mhurhangee/ep-ind-claims huggingface dataset:
A vehicle windshield for a head-up display system, comprising: a first glass substrate having surfaces S1 and S2, wherein surface S1 faces a vehicle exterior; a second glass substrate having surfaces S3 and S4, wherein surface S4 faces a vehicle interior, wherein the first and second glass substrates (4,8) are spaced apart from each other with at least one polymer interlayer therebetween; and a first nano-structured coating (10,62), on surface S1 or S4, characterised in that: the first nano-structured coating comprises silica-rich structures and sodium-borate-rich portions; the first nano-structured coating has a particle size of less than or equal to 400 nm; the first nano-structured coating is from 50 nm to 1 μm thick; the vehicle windshield has a visible light transmittance of at least 70%; and the vehicle windshield further comprises an undercoating comprising a passivation layer containing SiO 2, TiO 2 or ZrO 2 between the first nano-structured coating (10,) and the respective glass substrate (4,8). a first glass substrate having surfaces S1 and S2, wherein surface S1 faces a vehicle exterior; a second glass substrate having surfaces S3 and S4, wherein surface S4 faces a vehicle interior, wherein the first and second glass substrates (4,8) are spaced apart from each other with at least one polymer interlayer therebetween; and a first nano-structured coating (10,62), on surface S1 or S4, characterised in that: the first nano-structured coating comprises silica-rich structures and sodium-borate-rich portions; the first nano-structured coating has a particle size of less than or equal to 400 nm; the first nano-structured coating is from 50 nm to 1 μm thick; the vehicle windshield has a visible light transmittance of at least 70%; and the vehicle windshield further comprises an undercoating comprising a passivation layer containing SiO 2, TiO 2 or ZrO 2 between the first nano-structured coating (10,) and the respective glass substrate (4,8). the first nano-structured coating comprises silica-rich structures and sodium-borate-rich portions; the first nano-structured coating has a particle size of less than or equal to 400 nm; the first nano-structured coating is from 50 nm to 1 μm thick; the vehicle windshield has a visible light transmittance of at least 70%; and the vehicle windshield further comprises an undercoating comprising a passivation layer containing SiO 2, TiO 2 or ZrO 2 between the first nano-structured coating (10,) and the respective glass substrate (4,8).
An electrophoretic display comprising an array of electrophoretic cells wherein each of said electrophoretic cells comprises: a) a top layer comprising a top electrode; b) a bottom layer comprising a bottom electrode and at least one in-plane electrode (34, 36); c) an electrophoretic composition sandwiched between the top layer and the bottom layer, which electrophoretic composition comprises white charged pigment particles dispersed in a clear and colored dielectric solvent; and d) a black background layer; whereby in each of said electrophoretic cells an area corresponding to the bottom electrode and the at least one in-plane electrode displays the color of the charged pigment particles, or the color of the dielectric solvent, or the color of the background layer. a) a top layer comprising a top electrode; b) a bottom layer comprising a bottom electrode and at least one in-plane electrode (34, 36); c) an electrophoretic composition sandwiched between the top layer and the bottom layer, which electrophoretic composition comprises white charged pigment particles dispersed in a clear and colored dielectric solvent; and d) a black background layer;
A method for handling radioactive solutions after decontamination of the surfaces of protective equipment, the method comprising the combined evaporation of alkaline and acidic solutions containing sodium hydroxide, potassium permanganate, oxalic acid and nitric acid to a solid residue, with subsequent calcination and mixing of the calcinate with the components of the fusion mixture containing oxides of titanium, calcium, iron and aluminum in certain proportions, and the combined melting of all components to produce a ceramic matrix, wherein zirconium and manganese oxides are further introduced into the mixture of the calcinate and oxides of titanium, calcium, iron and aluminum in the following component proportions, wt%: Calcinate of high-level waste 10.0-20.0 TiO 2 53.0-57. CaO 9.0-11.0 Fe 2 O 3 4.5-5.5 Al 2 O 3 4.5-5.5 ZrO 2 4.5-5.5 and the total content of MnO 2 in the mixture does not exceed 10 wt%.
