mhurhangee/ep-ind-claims huggingface dataset:
The use of a composition comprising a polysiloxane mixture containing (i) polysiloxane having a vinyl group, (ii) polysiloxane having two or more Si-H groups in a molecular chain, and (iii) silica particles which - have an average primary particle diameter of 18-90 nm, - are subjected to surface treatment, and - have a methanol hydrophobicity of 40-80 mass-%, determined by adding dropwise, to 0.2 g of silica particles in 50 ml ion exchange water at 25°C and with magnetic stirring, methanol until the whole sample settles, and calculating the MH as MH mass % = X / 50 + X × 100 wherein X is the amount (g) of methanol added, for an acoustic wave probe. (i) polysiloxane having a vinyl group, (ii) polysiloxane having two or more Si-H groups in a molecular chain, and (iii) silica particles which - have an average primary particle diameter of 18-90 nm, - are subjected to surface treatment, and - have a methanol hydrophobicity of 40-80 mass-%, determined by adding dropwise, to 0.2 g of silica particles in 50 ml ion exchange water at 25°C and with magnetic stirring, methanol until the whole sample settles, and calculating the MH as MH mass % = X / 50 + X × 100 wherein X is the amount (g) of methanol added, for an acoustic wave probe. - have an average primary particle diameter of 18-90 nm, - are subjected to surface treatment, and - have a methanol hydrophobicity of 40-80 mass-%, determined by adding dropwise, to 0.2 g of silica particles in 50 ml ion exchange water at 25°C and with magnetic stirring, methanol until the whole sample settles, and calculating the MH as MH mass % = X / 50 + X × 100 wherein X is the amount (g) of methanol added, for an acoustic wave probe.
A transportation means for storing fluid therein comprising: a bumper plate fixed to a fixed axis connected to an inner wall of the transportation means and suitable to reduce sloshing of the fluid or to control an impact load resulting from fluid, wherein the bumper plate is adapted to rotate in the up, down, left, or right direction of the transportations means, and characterized in that the bumper plate is adapted to rotate about Y axis and Z axis among X, Y, Z axis when Y axis direct to upward of the transportation means, and Z axis is perpendicular to Y axis and parallel to the inner wall of the transportation means, wherein a support protrudes from the inner wall, and the fixed axis is arranged at an end of the support, enabling rotation movement in the up, down, left, or right direction. a bumper plate fixed to a fixed axis connected to an inner wall of the transportation means and suitable to reduce sloshing of the fluid or to control an impact load resulting from fluid, wherein the bumper plate is adapted to rotate in the up, down, left, or right direction of the transportations means, and characterized in that the bumper plate is adapted to rotate about Y axis and Z axis among X, Y, Z axis when Y axis direct to upward of the transportation means, and Z axis is perpendicular to Y axis and parallel to the inner wall of the transportation means, wherein a support protrudes from the inner wall, and the fixed axis is arranged at an end of the support, enabling rotation movement in the up, down, left, or right direction.
A street fixture assembly comprising a supporting element including an access hatch for accessing the inside of said element, said access hatch being able to be displaced between an opening and closing position, said element further including means (1, 3) for locking said hatch and said locking means (1, 3) are located inside said supporting element and are displaceable from the outside by a magnetic member, said locking means (1, 3) comprising a bolt able to cooperate with a latch in order to maintain said hatch in a closing position, said bolt being displaceable by sliding in a positioning member, wherein said latch is attached on the hatch, said latch including a blocking wall extending axially upwards, at least one portion of said bolt being maintained confined between said blocking wall of the latch and said hatch in the closing position of said hatch.
A system for preparing a pharmaceutical compound, comprising: a computing device comprising a processor and a user interface providing an operator with instructions for preparing the pharmaceutical compound; a scale operatively coupled to the processor of the computing device; a barcode scanner that has a sensor that is offset from the scale; and an enclosure housing comprising an image capture device,, the enclosure housing supported by a supporting arm and coupled to a portion of the scale, wherein the image capture device is operatively connected to the processor of the computing device and has a field of view positioned to capture an object positioned on the scale, and wherein the enclosure housing has a curved front profile to minimize flow disturbances when the system is positioned within a flow hood characterized in that the enclosure housing further comprises the barcode scanner. a computing device comprising a processor and a user interface providing an operator with instructions for preparing the pharmaceutical compound; a scale operatively coupled to the processor of the computing device; a barcode scanner that has a sensor that is offset from the scale; and an enclosure housing comprising an image capture device,, the enclosure housing supported by a supporting arm and coupled to a portion of the scale, wherein the image capture device is operatively connected to the processor of the computing device and has a field of view positioned to capture an object positioned on the scale, and wherein the enclosure housing has a curved front profile to minimize flow disturbances when the system is positioned within a flow hood characterized in that the enclosure housing further comprises the barcode scanner.
