mhurhangee/ep-ind-claims huggingface dataset:
A vehicle, comprising: an engine; a rotor, comprising a plurality of rotor blades, in a path of exhaust from the engine; the engine including a rotation force source for rotating the rotor; the vehicle further comprising a rotor control assembly, characterised in that the rotor control assembly is configured to connect the rotor to the rotation force source to rotate the rotor, and configured to rotate the rotor at a prescribed minimum rotation rate greater than zero based on at least one of disengaging the rotor from the rotation force source and receiving a control signal to disengage the rotor from the rotation force source, the rotor control assembly designed to rotate the rotor at the prescribed minimum rotation rate based on at least one system attribute of the vehicle that is affected by a rotation rate of the rotor. an engine; a rotor, comprising a plurality of rotor blades, in a path of exhaust from the engine; the engine including a rotation force source for rotating the rotor; the vehicle further comprising a rotor control assembly, characterised in that the rotor control assembly is configured to connect the rotor to the rotation force source to rotate the rotor, and configured to rotate the rotor at a prescribed minimum rotation rate greater than zero based on at least one of disengaging the rotor from the rotation force source and receiving a control signal to disengage the rotor from the rotation force source, the rotor control assembly designed to rotate the rotor at the prescribed minimum rotation rate based on at least one system attribute of the vehicle that is affected by a rotation rate of the rotor.
A method to validate vehicular functions, comprising: receiving, by a natural language processor component executed by a data processing system and via an interface of the data processing system, an input audio signal; parsing, by the natural language processor component, the input audio signal to identify a request, a vehicle associated with the request, and a fulfilment interface associated with the request and the vehicle; generating, by a direct action application programming interface and based on the request, a first action data structure; determining, by a validation engine, a vehicular state of the vehicle associated with the request based on a first set of sensor data, the vehicular state comprising a first plurality of attributes; determining, by the validation engine, a request state based on the request, the request state comprising a second plurality of attributes; comparing, by the validation engine, the second plurality of attributes of the request state to the first plurality of attributes of the vehicular state; and transmitting, by the validation engine and based on one of the second plurality of attributes of the request state matching one of the first plurality of attributes of the vehicular state, the first action data structure to the fulfilment interface to execute a function associated with the first action data structure. receiving, by a natural language processor component executed by a data processing system and via an interface of the data processing system, an input audio signal; parsing, by the natural language processor component, the input audio signal to identify a request, a vehicle associated with the request, and a fulfilment interface associated with the request and the vehicle; generating, by a direct action application programming interface and based on the request, a first action data structure; determining, by a validation engine, a vehicular state of the vehicle associated with the request based on a first set of sensor data, the vehicular state comprising a first plurality of attributes; determining, by the validation engine, a request state based on the request, the request state comprising a second plurality of attributes; comparing, by the validation engine, the second plurality of attributes of the request state to the first plurality of attributes of the vehicular state; and transmitting, by the validation engine and based on one of the second plurality of attributes of the request state matching one of the first plurality of attributes of the vehicular state, the first action data structure to the fulfilment interface to execute a function associated with the first action data structure.
A method to produce epoxy thermoset comprising 0.1-10 % by weight nano-cellulose, wherein nano-cellulose is selected from and shall be understood as cellulosic fibres, comprising the following steps: a) nano-cellulose is provided as waterborne dispersion, optionally containing up to 50% ethanol, whereby said dispersion comprises at least 0.2%, preferably at least 0.3%, most preferably 2-5% by weight nano-cellulose, b) said nano-cellulose is intensively mixed with an organic phase, the organic phase being a thermoset precursor selected from epoxy or epoxy hardener c) upon transfer of nano-cellulose to the organic phase, water and said optional ethanol are removed by distillation at a temperature below 100 °C for minimizing loss of reactive functionality of epoxy, d) the dry organic phase comprising nano-cellulose is mixed with the appropriate amount of reactive counterpart and optionally other desired additives, wherein said reactive counterpart is amine hardener for epoxies, and e) a final product is achieved following known curing procedures, wherein the loss of reactive functionality of epoxy due to reaction with water is limited to < 20% or < 10% or <5% of reactive epoxy, due to removal of water and optional ethanol in step c. a) nano-cellulose is provided as waterborne dispersion, optionally containing up to 50% ethanol, whereby said dispersion comprises at least 0.2%, preferably at least 0.3%, most preferably 2-5% by weight nano-cellulose, optionally containing up to 50% ethanol, whereby said dispersion comprises at least 0.2%, preferably at least 0.3%, most preferably 2-5% by weight nano-cellulose, b) said nano-cellulose is intensively mixed with an organic phase, the organic phase being a thermoset precursor selected from epoxy or epoxy hardener c) upon transfer of nano-cellulose to the organic phase, water and said optional ethanol are removed by distillation at a temperature below 100 °C for minimizing loss of reactive functionality of epoxy, d) the dry organic phase comprising nano-cellulose is mixed with the appropriate amount of reactive counterpart and optionally other desired additives, wherein said reactive counterpart is amine hardener for epoxies, and e) a final product is achieved following known curing procedures,
