mhurhangee/ep-ind-claims huggingface dataset:
A burner assembly for burning pulverised fuel including: • a primary duct extending along a longitudinal axis wherein a flow of air and pulverised fuel flows in one direction; the primary duct having one inlet and one outlet; • an inlet assembly connected to the inlet of the primary duct and supplied, in use, with air and pulverised fuel; the inlet assembly being provided with at least one inclined portion configured to deflect the flow of air and pulverised fuel in such a way that the flow itself has a velocity component opposite to the direction; wherein the inclined portion is defined by a first wall with a first outer lateral surface facing the primary duct and a second wall with a second outer lateral surface not facing the primary duct; wherein at least the first wall deflects the flow of air and pulverised fuel; wherein the inlet assembly includes at least one elbow duct coupled to the inlet of the primary duct; the inclined portion being located upstream of the elbow duct with respect to the direction of the flow of air and pulverised fuel in the inlet assembly; the burner assembly being characterised in that it comprises at least one baffle element housed at least partially in the elbow duct and provided with at least one axial portion. • a primary duct extending along a longitudinal axis wherein a flow of air and pulverised fuel flows in one direction; the primary duct having one inlet and one outlet; • an inlet assembly connected to the inlet of the primary duct and supplied, in use, with air and pulverised fuel; the inlet assembly being provided with at least one inclined portion configured to deflect the flow of air and pulverised fuel in such a way that the flow itself has a velocity component opposite to the direction; wherein the inclined portion is defined by a first wall with a first outer lateral surface facing the primary duct and a second wall with a second outer lateral surface not facing the primary duct; wherein at least the first wall deflects the flow of air and pulverised fuel; wherein the inlet assembly includes at least one elbow duct coupled to the inlet of the primary duct; the inclined portion being located upstream of the elbow duct with respect to the direction of the flow of air and pulverised fuel in the inlet assembly;
A broadcast signal sending method, wherein the method is performed by a network device, a protocol stack of the network device comprises a radio resource control, RRC, layer and a physical layer, and the method comprises: generating, by the network device, first information at the RRC layer; characterized in that the method further comprises: generating, by the network device at the physical layer, second information to be carried in a physical broadcast channel, PBCH, wherein the second information is information related to a synchronization signal block, SSB; processing, by the network device, the first information and the second information at the physical layer, wherein the processing the first information and the second information at the physical layer comprises: performing channel coding, scrambling and modulation on a combination result of the first information on which a media access control, MAC, layer processing is performed and the second information; and sending, by the network device to a terminal device, a PBCH comprised in the SSB, wherein the PBCH carries data obtained after physical layer processing which is performed on the first information and the second information at the physical layer. generating, by the network device, first information at the RRC layer; characterized in that the method further comprises: generating, by the network device at the physical layer, second information to be carried in a physical broadcast channel, PBCH, wherein the second information is information related to a synchronization signal block, SSB; processing, by the network device, the first information and the second information at the physical layer, wherein the processing the first information and the second information at the physical layer comprises: performing channel coding, scrambling and modulation on a combination result of the first information on which a media access control, MAC, layer processing is performed and the second information; and sending, by the network device to a terminal device, a PBCH comprised in the SSB, wherein the PBCH carries data obtained after physical layer processing which is performed on the first information and the second information at the physical layer. generating, by the network device at the physical layer, second information to be carried in a physical broadcast channel, PBCH, wherein the second information is information related to a synchronization signal block, SSB; processing, by the network device, the first information and the second information at the physical layer, wherein the processing the first information and the second information at the physical layer comprises: performing channel coding, scrambling and modulation on a combination result of the first information on which a media access control, MAC, layer processing is performed and the second information; and sending, by the network device to a terminal device, a PBCH comprised in the SSB, wherein the PBCH carries data obtained after physical layer processing which is performed on the first information and the second information at the physical layer.
A method for the adjustment of rotational bodies of a printing press with at least a first, a second and a third ink-carrying rotational body (21; 22; 23) interacting in each case in pairs, wherein the second of the at least three rotational bodies is set both against the first of the three rotational bodies and against the third of the three rotational bodies for the formation of a two-sided thrown-on position, characterized in that wherein tracking, coupled in a defined way, of the rotational axis of the second rotational body takes place at the same time as a radial positional change of the rotational axis of the first rotational body, by way of the superimposition of two movements along two non-congruent movement paths which run on a plane which is perpendicular with respect to the rotational axis of the second rotational body.
