mhurhangee/ep-ind-claims huggingface dataset:
A polymer composition for fibers or non-woven fabrics, comprising: a vinyl aromatic based copolymer represented by a formula of A1-B-A2, wherein block A1 and block A2 represent identical or different vinyl aromatic blocks, block A1 or block A2 has a peak molecular weight of 3,800-4,800, measured according to the method described in the specification, block B represents a hydrogenated conjugated diene block, a vinyl structure content of a conjugated diene monomer content in the vinyl aromatic based copolymer is 32 wt%~50 wt%, and a melt flow index of the vinyl aromatic based copolymer is 20 g/10 min~60 g/10 min (230°C, 2.16 kg); and an olefin based polymer of 0~30 wt% based on a total weight of the polymer composition.
A method, comprising: importing network and node configurations of an existing physical wireless local area network, WLAN, deployment from a WLAN surveying system that captures and analyzes WLAN traffic in order to define a configuration of the existing physical WLAN; simulating a virtual WLAN using the imported network and node configurations supplemented with various other configurations not present in the imported network and node configurations as parameters of the simulated WLAN; and analyzing the simulated WLAN to produce throughput statistics of network and nodes (220, 230) of the simulated WLAN. importing network and node configurations of an existing physical wireless local area network, WLAN, deployment from a WLAN surveying system that captures and analyzes WLAN traffic in order to define a configuration of the existing physical WLAN; simulating a virtual WLAN using the imported network and node configurations supplemented with various other configurations not present in the imported network and node configurations as parameters of the simulated WLAN; and analyzing the simulated WLAN to produce throughput statistics of network and nodes (220, 230) of the simulated WLAN.
A medical device comprising a balloon catheter having an inflatable, expandable balloon centrally arranged at a distal end thereof; a length of a blood tight tubular structure arranged coaxially around said balloon along a defined length at said distal end thereof; at least one expandable fixation unit (320, 321) arranged coaxially between said tubular structure and said balloon; and at least one restriction unit (325, 326) arranged coaxially around said tubular structure, wherein said fixation unit (320, 321) is a stent characterised in that said stent (320, 321) is arranged at an end of said tubular structure at least partly overlapping and extending beyond said end of said tubular structure, and in that said restriction unit is an expandable stent (325, 326).
A method of smoothing background noise, the method comprising receiving and decoding a coded signal comprising both a speech component and a background noise component; determining LPC parameters for said received signal; determining an excitation signal for said received signal; determining if said speech component is active or inactive; modifying said determined excitation signal by reducing power and spectral fluctuations of the excitation signal during periods of speech inactivity; synthesizing and outputting an output signal based on said LPC parameters and said excitation signal, characterized by: smoothing said determined set of LPC parameters by providing a low pass filtered set of LPC parameters, and determining a weighted combination of said low pass filtered set and said determined set of LPC parameters during periods of speech inactivity; and performing said synthesis and outputting based on said smoothed set of LPC parameters and said modified excitation signal. smoothing said determined set of LPC parameters by providing a low pass filtered set of LPC parameters, and determining a weighted combination of said low pass filtered set and said determined set of LPC parameters during periods of speech inactivity; and performing said synthesis and outputting based on said smoothed set of LPC parameters and said modified excitation signal.
A computer-implemented method of designing the geometry of a golf ball comprising: designing the geometry of a golf ball; the designing comprising: performing a three-dimensional fluid simulation comprising a process (a) in which a first mesh of a three-dimensional space where the air flows is defined, wherein the first mesh is defined by non-uniformly splitting the space with respect to each of three degrees of freedom of the space, a process (b) in which a second mesh of the space is defined, wherein the second mesh is defined by non-uniformly splitting the space with respect to two of the three degrees of freedom and uniformly splitting the space with respect to the remaining one of the three degrees of freedom, a process (c) in which an object model of the golf ball is defined, wherein the object model is defined by splitting the golf ball into a finite number of cells, and the object model is disposed in the first mesh, a process (d) in which boundary conditions are given and a given time step Δt is updated and incompressible equations relating to the air around the object model are defined, the equation of motion being ρ Dv Dt ≡ ρ ∂ v ∂ t + v ⋅ ∇ v = − ∇ p + μ ∇ 2 v + ρ ⋅ g wherein v is the velocity vector, ρ is the air density, p is the air pressure, t is the time and g is the gravitational acceleration, and the velocity vector at each grid point of the first mesh is computed from the equation of motion, a process (e) in which a flow imbalance Δm' is computed for each cell as the difference between an incoming mass flux and an outgoing mass flux per unit time through the respective cell, a process (f) in which a pressure correction equation relating to the air is defined based on the flow imbalance, the pressure correction equation being ∇ k ∇ p ̀ = k ∂ 2 p ̀ ∂ x 2 + ∂ 2 p ̀ ∂ y 2 + ∂ 2 p ̀ ∂ z 2 + ∂ k ∂ x ⋅ ∂ p ̀ ∂ x + ∂ k ∂ y ⋅ ∂ p ̀ ∂ y + ∂ k ∂ z ⋅ ∂ p ̀ ∂ z = − Δm ̀ wherein k is an invariable and p' is an amount of correction for the air pressure p, a process (g) in which the obtained flow imbalance is mapped onto the second mesh, and the pressure correction of the air is computed, and a process (h) in which the pressure correction obtained in the process (g) is mapped onto the first mesh, and the processes (d)-(h) are repeated until the flow imbalance obtained in the process (d) satisfies a predetermined convergence condition; and analyzing the flow of air around the golf ball flying in the air.
