mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising: (i) greater than 90 wt% of a choline salt; (ii) a sugar alcohol or a hexitol sugar derivative, or an alginate; (iii) less than 1 wt % of water; and (iv) optionally a phosphate salt, wherein the composition is free flowing, wherein the hexitol sugar derivative is selected from the group consisting of 1,4-anhydrosorbitol, 1,5-anhydrosorbitol, 3,6-anhydrosorbitol, 2,5-anhydromannitol, isosorbide (1,4:3,6-dianhydrosorbitol), isomannide (1,4:3,6-dianhydromannitol), isoidide (1,4:3,6-dianhydroiditol) and combinations thereof, wherein the amount of sugar alcohol in the composition is less than 5.0 wt%, wherein the amount of hexitol sugar derivative in the composition is less than 5.0 wt% and wherein the amount of alginate in the composition is less than 5.0 wt%.
A method of forming a superconductor interconnect structure, the method comprising: forming a dielectric layer overlying a substrate; forming an interconnect opening in the dielectric layer; moving the substrate to a deposition chamber, wherein the deposition chamber is a physical vapor deposition chamber; performing a cleaning process on the top surface of the dielectric layer and in the interconnect opening while in the deposition chamber, wherein the deposition chamber is configured in an Inductively Coupled Plasma mode during the cleaning process; and depositing a superconducting metal in the interconnect opening while in the deposition chamber to form a superconducting element in the superconductor interconnect structure, wherein the deposition chamber is configured in a Self Ionized Plasma mode during the depositing of the superconducting metal. forming a dielectric layer overlying a substrate; forming an interconnect opening in the dielectric layer; moving the substrate to a deposition chamber, wherein the deposition chamber is a physical vapor deposition chamber; performing a cleaning process on the top surface of the dielectric layer and in the interconnect opening while in the deposition chamber, wherein the deposition chamber is configured in an Inductively Coupled Plasma mode during the cleaning process; and depositing a superconducting metal in the interconnect opening while in the deposition chamber to form a superconducting element in the superconductor interconnect structure, wherein the deposition chamber is configured in a Self Ionized Plasma mode during the depositing of the superconducting metal.
A resin blend, comprising: a first resin; and a second resin including a hydrogen-binding donor and acceptor and having a difference in surface energy from the first resin at 25 °C of 0.1 to 35 mN/m wherein the second resin has a higher glass transition temperature than the first resin, and a difference in glass transition temperature from the first resin of more than 30 °C to 150 °C, and wherein the second resin is a (meth)acrylate-based resin comprising a (meth)acrylic monomer polymerized with a monomer selected from the group consisting of vinyl ether, a nitrogen-containing monomer, vinyl acetate, a hydroxyalkyl (meth)acrylate, a carboxyl group-containing monomer and a hetero cyclic compound, wherein the second resin has a polydispersity index of 1 to 2.5 and a weight average molecular weight of 30,000 to 200,000 measured by gel permeation chromatography. a first resin; and a second resin including a hydrogen-binding donor and acceptor and having a difference in surface energy from the first resin at 25 °C of 0.1 to 35 mN/m
Metering module for metering a reducing agent into an exhaust gas section of an internal combustion engine, the metering module comprising at least one cooling element (22, 24) which is flowed through by a cooling fluid, wherein the metering module has a connection piece which comprises a reducing agent line, characterized in that the reducing agent line is encased at least partially by a cooling fluid line, so that the connection piece is cooled actively by the cooling fluid.
A frame for a window delimiting an inner opening, the frame comprising a first frame part and a second frame part, which are interconnected in a corner assembly, each frame part having a main inner surface (32, 42) facing the inner opening and an outer surface facing away from the inner opening, said first frame part comprising a plurality of first fingers (36a-c) extending from an end surface of said first frame part in a longitudinal direction of said first frame part, wherein the main inner surface of said first frame part lies in a first assembly plane, said second frame part comprising a plurality of second fingers (46a-b) extending from an end surface of said second frame part in a longitudinal direction of said second frame part and adapted for engaging with said first fingers, wherein the main inner surface of said second frame part lies in a second assembly plane, and wherein the end surface of said first frame part and the main inner surface of the first frame part meet at a substantially right an-gle, and wherein the end surface of said second frame part and the main inner surface of said second frame part meet at a substantially right angle, and wherein a side surface (360a-c) of at least one of said first fingers, which in a mounted condition faces the end surface of the second part, is substantially parallel to and retracted from said first assembly plane, and wherein a side surface (460a-b) of each of said second fingers, which in a mounted condition faces the end surface of the first part, is substantially parallel to said second assembly plane, and preferably wherein the end surface of said second frame part in a mounted condition is arranged on the same side of the first assembly plane as the outer surface of the first frame part, so that the corner assembly displays a single joint line at the main inner surfaces of the frame parts. a side surface (360a-c) of at least one of said first fingers, which in a mounted condition faces the end surface of the second part, is substantially parallel to and retracted from said first assembly plane, and wherein a side surface (460a-b) of each of said second fingers, which in a mounted condition faces the end surface of the first part, is substantially parallel to said second assembly plane, and preferably wherein the end surface of said second frame part in a mounted condition is arranged on the same side of the first assembly plane as the outer surface of the first frame part, so that the corner assembly displays a single joint line at the main inner surfaces of the frame parts.
