mhurhangee/ep-ind-claims huggingface dataset:
An implantable band for treatment of a medical condition, the band composing: (a) a strap configured to encircle a portion of an anatomical passageway, said strap having an inner and outer surface; (b) first and second end portions (92, 94) disposed at either end of said strap, said first and second end portions (92, 94) configured to be attached to each other so as to secure said strap adjacent the anatomical passageway, said first and second end portions (92, 94) extending in an outward direction when attached together; and (c) at least one laterally extending member extending from said first end portion, said at least one laterally extending member configured to engage said second end portion thereby attaching said first and second end portions (92, 94) together; wherein said at least one laterally extending member defines a passageway, said second end portion being configured to extend through said passageway; wherein said second end portion comprises a retaining member which is configured to cooperate with said at least one laterally extending member when said second end portion extends through said passageway so as to resist withdrawal of said second end portion from said passageway; and wherein said passageway has a width and a height, and wherein said retaining member comprises a distal end having a tip and a base, said base being wider than said height of said passageway; characterised in that: the distal end is disposed at the end of an elastic shaft and is adapted to be rotatable between a position wherein the base is generally aligned with the passageway such that the distal end may pass through the passageway, and a position wherein the base is not in alignment with the passageway and wherein the elastic shaft urges the base against the laterally extending member once the distal end has passed through the passageway. (a) a strap configured to encircle a portion of an anatomical passageway, said strap having an inner and outer surface; (b) first and second end portions (92, 94) disposed at either end of said strap, said first and second end portions (92, 94) configured to be attached to each other so as to secure said strap adjacent the anatomical passageway, said first and second end portions (92, 94) extending in an outward direction when attached together; and (c) at least one laterally extending member extending from said first end portion, said at least one laterally extending member configured to engage said second end portion thereby attaching said first and second end portions (92, 94) together; the distal end is disposed at the end of an elastic shaft and is adapted to be rotatable between a position wherein the base is generally aligned with the passageway such that the distal end may pass through the passageway, and a position wherein the base is not in alignment with the passageway and wherein the elastic shaft urges the base against the laterally extending member once the distal end has passed through the passageway.
A wind turbine power generation system comprising: a rotor shaft coupled to an electrical generator configured to generate a power output at a first AC voltage level; a converter system configured to convert the power output of the generator at the first AC voltage level to a converter power output at a second AC voltage level; a transformer configured to convert the converter system power output at the second AC voltage level to a generation system power output at a third AC voltage level; wherein the converter system comprises a machine-side converter, a line-side converter and a DC-link; wherein the transformer is an online tap changer transformer (OLTC), and wherein the electrical generator is a permanent-magnet generator or is a wound-field synchronous generator; characterised in that the machine-side converter is a line-commutated rectifier; and wherein the online tap changer transformer is controlled in dependence on at least one of: generator speed and wind speed, so to reduce the line-side converter AC voltage and in turn the DC-link voltage, so the line-commutated rectifier can supply the requested power at the particular wind speed, generator speed and grid AC voltage, in particular at low wind speed or low generator speeds. a rotor shaft coupled to an electrical generator configured to generate a power output at a first AC voltage level; a converter system configured to convert the power output of the generator at the first AC voltage level to a converter power output at a second AC voltage level; a transformer configured to convert the converter system power output at the second AC voltage level to a generation system power output at a third AC voltage level; wherein the converter system comprises a machine-side converter, a line-side converter and a DC-link; wherein the transformer is an online tap changer transformer (OLTC), and wherein the electrical generator is a permanent-magnet generator or is a wound-field synchronous generator; characterised in that the machine-side converter is a line-commutated rectifier; and wherein the online tap changer transformer is controlled in dependence on at least one of: generator speed and wind speed, so to reduce the line-side converter AC voltage and in turn the DC-link voltage, so the line-commutated rectifier can supply the requested power at the particular wind speed, generator speed and grid AC voltage, in particular at low wind speed or low generator speeds.
An actuator controller comprising: a first communication node associated with a first communication address; a first communication port; a second communication port associated with a second communication address; and a router characterized in that said router is responsive to messages received at the first communication port and the second communication port to: route a first message, received at the first communication port and including the first communication address, to the first communication node; route a second message, received at the first communication port and including the second communication address, to the second communication port; and route a third message, received at the second communication port and including the first communication address, to the first communication node. a first communication node associated with a first communication address; a first communication port; a second communication port associated with a second communication address; and a router characterized in that said router is responsive to messages received at the first communication port and the second communication port to: route a first message, received at the first communication port and including the first communication address, to the first communication node; route a second message, received at the first communication port and including the second communication address, to the second communication port; and route a third message, received at the second communication port and including the first communication address, to the first communication node. route a first message, received at the first communication port and including the first communication address, to the first communication node; route a second message, received at the first communication port and including the second communication address, to the second communication port; and route a third message, received at the second communication port and including the first communication address, to the first communication node.
