mhurhangee/patent-ind-claim-en huggingface dataset:
A tubular flexible stent adapted to be crimped down to a reduced diameter and having proximal and distal end portions (104, 105 respectively) and a cylindrical shape, with luminal and abluminal surfaces and a thickness there between, the cylindrical shape defining a longitudinal axis , the tubular flexible stent comprising: a helical section having a plurality of longitudinally oriented strut members and a plurality of circumferentially oriented hinge members connecting circumferentially adjacent strut members to form a band, the band being wrapped about the longitudinal axis in a substantially helical manner to form a plurality of helical windings, each strut member having a substantially rectangular shape with opposing longitudinally oriented long sides and opposing circumferentially oriented short sides, each hinge member having a curvilinear shape with an inside curve and an outside curve, and having a protruding crown along the outside curve between the two connected circumferentially adjacent strut members , wherein the crown is formed by two minor arcs extending inward, and one greater arc forming a protrusion extending outward, and the crown is configured to localize plastic strains during crimping and to distribute the plastic strains during deployment.
A poly alpha-1,3-glucan compound comprising: a) poly alpha-1,3-glucan, and b) a functionalized polyolefin; wherein said poly alpha-1,3-glucan compound comprises from 0.5 to 70 weight percent of the poly alpha-1,3-glucan based on the total weight of the poly alpha-1,3-glucan and the functionalized polyolefin in the poly alpha-1,3-glucan compound, wherein said functionalized polyolefin is grafted onto the poly alpha-1,3-glucan, and wherein the functionalized polyolefin is an anhydride-grafted ethylene/α-olefin copolymer. a) poly alpha-1,3-glucan, and b) a functionalized polyolefin; wherein said poly alpha-1,3-glucan compound comprises from 0.5 to 70 weight percent of the poly alpha-1,3-glucan based on the total weight of the poly alpha-1,3-glucan and the functionalized polyolefin in the poly alpha-1,3-glucan compound, wherein said functionalized polyolefin is grafted onto the poly alpha-1,3-glucan, and wherein the functionalized polyolefin is an anhydride-grafted ethylene/α-olefin copolymer. wherein said poly alpha-1,3-glucan compound comprises from 0.5 to 70 weight percent of the poly alpha-1,3-glucan based on the total weight of the poly alpha-1,3-glucan and the functionalized polyolefin in the poly alpha-1,3-glucan compound, wherein said functionalized polyolefin is grafted onto the poly alpha-1,3-glucan, and wherein the functionalized polyolefin is an anhydride-grafted ethylene/α-olefin copolymer.
A cleaning composition comprising: - sulfamic acid in an amount between 2% and 4% by weight, - a glycol solvent in an amount between 2% and 8% by weight - water in an amount between 88% and 96% by weight. - sulfamic acid in an amount between 2% and 4% by weight, - a glycol solvent in an amount between 2% and 8% by weight - water in an amount between 88% and 96% by weight.
Silver-copper alloy nanoparticles characterized in that : the particle diameter of the silver-copper alloy nanoparticles is 50 nm or less, the silver-copper alloy nanoparticles are solid silver-copper alloy nanoparticles having 0.1 to 99.94% by weight of copper concentration contained in the silver-copper alloy nanoparticles, the said solid silver-copper alloy nanoparticles have, with an amount of 65% or more by volume, a non-eutectic structure at room temperature, and as a result of analysis of mole ratios therein of silver to copper, values of the mole ratios of silver to copper, in 50% or more of the ten or more analysis points in the said solid silver-copper alloy nanoparticles, are detected within ±30% of a value of the mole ratios of silver to copper obtained by inductively coupled plasma atomic emission spectrophotometry analysis results of a powder of the said solid silver-copper alloy nanoparticles, and the analysis of the said analysis points is analysis of mole ratios of silver to copper in a space by the beam diameter of 0.2 nm using STEM-EDS analysis, the lattice parameters of the silver-copper alloy nanoparticles, as determined by XRD measurement of a dried powder of the silver-copper alloy nanoparticles, are larger than the lattice parameter 4.086 Å of silver, and the ratio of other metals except tin contained in the silver-copper alloy nanoparticles is less than 0.05% by weight of the silver-copper alloy nanoparticles. the particle diameter of the silver-copper alloy nanoparticles is 50 nm or less, the silver-copper alloy nanoparticles are solid silver-copper alloy nanoparticles having 0.1 to 99.94% by weight of copper concentration contained in the silver-copper alloy nanoparticles, the said solid silver-copper alloy nanoparticles have, with an amount of 65% or more by volume, a non-eutectic structure at room temperature, and as a result of analysis of mole ratios therein of silver to copper, values of the mole ratios of silver to copper, in 50% or more of the ten or more analysis points in the said solid silver-copper alloy nanoparticles, are detected within ±30% of a value of the mole ratios of silver to copper obtained by inductively coupled plasma atomic emission spectrophotometry analysis results of a powder of the said solid silver-copper alloy nanoparticles, and the analysis of the said analysis points is analysis of mole ratios of silver to copper in a space by the beam diameter of 0.2 nm using STEM-EDS analysis, the lattice parameters of the silver-copper alloy nanoparticles, as determined by XRD measurement of a dried powder of the silver-copper alloy nanoparticles, are larger than the lattice parameter 4.086 Å of silver, and the ratio of other metals except tin contained in the silver-copper alloy nanoparticles is less than 0.05% by weight of the silver-copper alloy nanoparticles.