A lift offset management system of a rotorcraft, comprising: first and second rotors (50,51) disposed to oppositely rotate about a same rotational axis; sensors disposed to generate hub moment, tip clearance and lift offset data of the first and second rotors; an input unit configured to generate a target lift offset reference command based on flight data, the hub moment data and the tip clearance data generated by the sensors; and a feedback system configured to generate a correction command based on differential cyclic pitch data received from the sensors and comprising: a summation unit at which the target lift offset reference and correction commands (C1,C2) are combined into an actual lift offset command; and a servo control unit disposed to control blade pitching of the first and second rotors (50,51) based on the actual lift offset command. first and second rotors (50,51) disposed to oppositely rotate about a same rotational axis; sensors disposed to generate hub moment, tip clearance and lift offset data of the first and second rotors; an input unit configured to generate a target lift offset reference command based on flight data, the hub moment data and the tip clearance data generated by the sensors; and a feedback system configured to generate a correction command based on differential cyclic pitch data received from the sensors and comprising: a summation unit at which the target lift offset reference and correction commands (C1,C2) are combined into an actual lift offset command; and a servo control unit disposed to control blade pitching of the first and second rotors (50,51) based on the actual lift offset command. a summation unit at which the target lift offset reference and correction commands (C1,C2) are combined into an actual lift offset command; and a servo control unit disposed to control blade pitching of the first and second rotors (50,51) based on the actual lift offset command.
A consumable for an aerosol generating device, the consumable comprising a filter, a tobacco rod, and a cooling chamber formed as a passage between the tobacco rod and the filter; the filter containing a breakable capsule and the breakable capsule comprising an aerosol modifier; wherein the aerosol modifier comprises a flavourant; wherein the capsule has a core-shell structure and the core is a liquid core comprising at least about 25% w/w flavourant, based on the total weight of the core; and wherein the shell comprises a barrier material which is capable of retaining the liquid core up to at least about 50°C to 120°C. the filter containing a breakable capsule and the breakable capsule comprising an aerosol modifier; wherein the aerosol modifier comprises a flavourant; wherein the capsule has a core-shell structure and the core is a liquid core comprising at least about 25% w/w flavourant, based on the total weight of the core; and wherein the shell comprises a barrier material which is capable of retaining the liquid core up to at least about 50°C to 120°C.
A secondary battery, comprising a negative electrode plate, wherein the negative electrode plate comprises a negative electrode current collector and a negative electrode film; the negative electrode film comprises a first negative electrode coating layer and a second negative electrode coating layer; the first negative electrode coating layer is disposed on at least one surface of the negative electrode current collector and comprises a first negative electrode active material, the first negative electrode active material comprises graphite, and the first negative electrode active material comprises or does not comprise a silicon-based material; the second negative electrode coating layer is disposed on a surface of the first negative electrode coating layer and comprises a second negative electrode active material, and the second negative electrode active material comprises artificial graphite and a silicon-based material; the silicon-based material is present at a mass percentage denoted as W1 in the first negative electrode active material, the silicon-based material is present at a mass percentage denoted as W2 in the second negative electrode active material, and the negative electrode plate satisfies: W2 ≥ W1, and characterized in that, W1 + W2 ≤ 6%; and the first negative electrode active material has a volume average particle size D v 50 greater than that of the second negative electrode active material, as measured by the method defined in the description. the first negative electrode coating layer is disposed on at least one surface of the negative electrode current collector and comprises a first negative electrode active material, the first negative electrode active material comprises graphite, and the first negative electrode active material comprises or does not comprise a silicon-based material; the second negative electrode coating layer is disposed on a surface of the first negative electrode coating layer and comprises a second negative electrode active material, and the second negative electrode active material comprises artificial graphite and a silicon-based material; the silicon-based material is present at a mass percentage denoted as W1 in the first negative electrode active material, the silicon-based material is present at a mass percentage denoted as W2 in the second negative electrode active material, and the negative electrode plate satisfies: W2 ≥ W1, and characterized in that, W1 + W2 ≤ 6%; and the first negative electrode active material has a volume average particle size D v 50 greater than that of the second negative electrode active material, as measured by the method defined in the description.
