mhurhangee/patent-ind-claim-en huggingface dataset:
An anode for a lithium secondary battery, wherein an anode material layer is formed on at least one surface of an anode current collector; and the anode material layer comprises large-particle graphite, a small-particle silicon-based material, fine-particle graphite, and carbon nanotube, and satisfies the following conditions 1 to 3; Condition 1: average diameter D50 of the large-particle graphite (D 1 ) has a range of 1 to 50 μ m, Condition 2: average diameter D50 of the small-particle silicon-based material (D 2 ) has a range of 0. 155D 1 to 0.414D 1 , and Condition 3: average diameter D50 of the fine-particle graphite (D 3 ) has a range of 0.155D 1 to 0.414D 1 , or 0.155D 2 to 0.414D 2 , wherein the average diameter is a diameter at 50% of particle size distribution obtained based on a volume of the particles by using a laser diffraction method. the anode material layer comprises large-particle graphite, a small-particle silicon-based material, fine-particle graphite, and carbon nanotube, and satisfies the following conditions 1 to 3; Condition 1: average diameter D50 of the large-particle graphite (D 1 ) has a range of 1 to 50 μ m, Condition 2: average diameter D50 of the small-particle silicon-based material (D 2 ) has a range of 0. 155D 1 to 0.414D 1 , and Condition 3: average diameter D50 of the fine-particle graphite (D 3 ) has a range of 0.155D 1 to 0.414D 1 , or 0.155D 2 to 0.414D 2 , wherein the average diameter is a diameter at 50% of particle size distribution obtained based on a volume of the particles by using a laser diffraction method.
A method for transmitting at least a group of Q symbols (A 0 ; ...; A Q-1 ) in a radio signal to be transmitted over a wireless communication system, said radio signal being intended to be emitted by an emitter comprising at least one transmit antenna configured for transmitting on at least a number M, of different frequencies, M being equal to L.K with L and K strictly positive integer and Q being a strictly positive integer strictly smaller than L, said radio signal being provided by: - applying a M size DFT to a block of symbols X=(X 0 , ...X M-1 ), and obtaining for each k th frequency, with k = 0 to M-1, a complex symbol S k in the frequency domain; - obtaining, at an output of an IDFT module corresponding to a transmit antenna a signal representing, in the frequency domain, complex symbols respectively function of S k for each k th frequency with k = 0 to M-1; - emitting the radio signal corresponding to the signal; said method comprising: - determining Q positions n i in the block of symbols, such as { n i | i ∈ 0; Q - 1 , 0 ≤ n i < L, ∀i, i' ∈ 0; Q - 1 2 , i < i' ⇒ n i < n i' }; - transmitting the Q symbols through the radio signal, such as for each i, samples of the symbol a i in the radio signal are equal to a result outputted by the IDFT module, of the application of the DFT to a block of M symbols with values of symbols X ni+mL , in the positions n i +mL, being respectively e j2πk ( n i + mL )/ M A i , with k integer such as 0 ≤ k < K, with m integer such as 0 ≤ m < K, and j the imaginary number. - applying a M size DFT to a block of symbols X=(X 0 , ...X M-1 ), and obtaining for each k th frequency, with k = 0 to M-1, a complex symbol S k in the frequency domain; - obtaining, at an output of an IDFT module corresponding to a transmit antenna a signal representing, in the frequency domain, complex symbols respectively function of S k for each k th frequency with k = 0 to M-1; - emitting the radio signal corresponding to the signal; - determining Q positions n i in the block of symbols, such as { n i | i ∈ 0; Q - 1 , 0 ≤ n i < L, ∀i, i' ∈ 0; Q - 1 2 , i < i' ⇒ n i < n i' }; - transmitting the Q symbols through the radio signal, such as for each i, samples of the symbol a i in the radio signal are equal to a result outputted by the IDFT module, of the application of the DFT to a block of M symbols with values of symbols X ni+mL , in the positions n i +mL, being respectively e j2πk ( n i + mL )/ M A i , with k integer such as 0 ≤ k < K, with m integer such as 0 ≤ m < K, and j the imaginary number.