A method for producing a thin wafer, comprising: separating a support body from a wafer laminate by irradiating the wafer laminate with light from the side of the support body of the wafer laminate; and after the separating, removing a resin layer remaining on the wafer from the wafer by tape peeling; wherein the wafer laminate consists of a support body, an adhesive layer formed on the support body, and a wafer stacked with a surface thereof including a circuit plane facing the adhesive layer; the support body is a transparent substrate being transparent to the light irradiated to separate the support body from the wafer laminate; the adhesive layer includes only a resin layer A with a light-blocking property having a transmissivity of 20% or less at a wavelength of 355 nm and an absorption maximum wavelength of 300 to 500 nm, and a resin layer B including a thermosetting silicone resin or a non-silicone thermoplastic resin in this order from the side of the support body; and the resin layer A and the resin layer B which have remained without being decomposed by the light irradiated in the separating step are separated by pasting a tape to the resin layer A and peeling resin layer A and resin layer B from the wafer. separating a support body from a wafer laminate by irradiating the wafer laminate with light from the side of the support body of the wafer laminate; and after the separating, removing a resin layer remaining on the wafer from the wafer by tape peeling; wherein the wafer laminate consists of a support body, an adhesive layer formed on the support body, and a wafer stacked with a surface thereof including a circuit plane facing the adhesive layer; the support body is a transparent substrate being transparent to the light irradiated to separate the support body from the wafer laminate; the adhesive layer includes only a resin layer A with a light-blocking property having a transmissivity of 20% or less at a wavelength of 355 nm and an absorption maximum wavelength of 300 to 500 nm, and a resin layer B including a thermosetting silicone resin or a non-silicone thermoplastic resin in this order from the side of the support body; and the resin layer A and the resin layer B which have remained without being decomposed by the light irradiated in the separating step are separated by pasting a tape to the resin layer A and peeling resin layer A and resin layer B from the wafer.
A method for producing a dust core, comprising: a preparation step of preparing a heat-treated compact by compacting soft magnetic particles having an insulation coating and heating the resultant compact to a predetermined temperature; and a machining step of removing part of the heat-treated compact using a working tool while an electric current is supplied with a conductive fluid between the heat-treated compact serving as an anode and a working tool that machines the heat-treated compact or a first counter electrode that faces the working tool with a distance therebetween, the working tool or the first counter electrode serving as a cathode, wherein the machining step includes a removal step of removing a bridge portion that connects soft magnetic particles to each other, the soft magnetic particles being adjacent to each other along a machined surface of the heat-treated compact. a preparation step of preparing a heat-treated compact by compacting soft magnetic particles having an insulation coating and heating the resultant compact to a predetermined temperature; and a machining step of removing part of the heat-treated compact using a working tool while an electric current is supplied with a conductive fluid between the heat-treated compact serving as an anode and a working tool that machines the heat-treated compact or a first counter electrode that faces the working tool with a distance therebetween, the working tool or the first counter electrode serving as a cathode, wherein the machining step includes a removal step of removing a bridge portion that connects soft magnetic particles to each other, the soft magnetic particles being adjacent to each other along a machined surface of the heat-treated compact.