A method for manufacturing a sapphire substrate having a C-plane as principal surface for growing a nitride semiconductor to form a nitride semiconductor light emitting device, comprising applying a plurality of masks, each mask is composed of three legs having a tripod shape, on the sapphire substrate, such that the legs are rotated by either 30 plus/minus 10 degrees counter clockwise from an a-axis of the sapphire substrate, or by 30 plus/minus 10 degrees clockwise from an a-axis of the sapphire substrate; wet-etching the surface of the sapphire substrate with sulfuric acid or phosphoric acid, such that a plurality of projections (1, 40, 50) are formed in the principal surface of the sapphire substrate, wherein each of the projections has a bottom having three vertexes arranged substantially in a triangular shape and each side (11, 12, 13) of the bottom of the projections connecting respective two vertexes has a depression in its center and each side of the bottom of the projections is comprised of two outwardly curved lines (11a, 11b; 12a, 12b; 13a, 13b) extending from a deepest point of the depression to two respective vertexes of the projections, each outwardly curved line having a convex portion and a concave portion. applying a plurality of masks, each mask is composed of three legs having a tripod shape, on the sapphire substrate, such that the legs are rotated by either 30 plus/minus 10 degrees counter clockwise from an a-axis of the sapphire substrate, or by 30 plus/minus 10 degrees clockwise from an a-axis of the sapphire substrate; wet-etching the surface of the sapphire substrate with sulfuric acid or phosphoric acid, such that a plurality of projections (1, 40, 50) are formed in the principal surface of the sapphire substrate, wherein each of the projections has a bottom having three vertexes arranged substantially in a triangular shape and each side (11, 12, 13) of the bottom of the projections connecting respective two vertexes has a depression in its center and each side of the bottom of the projections is comprised of two outwardly curved lines (11a, 11b; 12a, 12b; 13a, 13b) extending from a deepest point of the depression to two respective vertexes of the projections, each outwardly curved line having a convex portion and a concave portion.
A machine spindle containing a force-amplifier, said machine spindle having a clamping member, the force-amplifier comprising parts of two drawbars (10, 11), one of which is connected to the clamping member, whereby the force-amplifier also comprises a number of sets of co-operating wedges (22, 23), whereby mutually co-operating sliding surfaces (32 and 35, 33 and 36) of the co-operating wedges (22, 23) are planar and parallel with each other, whereby additional sliding surfaces (31, 34) of the first of the wedges are planar, whereby one of the additional sliding surfaces co-operates with a sliding surface of an anvil included in the force-amplifier, whereby the second additional sliding surface co-operates with a sliding surface of a radial groove in the second drawbar, and whereby the wedges (22, 23) included in a set are arranged in an appurtenant countersink in the first drawbar, characterized in that the countersink is provided with a bulge, which is intended to co-operate with a notch of the second wedge.
A method of manufacturing multimode optical fiber having a core with an index profile resulting in a radius-dependent graded index of refraction, the core having a radius R 2, said method comprising: providing a first index profile across a first predetermined range of radii 0 < r ≤ r i within the core, the first index profile substantially corresponding to a standard ideal parabolic index profile for a dopant given by: n r = n 1 0 ∗ 1 − 2 r R 1 α 1 Δ 0 for r < R 1 where: n(r) is the refractive index of the core at a radial distance r; n 1 0 is the refractive index at the center of the core; α 1 is a fiber parameter; R 1 is an ideal core radius; and Δ 0 = n 1 0 2 − n 2 2 2 n 1 0 2, where n 2 is the refractive index of a cladding of the multimode optical fiber; controlling dopant concentrations to reduce the index of refraction to lower than the standard ideal parabolic index for the dopant over a second predetermined range r i < r ≤ R 2 of radii within the, the index of refraction over the second predetermined range being provided by a second index profile substantially given by: n r = n 1 0 ∗ 1 − 2 r R 2 α 2 Δ 0 where: R 2 is less than R 1; and α 2 > α 1. providing a first index profile across a first predetermined range of radii 0 < r ≤ r i within the core, the first index profile substantially corresponding to a standard ideal parabolic index profile for a dopant given by: n r = n 1 0 ∗ 1 − 2 r R 1 α 1 Δ 0 for r < R 1 where: n(r) is the refractive index of the core at a radial distance r; n 1 0 is the refractive index at the center of the core; α 1 is a fiber parameter; R 1 is an ideal core radius; and Δ 0 = n 1 0 2 − n 2 2 2 n 1 0 2, where n 2 is the refractive index of a cladding of the multimode optical fiber; n(r) is the refractive index of the core at a radial distance r; n 1 0 is the refractive index at the center of the core; α 1 is a fiber parameter; R 1 is an ideal core radius; and Δ 0 = n 1 0 2 − n 2 2 2 n 1 0 2, where n 2 is the refractive index of a cladding of the multimode optical fiber; controlling dopant concentrations to reduce the index of refraction to lower than the standard ideal parabolic index for the dopant over a second predetermined range r i < r ≤ R 2 of radii within the, the index of refraction over the second predetermined range being provided by a second index profile substantially given by: n r = n 1 0 ∗ 1 − 2 r R 2 α 2 Δ 0 where: R 2 is less than R 1; and α 2 > α 1. R 2 is less than R 1; and α 2 > α 1.