Method of controlling a clutch when starting a thermal engine , the clutch coupling a high performance electric machine , providing a power of at least 30,000 watts and a couple of 100 Newton-meters, to the thermal engine during a starting phase of the thermal engine , the method having a step of rotating the electric machine with the clutch in neutral position so as not to transmit no torque to the engine then a step of closing the clutch causing torque to be transmitted to the thermal engine and therefore its rotation, the clutch being controlled according to a maximum torque of setpoint (X) transmissible to the engine , characterized in that the maximum setpoint torque (X) transmissible to the engine is predetermined according to an estimate of the friction losses of the thermal engine in order to obtain a gradient given engine speed and in that a step of measuring or estimating an acceleration of the engine speed is performed during the transmission of the target torque during the starting phase and when this measured or estimated acceleration shows a difference of more than 6.66 revolutions per second squared with the given engine speed gradient , at least a step of correcting the maximum setpoint torque (X) into a corrected maximum setpoint torque (X + y%; Xz%) as a function of the measured or detected acceleration so that the acceleration actually obtained during the starting phase tends towards the given engine speed gradient .
A flat plate-shaped solid oxide fuel cell comprising: a porous ceramic support; a fuel electrode provided on the porous ceramic support; an electrolyte layer provided on the fuel electrode; an air electrode provided on the electrolyte layer; a fuel electrode current collector connected to the fuel electrode and provided while being extended in a direction opposite to a direction provided with the air electrode based on the porous ceramic support, a metal mesh layer provided on a part of the fuel electrode provided while being extended to a surface of the porous ceramic support in a direction opposite to a direction provided with the air electrode based on the porous ceramic support; and an extension line connected to the metal mesh layer and provided while being extended in a direction opposite to a direction provided with the air electrode based on the porous ceramic support. a porous ceramic support; a fuel electrode provided on the porous ceramic support; an electrolyte layer provided on the fuel electrode; an air electrode provided on the electrolyte layer; a fuel electrode current collector connected to the fuel electrode and provided while being extended in a direction opposite to a direction provided with the air electrode based on the porous ceramic support, a metal mesh layer provided on a part of the fuel electrode provided while being extended to a surface of the porous ceramic support in a direction opposite to a direction provided with the air electrode based on the porous ceramic support; and an extension line connected to the metal mesh layer and provided while being extended in a direction opposite to a direction provided with the air electrode based on the porous ceramic support.
A glueing plotter for paper industry comprising one or more elements defining a support plane for die-cut sheets to be glued and at least one longitudinal rail , movable transversally with respect to said support plane , along which a glueing gun is slidingly coupled with, characterized in that said at least one rail is mounted as a cantilever on a respective movable carriage slidable in parallel to one of the transversal edges of said support plane .
A pharmaceutical composition for use in preventing or treating neurodegenerative brain disease, the pharmaceutical composition comprising rifapentine, or pharmaceutically acceptable salts thereof, as an active ingredient.
A communication message processing method performed by a management application program of a terminal , comprising: acquiring a distance between the terminal and a wearable device, wherein the wearable device is carried by the terminal's user; switching the terminal to an auto-reply mode when the distance between the terminal and the wearable device exceeds a preset distance threshold; and controlling a first application program to send a preset reply message to a sender of a communication message received by the first application program when it is detected that the first application program receives the communication message in the auto-reply mode, characterized in that enabling an auto-reply mode triggers the terminal to send a distance query request to a server; and the acquiring step comprises receiving periodically the information of distances between the terminal and the wearable device sent by the server. acquiring a distance between the terminal and a wearable device, wherein the wearable device is carried by the terminal's user; switching the terminal to an auto-reply mode when the distance between the terminal and the wearable device exceeds a preset distance threshold; and controlling a first application program to send a preset reply message to a sender of a communication message received by the first application program when it is detected that the first application program receives the communication message in the auto-reply mode, characterized in that enabling an auto-reply mode triggers the terminal to send a distance query request to a server; and the acquiring step comprises receiving periodically the information of distances between the terminal and the wearable device sent by the server.