An optical wavelength conversion member comprising a ceramic sintered body having a fluorescent phase containing fluorescent crystal grains as a main component and a translucent phase containing translucent crystal grains as a main component, wherein the crystal grains of the fluorescent phase have a composition represented by formula A 3 B 5 O 12 :Ce, and each of the element A and the element B is at least one element selected from the following element groups: A: Sc, Y, and lanthanoids (except for Ce), and B: Al and Ga; and the following relations are satisfied: 0.3 ≤ a < 34 and 300 μm < y < 1,050 μm, wherein a represents the ratio of the area of the translucent phase to the area of the fluorescent phase in a cross section of the optical wavelength conversion member , and y represents the interfacial length of the fluorescent phase in a unit area of 500 μm 2 ; characterized in that the Ce content of the compound represented by formula A 3 B 5 O 12 :Ce is 0.1 mol% to 0.3 mol% relative to the element A of the compound. the crystal grains of the fluorescent phase have a composition represented by formula A 3 B 5 O 12 :Ce, and each of the element A and the element B is at least one element selected from the following element groups: A: Sc, Y, and lanthanoids (except for Ce), and B: Al and Ga; and A: Sc, Y, and lanthanoids (except for Ce), and B: Al and Ga; and the following relations are satisfied: 0.3 ≤ a < 34 and 300 μm < y < 1,050 μm, wherein a represents the ratio of the area of the translucent phase to the area of the fluorescent phase in a cross section of the optical wavelength conversion member , and y represents the interfacial length of the fluorescent phase in a unit area of 500 μm 2 ; characterized in that the Ce content of the compound represented by formula A 3 B 5 O 12 :Ce is 0.1 mol% to 0.3 mol% relative to the element A of the compound.
A method for deployment of an industrial application on an edge computing device (ECD) connected to a controller of a machine tool (MT), the method comprising the steps of: (a) providing (S1) a generic machine tool model (GMTM) of machine tool components, wherein the generic machine tool model (GMTM) provides a schema adapted to describe configurations of machine tool components, kinematics and associated data items; (b) instantiating (S2), by a model management component (MMC) of a deployment platform, the generic machine tool model (GMTM) of machine tool components to provide a machine instance model (MIM) of the machine tool (MT) on the basis of a machine tool data report (MTDR) extracted by the edge computing device (ECD) from the controller of the machine tool (MT), wherein the machine instance model (MIM) defines the configuration data and the dynamic data of the machine tool (MT) by means of the schema provided by the generic machine tool model (GMTM); (c) converting (S3), by the model management component (MMC), generic data requirements (gR) of a generic industrial application into machine tool specific requirements (mtsR) using the machine instance model (MIM) of the machine tool (MT); (d) providing (S4) an instantiated industrial application for the machine tool (MT) by instantiating the generic industrial application by extending its configuration data with the machine tool specific requirements (mtsR); and (e) deploying (S5), by the model management component (MMC), the instantiated industrial application on the edge computing device (ECD) of the machine tool (MT). (a) providing (S1) a generic machine tool model (GMTM) of machine tool components, wherein the generic machine tool model (GMTM) provides a schema adapted to describe configurations of machine tool components, kinematics and associated data items; (b) instantiating (S2), by a model management component (MMC) of a deployment platform, the generic machine tool model (GMTM) of machine tool components to provide a machine instance model (MIM) of the machine tool (MT) on the basis of a machine tool data report (MTDR) extracted by the edge computing device (ECD) from the controller of the machine tool (MT), wherein the machine instance model (MIM) defines the configuration data and the dynamic data of the machine tool (MT) by means of the schema provided by the generic machine tool model (GMTM); (c) converting (S3), by the model management component (MMC), generic data requirements (gR) of a generic industrial application into machine tool specific requirements (mtsR) using the machine instance model (MIM) of the machine tool (MT); (d) providing (S4) an instantiated industrial application for the machine tool (MT) by instantiating the generic industrial application by extending its configuration data with the machine tool specific requirements (mtsR); and (e) deploying (S5), by the model management component (MMC), the instantiated industrial application on the edge computing device (ECD) of the machine tool (MT).
An adhesive using bark, comprising a resol type phenolic resin and a radiata pine bark powder, wherein the adhesive contains 30 to 40 parts by mass of the radiata pine bark powder, relative to 100 parts by mass of the total of the resol type phenolic resin solids and the radiata pine bark powder.
A shaft current collector for a shaft assembly comprising a shaft and a machine part surrounding the shaft , the shaft current collector comprising: - an electrically conductive ring for arrangement on the shaft so as to electrically contact same, which ring has an engagement recess which is arranged so as to extend axially relative to the central axis (Z) of the ring ; - a blocking element which can be secured on the machine part relative to the shaft and which, when the shaft current collector is in the installed state, engages into the engagement recess of the ring such that, as the shaft rotates, a rotation of the ring is restricted by the blocking element whilst the ring is electrically conductively contacted by the blocking element , wherein the ring is of fully slotted form and is formed as an elastically expandable spring ring, or wherein the ring consists of individual segments which are arranged one behind the other in the circumferential direction of the shaft. - an electrically conductive ring for arrangement on the shaft so as to electrically contact same, which ring has an engagement recess which is arranged so as to extend axially relative to the central axis (Z) of the ring ; - a blocking element which can be secured on the machine part relative to the shaft and which, when the shaft current collector is in the installed state, engages into the engagement recess of the ring such that, as the shaft rotates, a rotation of the ring is restricted by the blocking element whilst the ring is electrically conductively contacted by the blocking element ,
A pharmaceutical hormone softgel capsule comprising an outer soft capsule shell and an inner hormone formulation, characterized in that : - the outer soft capsule shell comprises gelatin, and - the inner hormone formulation comprises micronized progesterone in combination with grapeseed oil. - the outer soft capsule shell comprises gelatin, and - the inner hormone formulation comprises micronized progesterone in combination with grapeseed oil.