A system for detecting moisture at an absorbent article, the system comprising: a device arranged to be attached on the absorbent article and comprising a resonance circuit including a moisture sensitive part, wherein the resonance circuit has a first resonance frequency when the moisture sensitive part is in a dry condition and a second resonance frequency when the moisture sensitive part is in a moist condition, and a monitoring unit arranged to: transmit a test signal to the device, receive a response signal from the device, determine a frequency of the response signal, and generate a detection signal if the determined frequency corresponds to the second resonance frequency, the system being characterized by the moisture sensitive part comprising two conductors (14 14') separated by an insulator, and the device further comprising an electrically insulating layer having a first side and a second side, wherein said two conductors (14, 14') are provided on the first side and the moisture sensitive part further comprises a third conductor which is provided on the second side opposite to the two conductors (14, 14') and is arranged to be capacity-coupled to the two conductors (14, 14'). a device arranged to be attached on the absorbent article and comprising a resonance circuit including a moisture sensitive part, wherein the resonance circuit has a first resonance frequency when the moisture sensitive part is in a dry condition and a second resonance frequency when the moisture sensitive part is in a moist condition, and a monitoring unit arranged to: transmit a test signal to the device, receive a response signal from the device, determine a frequency of the response signal, and generate a detection signal if the determined frequency corresponds to the second resonance frequency, transmit a test signal to the device, receive a response signal from the device, determine a frequency of the response signal, and generate a detection signal if the determined frequency corresponds to the second resonance frequency, the system being characterized by the moisture sensitive part comprising two conductors (14 14') separated by an insulator, and the device further comprising an electrically insulating layer having a first side and a second side, wherein said two conductors (14, 14') are provided on the first side and the moisture sensitive part further comprises a third conductor which is provided on the second side opposite to the two conductors (14, 14') and is arranged to be capacity-coupled to the two conductors (14, 14').
A computer program product stored on a computer readable storage medium, which when run controls a mobile station apparatus which is adapted to search a search space for a physical downlink control channel, PDCCH, transmitted by a base station apparatus, to perform the following steps, comprising: performing decoding processing, for searching the search space for the PDCCH, wherein the search space is defined based on a first mobile station identity, in a case that the mobile station apparatus has the first mobile station identity and a second mobile station identity; identifying that the PDCCH is used for dynamic scheduling when the PDCCH includes the first mobile station identity; and identifying that the PDCCH is used for deactivating persistent scheduling when the PDCCH includes the second mobile station identity, and resource allocation information is a beforehand determined value. performing decoding processing, for searching the search space for the PDCCH, wherein the search space is defined based on a first mobile station identity, in a case that the mobile station apparatus has the first mobile station identity and a second mobile station identity; identifying that the PDCCH is used for dynamic scheduling when the PDCCH includes the first mobile station identity; and identifying that the PDCCH is used for deactivating persistent scheduling when the PDCCH includes the second mobile station identity, and resource allocation information is a beforehand determined value.
