mhurhangee/ep-ind-claims huggingface dataset:
An air-ground communication control method for a hierarchical network, the hierarchical network comprises a ground network and at least one aerial network, and the method comprises: obtaining, by a ground device, a beam coverage radius for a high-altitude device, wherein the beam coverage radius is calculated by the high-altitude device according to a current moving speed of the high-altitude device relative to the ground or a flight track radius of the high-altitude device, the flight track radius of the high-altitude device is calculated according to location information of the high-altitude device with reference to a central location, the ground device is located in the ground network, the high-altitude device is located in the aerial network, and a beam of the high-altitude device covers the ground device; determining, by the ground device, a direction of a beam from the ground device to the high-altitude device according to location information of the ground device; determining, by the ground device, a width of the beam from the ground device to the high-altitude device according to the beam coverage radius; and controlling, by the ground device, the beam from the ground device to the high-altitude device according to the beam direction and the beam width. obtaining, by a ground device, a beam coverage radius for a high-altitude device, wherein the beam coverage radius is calculated by the high-altitude device according to a current moving speed of the high-altitude device relative to the ground or a flight track radius of the high-altitude device, the flight track radius of the high-altitude device is calculated according to location information of the high-altitude device with reference to a central location, the ground device is located in the ground network, the high-altitude device is located in the aerial network, and a beam of the high-altitude device covers the ground device; determining, by the ground device, a direction of a beam from the ground device to the high-altitude device according to location information of the ground device; determining, by the ground device, a width of the beam from the ground device to the high-altitude device according to the beam coverage radius; and controlling, by the ground device, the beam from the ground device to the high-altitude device according to the beam direction and the beam width.
A kneading rotor (1, 5) of an intermeshing type for use in a closed kneading machine having a casing inside which a chamber is provided, comprising a rotor section adapted to be provided in the chamber, wherein; the rotor section has a rotor section main body of a round cylindrical shape, and one long blade and two short blades (30, 40) provided on a surface of the rotor section main body; the two short blades (30, 40) are arranged in such a manner that, in a case where a pair of the rotor sections are arranged mutually in parallel inside the chamber of the closed kneading machine and are rotated in mutually opposite directions, the two short blades (30, 40) of one of the rotor sections alternately repeat an approaching action and a separating action, in the direction of rotation of the rotor section, with respect to the long blade of the other one of the rotor sections, and in the state of approach, the long blade of the other one of the rotor sections is sandwiched between the two short blades (30, 40) of the one of the rotor sections in the axial direction, and the long blade is arranged in such a manner that, in a case where a pair of the rotor sections are arranged mutually in parallel inside the chamber of the closed kneading machine and are rotated in mutually opposite directions, an end section on the rearward side in the direction of rotation of the rotor section, of the long blade of one of the rotor sections, and an end section on the forward side in the direction of rotation of the rotor section, of the long blade of the other one of the rotor sections, alternately repeat mutually an approaching action and a separating action, characterized in that in the state of approach, the end section on the forward side and the end section on the rearward side oppose each other in the direction of rotation of the rotor sections on a line which links the respective central axes of the pair of rotor sections, in one cross-section perpendicular to the axial direction, the length L4 of the long blade in a direction of rotation of the rotor section is greater than one half of the total length L5 of the rotor section main body in the direction of rotation, the ratio (L1/L2) between the length L1 of the long blade in an axial direction of the rotor section and the total length L2 of the rotor section main body in the axial direction is equal to or greater than 0.6, and less than 1; and the ratio (a/L2) between the distance a in the axial direction from one end of the long blade to an end of the rotor section main body and the total length L2 of the rotor section main body in the axial direction is greater than 0, and equal to or less than 0.2.
A node of a wireless network, comprising a control unit configured to decide about retransmission of a message received from a transmitting node, based on whether the transmitting node has at least one layout element of a layout plan in common with the node, wherein the layout plan relates to a spatial arrangement of the wireless network, and wherein the at least one layout element of the layout plan is associated with the node.
Electrical cable, comprising a core intended to conduct a main electric current (is) generating a circular magnetic field at least outside the core, characterized in that it comprises at least one cladding surrounding the core and comprising a thermomagnetic material, the cladding being conductive in order to conduct an auxiliary electric current (i T) that interacts with the circular magnetic field in order to generate, via the Ettingshausen effect, a temperature gradient between the core of the cable and the exterior of the cladding.
