mhurhangee/patent-ind-claim-en huggingface dataset:
A negative electrode active material which comprises artificial graphite having a large particle diameter and natural graphite having a small particle diameter, wherein the average particle diameter ratio of the small particle and the large particle is 1:1.5-1:5; each of the artificial graphite having a large particle diameter and the natural graphite having a small particle diameter is further provided with a coating layer containing amorphous carbon; the coating layer is present in an amount of 1-10 parts by weight based on 100 parts by weight of the sum of the artificial graphite having a large particle diameter and the natural graphite having a small particle diameter; and the content ratio of the artificial graphite having a large particle diameter and the natural graphite having a small particle diameter is 1:9-4:6.
A process for particle size reduction of pirfenidone having a particle size D90 of above 500 μm prior to particle size reduction by wet milling.
An optical terminal for communication by laser signals, which is suitable for emitting a laser beam, referred to as a useful laser beam (FU), which is modulated so as to transmit useful signals to an optical receiver external to the optical terminal, referred to as the destination receiver , the useful laser beam having at least one wavelength and forming at least one illumination spot within a plane perpendicular to a direction of propagation of said useful laser beam and located at the destination receiver, referred to as the reception plane (PR), the optical terminal being characterised in that it is adapted to additionally emit a jamming light beam (FB), such that the useful laser beam (FU) and the jamming light beam meet the following properties: - the useful laser beam (FU) and the jamming light beam (FB) are emitted simultaneously; - an emission direction of the jamming light beam (FB) is such that said jamming light beam forms, in the reception plane (PR), a superposition with the useful laser beam (FU); - the jamming light beam (FB) has a non-zero spectral power value for the wavelength of the useful laser beam (FU), such that at said wavelength and in the reception plane (PR), the jamming light beam constitutes a noise contribution with respect to the useful signals; and - respective intensities of the useful laser beam (FU) and the jamming light beam (FB) are such that at the wavelength of the useful laser beam and in the reception plane (PR), there is a zone, referred to as the destination zone (ZD), within which the superposition of said useful laser beam and said jamming light beam has signal-to-noise ratio values, for the useful signals, at any point in said destination zone which are all greater than a limit value, and said signal-to-noise ratio simultaneously has values which are all lower than the limit value at any other point in the reception plane outside said destination zone. - the useful laser beam (FU) and the jamming light beam (FB) are emitted simultaneously; - an emission direction of the jamming light beam (FB) is such that said jamming light beam forms, in the reception plane (PR), a superposition with the useful laser beam (FU); - the jamming light beam (FB) has a non-zero spectral power value for the wavelength of the useful laser beam (FU), such that at said wavelength and in the reception plane (PR), the jamming light beam constitutes a noise contribution with respect to the useful signals; and - respective intensities of the useful laser beam (FU) and the jamming light beam (FB) are such that at the wavelength of the useful laser beam and in the reception plane (PR), there is a zone, referred to as the destination zone (ZD), within which the superposition of said useful laser beam and said jamming light beam has signal-to-noise ratio values, for the useful signals, at any point in said destination zone which are all greater than a limit value, and said signal-to-noise ratio simultaneously has values which are all lower than the limit value at any other point in the reception plane outside said destination zone.
Bacterium of the species Lactobacillus fermentum selected from the group consisting of: (a) the Lactobacillus fermentum strain deposited as DSM32086; (b) the Lactobacillus fermentum strain deposited as DSM32087; (c) the Lactobacillus fermentum strain deposited as DSM32089; (d) the Lactobacillus fermentum strain deposited as DSM32091; or (e) a mutant Lactobacillus strain obtainable from one the deposited bacteria according to (a) to (d), wherein the mutant is characterized in that it increases the pH of a fermented milk product comprising the mutant Lactobacillus fermentum during storage after fermentation in comparison to a milk product fermented with the same starter culture not containing the Lactobacillus fermentum, wherein the increase in pH is at least by a value of 0.1, and wherein the increase in pH is determined after storing a product fermented with a starter culture and the Lactobacillus fermentum in a concentration of at least 10 7 cfu/g over 21 days at 25 °C. (a) the Lactobacillus fermentum strain deposited as DSM32086; (b) the Lactobacillus fermentum strain deposited as DSM32087; (c) the Lactobacillus fermentum strain deposited as DSM32089; (d) the Lactobacillus fermentum strain deposited as DSM32091; or (e) a mutant Lactobacillus strain obtainable from one the deposited bacteria according to (a) to (d), wherein the mutant is characterized in that it increases the pH of a fermented milk product comprising the mutant Lactobacillus fermentum during storage after fermentation in comparison to a milk product fermented with the same starter culture not containing the Lactobacillus fermentum, wherein the increase in pH is at least by a value of 0.1, and wherein the increase in pH is determined after storing a product fermented with a starter culture and the Lactobacillus fermentum in a concentration of at least 10 7 cfu/g over 21 days at 25 °C.