A method of controlling uplink resources in a wireless telecommunications system, the uplink resources being provided by a base station of the wireless telecommunications system for enabling communication from a plurality of mobile terminals and the base station, the method comprising: receiving respective transmission request messages from the plurality of mobile terminals; selecting a subset of mobile terminals from the plurality of mobile terminals; pre-allocating respective link resources to the mobile terminals in the subset of mobile terminals; determining transmission weight information for each of the mobile terminals in the subset of mobile terminals; sending respective selection messages to the mobile terminals in the subset of mobile terminals, each selection message including pre-allocation information and transmission weight information for the mobile terminal concerned; obtaining feedback information relating to the mobile terminals in the selected subset; and performing transmission mode adaptation for the mobile terminals in the selected subset in dependence upon the obtained feedback information, wherein the feedback information is based upon pilot signals received from the mobile terminals of the selected subset of mobile terminals, said pilot signals being transmitted with the respective determined transmission weights. receiving respective transmission request messages from the plurality of mobile terminals; selecting a subset of mobile terminals from the plurality of mobile terminals; pre-allocating respective link resources to the mobile terminals in the subset of mobile terminals; determining transmission weight information for each of the mobile terminals in the subset of mobile terminals; sending respective selection messages to the mobile terminals in the subset of mobile terminals, each selection message including pre-allocation information and transmission weight information for the mobile terminal concerned; obtaining feedback information relating to the mobile terminals in the selected subset; and performing transmission mode adaptation for the mobile terminals in the selected subset in dependence upon the obtained feedback information, wherein the feedback information is based upon pilot signals received from the mobile terminals of the selected subset of mobile terminals, said pilot signals being transmitted with the respective determined transmission weights.
A method for determining by mass spectrometry the amount of pregnenolone and 17-hydroxypregnenolone (17-OH pregnenolone); the method comprising: a. subjecting a single sample injection to an ionization source to ionize each of pregnenolone and 17-OH pregnenolone to produce one or more ions detectable by mass spectrometry from each of pregnenolone and 17-OH pregnenolone, wherein pregnenolone and 17-OH pregnenolone are not derivatized prior to ionization; b. determining the amounts of one or more ions from each of pregnenolone and 17-OH pregnenolone by tandem mass spectrometry; and c. using the amounts of the one or more ions from each of pregnenolone and 17-OH pregnenolone to determine the amounts of each of pregnenolone and 17-OH pregnenolone in the sample. a. subjecting a single sample injection to an ionization source to ionize each of pregnenolone and 17-OH pregnenolone to produce one or more ions detectable by mass spectrometry from each of pregnenolone and 17-OH pregnenolone, wherein pregnenolone and 17-OH pregnenolone are not derivatized prior to ionization; b. determining the amounts of one or more ions from each of pregnenolone and 17-OH pregnenolone by tandem mass spectrometry; and c. using the amounts of the one or more ions from each of pregnenolone and 17-OH pregnenolone to determine the amounts of each of pregnenolone and 17-OH pregnenolone in the sample.
An extended radio base station system having a master base station (20; 20a; 20b) for mobile communications and an extended radio base station (40; 40a; 40b) that is connected to the master base station (20; 20a; 20b) via a communication line (9; 91, 92) and has a radio transmitting/receiving function for the mobile communication, the extended radio base station system comprising: a broadcast wave reception unit (6; 32, 33; 305, 310, 315; 26, 27; 210, 215) for receiving broadcast waves; a signal superposition unit (7; 35; 320, 325, 340, 345, 350, 355, 360; 28; 220, 225, 245, 250, 255, 260) for superposing a broadcast signal obtained from broadcast waves received by the broadcast wave reception unit (6; 32, 33; 305, 310, 315; 26, 27; 210, 215) on a mobile communication signal from the master base station (20; 20a; 20b) to the extended radio base station (40; 40a; 40b), and transmitting the superposed mobile communication signal and broadcast signal to the extended radio base station (40; 40a; 40b), wherein: the extended radio base station (40; 40a; 40b) is arranged to separate the broadcast signal from the superposed and transmitted signal, and to retransmit the separated broadcast signal; and broadcast wave transmission status in the extended radio base station (40; 40a; 40b) is monitored using a header area of uplink data for mobile communications from the extended radio base station (40; 40a; 40b) to the master base station (20; 20a; 20b). a broadcast wave reception unit (6; 32, 33; 305, 310, 315; 26, 27; 210, 215) for receiving broadcast waves; a signal superposition unit (7; 35; 320, 325, 340, 345, 350, 355, 360; 28; 220, 225, 245, 250, 255, 260) for superposing a broadcast signal obtained from broadcast waves received by the broadcast wave reception unit (6; 32, 33; 305, 310, 315; 26, 27; 210, 215) on a mobile communication signal from the master base station (20; 20a; 20b) to the extended radio base station (40; 40a; 40b), and transmitting the superposed mobile communication signal and broadcast signal to the extended radio base station (40; 40a; 40b), wherein: the extended radio base station (40; 40a; 40b) is arranged to separate the broadcast signal from the superposed and transmitted signal, and to retransmit the separated broadcast signal; and broadcast wave transmission status in the extended radio base station (40; 40a; 40b) is monitored using a header area of uplink data for mobile communications from the extended radio base station (40; 40a; 40b) to the master base station (20; 20a; 20b). the extended radio base station (40; 40a; 40b) is arranged to separate the broadcast signal from the superposed and transmitted signal, and to retransmit the separated broadcast signal; and broadcast wave transmission status in the extended radio base station (40; 40a; 40b) is monitored using a header area of uplink data for mobile communications from the extended radio base station (40; 40a; 40b) to the master base station (20; 20a; 20b).