A bulk product dispenser unit, comprising: a cabinet comprising a hopper having a drum chamber with an inner wall, a drum positioned inside the drum chamber, a deflector and a flexible gate valve; and a dispense assembly; wherein the drum comprises a plurality of product compartments; characterised in that: at least one product compartment comprises a flexible and/or elastic membrane; wherein the membrane comprises a first end and a second end, further wherein the membrane proximate the first end is slidingly attached to a first interior side of the at least one product compartment, and the second end is fixedly attached to a second interior side of the at least one product compartment. a cabinet comprising a hopper having a drum chamber with an inner wall, a drum positioned inside the drum chamber, a deflector and a flexible gate valve; and a dispense assembly; wherein the drum comprises a plurality of product compartments;
A method performed in an electronic device, the method comprising: displaying an object list, wherein the object list includes a plurality of objects in a predetermined order; detecting an object movement direction based on a first drag for moving a first object among the objects in the displayed object list; detecting a second drag corresponding to the first object, determining a movement interval for the first object, the movement interval being mapped to a drag direction of the detected second drag; and changing a position of the first object within the object list based on the determined movement interval and the detected object movement direction; wherein the movement interval is a measure of movement relative to the predetermined order of the object list. displaying an object list, wherein the object list includes a plurality of objects in a predetermined order; detecting an object movement direction based on a first drag for moving a first object among the objects in the displayed object list; detecting a second drag corresponding to the first object, determining a movement interval for the first object, the movement interval being mapped to a drag direction of the detected second drag; and changing a position of the first object within the object list based on the determined movement interval and the detected object movement direction; wherein the movement interval is a measure of movement relative to the predetermined order of the object list.
A container (5; 205; 405) for holding a food product, the container comprising: a bottom wall (133; 333; 533) and at least one side wall (137; 337; 537) cooperating to at least partially define a cavity (145; 345; 545) of the container; a plurality of first features extending in the bottom wall (133; 333; 533); a plurality of second features (119; 319, 350) extending in the side wall (137; 337; 537), the plurality of first features cooperating with the plurality of second features for directing moisture from the cavity (145; 345; 545) of the container (5; 205; 405) to an exterior of the container during heating of the food product in the cavity (145; 345; 545) of the container; and wherein the plurality of first features comprises embossed features (120, 121, 125; 320, 321; 520, 521; 525) that define a plurality of recessed portions and a plurality of raised portions (122, 123, 124; 322, 323, 324; 522; 523), characterized in that, the plurality of raised portions comprising an inner ring (122; 322; 522) and an outer ring (123; 323; 523), and the plurality of recessed portions comprises an inner recessed portion (120; 320; 520) that is concentric with the inner ring (122; 322; 522) of the plurality of raised portions and a plurality of intermediate recessed portions (121; 321; 521) disposed between the inner ring (122; 322; 522) and the outer ring (123; 323; 523) of the plurality of raised portions. a bottom wall (133; 333; 533) and at least one side wall (137; 337; 537) cooperating to at least partially define a cavity (145; 345; 545) of the container; a plurality of first features extending in the bottom wall (133; 333; 533); a plurality of second features (119; 319, 350) extending in the side wall (137; 337; 537), the plurality of first features cooperating with the plurality of second features for directing moisture from the cavity (145; 345; 545) of the container (5; 205; 405) to an exterior of the container during heating of the food product in the cavity (145; 345; 545) of the container; and wherein the plurality of first features comprises embossed features (120, 121, 125; 320, 321; 520, 521; 525) that define a plurality of recessed portions and a plurality of raised portions (122, 123, 124; 322, 323, 324; 522; 523), characterized in that, the plurality of raised portions comprising an inner ring (122; 322; 522) and an outer ring (123; 323; 523), and the plurality of recessed portions comprises an inner recessed portion (120; 320; 520) that is concentric with the inner ring (122; 322; 522) of the plurality of raised portions and a plurality of intermediate recessed portions (121; 321; 521) disposed between the inner ring (122; 322; 522) and the outer ring (123; 323; 523) of the plurality of raised portions.
