mhurhangee/patent-ind-claim-en huggingface dataset:
A surge protective device comprising: an insulating tube ; a pair of sealing electrodes for closing openings on the both ends of the insulating tube so as to seal a discharge control gas inside the tube; and a discharge-assisting part formed on the inner circumferential surface of the insulating tube , wherein the pair of sealing electrodes have a pair of convex electrode portions projecting inwardly and facing to each other, characterized in that: the discharge-assisting part is composed of a laminate of an insulating layer made of an insulating material and of ion-source layers made of an ion-source material that are formed on the top and bottom surfaces of the insulating layer . an insulating tube ; a pair of sealing electrodes for closing openings on the both ends of the insulating tube so as to seal a discharge control gas inside the tube; and a discharge-assisting part formed on the inner circumferential surface of the insulating tube , wherein the pair of sealing electrodes have a pair of convex electrode portions projecting inwardly and facing to each other, characterized in that: the discharge-assisting part is composed of a laminate of an insulating layer made of an insulating material and of ion-source layers made of an ion-source material that are formed on the top and bottom surfaces of the insulating layer .
Arrangement for cutting paper board sheets fed through the arrangement along a direction L, said arrangement comprising: a first wheel arranged to rotate around a first axis extending substantially transverse to the direction L, said first wheel comprises at least one knife extending from a peripheral surface of the wheel; a second wheel arranged to rotate around a second axis extending substantially transverse to the direction L parallel to the first axis, said second wheel is arranged in the same plane as the first wheel and comprising a peripheral surface arranged adjacent the knife such that the paper board sheets are cut between the first and the second wheel; wherein the first wheel comprises an element for each knife, said element allowing for adjustment of the position of the knife, characterized in that said element is formed as a circular arc with substantially the same radius as the peripheral surface of the first wheel and the wheel has a corresponding recess formed in the first wheel peripheral surface, said element is pivotally arranged around an axis A substantially parallel to the first axis in said recess and said knife extending from the element such that the position of the knife in relation to the first wheel is adjusted by pivoting the peripheral element by adjustment means (30; 40) arranged to secure the peripheral element in the desired position. a first wheel arranged to rotate around a first axis extending substantially transverse to the direction L, said first wheel comprises at least one knife extending from a peripheral surface of the wheel; a second wheel arranged to rotate around a second axis extending substantially transverse to the direction L parallel to the first axis, said second wheel is arranged in the same plane as the first wheel and comprising a peripheral surface arranged adjacent the knife such that the paper board sheets are cut between the first and the second wheel; wherein the first wheel comprises an element for each knife, said element allowing for adjustment of the position of the knife, characterized in that said element is formed as a circular arc with substantially the same radius as the peripheral surface of the first wheel and the wheel has a corresponding recess formed in the first wheel peripheral surface, said element is pivotally arranged around an axis A substantially parallel to the first axis in said recess and said knife extending from the element such that the position of the knife in relation to the first wheel is adjusted by pivoting the peripheral element by adjustment means (30; 40) arranged to secure the peripheral element in the desired position.
A method of predicting distortion in a workpiece resulting from a peening process , said method comprising the steps of: providing a coupon comprising residual stress induced in a coupon surface by said peening process ; measuring induced residual stress in said coupon surface of said coupon ; fitting said induced residual stress measurements to a curve shape function ; and calculating a moment coefficient being the resultant moment of residual stress distribution at a given depth induced in said coupon surface based on the fitted induced residual stress measurements ; calibrating a stress function of residual stress in said coupon to said moment coefficient; applying said calibrated stress function to a workpiece model of said workpiece ; and computing a predicted distortion of said workpiece resulting from application of said calibrated stress function to said workpiece model ; and wherein said step of calibrating said stress function to said moment coefficient comprises: fixing a depth term of said stress function to be less than a depth at which said induced residual stress measurements diminish to zero in said coupon ; equating a moment of said stress function to said moment coefficient; and solving for a stress magnitude term of said stress function . providing a coupon comprising residual stress induced in a coupon surface by said peening process ; measuring induced residual stress in said coupon surface of said coupon ; fitting said induced residual stress measurements to a curve shape function ; and calculating a moment coefficient being the resultant moment of residual stress distribution at a given depth induced in said coupon surface based on the fitted induced residual stress measurements ; calibrating a stress function of residual stress in said coupon to said moment coefficient; applying said calibrated stress function to a workpiece model of said workpiece ; and computing a predicted distortion of said workpiece resulting from application of said calibrated stress function to said workpiece model ; and wherein said step of calibrating said stress function to said moment coefficient comprises: fixing a depth term of said stress function to be less than a depth at which said induced residual stress measurements diminish to zero in said coupon ; equating a moment of said stress function to said moment coefficient; and solving for a stress magnitude term of said stress function . fixing a depth term of said stress function to be less than a depth at which said induced residual stress measurements diminish to zero in said coupon ; equating a moment of said stress function to said moment coefficient; and solving for a stress magnitude term of said stress function .