A method of making a semiconductor device, comprising: patterning a first portion of a feature and a second portion of the feature separated by a first predetermined distance; and patterning the first portion with a cut mask to form a first sub-portion and a second sub-portion in which a dimension of a the first sub-portion is less than a dimension of a second predetermined distance, characterized by the first predetermined distance being a lithographic resolution of a first mask used to pattern the first portion and the second portion; and the second predetermined distance being a line length resolution of a lithographic process having a specified width resolution, and/or a lithographic resolution of the cut mask used to pattern the first and second sub-portions (226, 228). patterning a first portion of a feature and a second portion of the feature separated by a first predetermined distance; and patterning the first portion with a cut mask to form a first sub-portion and a second sub-portion in which a dimension of a the first sub-portion is less than a dimension of a second predetermined distance, characterized by the first predetermined distance being a lithographic resolution of a first mask used to pattern the first portion and the second portion; and the second predetermined distance being a line length resolution of a lithographic process having a specified width resolution, and/or a lithographic resolution of the cut mask used to pattern the first and second sub-portions (226, 228).
A system comprising: a message server; and a telemetry unit, on towable equipment, in communication with the message server; characterised in that the telemetry unit is configured to: discover an identification of an auxiliary device coupled to the telemetry unit; report the identification to the message server; request the message server to forward, from an auxiliary device application, commands to the telemetry unit responsive to a correlation between an identification of an auxiliary device type from the auxiliary device application with the identification of the auxiliary device; and forward the messages to the auxiliary device. a message server; and a telemetry unit, on towable equipment, in communication with the message server; characterised in that the telemetry unit is configured to: discover an identification of an auxiliary device coupled to the telemetry unit; report the identification to the message server; request the message server to forward, from an auxiliary device application, commands to the telemetry unit responsive to a correlation between an identification of an auxiliary device type from the auxiliary device application with the identification of the auxiliary device; and forward the messages to the auxiliary device. discover an identification of an auxiliary device coupled to the telemetry unit; report the identification to the message server; request the message server to forward, from an auxiliary device application, commands to the telemetry unit responsive to a correlation between an identification of an auxiliary device type from the auxiliary device application with the identification of the auxiliary device; and forward the messages to the auxiliary device.
A method implemented on a computer for calibrating at least one sensor data point from an analyte sensor, the method comprising: (a) receiving factory-derived sensitivity distribution information; (b) receiving one or more real-time inputs that may influence calibration of the analyte sensor, wherein the one or more real-time inputs comprise data received or determined since a previous calibration process; (c) forming a posteriori calibration distribution information based on the one or more real-time inputs, wherein forming a posteriori calibration distribution information comprises an adjustment of the factory-derived sensitivity distribution information to determine one or more calibration factors; and (d) converting, in real-time, the at least one sensor data point into calibrated sensor data based on the a posteriori calibration distribution information by applying the one or more calibration factors to the at least one sensor data point using a transformation function. (a) receiving factory-derived sensitivity distribution information; (b) receiving one or more real-time inputs that may influence calibration of the analyte sensor, wherein the one or more real-time inputs comprise data received or determined since a previous calibration process; (c) forming a posteriori calibration distribution information based on the one or more real-time inputs, wherein forming a posteriori calibration distribution information comprises an adjustment of the factory-derived sensitivity distribution information to determine one or more calibration factors; and (d) converting, in real-time, the at least one sensor data point into calibrated sensor data based on the a posteriori calibration distribution information by applying the one or more calibration factors to the at least one sensor data point using a transformation function.
A security device comprising: a two-dimensional array of reflective sampling elements; a non-dispersive colour-generating relief structure formed in a surface of the reflective sampling elements, the non-dispersive colour-generating relief structure defining a two-dimensional array of image elements across the array of reflective sampling elements, wherein the non-dispersive colour-generating relief structure comprises an array of plasmonic nanostructures; nanostructures; wherein the array of reflective sampling elements comprises a dielectric layer coated with a metal layer and wherein: a) the array of plasmonic nanostructures formed in the surface of the array of reflective sampling elements comprises a two-dimensional array of nanopillars, each nanopillar comprising a dielectric body provided by the dielectric layer and each nanopillar being topped by a continuous metal cover layer provided by the metal layer; and/or b) the array of plasmonic nanostructures comprises an array of nanoholes through at least the metal layer; wherein, the array of image elements defined by the non-dispersive colour-generating relief structure and the array of reflective sampling elements cooperate to exhibit an optically variable effect. a two-dimensional array of reflective sampling elements; a non-dispersive colour-generating relief structure formed in a surface of the reflective sampling elements, the non-dispersive colour-generating relief structure defining a two-dimensional array of image elements across the array of reflective sampling elements, wherein the non-dispersive colour-generating relief structure comprises an array of plasmonic nanostructures; nanostructures; wherein the array of reflective sampling elements comprises a dielectric layer coated with a metal layer and wherein: a) the array of plasmonic nanostructures formed in the surface of the array of reflective sampling elements comprises a two-dimensional array of nanopillars, each nanopillar comprising a dielectric body provided by the dielectric layer and each nanopillar being topped by a continuous metal cover layer provided by the metal layer; and/or b) the array of plasmonic nanostructures comprises an array of nanoholes through at least the metal layer; a) the array of plasmonic nanostructures formed in the surface of the array of reflective sampling elements comprises a two-dimensional array of nanopillars, each nanopillar comprising a dielectric body provided by the dielectric layer and each nanopillar being topped by a continuous metal cover layer provided by the metal layer; and/or b) the array of plasmonic nanostructures comprises an array of nanoholes through at least the metal layer; wherein, the array of image elements defined by the non-dispersive colour-generating relief structure and the array of reflective sampling elements cooperate to exhibit an optically variable effect.