A method for separating nickel, cobalt, and a rare earth element from a material containing positive and negative electrode active materials of a nickel-metal hydride battery, the method comprising steps to shown below, wherein a sulfide containing nickel and cobalt and a sulfate containing a rare earth element are obtained from the material containing positive and negative electrode active materials which constitutes a nickel-metal hydride battery: a leaching step of mixing the material containing positive and negative electrode active materials with a sulfuric acid solution and dissolving therein, followed by separating a leachate from a residue, a rare earth crystallization step of adding an Alkali metal sulfate to the leachate obtained in the leaching step and thereby obtaining a mixed precipitate of double sulfate of a rare earth element and a rare-earth-element-free solution, a sulfide raw material recovery step of adding a sulfurizing agent to the rare-earth-element-free solution obtained in the rare earth crystallization step while a pH of the rare-earth-element-free solution is kept in a range of not less than 2.5. and not more than 4.5 and thereby separating a nickel and cobalt sulfide raw material from a residual solution, and a dezincification step of adding a neutralizer to the rare-earth-element-free solution obtained in the rare earth crystallization step to adjust a pH in a range of not less than 2,0 and not more than 2.5, and maintaining said pH in said range and further adding a sulfurizing agent thereto to separate zinc in the rare-earth-element-free solution as a sulfide precipitate, and supplying a residual solution after the separation as the rare-earth-element-free solution in the sulfide raw material recovery step a leaching step of mixing the material containing positive and negative electrode active materials with a sulfuric acid solution and dissolving therein, followed by separating a leachate from a residue, a rare earth crystallization step of adding an Alkali metal sulfate to the leachate obtained in the leaching step and thereby obtaining a mixed precipitate of double sulfate of a rare earth element and a rare-earth-element-free solution, a sulfide raw material recovery step of adding a sulfurizing agent to the rare-earth-element-free solution obtained in the rare earth crystallization step while a pH of the rare-earth-element-free solution is kept in a range of not less than 2.5. and not more than 4.5 and thereby separating a nickel and cobalt sulfide raw material from a residual solution, and a dezincification step of adding a neutralizer to the rare-earth-element-free solution obtained in the rare earth crystallization step to adjust a pH in a range of not less than 2,0 and not more than 2.5, and maintaining said pH in said range and further adding a sulfurizing agent thereto to separate zinc in the rare-earth-element-free solution as a sulfide precipitate, and supplying a residual solution after the separation as the rare-earth-element-free solution in the sulfide raw material recovery step
A geopolymeric cement formed from a precursor having a relatively high alumina content being an Si:Al atomic ratio of less than or equal to 1.3:1 to form an alkaline alumino-silicate geopolymer material wherein the precursor comprises weathered basaltic rock having relatively high alumina content in which kaolinization is at an advanced stage, and wherein the weathered basaltic rock is composed of between 20% to 80% w/w of kaolinite with the remaining 80% to 20% w/w made up of smectites (e.g., montmorillionite and vermiculite), iron oxides, gibbsite and olivine residual materials.
A hot melt composition comprising a polymer composition comprising: a dimer acid-based polyamide and an olefin-based-modified polymer, wherein the olefin-based-modified polymer is a grafted polymer produced by polymerizing an olefin, a (meth)acrylic acid ester and an acid anhydride, and grafting a polyamide on a copolymer thereby obtained, and wherein the blending amount of dimer acid-based polyamide is 50 to 90 weight parts and the blending amount of olefin-based-modified polymer is 10 to 50 weight parts, relative to 100 weight parts of the total weight of dimer acid-based polyamide and olefin-based-modified polymer. a dimer acid-based polyamide and an olefin-based-modified polymer, wherein the olefin-based-modified polymer is a grafted polymer produced by polymerizing an olefin, a (meth)acrylic acid ester and an acid anhydride, and grafting a polyamide on a copolymer thereby obtained, and wherein the blending amount of dimer acid-based polyamide is 50 to 90 weight parts and the blending amount of olefin-based-modified polymer is 10 to 50 weight parts, relative to 100 weight parts of the total weight of dimer acid-based polyamide and olefin-based-modified polymer.
System for storing heat, the system comprising a housing with a storage volume, wherein the housing comprises an opening for connecting the storage volume to an environment, a first type of first heat storing elements which is arranged within a first location within the storage volume, a second type of second heat storing elements which is arranged within a second location within the storage volume, wherein the first heat storing elements of the first type comprise a respective first element size, wherein the second storing elements of the second type comprise a respective second element size, wherein the first storing element size differs from the second element size, characterised in that the housing comprises a first housing section and the storage volume comprises a first storage volume, wherein the first housing section comprises a first opening forming an opening for connecting the first storage volume to the environment, wherein the first type of first heat storing elements is arranged within the first housing section forming the first location, wherein the housing further comprises a second housing section and the storage volume comprises a second storage volume, wherein the second housing section comprises a second opening for connecting the second storage volume to the environment, wherein the first storage volume and the second storage volume are interconnected for forming a common storage volume, wherein the second type of second heat storing elements is arranged within the second housing section forming the second location.
Air-conditioning system for the passenger compartment of a motor vehicle, wherein the air-conditioning system comprises an operator control unit, wherein the air-conditioning system comprises at least two air outlets (3a, 3b); wherein the operator control unit comprises a touch-sensitive strip; wherein the air-conditioning system is configured for the following: - sensing contact with the strip; - separate control of the temperature of the air which flows out of the first air outlet, and of the temperature of the air which flows out of the second air outlet, characterized in that the air-conditioning system is configured for the following: - determining the temperature of the air for the first and second air outlets (3a, 3b) independently of one another and independently of the sensed contact with the strip. - sensing contact with the strip; - separate control of the temperature of the air which flows out of the first air outlet, and of the temperature of the air which flows out of the second air outlet, characterized in that the air-conditioning system is configured for the following: - determining the temperature of the air for the first and second air outlets (3a, 3b) independently of one another and independently of the sensed contact with the strip.