A positive electrode for a rechargeable battery consisting of a powder mixture consisting of segregated powder particles, and comprising at least 95 wt% active cathode material with an electrode loading of at least 40 mg/cm 2, and having an electrode porosity of less than 14 vol%, wherein the active cathode material comprises a bimodal composition wherein at least 70 wt% consists of a first lithium cobalt based oxide powder having an average particle size of at least 25 μm, and preferably >40 μm, and a BET value <0.2 m 2 /g, and preferably <0.18 m 2 /g.
High strength hot rolled steel plate with excellent low temperature toughness, having a chemical composition consisting of, by mass%, C: 0.01 to 0.08%, Si: 0.01 to 0.50%, Mn: 0.5 to 2.0%, S: 0.0001 to 0.005%, Ti: 0.003 to 0.030%, Mo: 0.05 to 1.00%, B: 0.0003 to 0.010%, and O: 0.0001 to 0.008%, limiting P: 0.050% or less and Al: 0.010% or less, and optionally one or both of Cu: 0.05 to 1.5% and Ni: 0.05 to 5.0%, optionally one or more of Cr: 0.02 to 1.50%, W: 0.01 to 0.50%, V: 0.01 to 0.10%, Nb: 0.001 to 0.20%, Zr: 0.0001 to 0.050%, and Ta: 0.0001 to 0.050%, and optionally one or more of Mg: 0.0001 to 0.010%, Ca: 0.0001 to 0.005%, REM: 0.0001 to 0.005%, Y: 0.0001 to 0.005%, Hf: 0.0001 to 0.005%, and Re: 0.0001 to 0.005%, and having a balance of iron and unavoidable impurities, having a Ceq, calculated by the following formula 1, of 0.30 to 0.53, having a Pcm, found by the following formula 2, of 0.10 to 0.20, and having a metal structure with an area percentage of polygonal ferrite of 20 to 90% and a balance of a hard phase comprised of one or both of bainite and martensite: Ceq = C + Mn / 6 + Ni + Cu / 15 + Cr + Mo + V / 5 Pcm = C + Si / 30 + Mn + Cu + Cr / 20 + Ni / 60 + Mo / 15 + V / 10 + 5 ⁢ B where, C, Si, Mn, Ni, Cu, Cr, Mo, V, and B are contents of the individual elements by mass%; and having a tensile strength of 570MPa or more. Cu: 0.05 to 1.5% and Ni: 0.05 to 5.0%, Cr: 0.02 to 1.50%, W: 0.01 to 0.50%, V: 0.01 to 0.10%, Nb: 0.001 to 0.20%, Zr: 0.0001 to 0.050%, and Ta: 0.0001 to 0.050%, and Mg: 0.0001 to 0.010%, Ca: 0.0001 to 0.005%, REM: 0.0001 to 0.005%, Y: 0.0001 to 0.005%, Hf: 0.0001 to 0.005%, and Re: 0.0001 to 0.005%, and having a balance of iron and unavoidable impurities, having a Ceq, calculated by the following formula 1, of 0.30 to 0.53, having a Pcm, found by the following formula 2, of 0.10 to 0.20, and having a metal structure with an area percentage of polygonal ferrite of 20 to 90% and a balance of a hard phase comprised of one or both of bainite and martensite: Ceq = C + Mn / 6 + Ni + Cu / 15 + Cr + Mo + V / 5 Pcm = C + Si / 30 + Mn + Cu + Cr / 20 + Ni / 60 + Mo / 15 + V / 10 + 5 ⁢ B where, C, Si, Mn, Ni, Cu, Cr, Mo, V, and B are contents of the individual elements by mass%; and having a tensile strength of 570MPa or more.