Screw elements for multi-shaft screw machines with paired co-directionally rotating screw shafts, these screw elements being fully wiping in pairs and screw shafts that are made up of these screw elements having two or more screw flights, the screw profiles being able to be represented over the entire cross section by respective profile curves, characterized in that each profile curve has at least one kink location along it that lies within an outer radius of the profile curve, the ratio of a radius of curvature of the screw profile to the outer radius of the profile at the point P A which cleans the barrel being 0.2 to 0.8, and the ratio of the outer radius ra of the screw element to the centerline distance a for double-flighted screw elements being between 0.54 and 0.7, for triple-flighted screw elements between 0.53 and 0.57, and for quadruple-flighted screw elements between 0.515 and 0.535.
A cover for a shaft of a medical scoping device, the cover comprising a tubular member arranged for application over a distal tip of the medical scoping device shaft with the tubular member, in use, extending along a portion of the length of the distal end of the shaft, the tubular member comprising a proximal circumferential edge, a distal circumferential edge, an inner surface at least a part of which grips the shaft, and an outer surface, the cover comprising a plurality of projecting elements spaced apart circumferentially around the tubular member, each projecting element having a base portion and an arm portion, the base portion comprising first and second mountings (18, 19) by which the projecting element is pivotably mounted on the tubular member about a pivot axis, characterised in that the base portion comprises a detent, and the tubular member comprises a protuberance that provides a region that is elevated relative to at least a part of the surrounding surface to provide a clearly defined contact region, said contact region being so located that on pivoting movement of the projecting element towards the distal direction, the detent will impact on the contact region, thereby hindering further pivoting movement of the base of the projecting element.
An access card reader for controlling access to a secure area, the access card reader comprising: An NFC card reader for reading an access card identifier from an access card presented by a user; a touchless thermal sensor, wherein in response to the access card being presented by the user to the card reader, the touchless thermal sensor is configured to sense a skin temperature of a hand or arm of the user holding the access card; a memory; and a controller operatively coupled to the card reader, the touchless thermal sensor and the memory, wherein in response to the user presenting the access card to the card reader, the controller is configured to store in the memory the access card identifier read by the card reader along with the corresponding skin temperature of the hand or arm of the user holding the access card. An NFC card reader for reading an access card identifier from an access card presented by a user; a touchless thermal sensor, wherein in response to the access card being presented by the user to the card reader, the touchless thermal sensor is configured to sense a skin temperature of a hand or arm of the user holding the access card; a memory; and a controller operatively coupled to the card reader, the touchless thermal sensor and the memory, wherein in response to the user presenting the access card to the card reader, the controller is configured to store in the memory the access card identifier read by the card reader along with the corresponding skin temperature of the hand or arm of the user holding the access card.
Apparatus (10; 30; 50; 60) for mapping a first input loudspeaker channel and a second input loudspeaker channel of an input loudspeaker channel configuration to output loudspeaker channels (16, 42, 44) of an output loudspeaker channel configuration, wherein each input loudspeaker channel and each output loudspeaker channel has a direction relative to a central listener position, wherein the first and second input loudspeaker channels (12, 14) have different elevation angles relative to a horizontal listener plane, wherein the apparatus is configured to: map the first input loudspeaker channel to a first output loudspeaker channel of the output loudspeaker channel configuration; and despite of the fact that an azimuth angle deviation between a direction of the second input loudspeaker channel and a direction of the first output loudspeaker channel is less than an azimuth angle deviation between a direction of the second input loudspeaker channel and a second output loudspeaker channel and/or is less than an azimuth angle deviation between the direction of the second input loudspeaker channel and the direction of a third output loudspeaker channel, map the second input loudspeaker channel to the second and third output loudspeaker channels (42, 44) by panning (52, 62) between the second and third output loudspeaker channels (42, 44) to generate a phantom source at the position of the loudspeaker associated with the first output loudspeaker channel. map the first input loudspeaker channel to a first output loudspeaker channel of the output loudspeaker channel configuration; and despite of the fact that an azimuth angle deviation between a direction of the second input loudspeaker channel and a direction of the first output loudspeaker channel is less than an azimuth angle deviation between a direction of the second input loudspeaker channel and a second output loudspeaker channel and/or is less than an azimuth angle deviation between the direction of the second input loudspeaker channel and the direction of a third output loudspeaker channel, map the second input loudspeaker channel to the second and third output loudspeaker channels (42, 44) by panning (52, 62) between the second and third output loudspeaker channels (42, 44) to generate a phantom source at the position of the loudspeaker associated with the first output loudspeaker channel.
An engineered composition comprising a Class 2 type VI single-component CRISPR-Cas polypeptide C2c2 comprising two HEPN domains and a nucleic acid component, wherein C2c2 forms a complex with the nucleic acid component, said nucleic acid component capable of directing sequence-specific binding of said complex to an RNA target sequence of a polynucleotide.