A computer implemented method for providing a representation of synchronicity of electrical activation of heart tissue, including: - obtaining a three-dimensional model of electrical activation of the heart, the three-dimensional model including a mesh representing a surface of the myocardium, the mesh having a plurality of nodes, each node having associated therewith a value representative of a time delay between stimulation of the heart at a stimulation site and activation of the heart at that respective node; - for each node of the three-dimensional model of the heart: - defining a stimulus site at the location of that node in the three-dimensional model of the heart; - on the basis of the three-dimensional model of electrical activation of the heart determining a modified three-dimensional model of electrical activation of the heart resulting from stimulation at that node; - determining a measure for heart activation synchronicity for the heart based on stimulation at that node; and - determining a heart synchronicity map representing a three-dimensional model of the heart, indicating at each node the respective measure for heart activation synchronicity. - obtaining a three-dimensional model of electrical activation of the heart, the three-dimensional model including a mesh representing a surface of the myocardium, the mesh having a plurality of nodes, each node having associated therewith a value representative of a time delay between stimulation of the heart at a stimulation site and activation of the heart at that respective node; - for each node of the three-dimensional model of the heart: - defining a stimulus site at the location of that node in the three-dimensional model of the heart; - on the basis of the three-dimensional model of electrical activation of the heart determining a modified three-dimensional model of electrical activation of the heart resulting from stimulation at that node; - determining a measure for heart activation synchronicity for the heart based on stimulation at that node; and - defining a stimulus site at the location of that node in the three-dimensional model of the heart; - on the basis of the three-dimensional model of electrical activation of the heart determining a modified three-dimensional model of electrical activation of the heart resulting from stimulation at that node; - determining a measure for heart activation synchronicity for the heart based on stimulation at that node; and - determining a heart synchronicity map representing a three-dimensional model of the heart, indicating at each node the respective measure for heart activation synchronicity.
A film comprising: (meth)acrylic polymer and polyvinyl acetal resin comprising polymerized units having the following formula wherein R 1 is hydrogen or a C1-C7 alkyl group; wherein the film comprises at least 10 wt-% of polymerized units of monofunctional alkyl (meth)acrylate monomer, wherein the monomer when reacted to form a homopolymer has a glass transition temperature (Tg) of less than 0°C; and wherein the film has a single Tg ranging from 30°C to 60°C wherein the Tg is measured by Differential Scanning Calorimetry (DSC) according to the test method in the description. (meth)acrylic polymer and polyvinyl acetal resin comprising polymerized units having the following formula wherein R 1 is hydrogen or a C1-C7 alkyl group; wherein the film comprises at least 10 wt-% of polymerized units of monofunctional alkyl (meth)acrylate monomer, wherein the monomer when reacted to form a homopolymer has a glass transition temperature (Tg) of less than 0°C; and wherein the film has a single Tg ranging from 30°C to 60°C wherein the Tg is measured by Differential Scanning Calorimetry (DSC) according to the test method in the description.
An electric drive module for driving an axle comprising a housing , at least one electric motor attached to the housing, a main gear wheel mechanically connected to the electric motor via mechanical gears , a gearbox designed as a planetary gearbox, wherein it comprises a sun gear torisonally rigidly connected to the main gear wheel , planet gears , and a ring gear , wherein the input member of the gearbox is driven by the main gear wheel , an axle differential located in an axle differential housing and driven by a gearbox output, drive shafts driven by the axle differential , wherein the axis of the shafts is parallel to the axis of the gearbox, wherein at least part of the differential housing is rigidly connected to the output member of the gearbox , characterized in that the ring gear is pivotally housed on the differential housing part on the main gear wheel side by a ring gear bearing .
Process for the purification of oligonucleotides comprising the removal of an acid labile 5'hydroxy protecting group at the 5'- O -oligonucleotide terminus of the oligonucleotide by way of tangential flow filtration with an acidic buffer solution.