A process for preparing compound (XII-c) from compound according to the Scheme: the process comprising reacting a compound of formula (XI-c):, wherein P is a suitable amino protecting group, with either: (a) compound under amide-bond formation conditions, in the presence of an amide coupling reagent, and in the presence of a catalyst, in an organic solvent, at a temperature in the range of from 0 °C to 50 °C; or (b) an isocyanate compound (IVa) in the presence of a non-nucleophilic base at a temperature in a range of from -20°C to 80°C wherein the isocyanate compound of formula (IVa) is derived from the reaction of the compound with phosgene or a phosgene analog in the presence of an organic base in an aprotic solvent; and the process resulting in the formation of the corresponding compound (XII-c). (a) compound under amide-bond formation conditions, in the presence of an amide coupling reagent, and in the presence of a catalyst, in an organic solvent, at a temperature in the range of from 0 °C to 50 °C; or (b) an isocyanate compound (IVa) in the presence of a non-nucleophilic base at a temperature in a range of from -20°C to 80°C wherein the isocyanate compound of formula (IVa) is derived from the reaction of the compound with phosgene or a phosgene analog in the presence of an organic base in an aprotic solvent; and the process resulting in the formation of the corresponding compound (XII-c). wherein the isocyanate compound of formula (IVa) is derived from the reaction of the compound with phosgene or a phosgene analog in the presence of an organic base in an aprotic solvent; and the process resulting in the formation of the corresponding compound (XII-c).
A wireless communication terminal communicating wirelessly, the terminal comprising: a transceiver; and a processor, wherein the processor is configured to receive trigger information from a base wireless communication terminal using the transceiver, determine whether to aggregate one or more MPDUs requesting an immediate response to generate an Aggregate-MAC Protocol Data Unit, A-MPDU, based on the trigger information, generate the A-MPDU according to the determination, and transmit, according to the trigger information, a trigger-based physical layer protocol data unit, PPDU, including the A-MPDU to the base wireless communication terminal, characterized in that when the trigger information is included in a MAC header, the processor is configured to generate the A-MPDU not to include the one or more MPDUs requesting an immediate response. a transceiver; and a processor, wherein the processor is configured to receive trigger information from a base wireless communication terminal using the transceiver, determine whether to aggregate one or more MPDUs requesting an immediate response to generate an Aggregate-MAC Protocol Data Unit, A-MPDU, based on the trigger information, generate the A-MPDU according to the determination, and transmit, according to the trigger information, a trigger-based physical layer protocol data unit, PPDU, including the A-MPDU to the base wireless communication terminal, characterized in that when the trigger information is included in a MAC header, the processor is configured to generate the A-MPDU not to include the one or more MPDUs requesting an immediate response.
A method for informing an eNodeB of a transmit power status of a user equipment in a mobile communication system using component carrier aggregation, wherein the method comprises the following steps performed by the user equipment: generating a power status report that includes a power headroom report and a component carrier specific maximum transmission power for each configured and activated uplink component carrier, wherein the component carrier specific maximum transmission power takes into account an amount of power reduction on the respective configured and activated uplink component carrier and the component carrier specific maximum transmission power is generated when the user equipment has a resource assignment for the configured and activated uplink component carrier, and transmitting the power status report to the eNodeB. generating a power status report that includes a power headroom report and a component carrier specific maximum transmission power for each configured and activated uplink component carrier, wherein the component carrier specific maximum transmission power takes into account an amount of power reduction on the respective configured and activated uplink component carrier and the component carrier specific maximum transmission power is generated when the user equipment has a resource assignment for the configured and activated uplink component carrier, and transmitting the power status report to the eNodeB.