A method performed by a first radio network node for handling communication of a wireless device in a wireless communication network, wherein the first radio network node serves the wireless device and the wireless communication network further comprises a second radio network node , the method comprising: - determining that the wireless device is a device using a beam configuration at the first radio network node; and - transmitting a message when determined that the wireless device is using the beam configuration, to the second radio network node , with an indication requesting that the wireless device gets access to the second radio network node and also requests usage of a beam configuration at the second radio network node ; - receiving a confirmation from the second radio network node , which confirmation comprises a configuration indication indicating mapping of reference signals, RSs, to random access channel, RACH, configuration and/or a configuration of RSs transmitted in beams at the second radio network node ; and - forwarding the mapping of RSs to RACH configuration, and/or RSs configuration to the wireless device . - determining that the wireless device is a device using a beam configuration at the first radio network node; and - transmitting a message when determined that the wireless device is using the beam configuration, to the second radio network node , with an indication requesting that the wireless device gets access to the second radio network node and also requests usage of a beam configuration at the second radio network node ; - receiving a confirmation from the second radio network node , which confirmation comprises a configuration indication indicating mapping of reference signals, RSs, to random access channel, RACH, configuration and/or a configuration of RSs transmitted in beams at the second radio network node ; and - forwarding the mapping of RSs to RACH configuration, and/or RSs configuration to the wireless device .
A package (P3) comprising: a bag main body folded flat, having a gusset portion at a bottom portion and an opening portion at a side opposite to said gusset portion ; and a holder sheet folded flat, provided in parallel with the gusset portion at a position close to the bottom portion and separated from the gusset portion in an interior of said bag mainbody , said holder sheet having at least one holding opening element , wherein the bag main body and the holder sheet are formed of a plastic film, and the holder sheet is integrally attached with the main bag body by thermally fusion-cut portions at both widthwise sides of the bag main body and thermally welded portions of both edge portions of a side opposite to a side where the holding opening element is provided and of the bag main body , wherein the holding opening element has a structure bordered into a necessary opening shape with a weak line that enables breaking-through. a bag main body folded flat, having a gusset portion at a bottom portion and an opening portion at a side opposite to said gusset portion ; and a holder sheet folded flat, provided in parallel with the gusset portion at a position close to the bottom portion and separated from the gusset portion in an interior of said bag mainbody , said holder sheet having at least one holding opening element , wherein the bag main body and the holder sheet are formed of a plastic film, and the holder sheet is integrally attached with the main bag body by thermally fusion-cut portions at both widthwise sides of the bag main body and thermally welded portions of both edge portions of a side opposite to a side where the holding opening element is provided and of the bag main body , wherein the holding opening element has a structure bordered into a necessary opening shape with a weak line that enables breaking-through.
An inhaler article comprising: a body extending along a longitudinal axis from a mouthpiece end to a distal end ; a capsule cavity defined within the body , the capsule cavity having a cavity length extending along the longitudinal axis; a mouthpiece air channel extends from the capsule cavity to the mouthpiece end ; an end cap disposed within the distal end and extending to the capsule cavity , the end cap extending from an end cap distal end face to an end cap inner end and comprising a helical air channel extending from the end cap distal end face to the end cap inner end ; and a capsule disposed within the capsule cavity , the capsule having a capsule length, the capsule length is in a range from about 25% to about 99% of the cavity length, or about 50% to about 95% of the cavity length, or about 70% to about 90% of the cavity length, or from about 75% to about 85% of the cavity length, or about 80% of the cavity length. a body extending along a longitudinal axis from a mouthpiece end to a distal end ; a capsule cavity defined within the body , the capsule cavity having a cavity length extending along the longitudinal axis; a mouthpiece air channel extends from the capsule cavity to the mouthpiece end ; an end cap disposed within the distal end and extending to the capsule cavity , the end cap extending from an end cap distal end face to an end cap inner end and comprising a helical air channel extending from the end cap distal end face to the end cap inner end ; and a capsule disposed within the capsule cavity , the capsule having a capsule length, the capsule length is in a range from about 25% to about 99% of the cavity length, or about 50% to about 95% of the cavity length, or about 70% to about 90% of the cavity length, or from about 75% to about 85% of the cavity length, or about 80% of the cavity length.
