mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing an implant (1, 21, 31, 51, 61), in particular vertebral or intervertebral, this implant (1, 21, 31, 51, 61) comprising at least two components, at least a first component (3, 23, 33, 53, 63) of which is intended to be movable relative to at least a second component (2, 22, 32, 52, 62), the method comprising the step consisting of designing the implant (1, 21, 31, 51, 61) such that said second component (2, 22, 32, 52, 62) at least partially envelops said first component (3, 23, 33, 53, 63); characterized in that it further includes the following steps: - designing the implant such that at least one connecting bridge (4, 24, 54, 64) connects the first component to said second component, each bridge having a section such that it is frangible; - making the implant (1, 21, 31, 51, 61) using a so-called "3D printing" method, consisting of: - depositing on a platen, a layer of powdered fusible material, - causing the particles of this layer of powder to fuse in locations corresponding to the shape which, at this layer, said first component (3, 23, 33, 53, 63) and/or said second component (2, 22, 32, 52, 62) and/or said at least one bridge (4, 24, 54, 64) have, depending on whether said first component, said second component and/or said bridge are present at the section the implant to be formed has at said layer; - repeating these operations until the implant (1, 21, 31, 51, 61) is fully constructed, and - eliminating the powder particles that are not fused. - designing the implant such that at least one connecting bridge (4, 24, 54, 64) connects the first component to said second component, each bridge having a section such that it is frangible; - making the implant (1, 21, 31, 51, 61) using a so-called "3D printing" method, consisting of: - depositing on a platen, a layer of powdered fusible material, - causing the particles of this layer of powder to fuse in locations corresponding to the shape which, at this layer, said first component (3, 23, 33, 53, 63) and/or said second component (2, 22, 32, 52, 62) and/or said at least one bridge (4, 24, 54, 64) have, depending on whether said first component, said second component and/or said bridge are present at the section the implant to be formed has at said layer; - repeating these operations until the implant (1, 21, 31, 51, 61) is fully constructed, and - eliminating the powder particles that are not fused. - depositing on a platen, a layer of powdered fusible material, - causing the particles of this layer of powder to fuse in locations corresponding to the shape which, at this layer, said first component (3, 23, 33, 53, 63) and/or said second component (2, 22, 32, 52, 62) and/or said at least one bridge (4, 24, 54, 64) have, depending on whether said first component, said second component and/or said bridge are present at the section the implant to be formed has at said layer; - repeating these operations until the implant (1, 21, 31, 51, 61) is fully constructed, and - eliminating the powder particles that are not fused.
Colored cellulose microparticles having an average particle diameter of 60 nm to 900 nm; coloring intensity measured as described in the description of 1.0 to 10.0; a hydrophilic layer on the surface of the microparticles, wherein the hydrophilic layer is chemically bonded to hydroxyl groups of the microparticles, and wherein the hydrophilic layer is any of a silane layer, a polyethylene glycol layer or a mixed layer of a silane layer and a polyethylene glycol layer; carboxyl groups introduced onto the surface of the microparticles with hydrophobic spacers interposed there between, wherein the hydrophobic spacers are chemical groups that bond with reactive groups of the hydrophilic layer and connect the microparticle with the carboxyl group through the hydrophilic layer, wherein the spacers are hydrocarbon-based structures; and a degree of hydrophilization measured as described in the description of 30.0 to 200.0. an average particle diameter of 60 nm to 900 nm; coloring intensity measured as described in the description of 1.0 to 10.0; a hydrophilic layer on the surface of the microparticles, wherein the hydrophilic layer is chemically bonded to hydroxyl groups of the microparticles, and wherein the hydrophilic layer is any of a silane layer, a polyethylene glycol layer or a mixed layer of a silane layer and a polyethylene glycol layer; carboxyl groups introduced onto the surface of the microparticles with hydrophobic spacers interposed there between, wherein the hydrophobic spacers are chemical groups that bond with reactive groups of the hydrophilic layer and connect the microparticle with the carboxyl group through the hydrophilic layer, wherein the spacers are hydrocarbon-based structures; and a degree of hydrophilization measured as described in the description of 30.0 to 200.0.
An electromagnetic remote control, wherein the electromagnetic remote control comprises a first rotary disc and a second rotary disc that is rotatably connected to the first rotary disc, wherein at least one first magnetic piece is disposed on the second rotary disc, at least one second magnetic piece is disposed on the first rotary disc, and the polarity of a surface, facing the first rotary disc, of the first magnetic piece is the same as the polarity of a surface, facing the second rotary disc, of the second magnetic piece; and further comprising a control circuit that correspondingly generates a remote control signal according to relative locations of the first magnetic piece and the second magnetic piece, characterized in that the control circuit comprises a controller, a pressure sensor electrically connected to the controller and disposed on the first magnetic piece or the second magnetic piece, and a signal transceiver electrically connected to the controller, wherein when the pressure sensor detects that pressure increases, the controller controls the signal transceiver to generate and send a corresponding remote control signal.