A method for separating mineral particles from unwanted material in tailings of a flotation process, the method comprising: providing collection apparatus functionalized with a synthetic material comprising a plurality of molecules having a functional group configured to render the surface of the collection apparatus hydrophobic to collect mineral particles of interest to the surface of the collection apparatus; and causing the collection apparatus to contact with tailings having the mineral particles of interest, including the tailings from a flotation process, characterized in that the collection apparatus is a conveyor belt configured with a collection area to support the functionalized polymer being hydroxyl-terminated polydimethysiloxanes, wherein said collection area comprise an irregular arrangement of fibers, or comprise a plain surface , and further wherein the fibers , or the plain surfaces , respectively are made of glass, ceramic, metal, nylon, cotton or another fabric material and coated with hydroxyl-terminated polydimethysiloxanes. providing collection apparatus functionalized with a synthetic material comprising a plurality of molecules having a functional group configured to render the surface of the collection apparatus hydrophobic to collect mineral particles of interest to the surface of the collection apparatus; and causing the collection apparatus to contact with tailings having the mineral particles of interest, including the tailings from a flotation process, characterized in that the collection apparatus is a conveyor belt configured with a collection area to support the functionalized polymer being hydroxyl-terminated polydimethysiloxanes, wherein said collection area comprise an irregular arrangement of fibers, or comprise a plain surface , and further wherein the fibers , or the plain surfaces , respectively are made of glass, ceramic, metal, nylon, cotton or another fabric material and coated with hydroxyl-terminated polydimethysiloxanes.
Hydroelastic damper comprising at least one resilient assembly, said at least one resilient assembly including a first resilient assembly , said first resilient assembly comprising a first inner strength member at least partially engaged in a first outer strength member , the first inner strength member and the first outer strength member being movable relative to each other at least in translation along a longitudinal axis (AL), said first resilient assembly comprising a first resilient member secured to the first outer strength member and to the first inner strength member so as to provide a resilient return of the first outer strength member and the first inner strength member towards a rest position (POSREP), said hydroelastic damper comprising at least one hydraulic assembly provided with a first hydraulic chamber and a second hydraulic chamber in communication with each other via at least one connection formed in a first wall of the hydraulic assembly , a fluid being disposed in said first hydraulic chamber and said second hydraulic chamber , said hydroelastic damper comprising a first floating piston that is movable at least in translation along the longitudinal axis (AL) relative to the first inner strength member and to the first outer strength member , said first hydraulic chamber having a variable volume and being defined at least by said first floating piston and said first wall , characterised in that said first floating piston hydraulically isolates said first resilient member from the fluid .
A method performed by a terminal, comprising: demodulating a NarrowBand Physical Downlink Control Channel, NB-PDCCH, received from a base station; and determining an initial subframe of a NarrowBand Downlink Shared Channel, NB-PDSCH, according to a final subframe of the NB-PDCCH and a scheduling gap indication with a first value set, wherein the scheduling gap indication indicates a number of subframes between the final subframe of the NB-PDCCH and the initial subframe of the NB-PDSCH, and the first value set is a finite set comprising predefined non-continuous values, wherein the first value set further comprises a first subset and a second subset based on a number of maximum repetition, Rmax, being greater than or equal to a predefined threshold value and less than the predefined threshold value, respectively, wherein Rmax is configured by high-layer signaling and indicates NB-PDCCH repetitions, wherein the first value set comprises values that indicate a number of available subframes and equal to 2 x , wherein x={0, 1, 2, ... 20} wherein an initial subframe of a NB-PDCCH search space is configured according to at least one of the following parameters: an offset, the number of maximum repetition, Rmax, and a scheduling window length T, and wherein the initial subframe of the NB-PDCCH search space minus the offset is an integer multiple of the scheduling window length T, wherein the offset is smaller than or equal to the scheduling window length T. demodulating a NarrowBand Physical Downlink Control Channel, NB-PDCCH, received from a base station; and determining an initial subframe of a NarrowBand Downlink Shared Channel, NB-PDSCH, according to a final subframe of the NB-PDCCH and a scheduling gap indication with a first value set, wherein the scheduling gap indication indicates a number of subframes between the final subframe of the NB-PDCCH and the initial subframe of the NB-PDSCH, and the first value set is a finite set comprising predefined non-continuous values, wherein the first value set further comprises a first subset and a second subset based on a number of maximum repetition, Rmax, being greater than or equal to a predefined threshold value and less than the predefined threshold value, respectively, wherein Rmax is configured by high-layer signaling and indicates NB-PDCCH repetitions, wherein the first value set comprises values that indicate a number of available subframes and equal to 2 x , wherein x={0, 1, 2, ... 20} wherein an initial subframe of a NB-PDCCH search space is configured according to at least one of the following parameters: an offset, the number of maximum repetition, Rmax, and a scheduling window length T, and wherein the initial subframe of the NB-PDCCH search space minus the offset is an integer multiple of the scheduling window length T, wherein the offset is smaller than or equal to the scheduling window length T.