Multipurpose transducer for an appliance using water, the multipurpose transducer being provided with a temperature transducer and a turbidity transducer (TurbT), which are fixed on a first side of an electrically insulating mounting support, and with a pressure transducer fixed on said first side of the electrically insulating mounting support, characterised in that a transparent housing is fixed in a watertight manner on a first part of said first side of the electrically insulating mounting support, said transparent housing covering the temperature transducer and the turbidity transducer (TurbT) and a wiring to them made on the mounting support, wherein on one of the other sides of the electrically insulating mounting support a first transmission-line coupler is fixed, whereto the wiring is conducted, wherein the pressure transducer is an uncompensated strain gauge, the pressure transducer is fixed on a second part of said first side of the mounting support, and the wiring connects the pressure transducer to the first transmission-line coupler.
An evolved packet data gateway, configured to: - support reporting or retrieval of location information, referred to as wireless local area network location information, of a wireless local area network access network, where a user equipment is attached for access to a third generation partnership project packet core network via untrusted wireless local area network access, - query up to date wireless local area network location information over SWm interface from a third generation partnership project authentication authorization accounting server in case said evolved packet data gateway needs to report up to date user location information towards a packet data network gateway after a packet data network connection has been established. - support reporting or retrieval of location information, referred to as wireless local area network location information, of a wireless local area network access network, where a user equipment is attached for access to a third generation partnership project packet core network via untrusted wireless local area network access, - query up to date wireless local area network location information over SWm interface from a third generation partnership project authentication authorization accounting server in case said evolved packet data gateway needs to report up to date user location information towards a packet data network gateway after a packet data network connection has been established.
Rotor for an electrical rotating machine, extending along a longitudinal axis, comprising: - salient poles having pole shoes, and characterized in that it comprises internal cooling channels, running axially through at least one pole shoe, the cooling channels being separated within the pole shoe by dividers. - salient poles having pole shoes, and characterized in that it comprises internal cooling channels, running axially through at least one pole shoe, the cooling channels being separated within the pole shoe by dividers.
A composition comprising an interferon-beta-1a or a fusion protein comprising the interferon-beta-1a, wherein the interferon-beta-1a consists of the amino acid sequence: MSYNLLGFLQRSSNFQCQKLLWQLNGRLEYCLKDRMNFDIPEEIKQLQQFQKEDAALT IYEMLQNIFAIFRQDSSSTGWNETIVENLLANVYHQINHLKTVLEEKLEKEDFTRGKL MSSLHLKRYYGRILHYLKAKEYSHCAWTIVRVEILRNFYFINRLTGYLRN, and wherein the interferon-beta-1a is coupled to a single non-naturally occurring polymer at the N-terminal end of said interferon-beta-1a, said polymer comprising a polyalkylene glycol moiety. MSYNLLGFLQRSSNFQCQKLLWQLNGRLEYCLKDRMNFDIPEEIKQLQQFQKEDAALT IYEMLQNIFAIFRQDSSSTGWNETIVENLLANVYHQINHLKTVLEEKLEKEDFTRGKL MSSLHLKRYYGRILHYLKAKEYSHCAWTIVRVEILRNFYFINRLTGYLRN, and
Mold filling machine for forming preforms into containers and filling the containers, with one or more mold filling stations in which the preform can be shaped in a mold and the container can be filled, and which respectively comprise two mold halves (6a, 6b), wherein the mold halves (6a, 6b) are movable relative to each other for opening, and a cleaning device (490, 495) is provided which can clean the opened mold halves (6a, 6b), characterized in that the mold halves (6a, 6b) are movable between a shaping position, a receiving position and a cleaning position, wherein the distance or the opening angle of the mold halves (6a, 6b) in the cleaning position is greater than in the receiving position.
Method for manufacturing an InP-based heterostructure bipolar transistor, comprising the following method steps: (a) forming a layer sequence of a collector made of indium phosphide, a base made of indium gallium arsenide and an emitter, (b) subsequent masking of a region covering the emitter and implantation of ions into the unmasked region of the base and into the unmasked region of the collector to form a damaged region of the base and of the collector, (c) applying a base metallization, wherein, before applying the base metallization, the region of the base not to be covered by the base metallization is covered using a photomask, and wherein the base metallization covers both a part of the damaged region and a part of the undamaged region, (d) subsequent masking of the emitter using a photomask, and (e) removing the whole damaged region of the base and of the collector by wet chemical etching. (a) forming a layer sequence of a collector made of indium phosphide, a base made of indium gallium arsenide and an emitter, (b) subsequent masking of a region covering the emitter and implantation of ions into the unmasked region of the base and into the unmasked region of the collector to form a damaged region of the base and of the collector, (c) applying a base metallization, wherein, before applying the base metallization, the region of the base not to be covered by the base metallization is covered using a photomask, and wherein the base metallization covers both a part of the damaged region and a part of the undamaged region, (d) subsequent masking of the emitter using a photomask, and (e) removing the whole damaged region of the base and of the collector by wet chemical etching.