A bearing and housing assembly, the assembly comprising: a housing having an interior surface defining a bore extending therethrough, the bore having an inner diameter (D2) defining a generally cylindrical inner surface ; an outer ring positioned in the bore , the outer ring having a substantially cylindrical outer surface having a first outer diameter (D3) and having at least one shoulder proximate an end of the outer ring , the shoulder having a second outer diameter (D4); and the at least one shoulder defining a self-aligning feature that self-aligns the outer ring in the bore wherein the self-aligning feature includes: the at least one shoulder , wherein the at least one shoulder having depth (D1) of about 0.1 mm, a first chamfer proximate a first axial end (E1) of the shoulder , and a second chamfer proximate a second axial end (E2) of the shoulder ; wherein the substantially cylindrical outer surface has a first axial length (L1) and the at least one shoulder has a second axial length (L2) of 4 to 25 percent of the first axial length (L1), wherein the outer ring is press fit into the bore of the housing according to a diametral interference fit that is about equal to the outer diameter (D3) minus the inner diameter (D2). a housing having an interior surface defining a bore extending therethrough, the bore having an inner diameter (D2) defining a generally cylindrical inner surface ; an outer ring positioned in the bore , the outer ring having a substantially cylindrical outer surface having a first outer diameter (D3) and having at least one shoulder proximate an end of the outer ring , the shoulder having a second outer diameter (D4); and the at least one shoulder defining a self-aligning feature that self-aligns the outer ring in the bore wherein the self-aligning feature includes: the at least one shoulder , wherein the at least one shoulder having depth (D1) of about 0.1 mm, a first chamfer proximate a first axial end (E1) of the shoulder , and a second chamfer proximate a second axial end (E2) of the shoulder ; the at least one shoulder , wherein the at least one shoulder having depth (D1) of about 0.1 mm, a first chamfer proximate a first axial end (E1) of the shoulder , and a second chamfer proximate a second axial end (E2) of the shoulder ; wherein the substantially cylindrical outer surface has a first axial length (L1) and the at least one shoulder has a second axial length (L2) of 4 to 25 percent of the first axial length (L1), wherein the outer ring is press fit into the bore of the housing according to a diametral interference fit that is about equal to the outer diameter (D3) minus the inner diameter (D2).
A method of providing a self-healing coating, the method comprising: co-spraying an individual constituent of an aluminum-containing MAX phase material and metal matrix composite particles to form a MAXMET (max phase/metal matrix composite) layer (14; 22) onto a substrate (12; 20), wherein in said layer (14; 22) the aluminum-containing MAX phase material is a Ti 2 AlC ceramic powder and has a particle size of 1-3 μm (microns), and the metal matrix composite particles have a particle size of 0.02 to 0.5 μm (microns) produced by ball milling to mechanically alloy its constituents, the method further comprising: exposing the MAXMET layer to a temperature greater than 1093 °C (2000°F) to form alpha aluminum.