Reactor for preparing hydrogen cyanide by the Andrussow process, comprising a reactor vessel, at least one gas inlet which opens into a gas inlet region, an outlet for the reaction products and a catalyst, characterized in that at least one mixing element and at least one gas-permeable intermediate layer are provided within the reactor vessel between the gas inlet region and the catalyst, the mixing element being arranged between the gas inlet region and the gas-permeable intermediate layer, and in that the gas-permeable intermediate layer comprises at least one metal mesh arranged in the direction of the catalyst and a sheet of glass wool or quartz wool which is arranged in the direction of the gas inlet region.
A brush switch with resistors, comprising: a case, a fixed contact point pattern that is fixed to the case, a lever that is supported by the case in an inclinable manner, and a movable contact point brush that is movable by an operation of the lever such that the movable contact point either contacts to or does not contact to the fixed contact point, wherein the fixed contact point pattern has multiple fixed contact points (41, 42, 43) that are disposed separated from one another in the case, and multiple terminals (46, 47) each of which is connected to the multiple fixed contact points, and the movable contact point brush has multiple contact point spring pieces (62, 63, 64) that separate from or contact with the multiple fixed contact points, respectively, and multiple resistors (71, 72), which have different resistance values, that are attached to spaces between the multiple contact point spring pieces.
A method for generating hydrogen from ammonia borane, the method comprising at least the steps of: a) providing at least one water-free liquid medium, b) providing ammonia borane particles having a mean particles size d50 of from 1 to 1 000 nm, c) contacting the water-free liquid medium of step a) with the ammonia borane particles of step b) such as to obtain an ammonia borane-containing suspension, d) heating the ammonia borane-containing suspension obtained in step c) at a temperature of from 90 to 200 °C. a) providing at least one water-free liquid medium, b) providing ammonia borane particles having a mean particles size d50 of from 1 to 1 000 nm, c) contacting the water-free liquid medium of step a) with the ammonia borane particles of step b) such as to obtain an ammonia borane-containing suspension, d) heating the ammonia borane-containing suspension obtained in step c) at a temperature of from 90 to 200 °C.
An apparatus comprising: a fluid ejection device comprising: fluid ejectors; fluid pumps to circulate fluid to the fluid ejectors; a first actuation signal line connected to each of the fluid ejectors and each of the fluid pumps along which a first signal is transmittable to actuate a selected one of fluid ejectors and the fluid pumps; and at least one second actuation signal line connected to the fluid pumps along which a second signal is transmittable to actuate a selected one of the fluid pumps; wherein the fluid ejection device further comprises electronics configured to: t ransmit actuation signals along the first actuation signal line at a first frequency to eject fluid at the first frequency by actuating selected ones of the fluid ejectors and their associated pumps at the first frequency; and t ransmit actuation signals along the at least one second actuation signal line to actuate, at a second frequency, greater than the first frequency, those fluid pumps associated with presently inactive fluid ejectors. a fluid ejection device comprising: fluid ejectors; fluid pumps to circulate fluid to the fluid ejectors; a first actuation signal line connected to each of the fluid ejectors and each of the fluid pumps along which a first signal is transmittable to actuate a selected one of fluid ejectors and the fluid pumps; and at least one second actuation signal line connected to the fluid pumps along which a second signal is transmittable to actuate a selected one of the fluid pumps; fluid ejectors; fluid pumps to circulate fluid to the fluid ejectors; a first actuation signal line connected to each of the fluid ejectors and each of the fluid pumps along which a first signal is transmittable to actuate a selected one of fluid ejectors and the fluid pumps; and at least one second actuation signal line connected to the fluid pumps along which a second signal is transmittable to actuate a selected one of the fluid pumps; wherein the fluid ejection device further comprises electronics configured to: t ransmit actuation signals along the first actuation signal line at a first frequency to eject fluid at the first frequency by actuating selected ones of the fluid ejectors and their associated pumps at the first frequency; and t ransmit actuation signals along the at least one second actuation signal line to actuate, at a second frequency, greater than the first frequency, those fluid pumps associated with presently inactive fluid ejectors. t ransmit actuation signals along the first actuation signal line at a first frequency to eject fluid at the first frequency by actuating selected ones of the fluid ejectors and their associated pumps at the first frequency; and t ransmit actuation signals along the at least one second actuation signal line to actuate, at a second frequency, greater than the first frequency, those fluid pumps associated with presently inactive fluid ejectors.