A method of bypassing electronics in a photovoltaic module, the method being characterized by comprising: switching out the electronics by electrically disconnecting a first plurality of terminals on a first side of a bypass connector (1003, 401) from a second plurality of terminals on the photovoltaic module, such that a string of photovoltaic cells, the electronics, and an output of the photovoltaic module are electrically disconnected from one another; and switching in a bypass circuit by electrically coupling a third plurality of terminals (421, 422) on a second side of the bypass connector to at least some of the second plurality of terminals, such that the string of photovoltaic cells is electrically coupled to the output and electrically disconnected from the electronics. switching out the electronics by electrically disconnecting a first plurality of terminals on a first side of a bypass connector (1003, 401) from a second plurality of terminals on the photovoltaic module, such that a string of photovoltaic cells, the electronics, and an output of the photovoltaic module are electrically disconnected from one another; and switching in a bypass circuit by electrically coupling a third plurality of terminals (421, 422) on a second side of the bypass connector to at least some of the second plurality of terminals, such that the string of photovoltaic cells is electrically coupled to the output and electrically disconnected from the electronics.
A glass article with solar control properties, comprising at least one glass substrate provided with a stack of layers, wherein the stack comprises successively, starting from the surface of said substrate: - a first module M 1 made of at least one layer, said layer(s) comprising dielectric material, - a first layer TiN 1 comprising titanium nitride, - a second module M 2 made of at least one layer, said layer(s) comprising dielectric material, - a second layer TiN 2 comprising titanium nitride, - a third module M 3 made of at least one layer, said layer(s) comprising dielectric material, wherein the cumulative sum of the thicknesses of the TiN 1 and TiN 2 layers comprising titanium nitride is between 25 and 60 nm, wherein the third module M 3 comprises a layer comprising an oxide of silicon or an oxynitride of silicon having a thickness greater than 10 nm, and wherein an interlayer IL of titanium, aluminum, silicon, an alloy of at least two of these elements, or of a nickel chromium alloy, is deposited between said second layer TiN 2 and said third module M 3, the thickness of said interlayer IL being between 0,5 nm and 7 nm. - a first module M 1 made of at least one layer, said layer(s) comprising dielectric material, - a first layer TiN 1 comprising titanium nitride, - a second module M 2 made of at least one layer, said layer(s) comprising dielectric material, - a second layer TiN 2 comprising titanium nitride, - a third module M 3 made of at least one layer, said layer(s) comprising dielectric material,
An apparatus to detect leaks in a plugged honeycomb body having a plurality of intersecting porous walls defining a first channel open at a first end of the honeycomb body and plugged at a second end opposite to the first end, and a second channel open at the second end and plugged at the first end, the apparatus comprising: a gas supply configured to force gas into an opening of the first channel at the first end of the plugged honeycomb body, the plugged honeycomb body being at a first temperature and the gas being at a second temperature that is different from the first temperature; a thermal detector configured to collect thermal data from an inspection region of the second channel at the second end of the plugged honeycomb body; and one or more processors configured to calculate gradient data related to at least one of a temperature change over time or a temperature difference over space from the thermal data characterized by a pore impediment injector configured to inject a pore impediment into a plurality of pores of the intersecting porous walls of the plugged honeycomb body, the pore impediment having an impediment size that is smaller than a mean pore size of the plurality of pores, wherein the impediment size is in a range between 5-80% of the mean pore size of the plurality of pores. a gas supply configured to force gas into an opening of the first channel at the first end of the plugged honeycomb body, the plugged honeycomb body being at a first temperature and the gas being at a second temperature that is different from the first temperature; a thermal detector configured to collect thermal data from an inspection region of the second channel at the second end of the plugged honeycomb body; and one or more processors configured to calculate gradient data related to at least one of a temperature change over time or a temperature difference over space from the thermal data characterized by a pore impediment injector configured to inject a pore impediment into a plurality of pores of the intersecting porous walls of the plugged honeycomb body, the pore impediment having an impediment size that is smaller than a mean pore size of the plurality of pores, wherein the impediment size is in a range between 5-80% of the mean pore size of the plurality of pores.