A high-strength steel sheet excellent in impact resistance consisting of, in mass%, C: 0.075 to 0.300%, Si: 0.30 to 2.50%, Mn: 1.30 to 3.50%, P: 0.001 to 0.050%, S: 0.0001 to 0.0050%, Al: 0.001 to 0.050%, Ti: 0.0010 to 0.0150%, N: 0.0001 to 0.0050%, and O: 0.0001 to 0.0030%, and further optionally comprising one or two or more elements selected from Nb: 0.0010 to 0.0150%, V: 0.010 to 0.150%, B: 0.0001 to 0.0100%, Cr: 0.01 to 2.00%, Ni: 0.01 to 2.00%, Cu: 0.01 to 2.00%, Mo: 0.01 to 1.00%, W: 0.01 to 1.00%, and one or two or more of Ca, Ce, Mg, Zr, Hf, and REM totally in 0.0001 to 0.5000 mass% with the balance being iron and inevitable impurities, and having a steel sheet structure in which in a region of a 1/8 thickness to a 3/8 thickness whose center is at a 1/4 thickness of the steel sheet, 1 to 8% retained austenite is contained in volume fraction, an average aspect ratio of the retained austenite is 2.0 or less, an amount of solid-solution Mn in the retained austenite is 1.1 times an average amount of Mn or more, TiN grains having a 0.5 μm average grain diameter or less are contained, and a density of AlN grains with a 1 μm grain diameter or more is 1.0 pieces/mm 2 or less, and wherein maximum tensile strength is 900 MPa or more and reduction in area is 20% or more, wherein the reduction in area is measured by a tensile test on a tensile test piece, which has been cooled to -60°C.
A solid textile care composition, comprising a water-soluble carrier, a water-soluble polymer having a melting or softening point in the range of 48°C to 300°C, a textile care compound and a perfume, wherein the water-soluble carrier is present in particulate form and comprises an at least partial casing consisting of the water soluble polymer and the perfume.
A vat heating device, comprising: a vat having a bottom plate and used to accommodate a photosensitive resin; a first portion of a heater disposed on the bottom plate, embedded in a bottom of the vat, and adjacent to the photosensitive resin to heat the photosensitive resin; a platform disposed above the vat; a second portion of the heater embedded in the platform; wherein the first portion of the heater is on an optical path of a light source for curing the photosensitive resin: - wherein the first portion of the heater is a transparent conductive glass, and wherein the transparent conductive glass is indium tin oxide glass or fluorine-doped tin oxide glass, and - wherein a surface resistance of the first portion of the heater is 10-1000Ω/sq. a vat having a bottom plate and used to accommodate a photosensitive resin; a first portion of a heater disposed on the bottom plate, embedded in a bottom of the vat, and adjacent to the photosensitive resin to heat the photosensitive resin; a platform disposed above the vat; a second portion of the heater embedded in the platform; wherein the first portion of the heater is on an optical path of a light source for curing the photosensitive resin: - wherein the first portion of the heater is a transparent conductive glass, and wherein the transparent conductive glass is indium tin oxide glass or fluorine-doped tin oxide glass, and - wherein a surface resistance of the first portion of the heater is 10-1000Ω/sq. a platform disposed above the vat; a second portion of the heater embedded in the platform; wherein the first portion of the heater is on an optical path of a light source for curing the photosensitive resin: - wherein the first portion of the heater is a transparent conductive glass, and - wherein the first portion of the heater is a transparent conductive glass, and wherein the transparent conductive glass is indium tin oxide glass or fluorine-doped tin oxide glass, and - wherein a surface resistance of the first portion of the heater is 10-1000Ω/sq. - wherein a surface resistance of the first portion of the heater is 10-1000Ω/sq.
A communication method, comprising: receiving (101, 301), by a first device, a first message sent by a second device by using a P2P network, said P2P network being a peer-to-peer network in which devices communicate with each other directly, wherein the first message comprises address information of the second device in an infrastructure network and identification information of a radio access device connected to the second device in the infrastructure network; determining, by the first device, whether identification information of a radio access device connected to the first device matches the identification information of the radio access device connected to the second device in the infrastructure network; and in case of both identifications matching, communicating (102, 304), by the first device, with the second device according to the address information by using the same radio access device connected to the second device. receiving (101, 301), by a first device, a first message sent by a second device by using a P2P network, said P2P network being a peer-to-peer network in which devices communicate with each other directly, wherein the first message comprises address information of the second device in an infrastructure network and identification information of a radio access device connected to the second device in the infrastructure network; determining, by the first device, whether identification information of a radio access device connected to the first device matches the identification information of the radio access device connected to the second device in the infrastructure network; and in case of both identifications matching, communicating (102, 304), by the first device, with the second device according to the address information by using the same radio access device connected to the second device.