A kit for attaching an optical insert to a viewing lens of an eye-shielding device, the kit comprising: an optical insert having an outer perimeter; and characterized by further comprising: a flexible border attachment element having an inner periphery and an outer periphery and comprising a first adhesive area for attachment to the inside surface of the optical insert and a second adhesive area for attachment to the inside surface of the viewing lens, wherein at least a portion of the inner periphery of the flexible border attachment element extends inward of the outer perimeter of the optical insert defining an inner periphery area, and at least a portion of the outer periphery of the flexible border attachment element extends outward of the outer perimeter of the optical insert defining an outer periphery area, thereby defining a buffer zone spanning the inner and outer periphery areas,, and wherein the border attachment element forms a ramp between the optical insert and the viewing lens. an optical insert having an outer perimeter; and characterized by further comprising: a flexible border attachment element having an inner periphery and an outer periphery and comprising a first adhesive area for attachment to the inside surface of the optical insert and a second adhesive area for attachment to the inside surface of the viewing lens, wherein at least a portion of the inner periphery of the flexible border attachment element extends inward of the outer perimeter of the optical insert defining an inner periphery area, and at least a portion of the outer periphery of the flexible border attachment element extends outward of the outer perimeter of the optical insert defining an outer periphery area, thereby defining a buffer zone spanning the inner and outer periphery areas,, and wherein the border attachment element forms a ramp between the optical insert and the viewing lens. a flexible border attachment element having an inner periphery and an outer periphery and comprising a first adhesive area for attachment to the inside surface of the optical insert and a second adhesive area for attachment to the inside surface of the viewing lens, wherein at least a portion of the inner periphery of the flexible border attachment element extends inward of the outer perimeter of the optical insert defining an inner periphery area, and at least a portion of the outer periphery of the flexible border attachment element extends outward of the outer perimeter of the optical insert defining an outer periphery area, thereby defining a buffer zone spanning the inner and outer periphery areas,, and wherein the border attachment element forms a ramp between the optical insert and the viewing lens.
A method for producing a sintered R-T-B based magnet, the method comprising the steps of: providing R-T-B based alloy powders A and B, wherein the powder A includes 27.3 mass% to 31.2 mass% of R, which is at least one of the rare-earth elements, 0.92 mass% to 1.15 mass% of B, and T as the balance, where T is either Fe alone or Fe and Co and where Co accounts for at most 20 mass% of T if T includes Fe and Co, and wherein the powder B includes 27.3 mass% to 36.0 mass% of R, which is at least one of the rare-earth elements, 0.92 mass% to 1.15 mass% of B, and T as the balance, where T is either Fe alone or Fe and Co and where Co accounts for at most 20 mass% of T if T includes Fe and Co; mixing these two R-T-B based alloy powders A and B together; compacting the mixed R-T-B based alloy powder to obtain a compact with a predetermined shape; and sintering the compact, wherein R included in the R-T-B based alloy powder B includes 4 mass% to 36 mass% of heavy rare-earth element RH, which is at least one of Dy and Tb, and wherein the content of the heavy rare-earth element RH in the R-T-B based alloy powder B is larger by at least 4 mass% than the content of the heavy rare-earth element RH in the R-T-B based alloy powder A, characterized in that the particle size D50 of the R-T-B based alloy powder B is smaller by at least 1.0 μm than the particle size D50 of the R-T-B based alloy powder A. providing R-T-B based alloy powders A and B, wherein the powder A includes 27.3 mass% to 31.2 mass% of R, which is at least one of the rare-earth elements, 0.92 mass% to 1.15 mass% of B, and T as the balance, where T is either Fe alone or Fe and Co and where Co accounts for at most 20 mass% of T if T includes Fe and Co, and wherein the powder B includes 27.3 mass% to 36.0 mass% of R, which is at least one of the rare-earth elements, 0.92 mass% to 1.15 mass% of B, and T as the balance, where T is either Fe alone or Fe and Co and where Co accounts for at most 20 mass% of T if T includes Fe and Co; mixing these two R-T-B based alloy powders A and B together; compacting the mixed R-T-B based alloy powder to obtain a compact with a predetermined shape; and sintering the compact, wherein R included in the R-T-B based alloy powder B includes 4 mass% to 36 mass% of heavy rare-earth element RH, which is at least one of Dy and Tb, and wherein the content of the heavy rare-earth element RH in the R-T-B based alloy powder B is larger by at least 4 mass% than the content of the heavy rare-earth element RH in the R-T-B based alloy powder A, characterized in that the particle size D50 of the R-T-B based alloy powder B is smaller by at least 1.0 μm than the particle size D50 of the R-T-B based alloy powder A.