A method of event reporting between a first node (30; 42; 44) and a second node (30; 46; 50) of a mobile telecommunications network, the method comprising: the first node (30; 42; 44) receiving, from the second node (30; 46; 50), a first attribute value pair in a message of a Diameter protocol for implementing communication between the first node (30; 42; 44) and the second node (30; 46; 50), the first attribute value pair specifying a type of an event which is to be reported from the first node (30; 42; 44) to the second node (30; 46; 50); the first node (30; 42; 44) receiving, from the second node (30; 46; 50), a second attribute value pair of the Diameter protocol, the second attribute value pair comprising additional information for specifying a subtype of the event to be reported, the second attribute value pair being associated with the first attribute value pair by comprising an indication of the type of the event specified in the first attribute value pair, wherein the second attribute value pair of the Diameter protocol is included in the message of the Diameter protocol; and in response to the first node (30; 42; 44) detecting the event of said type and subtype, the first node (30; 42; 44) sending a report of the detected event to the second node (30; 46; 50). the first node (30; 42; 44) receiving, from the second node (30; 46; 50), a first attribute value pair in a message of a Diameter protocol for implementing communication between the first node (30; 42; 44) and the second node (30; 46; 50), the first attribute value pair specifying a type of an event which is to be reported from the first node (30; 42; 44) to the second node (30; 46; 50); the first node (30; 42; 44) receiving, from the second node (30; 46; 50), a second attribute value pair of the Diameter protocol, the second attribute value pair comprising additional information for specifying a subtype of the event to be reported, the second attribute value pair being associated with the first attribute value pair by comprising an indication of the type of the event specified in the first attribute value pair, wherein the second attribute value pair of the Diameter protocol is included in the message of the Diameter protocol; and in response to the first node (30; 42; 44) detecting the event of said type and subtype, the first node (30; 42; 44) sending a report of the detected event to the second node (30; 46; 50).
A stent formed of a composition comprising a biodegradable copolymer, the biodegradable copolymer being derived from three or more monomers; wherein the biodegradable copolymer is derived from: at least two monomers selected from glycolide, D-lactide, L-lactide, D,L-lactide (DLLA), and meso-lactide; and at least one monomer selected from valerolactone, caprolactone, trimethylene carbonate, dioxanone, hydroxybutyrate, and hydroxyvalerate; wherein the stent is a coronary stent or a peripheral stent; wherein the biodegradable copolymer has a Tg from -150 °C to 100 C; wherein the biodegradable copolymer has a polymer number-average molecular weight (Mn) from 10 kDa to 500 kDa; wherein the biodegradable copolymer completely degrades, which is the loss of at least 95 % of its mass, substantially completely degrades, which is the loss of at least 75% of its mass, within 12 months, when exposed to physiological conditions; and wherein for the biodegradable copolymer each kind of monomer independently has from 10 to 5,000 units in the copolymer; and the molar % of each kind of monomer independently is from 5% to 90%. at least two monomers selected from glycolide, D-lactide, L-lactide, D,L-lactide (DLLA), and meso-lactide; and at least one monomer selected from valerolactone, caprolactone, trimethylene carbonate, dioxanone, hydroxybutyrate, and hydroxyvalerate; wherein the stent is a coronary stent or a peripheral stent; wherein the biodegradable copolymer has a Tg from -150 °C to 100 C; wherein the biodegradable copolymer has a polymer number-average molecular weight (Mn) from 10 kDa to 500 kDa; wherein the biodegradable copolymer completely degrades, which is the loss of at least 95 % of its mass, substantially completely degrades, which is the loss of at least 75% of its mass, within 12 months, when exposed to physiological conditions; and wherein for the biodegradable copolymer each kind of monomer independently has from 10 to 5,000 units in the copolymer; and the molar % of each kind of monomer independently is from 5% to 90%.
A pharmaceutical composition for topical ophthalmic administration comprising as an active ingredient 2'-fucosyl-lactose and at least one pharmaceutically acceptable carrier, adjuvant and/or diluent.