A drug delivery device comprising: a housing defining a shell; a drug delivery assembly at least partially disposed within the housing, the drug delivery assembly comprising a guard which engages an inner surface of the housing and is movable between at least a first, a second, and a third position relative to the housing, the guard adapted to at least partially restrict external contact with a cannula; a cap defining a shell and being adapted to at least partially cover an end of the drug delivery device housing; at least one electronic component at least partially disposed in the cap, and a power source at least partially disposed in the cap for selectively powering the at least one electronic component; and a switch assembly at least partially disposed in the cap, the switch assembly adapted to: cause the power source to provide power to the at least one electronic component when the cap is removed from the housing, restrict the power source from providing power to the at least one electronic component when the cap is coupled to the housing and the guard is in the first position, and cause the power source to provide power to the at least one electronic component when the cap is coupled to the housing and the guard is in the third position. a housing defining a shell; a drug delivery assembly at least partially disposed within the housing, the drug delivery assembly comprising a guard which engages an inner surface of the housing and is movable between at least a first, a second, and a third position relative to the housing, the guard adapted to at least partially restrict external contact with a cannula; a cap defining a shell and being adapted to at least partially cover an end of the drug delivery device housing; at least one electronic component at least partially disposed in the cap, and a power source at least partially disposed in the cap for selectively powering the at least one electronic component; and a switch assembly at least partially disposed in the cap, the switch assembly adapted to: cause the power source to provide power to the at least one electronic component when the cap is removed from the housing, restrict the power source from providing power to the at least one electronic component when the cap is coupled to the housing and the guard is in the first position, and cause the power source to provide power to the at least one electronic component when the cap is coupled to the housing and the guard is in the third position. cause the power source to provide power to the at least one electronic component when the cap is removed from the housing, restrict the power source from providing power to the at least one electronic component when the cap is coupled to the housing and the guard is in the first position, and cause the power source to provide power to the at least one electronic component when the cap is coupled to the housing and the guard is in the third position.
An anti-icing device for intake opening of nacelle engine for turbojet or turbofan engines wherein the intake opening is delimited at the front by a front annular portion formed by a first outer annular wall facing the outside of the nacelle itself and by a second inner annular wall facing the intake opening of the nacelle itself and connected with the first portion through a curved profile , the second inner annular wall being connected by a rear side facing the engine with one peripheral side of a sound-absorbing tubular wall delimiting part of the suction line of the nacelle, said peripheral side is the lateral edge of the tubular wall annularly adjacent to the second inner annular wall, wherein the anti-icing device comprises: - a first Joule effect heater device configured to be coupled to the first outer annular wall , powered by the electric energy present on the aircraft and configured, when powered, to heat the outer surface of the first outer wall causing the ice formed on the first wall to lose its adhesion which is then removed due to kinetic effect by the airflow outside of the nacelle engine or falls by gravity during the aircraft landing operations; - a second Joule effect heater device configured to be coupled to the second inner annular wall , powered by the electric energy present on the aircraft and configured, when powered, to heat the outer surface of the second inner wall so that any ice that has formed on the second inner annular wall is transformed into a film of water which flows along the second annular wall towards the sound-absorbing tubular wall ; characterised in that a discontinuity element is configured to be provided exclusively between the second inner annular wall and the peripheral side of the sound-absorbing tubular wall and is configured to perform the detachment of the liquid film (F) that flows on the inner annular wall due to the kinetic speed of the airflow sucked by the engine directing the nebulized air particles (G) towards the engine itself. - a first Joule effect heater device configured to be coupled to the first outer annular wall , powered by the electric energy present on the aircraft and configured, when powered, to heat the outer surface of the first outer wall causing the ice formed on the first wall to lose its adhesion which is then removed due to kinetic effect by the airflow outside of the nacelle engine or falls by gravity during the aircraft landing operations; - a second Joule effect heater device configured to be coupled to the second inner annular wall , powered by the electric energy present on the aircraft and configured, when powered, to heat the outer surface of the second inner wall so that any ice that has formed on the second inner annular wall is transformed into a film of water which flows along the second annular wall towards the sound-absorbing tubular wall ;