A cushion assembly for a mask used for treatment of sleep disordered breathing, the cushion assembly comprising: a first layer (440, 540, 640) including a front side adapted to contact a shell or a body of the mask; and a second layer (430, 530, 630) formed of foam having different densities, the second layer defining a cushion shape and forming a face-engaging structure that is configured for being compressed upon contact with a wearer's face. a first layer (440, 540, 640) including a front side adapted to contact a shell or a body of the mask; and a second layer (430, 530, 630) formed of foam having different densities, the second layer defining a cushion shape and forming a face-engaging structure that is configured for being compressed upon contact with a wearer's face.
A controller device capable of wirelessly communicating with an information processing device, the controller device comprising: an operation unit including at least a gyrosensor, an acceleration sensor, and a touch panel; a generating unit (21, 27) for generating operation data based on data obtained from the operation unit; and a communication unit (27, 38) for wirelessly transmitting the operation data to the information processing device once per predetermined period of time, wherein over each said predetermined period of time, the generating unit obtains acceleration data for a plurality of iterations from the acceleration sensor, obtains angular velocity for a plurality of iterations from the gyrosensor, and obtains position data for a plurality of iterations from the touch panel, and the operation data transmitted in a single transmission includes: first data representing a value obtained by adding together the angular velocities for a plurality of iterations obtained from the gyrosensor; second data representing an average value among accelerations from the acceleration data for a plurality of iterations obtained from the acceleration sensor; and third data representing the positions for a plurality of iterations obtained from the touch panel. an operation unit including at least a gyrosensor, an acceleration sensor, and a touch panel; a generating unit (21, 27) for generating operation data based on data obtained from the operation unit; and a communication unit (27, 38) for wirelessly transmitting the operation data to the information processing device once per predetermined period of time, wherein over each said predetermined period of time, the generating unit obtains acceleration data for a plurality of iterations from the acceleration sensor, obtains angular velocity for a plurality of iterations from the gyrosensor, and obtains position data for a plurality of iterations from the touch panel, and the operation data transmitted in a single transmission includes: first data representing a value obtained by adding together the angular velocities for a plurality of iterations obtained from the gyrosensor; second data representing an average value among accelerations from the acceleration data for a plurality of iterations obtained from the acceleration sensor; and third data representing the positions for a plurality of iterations obtained from the touch panel. first data representing a value obtained by adding together the angular velocities for a plurality of iterations obtained from the gyrosensor; second data representing an average value among accelerations from the acceleration data for a plurality of iterations obtained from the acceleration sensor; and third data representing the positions for a plurality of iterations obtained from the touch panel.
A method of manufacturing an optical device which comprises: a first outer substrate (301; 1201) which is a curved surface substrate having a convex surface and an opposite surface; a second outer substrate disposed opposite to the first outer substrate (301; 1201); and an active liquid crystal element encapsulated by an encapsulating agent (40; 1202) between the first (301; 1201) and second outer substrates, wherein the active liquid crystal element comprises two base films disposed opposite to each other, an active liquid crystal layer existing between the two base films, and conductive layers present on side of the two base films facing the active liquid crystal layer, comprising: a first step of holding the first outer substrate (301; 1201) in a planar state by suction and pressurization; and a second step of attaching the active liquid crystal element to the convex surface of the first outer substrate (301; 1201) held in the planar state via the encapsulating agent (40; 1202). a first step of holding the first outer substrate (301; 1201) in a planar state by suction and pressurization; and a second step of attaching the active liquid crystal element to the convex surface of the first outer substrate (301; 1201) held in the planar state via the encapsulating agent (40; 1202).