A co-injection-molded multilayer structure having a barrier layer and outer layers laminated on both sides of the barrier layer, wherein the barrier layer is made of a resin composition comprising an ethylene-vinyl alcohol copolymer and an alkali metal salt of a higher fatty acid having a melting point of 250 °C or lower as determined in accordance with JIS K 7121 using a differential scanning calorimeter; the ethylene-vinyl alcohol copolymer has an ethylene content of 20 to 60 mol% as determined by 1 H-NMR spectrometry using DMSO-d 6 as a solvent, a saponification degree of 90 % or more as determined by 1 H-NMR spectrometry using DMSO-d 6 as a solvent, and a melt flow rate of 3 to 20 g/10 min at 190 °C and 2160 g; a content of the alkali metal salt in the barrier layer is 50 to 1500 ppm in terms of metal atoms; the outer layers are made of a resin composition comprising an unmodified polypropylene and a maleic anhydride-modified polypropylene having a lower melt viscosity than that of the unmodified polypropylene wherein a mass ratio [F/(E+F)] of the maleic anhydride-modified polypropylene to the total of the unmodified polypropylene and the maleic anhydride-modified polypropylene is 0.025 to 0.2; and the unmodified polypropylene has an MFR of 10 to 150 g/10 min at 230 °C and 2160 g, and the maleic anhydride-modified polypropylene has an MFR of 150 to 750 g/10 min at 190 °C and 2160 g. the barrier layer is made of a resin composition comprising an ethylene-vinyl alcohol copolymer and an alkali metal salt of a higher fatty acid having a melting point of 250 °C or lower as determined in accordance with JIS K 7121 using a differential scanning calorimeter; the ethylene-vinyl alcohol copolymer has an ethylene content of 20 to 60 mol% as determined by 1 H-NMR spectrometry using DMSO-d 6 as a solvent, a saponification degree of 90 % or more as determined by 1 H-NMR spectrometry using DMSO-d 6 as a solvent, and a melt flow rate of 3 to 20 g/10 min at 190 °C and 2160 g; a content of the alkali metal salt in the barrier layer is 50 to 1500 ppm in terms of metal atoms; the outer layers are made of a resin composition comprising an unmodified polypropylene and a maleic anhydride-modified polypropylene having a lower melt viscosity than that of the unmodified polypropylene wherein a mass ratio [F/(E+F)] of the maleic anhydride-modified polypropylene to the total of the unmodified polypropylene and the maleic anhydride-modified polypropylene is 0.025 to 0.2; and the unmodified polypropylene has an MFR of 10 to 150 g/10 min at 230 °C and 2160 g, and the maleic anhydride-modified polypropylene has an MFR of 150 to 750 g/10 min at 190 °C and 2160 g.
A compound of Formula 1: or a stereoisomer, pharmaceutically acceptable salt, or mixture thereof; optionally wherein Formula 1 is: or a stereoisomer, pharmaceutically acceptable salt, or mixture thereof.
An optical element comprising: synthetic diamond material; and an anti-reflective surface pattern formed directly in at least one surface of the synthetic diamond material, wherein the optical element has an absorption coefficient measured at room temperature of ≤ 0.5 cm -1 at a wavelength of 10.6 μm, wherein the optical element has a reflectance at said at least one surface of no more than 2% at an operating wavelength of the optical element, and wherein the optical element has a laser induced damage threshold meeting one or both of the following characteristics: the laser induced damage threshold is at least 30 Jcm -2 measured using a pulsed laser at a wavelength of 10.6 μm with a pulse duration of 100 ns and a pulse repetition frequency in a range 1 to 10 Hz; and the laser induced damage threshold is at least 1 MW/cm 2 measured using a continuous wave laser at a wavelength of 10.6 μm. synthetic diamond material; and an anti-reflective surface pattern formed directly in at least one surface of the synthetic diamond material, wherein the optical element has an absorption coefficient measured at room temperature of ≤ 0.5 cm -1 at a wavelength of 10.6 μm, wherein the optical element has a reflectance at said at least one surface of no more than 2% at an operating wavelength of the optical element, and wherein the optical element has a laser induced damage threshold meeting one or both of the following characteristics: the laser induced damage threshold is at least 30 Jcm -2 measured using a pulsed laser at a wavelength of 10.6 μm with a pulse duration of 100 ns and a pulse repetition frequency in a range 1 to 10 Hz; and the laser induced damage threshold is at least 1 MW/cm 2 measured using a continuous wave laser at a wavelength of 10.6 μm. the laser induced damage threshold is at least 30 Jcm -2 measured using a pulsed laser at a wavelength of 10.6 μm with a pulse duration of 100 ns and a pulse repetition frequency in a range 1 to 10 Hz; and the laser induced damage threshold is at least 1 MW/cm 2 measured using a continuous wave laser at a wavelength of 10.6 μm.