A toy comprising: a housing comprising a first exterior surface , a second exterior surface , and a feature at the second exterior surface; and a unitary thermoplastic light pipe mounted to the housing and comprising: a collector portion proximate the first exterior surface of the housing, a transmitter portion, and an output portion proximate the feature of the housing, wherein the surface area of the collector portion is greater than or equal to twice the surface area of the output portion, the light pipe configured to transmit light incident on the first exterior surface of the housing to the output portion, illuminating the feature of the housing, wherein the light pipe provides a maximum angle of deflection of 35 - 45 degrees. a housing comprising a first exterior surface , a second exterior surface , and a feature at the second exterior surface; and a unitary thermoplastic light pipe mounted to the housing and comprising: a collector portion proximate the first exterior surface of the housing, a transmitter portion, and an output portion proximate the feature of the housing, wherein the surface area of the collector portion is greater than or equal to twice the surface area of the output portion, the light pipe configured to transmit light incident on the first exterior surface of the housing to the output portion, illuminating the feature of the housing, wherein the light pipe provides a maximum angle of deflection of 35 - 45 degrees. a collector portion proximate the first exterior surface of the housing, a transmitter portion, and an output portion proximate the feature of the housing, wherein the surface area of the collector portion is greater than or equal to twice the surface area of the output portion, the light pipe configured to transmit light incident on the first exterior surface of the housing to the output portion, illuminating the feature of the housing, wherein the light pipe provides a maximum angle of deflection of 35 - 45 degrees.
Process for manufacturing a multicomponent amorphous binary oxide dielectric for an electronic semiconductor device comprising the step of depositing a first component binary oxide and a second component binary oxide, wherein the first component binary oxide has a substantially higher band gap, E G , and substantially lower dielectric constant, κ, than the second component binary oxide which has a substantially lower band gap, E G , and substantially higher dielectric constant, κ, wherein the first component binary oxide is SiO 2 or Al 2 O 3 , and the second component binary oxide is Ta 2 O 5 , wherein the dielectric is obtained by- rf magnetron sputtering without intentional substrate heating and with a Ar/O 2 flow ratio of 14/1 and a pressure of 0.3 Pa, wherein the rf magnetron sputtering comprises co-sputtering of Ta 2 O 5 and SiO 2 or Al 2 O 3 using an rf power density of 4.9 Wcm -2 for Ta 2 O 5 , 7.4 Wcm -2 for SiO 2 and 9.9 Wcm -2 for Al 2 O 3 , or comprises sputtering a target having 75wt% of Ta 2 O 5 and 25wt% of Al 2 O 3 with a power density of 7.4 Wcm -2 .
An electrophotographic photosensitive member comprising: a support, an electrically conductive layer, and a photosensitive layer, sequentially, wherein the electrically conductive layer contains a binder resin and a carbon black, a number average primary particle diameter of the carbon black measured according to the description is 200 nm or more and 500 nm or less, an average inter-particle distance of the carbon black measured according to the description is 200 nm or more and 600 nm or less, a coefficient of variation of an inter-particle distance measured according to the description is 1.2 or less, and SF-1 of the carbon black is 150 or less. a support, an electrically conductive layer, and a photosensitive layer, sequentially, wherein the electrically conductive layer contains a binder resin and a carbon black, a number average primary particle diameter of the carbon black measured according to the description is 200 nm or more and 500 nm or less, an average inter-particle distance of the carbon black measured according to the description is 200 nm or more and 600 nm or less, a coefficient of variation of an inter-particle distance measured according to the description is 1.2 or less, and SF-1 of the carbon black is 150 or less.
A method for receiving data by a terminal in a wireless communication system, the method comprising: receiving, from a base station , information associated with a transmission mode on a higher layer signaling; receiving, from the base station, downlink control information, DCI, in a first subframe; and receiving, from the base station, data in the first subframe based on a demodulation reference signal, DMRS, based on the transmission mode being a transmission mode 9 or a transmission mode 10 and the first subframe being a multimedia broadcast multicast service single frequency network, MBSFN, subframe. receiving, from a base station , information associated with a transmission mode on a higher layer signaling; receiving, from the base station, downlink control information, DCI, in a first subframe; and receiving, from the base station, data in the first subframe based on a demodulation reference signal, DMRS, based on the transmission mode being a transmission mode 9 or a transmission mode 10 and the first subframe being a multimedia broadcast multicast service single frequency network, MBSFN, subframe.