2-Chloro-2'-deoxyadenosine, hereinafter referred to as cladribine, or a pharmaceutically acceptable salt thereof, for use in the treatment or amelioration of neuromyelitis optica, hereinafter referred to as NMO.
Silicone compositions comprising 20-70 wt% of at least one polyorganosiloxane having a dynamic viscosity of 50-100 000 mPa·s at 25°C and a shear rate d = 1 s -1, and having at least two radicals per molecule with aliphatic carbon-carbon multiple bonds, and further comprising at least 5 mol% of 3,3,3-trifluoropropylmethylsiloxy or at least 5 mol% of bis(3,3,3-trifluoropropyl)siloxy units or at least 5 mol% of a mixture of both, 10-70 wt% of at least one linear α,ω-Si-H functional polyorganosiloxane having a dynamic viscosity of 50-100 000 mPa·s at 25°C and a shear rate d = 1 s -1, and further comprising at least 5 mol% of 3,3,3-trifluoropropylmethylsiloxy or at least 5 mol% of bis(3,3,3-trifluoropropyl)siloxy units or at least 5 mol% of a mixture of both, 0.1-50 wt% of at least one organosilicon compound containing at least 3 hydrogen atoms bonded to silicon per molecule, and further comprising at least 2.5 mol% of 3,3,3-trifluoropropylmethylsiloxy or at least 2.5 mol% of bis(3,3,3-trifluoropropyl)siloxy units or at least 2.5 mol% of a mixture of both, 1-40 wt% of reinforcing, surface-treated filler having a specific BET surface area according to DIN EN ISO 9277 of at least 50 m 2 /g, where the surface treatment is a hydrophobization and as a result the carbon content of the filler is at least 0.01 up to a maximum of 20 wt%, at least one hydrosilylation catalyst, the amounts always being selected so that they amount in total to 100 wt%. 20-70 wt% of at least one polyorganosiloxane having a dynamic viscosity of 50-100 000 mPa·s at 25°C and a shear rate d = 1 s -1, and having at least two radicals per molecule with aliphatic carbon-carbon multiple bonds, and further comprising at least 5 mol% of 3,3,3-trifluoropropylmethylsiloxy or at least 5 mol% of bis(3,3,3-trifluoropropyl)siloxy units or at least 5 mol% of a mixture of both, 10-70 wt% of at least one linear α,ω-Si-H functional polyorganosiloxane having a dynamic viscosity of 50-100 000 mPa·s at 25°C and a shear rate d = 1 s -1, and further comprising at least 5 mol% of 3,3,3-trifluoropropylmethylsiloxy or at least 5 mol% of bis(3,3,3-trifluoropropyl)siloxy units or at least 5 mol% of a mixture of both, 0.1-50 wt% of at least one organosilicon compound containing at least 3 hydrogen atoms bonded to silicon per molecule, and further comprising at least 2.5 mol% of 3,3,3-trifluoropropylmethylsiloxy or at least 2.5 mol% of bis(3,3,3-trifluoropropyl)siloxy units or at least 2.5 mol% of a mixture of both, 1-40 wt% of reinforcing, surface-treated filler having a specific BET surface area according to DIN EN ISO 9277 of at least 50 m 2 /g, where the surface treatment is a hydrophobization and as a result the carbon content of the filler is at least 0.01 up to a maximum of 20 wt%, at least one hydrosilylation catalyst, the amounts always being selected so that they amount in total to 100 wt%.