A device, comprising: a mounting structure configured to mount the device to an external component; first circuitry; and anti-tamper circuitry electrically connected to the first circuitry and configured to disable at least one function of the first circuitry when the device is removed from the external component, wherein the first circuitry is configured to control the external component, characterized in that the device comprises: a switch (222, SW1) coupled to the mounting structure and configured such that a structure of the external component switches the switch (220, SW1) when the device is removed from the external component, the switch (220, SW1) being used by the anti-tamper circuitry to disable the at least one function of the first circuitry until the device is reset. a mounting structure configured to mount the device to an external component; first circuitry; and anti-tamper circuitry electrically connected to the first circuitry and configured to disable at least one function of the first circuitry when the device is removed from the external component, wherein the first circuitry is configured to control the external component, characterized in that the device comprises: a switch (222, SW1) coupled to the mounting structure and configured such that a structure of the external component switches the switch (220, SW1) when the device is removed from the external component, the switch (220, SW1) being used by the anti-tamper circuitry to disable the at least one function of the first circuitry until the device is reset.
Device (9; 9') for controlling reflection of incident electromagnetic radiation depending on the wavelength thereof by an object, in particular to thereby camouflage the object at least in part, the device (9; 9') comprising a coating suitable to be applied to the object, wherein the coating includes an active layer containing a multitude of small-sized structures capable of producing wavelength-dependent diffraction and/or interference of electromagnetic radiation, characterized in that the device (9; 9') comprises an actuating layer disposed beneath the active layer, and in that the actuating layer comprises an elastomer or a piezoceramic material, the active layer being mechanically coupled to the elastomer or to the piezoceramic material, wherein the device (9; 9') is configured in such a manner that, depending on one or more control signals supplied to the actuating layer, an arrangement of the small-sized structures relative to each other can be varied.
Device forming a two-layer mattress topper, comprising an external comfort layer and an internal functional layer intended to be arranged between the external comfort layer and the mattress, the internal layer consisting mainly of feather and the external layer consisting mainly of down, the two layers (6, 7) being removably rigidly connected to one another, the external layer comprising reversible fixing means and the internal layer comprising two sets of complementary fixing means (8', 8") which are provided on two opposing parts of the internal layer that are provided so as to be able to fix the internal layer to the external layer by means of one or the other of its two opposing faces (13, 14), in order to allow the mattress topper to be periodically turned over so as to ensure that the external comfort layer is in contact with the user regardless of the orientation of the mattress topper.
A medical implant introducer actuation assembly comprising a fixed handle, a release portion and a sliding handle, the release portion telescoping within the fixed handle and the sliding handle telescoping within the release portion, a hub retainer being arranged on the sliding handle, a first removable stop pin to prevent movement of the sliding handle with respect to the release portion and a second removable stop pin (218, 230, 240) to prevent movement of the release portion with respect to the fixed handle, characterised in that the assembly further comprises means (210, 211) for securing a pusher to the fixed handle, a secured pusher being arranged to extend from the fixed handle through the release portion and the sliding handle.
An enclosed compressor comprising: a compression element that compresses a working fluid; a casing that has a substantially cylindrical shell plate and houses the compression element; and a fixing member to which the compression element is fixed and which is fixed by welding to the shell plate, wherein fixing of the compression element and the fixing member is performed as a result of the compression element and the fixing member being fastened together by six or more fastening bolts; characterised in that the fixing member contacts an inner peripheral surface of the shell plate and is welded at plural welding portions that are juxtaposed in a circumferential direction of the shell plate, the fastening bolts are juxtaposed in the circumferential direction on an inner peripheral side of the shell plate, a circumferential direction position of each of the welding portions substantially coincides with a circumferential direction position of any of the fastening bolts, the compression element has a cylinder that is configured as a result of a first cover body, a cylinder body and a second cover body being juxtaposed in an axial direction of the shell plate, and the fixing member is disposed so as to surmount the cylinder from the axial direction first cover body side and is fixed to the first cover body by screwing the fastening bolts from the axial direction fixing member side. a compression element that compresses a working fluid; a casing that has a substantially cylindrical shell plate and houses the compression element; and a fixing member to which the compression element is fixed and which is fixed by welding to the shell plate, wherein fixing of the compression element and the fixing member is performed as a result of the compression element and the fixing member being fastened together by six or more fastening bolts; characterised in that the fixing member contacts an inner peripheral surface of the shell plate and is welded at plural welding portions that are juxtaposed in a circumferential direction of the shell plate, the fastening bolts are juxtaposed in the circumferential direction on an inner peripheral side of the shell plate, a circumferential direction position of each of the welding portions substantially coincides with a circumferential direction position of any of the fastening bolts, the compression element has a cylinder that is configured as a result of a first cover body, a cylinder body and a second cover body being juxtaposed in an axial direction of the shell plate, and the fixing member is disposed so as to surmount the cylinder from the axial direction first cover body side and is fixed to the first cover body by screwing the fastening bolts from the axial direction fixing member side.