a stack of separation discs, a gas outlet passage from the separation space, and a gas pressure regulating valve arranged in fluid communication with the gas outlet passage, wherein the gas pressure regulating valve comprises a valve seat and a membrane configured to seal against the valve seat and provides a flow direction for gas from the gas outlet passage through the gas pressure regulating valve, and characterized in that, in relation to the flow direction, the membrane is arranged downstream of the valve seat. a rotor arranged in the separation space, wherein the rotor comprises a separation aid in the form of a stack of separation discs, a gas outlet passage from the separation space, and a gas pressure regulating valve arranged in fluid communication with the gas outlet passage, wherein the gas pressure regulating valve comprises a valve seat and a membrane configured to seal against the valve seat and provides a flow direction for gas from the gas outlet passage through the gas pressure regulating valve, and characterized in that, in relation to the flow direction, the membrane is arranged downstream of the valve seat.