A method of making a patterned abrasive layer on a resin coated backing comprising the steps of: providing a production tool having a dispensing surface with cavities , each cavity having a cavity longitudinal axis perpendicular to the dispensing surface and a depth, D, along the cavity longitudinal axis; selecting elongated abrasive particles having a length, L, along a longitudinal particle axis greater than a width, W, along a transverse axis perpendicular to the longitudinal particle axis, wherein the depth, D, of the cavities is between 0.5L to 2L; supplying an excess of the elongated abrasive particles to the dispensing surface such that more elongated abrasive particles are provided than the number of cavities ; filling a majority of the cavities in the dispensing surface with an elongated abrasive particle disposed in an individual cavity such that the longitudinal particle axis is parallel to the longitudinal cavity; removing a remaining fraction of the excess elongated abrasive particles not disposed within a cavity after the filling step from the dispensing surface ; aligning the resin coated backing with the dispensing surface with the resin layer facing the dispensing surface ; transferring the elongated abrasive particles in the cavities to the resin coated backing and attaching the elongated abrasive particles to the resin layer; and removing the production tool to expose the patterned abrasive layer on the resin coated backing . providing a production tool having a dispensing surface with cavities , each cavity having a cavity longitudinal axis perpendicular to the dispensing surface and a depth, D, along the cavity longitudinal axis; selecting elongated abrasive particles having a length, L, along a longitudinal particle axis greater than a width, W, along a transverse axis perpendicular to the longitudinal particle axis, wherein the depth, D, of the cavities is between 0.5L to 2L; supplying an excess of the elongated abrasive particles to the dispensing surface such that more elongated abrasive particles are provided than the number of cavities ; filling a majority of the cavities in the dispensing surface with an elongated abrasive particle disposed in an individual cavity such that the longitudinal particle axis is parallel to the longitudinal cavity; removing a remaining fraction of the excess elongated abrasive particles not disposed within a cavity after the filling step from the dispensing surface ; aligning the resin coated backing with the dispensing surface with the resin layer facing the dispensing surface ; transferring the elongated abrasive particles in the cavities to the resin coated backing and attaching the elongated abrasive particles to the resin layer; and removing the production tool to expose the patterned abrasive layer on the resin coated backing .
A robotic vehicle comprising: one or more functional components configured to execute a lawn care function; a sensor network comprising one or more sensors configured to detect conditions proximate to the robotic vehicle, the sensor network including a grass detector ; and processing circuitry configurable to cause recording data from said one or more sensors of the robotic vehicle responsive to the robotic vehicle transiting a portion of a parcel; determining a confidence score associated with the recorded data for each of a plurality of potential detection events, the confidence score corresponding to a probability that the recorded data corresponds to an object; characterized in that the processing circuitry is further configured for classifying the object, the classifying the object comprising determining whether the object corresponds to grass; wherein the confidence score is associated to the object classification; generating map data comprising one or more objects or features correlated to the potential detection events based at least in part on the confidence score of the respective objects or features; and determining the confidence score by recording an initial confidence score for an initial detection and an updated confidence score responsive to a second potential detection event at a same location as the initial detection. one or more functional components configured to execute a lawn care function; a sensor network comprising one or more sensors configured to detect conditions proximate to the robotic vehicle, the sensor network including a grass detector ; and processing circuitry configurable to cause recording data from said one or more sensors of the robotic vehicle responsive to the robotic vehicle transiting a portion of a parcel; determining a confidence score associated with the recorded data for each of a plurality of potential detection events, the confidence score corresponding to a probability that the recorded data corresponds to an object; characterized in that the processing circuitry is further configured for classifying the object, the classifying the object comprising determining whether the object corresponds to grass; wherein the confidence score is associated to the object classification; generating map data comprising one or more objects or features correlated to the potential detection events based at least in part on the confidence score of the respective objects or features; and determining the confidence score by recording an initial confidence score for an initial detection and an updated confidence score responsive to a second potential detection event at a same location as the initial detection.
A system, comprising: a collector including load sensors attached thereto, the collector configured to receive an extruded polymer; and an electrospinning melt head assembly positioned above the collector and configured to extrude the polymer, wherein the electrospinning melt head assembly and/or the collector is configured to move, the melt head assembly including a syringe assembly and at least one heating element configured to supply heat to the syringe assembly, the syringe assembly comprising: a syringe including a passage extending from a proximal end, the passage configured to receive the polymer, and a nozzle configured to allow polymer to pass therethrough. a collector including load sensors attached thereto, the collector configured to receive an extruded polymer; and an electrospinning melt head assembly positioned above the collector and configured to extrude the polymer, wherein the electrospinning melt head assembly and/or the collector is configured to move, the melt head assembly including a syringe assembly and at least one heating element configured to supply heat to the syringe assembly, the syringe assembly comprising: a syringe including a passage extending from a proximal end, the passage configured to receive the polymer, and a nozzle configured to allow polymer to pass therethrough. a syringe including a passage extending from a proximal end, the passage configured to receive the polymer, and a nozzle configured to allow polymer to pass therethrough.