A method for making an epoxidation catalyst comprising (i) a support, (ii) at least one catalytic species which comprises silver, (iii) manganese and (iv) a promoter which comprises sodium, comprising the process steps of, or, wherein: comprises first separately depositing the catalytic species on the support; followed by impregnating the support with manganese alone; and followed by sequentially impregnating the support with the promoter; or comprises depositing an amount of the catalytic species and an amount of the manganese in one impregnation of the support and then depositing a further amount of the catalytic species and manganese in a further impregnation of the support along with the promoter; or comprises impregnating the support with an amount of the manganese; followed by an impregnation of the catalytic species and the promoter, wherein if two or more impregnations are employed, the impregnated support is dried, or calcined and/or roasted between each successive impregnation to ensure deposition of the metals onto the support. comprises first separately depositing the catalytic species on the support; followed by impregnating the support with manganese alone; and followed by sequentially impregnating the support with the promoter; or comprises depositing an amount of the catalytic species and an amount of the manganese in one impregnation of the support and then depositing a further amount of the catalytic species and manganese in a further impregnation of the support along with the promoter; or comprises impregnating the support with an amount of the manganese; followed by an impregnation of the catalytic species and the promoter, wherein if two or more impregnations are employed, the impregnated support is dried, or calcined and/or roasted between each successive impregnation to ensure deposition of the metals onto the support.
A display image generating device comprising: image input means for inputting first image data representing a first image with a first resolution; converting means for converting all of the first image data input by the image input means to second image data with a second resolution; image output means for outputting the second image data converted by the converting means; changing request means for requesting to change an output part of the first image; and control means for specifying the output part of the first image in response to the change requested by the changing request means, characterized in that the converting means is further adapted for converting the specified output part of the first image to third image data with the second resolution, wherein the image output means is further adapted to output the third data converted by the converting means. image input means for inputting first image data representing a first image with a first resolution; converting means for converting all of the first image data input by the image input means to second image data with a second resolution; image output means for outputting the second image data converted by the converting means; changing request means for requesting to change an output part of the first image; and control means for specifying the output part of the first image in response to the change requested by the changing request means, characterized in that the converting means is further adapted for converting the specified output part of the first image to third image data with the second resolution, wherein the image output means is further adapted to output the third data converted by the converting means.
An agonist for TLR8, TLR7 and TLR8, or TLR7, comprising a stabilized immune modulatory RNA (SIMRA) compound, wherein the SIMRA compound comprises at least two oligoribonucleotides linked at their 3' ends via a non-nucleotidic linker.
A machine tool machining a surface to be machined located on an inner surface of a workpiece, the machine tool comprising: a tool having a supporting member and a cutting tool which is supported to be pivotable about a pivot axis (b) located on a plane perpendicular to an axis (a) of the supporting member and has a cutting edge at least at one end; an axial feed mechanism rotating the supporting member about the axis (a) and moving the supporting member in a direction of the axis (a); a pivot driving mechanism pivoting the cutting tool about the pivot axis (b); and a machining control mechanism controlling a pivot angle. (θ) of the cutting tool decided by said pivot driving mechanism and a rotation speed and an axial-direction position of the supporting member decided by said axial feed mechanism, characterized in that the surface to be machined has a flat surface portion perpendicular to the axis (a) of the supporting member and a spherical surface portion which is formed continuously from an outer edge portion of the flat surface portion and whose center is located on the pivot axis (b) of the cutting tool; and at the time of the machining of the flat surface portion, said machining control mechanism is adapted to change the pivot angle (θ) of the cutting tool and, accordingly, to change the axial-direction position of the supporting member, and at the time of the machining of the spherical surface portion, is adapted to change only the pivot angle (θ) of the cutting tool and to fix the axial-direction position. a tool having a supporting member and a cutting tool which is supported to be pivotable about a pivot axis (b) located on a plane perpendicular to an axis (a) of the supporting member and has a cutting edge at least at one end; an axial feed mechanism rotating the supporting member about the axis (a) and moving the supporting member in a direction of the axis (a); a pivot driving mechanism pivoting the cutting tool about the pivot axis (b); and a machining control mechanism controlling a pivot angle. (θ) of the cutting tool decided by said pivot driving mechanism and a rotation speed and an axial-direction position of the supporting member decided by said axial feed mechanism, characterized in that the surface to be machined has a flat surface portion perpendicular to the axis (a) of the supporting member and a spherical surface portion which is formed continuously from an outer edge portion of the flat surface portion and whose center is located on the pivot axis (b) of the cutting tool; and at the time of the machining of the flat surface portion, said machining control mechanism is adapted to change the pivot angle (θ) of the cutting tool and, accordingly, to change the axial-direction position of the supporting member, and at the time of the machining of the spherical surface portion, is adapted to change only the pivot angle (θ) of the cutting tool and to fix the axial-direction position.