Method for achieving a step increase in Mooney viscosity in production of high-molecular-weight polybutadiene halving > 95% by weight content of cis-1,4 units and < 1% by weight 1,2-vinyl content, characterized in that 1) at least one monomer selected from butadiene and/or isoprene is polymerized at temperatures of from -20°C to 150°C in the presence of at least one inert, organic solvent and in the presence of at least one catalyst based on neodymium carboxylate, 2) the polymerization is then terminated by addition of protic compounds and 3) then sulphur chlorides are added to the polymer, and prior to addition these sulphur chlorides are treated with a carboxylic acid, fatty acid and/or fatty acid ester. 1) at least one monomer selected from butadiene and/or isoprene is polymerized at temperatures of from -20°C to 150°C in the presence of at least one inert, organic solvent and in the presence of at least one catalyst based on neodymium carboxylate, 2) the polymerization is then terminated by addition of protic compounds and 3) then sulphur chlorides are added to the polymer, and prior to addition these sulphur chlorides are treated with a carboxylic acid, fatty acid and/or fatty acid ester.
A gas barrier laminate comprising: a base layer; a gas barrier layer laminated on one surface of the base layer, directly or with another layer sandwiched therebetween; a protective film (α) laminated directly on the gas barrier layer; and a protective film (β) laminated on a surface opposite to the surface of the base layer, directly or with another layer sandwiched therebetween, wherein the protective film (β) is a laminated film having a support (β1) and an adhesive layer (β2), and the adhesive layer (β2) contains an acrylic polymer having a repeating unit derived from 2-ethylhexyl (meth)acrylate, an adhesion at the time of peeling the protective film (α) at a peel rate of 10 m/minute and a peel angle of 180° in accordance with JIS Z0237: 2000 is 0.1 N/50 mm or less, and an adhesion at the time of peeling the protective film (β) at a peel rate of 10 m/minute and a peel angle of 180° in accordance with JIS Z0237: 2000 is 1.5 N/50 mm or less. a base layer; a gas barrier layer laminated on one surface of the base layer, directly or with another layer sandwiched therebetween; a protective film (α) laminated directly on the gas barrier layer; and a protective film (β) laminated on a surface opposite to the surface of the base layer, directly or with another layer sandwiched therebetween, wherein the protective film (β) is a laminated film having a support (β1) and an adhesive layer (β2), and the adhesive layer (β2) contains an acrylic polymer having a repeating unit derived from 2-ethylhexyl (meth)acrylate, an adhesion at the time of peeling the protective film (α) at a peel rate of 10 m/minute and a peel angle of 180° in accordance with JIS Z0237: 2000 is 0.1 N/50 mm or less, and an adhesion at the time of peeling the protective film (β) at a peel rate of 10 m/minute and a peel angle of 180° in accordance with JIS Z0237: 2000 is 1.5 N/50 mm or less.
A glass sheet comprising a symbol marked in the interior of the glass, the symbol forming a code; in which the symbol is marked in at least two dimensions including the dimension of the thickness of the glass sheet, portions of the symbol being marked at various depths in the thickness of the glass sheet such that it is readable both via a main face of the glass sheet and via an edge face of the glass sheet.
A method for transmitting data and control information in a wireless communication system, the method comprising the steps of: determining a control channel format given by a transport format used for a data channel; generating data according to the transport format of the data channel; generating control information according to the determined control channel format; multiplexing the data and the control information; and transmitting the multiplexed data and control information through sub-carrier resources allocated for the data channel and characterised in that the transport format indicates at least one of a Power Spectrum Density, PSD, indicating a power level assigned for transmission of the data, a transport format index indicating a quantity of the data, and a Modulation and Coding Scheme, MCS, level used for transmission of the data channel; the number of control symbols for the control information is inversely proportional to the power spectral density required for the transmission of data with the transport format used for the data channel. determining a control channel format given by a transport format used for a data channel; generating data according to the transport format of the data channel; generating control information according to the determined control channel format; multiplexing the data and the control information; and transmitting the multiplexed data and control information through sub-carrier resources allocated for the data channel and characterised in that the transport format indicates at least one of a Power Spectrum Density, PSD, indicating a power level assigned for transmission of the data, a transport format index indicating a quantity of the data, and a Modulation and Coding Scheme, MCS, level used for transmission of the data channel; the number of control symbols for the control information is inversely proportional to the power spectral density required for the transmission of data with the transport format used for the data channel.