Cartridge for inserting into a beverage-preparing machine, having a cartridge body and a cartridge lid connected to the cartridge body , wherein the cartridge body has a plurality of chambers filled with a beverage substance, wherein the cartridge lid has a cartridge emptying unit , a mixing chamber , and a fluid infeed that opens into the mixing chamber , wherein the cartridge emptying unit is provided for transferring the beverage substance from one of the chambers into the mixing chamber , and wherein the mixing chamber is provided for producing a beverage by mixing the beverage substance transferred from the one chamber into the mixing chamber with a liquid fed into the mixing chamber by the fluid infeed , characterized in that the cartridge body and the cartridge lid are configured so as to be rotatable relative to one another about a longitudinal axis (L) of the cartridge body .
A method, performed by a first node of a wireless communication system of accessing a shared media, for directive signal transmission from the first node , the method comprising: receiving (S1), from a second node , a pilot signal announcing a directive signal transmission to or from the second node ; characterized in that the method further comprises: predicting (S2), based on information in the received pilot signal , a collision rate between an intended directive signal transmission from the first node and the announced directive signal transmission 40a), the information defining channel resources used by the announced directive signal transmission , wherein the step of predicting (S2) the collision rate comprises estimating interference between the intended directive signal transmission from the first node and the announced directive signal transmission to or from the second node ; and accessing (S3) the shared media based on the predicted collision rate, wherein the intended directive signal transmission from the first node and the announced directive signal transmission are at least partly overlapping in the time domain. predicting (S2), based on information in the received pilot signal , a collision rate between an intended directive signal transmission from the first node and the announced directive signal transmission 40a), the information defining channel resources used by the announced directive signal transmission , wherein the step of predicting (S2) the collision rate comprises estimating interference between the intended directive signal transmission from the first node and the announced directive signal transmission to or from the second node ; and accessing (S3) the shared media based on the predicted collision rate, wherein the intended directive signal transmission from the first node and the announced directive signal transmission are at least partly overlapping in the time domain.
A method for forming a croissant dough piece , comprising the steps of conveying a croissant dough piece that has already been linearly rolled up on a transporting conveyor in the conveying direction thereof perpendicular to the length of the croissant dough piece , intercepting a centre portion in the length of the croissant dough piece at its leading side in the conveying direction by an interception pin , which is located above the transporting conveyor , to allow a vertical motion and a travelling motion along the conveying direction, wherein when the interception pin intercepts the croissant dough piece it forces both lateral side portions of the croissant dough piece to move toward each other so as to form or clamp the tip ends of both lateral side portions to each other, and bending both lateral side portions of the croissant dough piece about the interception pin that is centred thereon by means of pressing members , which are located above the transporting conveyor , to allow a vertical motion, a travelling motion that is faster than that of the interception pin along the conveying direction, and a motion to move toward and away from each other, the method being characterised by applying downward components of force on both lateral end portions of the croissant dough piece to form or clamp both lateral end portions to each other when pressed thereon to form or clamp them; and thereafter lifting up the pressing members and pulling up the interception pin from the croissant dough piece , wherein an uplift-prevention member intercepts the croissant dough piece from above when the interception pin is pulled up therefrom, to prevent the croissant dough piece from being lifted up, and wherein the uplift-prevention member is vertically movable independently from the interception pin .
Neural tissue unit for its use in cell therapy for an implantation into the nervous system of a human or non-human mammal, wherein said neural tissue unit contains differentiated post-mitotic neuronal cells having a phenotype of interest corresponding to the phenotype of the failing cells to be replaced, and of glial cells, said cells being organized in a three-dimensional network in an extracellular matrix, said unit being obtained from a cellular microcompartment comprising a hydrogel capsule surrounding a single neural tissue unit, said post-mitotic neuronal differentiated cells having been obtained from human or non-human mammalian cells differentiated into post-mitotic neuronal cells within said hydrogel capsule and said hydrogel capsule being at least partially removed before use of the neural tissue unit.