Rotor bearing for a wind turbine with an inner ring and an outer ring, which are rotatable relative to one another and delimit a bearing inner space in which at least one row of rolling elements which can roll between the bearing rings is arranged, and with an outlet for discharging lubricating oil emerging from the bearing inner space, wherein the bearing inner space is open towards the outlet so that lubricating oil can be discharged at atmospheric pressure from the bearing inner space via the outlet and the outer ring is designed as a nose ring, on which at least two raceways are formed for rows of rolling elements which can roll between the bearing rings (2, 3) and to which a respective oil collecting ring is connected in a rotationally fixed manner on both sides, which oil collecting rings extend inwards in the radial direction beyond the radially outer edges of the raceways to each form an oil sump, characterized in that the two oil sumps are connected to one another via at least one channel passing through the outer ring.
A spring isolator assembly, the assembly comprising: a reinforcing insert, a spring isolator including a ramp and a spring stop, the spring isolator being configured of a flexible material that is configured to receive a portion of a spring, the spring isolator including a spring track, an inner wall, and an outer wall, wherein the reinforcing insert is integrated by said spring isolator and said ramp and said spring stop are configured at opposite ends of said spring isolator, wherein said spring isolator includes at least a drain, wherein the drain is configured to remove water and/or debris from the spring track. a reinforcing insert, a spring isolator including a ramp and a spring stop, the spring isolator being configured of a flexible material that is configured to receive a portion of a spring, the spring isolator including a spring track, an inner wall, and an outer wall, wherein the reinforcing insert is integrated by said spring isolator and said ramp and said spring stop are configured at opposite ends of said spring isolator, wherein said spring isolator includes at least a drain, wherein the drain is configured to remove water and/or debris from the spring track.
An integrated process for separation of an organic compound from a fermented broth, the process comprising: (a) pre-heating the degassed broth feed in a feed/bottom heat exchanger (E-4); (b) feeding the degassed and pre-heated fermented broth into a broth stripper vacuum column ( C-1) for generating overhead vapors; (c) compressing the overhead vapors from the broth stripper column with a turbofan(K-1) to obtain compressed vapors at a pressure ranging from 160 to 200 mmHg; (d) routing demineralized water from bottom of the broth stripper column to a falling film evaporator(E 1); (e) routing the compressed vapors obtained in step ( c) to the falling film evaporator(E-1) for heat transfer from the compressed vapors to the demineralized water for generating a stripping steam, wherein the compressed vapor is condensed to obtain a mixture of a condensed liquid and remaining vapors and wherein the stripping steam generated is routed into the bottom of the broth stripper column; (f) routing the mixture of the condensed liquid and the remaining vapors obtained in step (e) to a broth stripper condenser(E-3) for condensing the remaining vapors into a condensed liquid; and (g) collecting the condensed liquid obtained in step (e) and step (f) having 15- 25wt% of the organic compound in a rectifier feed drum(V-2); wherein the broth stripper column is operated at temperature ranging from 15 to 50°C for a residence time ranging from 1-10 minutes for fermented broth liquid containing live microbes; wherein the organic compound is selected from ethanol, propanol, butanol, acetone and iso-propyl alcohol. (a) pre-heating the degassed broth feed in a feed/bottom heat exchanger (E-4); (b) feeding the degassed and pre-heated fermented broth into a broth stripper vacuum column ( C-1) for generating overhead vapors; (c) compressing the overhead vapors from the broth stripper column with a turbofan(K-1) to obtain compressed vapors at a pressure ranging from 160 to 200 mmHg; (d) routing demineralized water from bottom of the broth stripper column to a falling film evaporator(E 1); (e) routing the compressed vapors obtained in step ( c) to the falling film evaporator(E-1) for heat transfer from the compressed vapors to the demineralized water for generating a stripping steam, wherein the compressed vapor is condensed to obtain a mixture of a condensed liquid and remaining vapors and wherein the stripping steam generated is routed into the bottom of the broth stripper column; (f) routing the mixture of the condensed liquid and the remaining vapors obtained in step (e) to a broth stripper condenser(E-3) for condensing the remaining vapors into a condensed liquid; and (g) collecting the condensed liquid obtained in step (e) and step (f) having 15- 25wt% of the organic compound in a rectifier feed drum(V-2); wherein the broth stripper column is operated at temperature ranging from 15 to 50°C for a residence time ranging from 1-10 minutes for fermented broth liquid containing live microbes; wherein the organic compound is selected from ethanol, propanol, butanol, acetone and iso-propyl alcohol.