A method of wireless communication, comprising: selecting a first user equipment, UE, and a second UE from a group of UEs for transmission of frequency-orthogonal or spreading code-orthogonal uplink control messages in a same time slot; transmitting scheduling information via one or more first downlink messages to the first UE in a first beam; transmitting scheduling information via one or more second downlink messages to the second UE in a second beam; receiving, in response to the transmission of the one or more first downlink messages, one or more first uplink control messages from the first UE in a time slot; and receiving, in response to the transmission of the one or more second downlink messages, one or more second uplink control messages from the second UE in the time slot, the one or more second uplink control messages being frequency-orthogonal or spreading code-orthogonal to the one or more first uplink control messages. selecting a first user equipment, UE, and a second UE from a group of UEs for transmission of frequency-orthogonal or spreading code-orthogonal uplink control messages in a same time slot; transmitting scheduling information via one or more first downlink messages to the first UE in a first beam; transmitting scheduling information via one or more second downlink messages to the second UE in a second beam; receiving, in response to the transmission of the one or more first downlink messages, one or more first uplink control messages from the first UE in a time slot; and receiving, in response to the transmission of the one or more second downlink messages, one or more second uplink control messages from the second UE in the time slot, the one or more second uplink control messages being frequency-orthogonal or spreading code-orthogonal to the one or more first uplink control messages.
Actuating device for a door-unlocking and/or door-opening mechanism, comprising at least - a housing (3.2) with a sensing unit, - an actuating element (3.1) with an actuating stroke from a rest and/or starting position into an actuated position, and - at least one restoring element (3.4), which restores the actuating element (3.1) from the actuated position into the rest and/or starting position, wherein the actuating element (3.1) is movably arranged in relation to the housing (3.2) and, relative to this housing (3.2), between the rest and/or starting position and the actuated position, characterized in that the at least one restoring element (3.4) is arranged in at least one region between the actuating element (3.1) and the housing (3.2), wherein the restoring element (3.4) is designed to connect the actuating element (3.1) and the housing (3.2) to one another and to seal the sensing unit in the outward direction, wherein the restoring element (3.4) has an adhesively bonding, a sealing and a resilient function between the actuating element (3.1) and the housing (3.2), and wherein the restoring element (3.4) acts in the direction of restoring the actuating element (3.1) in the rest and/or starting position. - a housing (3.2) with a sensing unit, - an actuating element (3.1) with an actuating stroke from a rest and/or starting position into an actuated position, and - at least one restoring element (3.4), which restores the actuating element (3.1) from the actuated position into the rest and/or starting position, wherein the actuating element (3.1) is movably arranged in relation to the housing (3.2) and, relative to this housing (3.2), between the rest and/or starting position and the actuated position, characterized in that the at least one restoring element (3.4) is arranged in at least one region between the actuating element (3.1) and the housing (3.2), wherein the restoring element (3.4) is designed to connect the actuating element (3.1) and the housing (3.2) to one another and to seal the sensing unit in the outward direction, wherein the restoring element (3.4) has an adhesively bonding, a sealing and a resilient function between the actuating element (3.1) and the housing (3.2), and wherein the restoring element (3.4) acts in the direction of restoring the actuating element (3.1) in the rest and/or starting position.
Transporting container, in particular for storing notes of value, having a container body (12, 12a, 12b), which has at least one storage region (36, 36a, 36b) for storing the notes of value, and having a handle (16, 16a, 16b) which is connected to the container body (12, 12a, 12b), wherein the handle (16, 16a, 16b) and the container body (12, 12a, 12b) are connected by at least one connecting element (38, 38a, 38b), the handle (16, 16a, 16b) is arranged in a displaceable manner in relation to the container body (12a, 12b) via the connecting element (38, 38a, 38b), and the handle (16, 16a, 16b) is arranged in a depression (14, 14a, 14b), which is provided in the container body, the handle (16, 16a, 16b) in a rest position does not project out of the depression (14, 14a, 14b), and the handle (16, 16a, 16b) in a first transporting position projects out of the depression (14, 14a, 14b), and therefore an engagement opening (18, 18a, 18b) formed by the handle (16, 16a, 16b) is arranged in the centre-of-gravity plane or in a plane parallel to the centre-of-gravity plane, wherein the engagement opening (18, 18a, 18b) in the first transporting position is arranged in the centre-of-gravity plane, and the engagement opening (18, 18a, 18b) in a second transporting position is arranged in a plane parallel to the centre-of-gravity plane, characterized in that a restoring element (42, 42a, 42b) subjects the handle (16, 16a, 16b) to a restoring force at least into the first transporting position or into the rest position.