A control device for a display device, said control device comprising: an image determining section for determining for each pixel of a plurality of pixels of an image whether or not a grayscale level of the pixel falls within a first range which consists of grayscale levels from (i) a grayscale level of 20 to (ii) a grayscale level of 80; and a driving changing section for changing, according to a result of the determining carried out by the image determining section, a refresh rate of the display device; wherein a minimum grayscale level is a grayscale level of 0 and a maximum grayscale level is a grayscale level of 255 the image determining section is configured to determine whether or not a percentage of pixels, of all pixels in a predetermined region of the image, which have grayscale levels falling within the first range is equal to or higher than a first threshold value that indicates that a large number of the pixels in the predetermined region has a grayscale level in the first range; in a case where the percentage is lower than the first threshold value, the driving changing section is configured to determine that the image is to be displayed at a first refresh rate; and in a case where the percentage is equal to or higher than the first threshold value, the driving changing section is configured to determine that the image is to be displayed at a second refresh rate which is higher than the first refresh rate. an image determining section for determining for each pixel of a plurality of pixels of an image whether or not a grayscale level of the pixel falls within a first range which consists of grayscale levels from (i) a grayscale level of 20 to (ii) a grayscale level of 80; and a driving changing section for changing, according to a result of the determining carried out by the image determining section, a refresh rate of the display device; wherein a minimum grayscale level is a grayscale level of 0 and a maximum grayscale level is a grayscale level of 255 the image determining section is configured to determine whether or not a percentage of pixels, of all pixels in a predetermined region of the image, which have grayscale levels falling within the first range is equal to or higher than a first threshold value that indicates that a large number of the pixels in the predetermined region has a grayscale level in the first range; in a case where the percentage is lower than the first threshold value, the driving changing section is configured to determine that the image is to be displayed at a first refresh rate; and in a case where the percentage is equal to or higher than the first threshold value, the driving changing section is configured to determine that the image is to be displayed at a second refresh rate which is higher than the first refresh rate.
System for wirelessly transmitting power and data, in which at least two coils (1, 2, 1a, 2a, 3, 4) or electrical conductor tracks arranged at a distance from one another for transmitting power are present and at least one respective electrical coil (1, 2, 1a, 2a, 3, 4) for transmitting power and at least one respective corresponding electrical coil (1, 2, 1a, 2a, 3, 4) or electrical conductor track for transmitting data are connected to a respective electrical AC voltage source, wherein at least one electrical AC voltage source is modulable, wherein the electrical coils (1, 2, 1a, 2a, 3, 4) or electrical conductor tracks for transmitting data are operated with electrical voltage at a frequency that is lower than the frequency at which an electrical voltage for transmitting power by means of the electrical coils (1, 2, 1a, 2a, 3, 4) or electrical conductor tracks for transmitting power is used and the turns (1.1, 2.1) of each electrical coil (1, 2) for transmitting power are arranged in a respective plane A in which a turn (3.1, 4.1) arranged at an end outer edge of the corresponding electrical coil (3, 4) for transmitting data is arranged and the turns (3.1, 4.1) of the electrical coils (3, 4) for transmitting data each spirally form an annular coil (3, 4), wherein the planes A in which the individual turns (1.1, 2.1) of the electrical coils (1, 2) for transmitting power are arranged and the median longitudinal axes B of the turns (3.1, 4.1) of the electrical coils (3, 4) for transmitting data are not oriented parallel to one another.
Recording medium readable by computer comprising a data stream representative of at least one image sliced into partitions which has been previously coded, the data stream comprising: a) data of the partitions (Bi) of this coded image, the data of a partition (Bi) being direct coefficients of transformation of each partition, said data of said partition (Bi) containing the signs of the coefficients with the exception of the sign of the first non-zero coefficient of this partition, which might be hidden; b) the number of non-zero coefficients of said partition (Bi) indicating whether the sign of said first non-zero coefficient of this partition is hidden, c.1) if said number of non-zero coefficients is less than five, the sign of the first non-zero coefficient is not hidden but is contained in the data of said partition (Bi), c.2) if said number of non-zero coefficients is greater than or equal to five, the sign of the first non-zero coefficient is hidden, and the parity of the sum of said at least five non-zero coefficients indicates the value of said hidden sign, and d) if said parity is even, said hidden sign is positive and if said parity is odd, said hidden sign is negative. a) data of the partitions (Bi) of this coded image, the data of a partition (Bi) being direct coefficients of transformation of each partition, said data of said partition (Bi) containing the signs of the coefficients with the exception of the sign of the first non-zero coefficient of this partition, which might be hidden; b) the number of non-zero coefficients of said partition (Bi) indicating whether the sign of said first non-zero coefficient of this partition is hidden, c.1) if said number of non-zero coefficients is less than five, the sign of the first non-zero coefficient is not hidden but is contained in the data of said partition (Bi), c.2) if said number of non-zero coefficients is greater than or equal to five, the sign of the first non-zero coefficient is hidden, and the parity of the sum of said at least five non-zero coefficients indicates the value of said hidden sign, and d) if said parity is even, said hidden sign is positive and if said parity is odd, said hidden sign is negative.