A fluid flow control apparatus for use in an oilfield tubular positioned in a wellbore extending through a subterranean formation, the oilfield tubular for flowing fluid therethrough, the apparatus comprising: a tubular member defining a passageway for fluid to flow through and having a longitudinal axis; a valve assembly having at least one inlet; a flow control assembly mounted for rotational movement in the tubular member about the longitudinal axis; wherein the flow control assembly comprises directional vanes and a plurality of balance members, the balance members being mounted for radial movement in response to rotation of the directional vanes; the flow control assembly having a restriction member mounted to move longitudinally in the tubular member for restricting flow through the inlet of the valve assembly, wherein flowing a fluid through the passageway imparts a rotation to the directional vanes and radial movement of the balance members causes longitudinal movement of the restriction member. a tubular member defining a passageway for fluid to flow through and having a longitudinal axis; a valve assembly having at least one inlet; a flow control assembly mounted for rotational movement in the tubular member about the longitudinal axis; wherein the flow control assembly comprises directional vanes and a plurality of balance members, the balance members being mounted for radial movement in response to rotation of the directional vanes; the flow control assembly having a restriction member mounted to move longitudinally in the tubular member for restricting flow through the inlet of the valve assembly, wherein flowing a fluid through the passageway imparts a rotation to the directional vanes and radial movement of the balance members causes longitudinal movement of the restriction member.
A method performed by a user equipment, UE, for supporting location services for the UE, the method comprising: transmitting or receiving one or more messages to initiate a Secure User Plane Location, SUPL, positioning session with a SUPL Location Platform, SLP, the SUPL positioning session using at least one uplink or uplink-downlink position method; transmitting to the SLP an identifier for a serving Access and Mobility Management Function, AMF, for the UE and an identifier for the UE; receiving at least one message from a serving base station to configure and activate transmission of an uplink, UL, positioning reference signal, PRS, or a UL sounding reference signal, SRS; and performing the at least one uplink or uplink-downlink position method by transmitting the UL PRS or the UL SRS. transmitting or receiving one or more messages to initiate a Secure User Plane Location, SUPL, positioning session with a SUPL Location Platform, SLP, the SUPL positioning session using at least one uplink or uplink-downlink position method; transmitting to the SLP an identifier for a serving Access and Mobility Management Function, AMF, for the UE and an identifier for the UE; receiving at least one message from a serving base station to configure and activate transmission of an uplink, UL, positioning reference signal, PRS, or a UL sounding reference signal, SRS; and performing the at least one uplink or uplink-downlink position method by transmitting the UL PRS or the UL SRS.
A composition comprising a first material substituted with a group of formula and a second material substituted with at least one group of formula: wherein: Ar 1 is an aryl or heteroaryl group that may be unsubstituted or substituted with one or more substituents; Sp 1 represents a first spacer group; n1 is 0 or 1; m1 is 1 if n1 is 0 and m1 is at least 1 if n1 is 1; R 1 independently in each occurrence is H or a substituent, with the proviso that at least one R 1 is a group R 11 selected from: alkyl comprising a tertiary carbon atom directly bound to a carbon atom of the cyclobutene ring of formula; or branched alkyl wherein a tertiary carbon atom of the branched alkyl is spaced from a carbon atom of the cyclobutene ring of formula by at least one - CH 2 - group; and alkyl comprising a cyclic alkyl group; or with the proviso that at least two R 1 groups are linked to form a ring; Sp 2 represents a second spacer group; n2 is 0 or 1; m2 is 1 if n2 is 0 and m2 is at least 1 if n2 is 1; UG is a group comprising a reactive unsaturated group; and and * represents a point of attachment of the group of formula or to the first or second material respectively. Ar 1 is an aryl or heteroaryl group that may be unsubstituted or substituted with one or more substituents; Sp 1 represents a first spacer group; n1 is 0 or 1; m1 is 1 if n1 is 0 and m1 is at least 1 if n1 is 1; R 1 independently in each occurrence is H or a substituent, with the proviso that at least one R 1 is a group R 11 selected from: alkyl comprising a tertiary carbon atom directly bound to a carbon atom of the cyclobutene ring of formula; or branched alkyl wherein a tertiary carbon atom of the branched alkyl is spaced from a carbon atom of the cyclobutene ring of formula by at least one - CH 2 - group; and alkyl comprising a cyclic alkyl group; alkyl comprising a tertiary carbon atom directly bound to a carbon atom of the cyclobutene ring of formula; or branched alkyl wherein a tertiary carbon atom of the branched alkyl is spaced from a carbon atom of the cyclobutene ring of formula by at least one - CH 2 - group; and alkyl comprising a cyclic alkyl group; or with the proviso that at least two R 1 groups are linked to form a ring; Sp 2 represents a second spacer group; n2 is 0 or 1; m2 is 1 if n2 is 0 and m2 is at least 1 if n2 is 1; UG is a group comprising a reactive unsaturated group; and and * represents a point of attachment of the group of formula or to the first or second material respectively.