Vehicle light comprising - a container body delimited by a first perimetral profile , - a lenticular body , delimited by a second perimetral profile , - wherein the first and second perimetral profile of the container body and of the lenticular body are at least partially counter-shaped to each other so as to interface at a welding interface of an abutment edge of the lenticular body , - said welding being a laser-type welding, - wherein the container body delimits a containment seat which houses at least one light source and the lenticular body is applied on the container body so as to close said containment seat , wherein - the lenticular body , at said abutment edge , comprises means of redirection adapted to receive laser beams emitted by a laser source external to the light and to the containment seat , to reflect them satisfying the condition of total internal reflection and to direct them towards said welding interface , - said laser beams impacting on an outer side wall of the lenticular body , opposite the containment seat and, after passing through the lenticular body , directly or by at least one reflection, impacting on said redirection means , - wherein the redirection means are arranged on an inner face of the lenticular body , said inner face facing the containment seat , characterised in that the means of redirection of the abutment edge are obtained by means of a recess formed on said inner side wall of the lenticular body . - a container body delimited by a first perimetral profile , - a lenticular body , delimited by a second perimetral profile , - wherein the first and second perimetral profile of the container body and of the lenticular body are at least partially counter-shaped to each other so as to interface at a welding interface of an abutment edge of the lenticular body , - said welding being a laser-type welding, - wherein the container body delimits a containment seat which houses at least one light source and the lenticular body is applied on the container body so as to close said containment seat , wherein - the lenticular body , at said abutment edge , comprises means of redirection adapted to receive laser beams emitted by a laser source external to the light and to the containment seat , to reflect them satisfying the condition of total internal reflection and to direct them towards said welding interface , - said laser beams impacting on an outer side wall of the lenticular body , opposite the containment seat and, after passing through the lenticular body , directly or by at least one reflection, impacting on said redirection means , - wherein the redirection means are arranged on an inner face of the lenticular body , said inner face facing the containment seat , characterised in that the means of redirection of the abutment edge are obtained by means of a recess formed on said inner side wall of the lenticular body .
An energy harvesting device , comprising: an insulated container , comprising: an outer membrane comprising an outer surface and an inner surface ; an inner membrane , spaced apart from the outer membrane , having an outer surface and an inner surface ; an outer cavity , spaced between the outer membrane and the inner membrane ; an inner cavity encapsulated by the inner membrane ; a thermoelectric generator module positioned within the inner cavity , the thermoelectric generator thermally-coupled to an expandable membrane that encapsulates a mass of phase-change material , wherein the outer membrane is configured to allow a liquid to enter into the outer cavity , and wherein the phase-change material is configured to store a portion of heat energy captured while the energy harvesting device is exposed to an external environment having a first temperature higher than a second temperature of the phase-change material . an insulated container , comprising: an outer membrane comprising an outer surface and an inner surface ; an inner membrane , spaced apart from the outer membrane , having an outer surface and an inner surface ; an outer cavity , spaced between the outer membrane and the inner membrane ; an inner cavity encapsulated by the inner membrane ; an outer membrane comprising an outer surface and an inner surface ; an inner membrane , spaced apart from the outer membrane , having an outer surface and an inner surface ; an outer cavity , spaced between the outer membrane and the inner membrane ; an inner cavity encapsulated by the inner membrane ; a thermoelectric generator module positioned within the inner cavity , the thermoelectric generator thermally-coupled to an expandable membrane that encapsulates a mass of phase-change material , wherein the outer membrane is configured to allow a liquid to enter into the outer cavity , and wherein the phase-change material is configured to store a portion of heat energy captured while the energy harvesting device is exposed to an external environment having a first temperature higher than a second temperature of the phase-change material .
A data transmission method, comprising: transmitting, by a transmitting node, a configuration information through a dedicated radio resource control, RRC, message to a receiving node, wherein the configuration information configures a time duration and a starting point of a pre-scheduling period and at least one scheduled trigger occasion during the pre-scheduling period, and wherein the at least one scheduled trigger occasion is used for instructing the receiving node to transmit data immediately or at a certain timing, wherein the configuration information of the pre-scheduling period is used for instructing the receiving node to prepare data to be transmitted according to the configuration information of the pre-scheduling period; and receiving, by the transmitting node, a transmission according to the configuration information from the receiving node. transmitting, by a transmitting node, a configuration information through a dedicated radio resource control, RRC, message to a receiving node, wherein the configuration information configures a time duration and a starting point of a pre-scheduling period and at least one scheduled trigger occasion during the pre-scheduling period, and wherein the at least one scheduled trigger occasion is used for instructing the receiving node to transmit data immediately or at a certain timing, wherein the configuration information of the pre-scheduling period is used for instructing the receiving node to prepare data to be transmitted according to the configuration information of the pre-scheduling period; and receiving, by the transmitting node, a transmission according to the configuration information from the receiving node.