A material handling vehicle simulation system comprising: a material handling vehicle including: a plurality of controls operable to manipulate the material handling vehicle to perform a desired operation; a simulation port ; and a vehicle controller in communication with the simulation port and configured to selectively transition between a standard mode where the vehicle controller is configured to instruct the material handling vehicle to perform standard operating tasks and a simulation mode, wherein the vehicle controller is configured to detect a triggering event to indicate when the vehicle controller is to transition between the standard mode and the simulation mode; and a simulation kit including: a simulation display ; and a simulation controller in communication with the plurality of controls and the simulation display , wherein when the vehicle controller is in the simulation mode, the simulation controller is configured to simulate operation of the material handling vehicle on the simulation display in response to manipulation of at least one of the plurality of controls, and wherein the triggering event comprises connecting the simulation controller to the simulation port . a plurality of controls operable to manipulate the material handling vehicle to perform a desired operation; a simulation port ; and a vehicle controller in communication with the simulation port and configured to selectively transition between a standard mode where the vehicle controller is configured to instruct the material handling vehicle to perform standard operating tasks and a simulation mode, wherein the vehicle controller is configured to detect a triggering event to indicate when the vehicle controller is to transition between the standard mode and the simulation mode; and a simulation kit including: a simulation display ; and a simulation controller in communication with the plurality of controls and the simulation display , wherein when the vehicle controller is in the simulation mode, the simulation controller is configured to simulate operation of the material handling vehicle on the simulation display in response to manipulation of at least one of the plurality of controls, and wherein the triggering event comprises connecting the simulation controller to the simulation port . a simulation display ; and a simulation controller in communication with the plurality of controls and the simulation display , wherein when the vehicle controller is in the simulation mode, the simulation controller is configured to simulate operation of the material handling vehicle on the simulation display in response to manipulation of at least one of the plurality of controls, and wherein the triggering event comprises connecting the simulation controller to the simulation port .
A wireless communication network user equipment cell selection bias method comprising: receiving a communication from a network node comprising a control signal operable to control said user equipment to determine a maximum cell individual offset bias specific to said user equipment for use when applying a cell bias for a neighbouring cell; and determining said maximum cell individual offset bias that said user equipment can currently support; and applying a cell selection bias in dependence upon said maximum cell individual offset bias for said neighbouring cell. receiving a communication from a network node comprising a control signal operable to control said user equipment to determine a maximum cell individual offset bias specific to said user equipment for use when applying a cell bias for a neighbouring cell; and determining said maximum cell individual offset bias that said user equipment can currently support; and applying a cell selection bias in dependence upon said maximum cell individual offset bias for said neighbouring cell.
A center-of-gravity detection system, comprising: a placement board for placing a detection object thereon; a supporting means for supporting said placement board with an elastic force; an up-down direction acceleration sensor for detecting a reciprocating motion of said detection object in an up-down direction perpendicular to said placement board ; a roll direction angular velocity sensor for detecting a simple pendulum motion of said detection object around a roll direction oscillation central axis parallel to said placement board ; an X-axis direction restriction means for restricting a movement of said placement board in an X-axis direction orthogonal to a gravity-acting Z-axis direction and said roll direction oscillation central axis respectively; and a data processing means for calculating a center-of-gravity height in said up-down direction from said roll direction oscillation central axis to the center of gravity (W) of said detection object on the basis of the detection results by said up-down direction acceleration sensor and said roll direction angular velocity sensor , wherein said data processing means calculates a center-of-gravity distance (s) in a right-left direction orthogonal to said up-down direction and said roll direction oscillation central axis respectively, from said roll direction oscillation central axis to the center of gravity (W) of said detection object on the basis of the detection results by said up-down direction acceleration sensor and said roll direction angular velocity sensor . a placement board for placing a detection object thereon; a supporting means for supporting said placement board with an elastic force; an up-down direction acceleration sensor for detecting a reciprocating motion of said detection object in an up-down direction perpendicular to said placement board ; a roll direction angular velocity sensor for detecting a simple pendulum motion of said detection object around a roll direction oscillation central axis parallel to said placement board ; an X-axis direction restriction means for restricting a movement of said placement board in an X-axis direction orthogonal to a gravity-acting Z-axis direction and said roll direction oscillation central axis respectively; and a data processing means for calculating a center-of-gravity height in said up-down direction from said roll direction oscillation central axis to the center of gravity (W) of said detection object on the basis of the detection results by said up-down direction acceleration sensor and said roll direction angular velocity sensor , wherein said data processing means calculates a center-of-gravity distance (s) in a right-left direction orthogonal to said up-down direction and said roll direction oscillation central axis respectively, from said roll direction oscillation central axis to the center of gravity (W) of said detection object on the basis of the detection results by said up-down direction acceleration sensor and said roll direction angular velocity sensor .