A method for preparing porous boron nitride comprising the steps of: mixing at least one boron source selected from boron or boron-containing compounds with at least one nitrogen source selected from nitrogen or nitrogen-containing compounds; heating the mixture and reacting it with halogen gas; and heating the reaction mixture under hydrogen atmosphere. mixing at least one boron source selected from boron or boron-containing compounds with at least one nitrogen source selected from nitrogen or nitrogen-containing compounds; heating the mixture and reacting it with halogen gas; and heating the reaction mixture under hydrogen atmosphere.
A concentrator for concentrating one or more constituents of a sample fluid stream, comprising: a channel configured to receive the sample fluid stream; two or more interactive elements inside the channel and spaced along and for exposure to the sample fluid stream, each of the interactive elements includes an interactive substance that adsorbs and desorbs selected constituents of the sample fluid stream depending on the temperature of the interactive element; two or more heater elements, each heater element in thermal communication with a corresponding interactive element; and controller means coupled to the two or more heater elements for energizing the heater elements in a time phased sequence so that each of the interactive elements becomes heated and desorbs constituent gases into the sample fluid stream at the time that an upstream concentration pulse, produced by heating one or more upstream interactive elements, reaches the interactive element; characterized in that each of the interactive elements has a length that is greater than the length of each of the upstream interactive elements. a channel configured to receive the sample fluid stream; two or more interactive elements inside the channel and spaced along and for exposure to the sample fluid stream, each of the interactive elements includes an interactive substance that adsorbs and desorbs selected constituents of the sample fluid stream depending on the temperature of the interactive element; two or more heater elements, each heater element in thermal communication with a corresponding interactive element; and controller means coupled to the two or more heater elements for energizing the heater elements in a time phased sequence so that each of the interactive elements becomes heated and desorbs constituent gases into the sample fluid stream at the time that an upstream concentration pulse, produced by heating one or more upstream interactive elements, reaches the interactive element; characterized in that each of the interactive elements has a length that is greater than the length of each of the upstream interactive elements.
Mounting for a drum of a tumble dryer, which drum is arranged in a housing and has a drum axle that is mounted such that it can rotate either horizontally or obliquely and comprises a bearing part that is fastened to the rear drum base and is enclosed by a bearing housing that is formed as a separate component and can be fixed to the rear wall of the housing of the tumble dryer, the bearing housing consisting of a first and a second shell-shaped housing part that can be fixed on the bearing part in a self-holding manner, the bearing housing sealingly surrounding the bearing part in the region of the drum axle, characterised in that the two housing parts (7, 8) are pivotally interconnected by means of a hinge, in that an extension (17.1 and 17.2) is integrally moulded on the first housing part and on the second housing part, respectively, a latching hook being arranged on the upper extension (17.1) and an opening for the latching hook being arranged on the lower extension (17.2), and in that a latching piece is integrally moulded in parallel with the lower extension (17.2) for fixing the bearing housing, which is positioned on the spherical bearing part, to the rear wall.
A vision function detection apparatus comprising: a display unit, the display unit including a display screen; a stereo camera apparatus; a computer system, the computer system including an image data acquisition unit, a gazing point detector, a display controller, a relation detector and a visual function detector; the display controller being configured to cause an image for determination to be displayed in a display region on the display screen of the display unit, and to move the image for determination within the display region; the image data acquisition unit is configured to acquire the image data of the eyeball of the test subject acquired by the stereo camera apparatus; the gazing point detector being configured to detect a position of a gazing point of each of the right and left eyeballs of a test subject observing the display screen based on the image data of the eyeball acquired by the image data acquisition unit; characterized in that the relation detector is configured to detect relation information between movement of the gazing point in a first direction along a moving direction of the image for determination and movement of the gazing point in a second direction orthogonal to the first direction; and the visual function detector is configured to detect a visual function of the test subject based on the relation information. a display unit, the display unit including a display screen; a stereo camera apparatus; a computer system, the computer system including an image data acquisition unit, a gazing point detector, a display controller, a relation detector and a visual function detector; the display controller being configured to cause an image for determination to be displayed in a display region on the display screen of the display unit, and to move the image for determination within the display region; the image data acquisition unit is configured to acquire the image data of the eyeball of the test subject acquired by the stereo camera apparatus; the gazing point detector being configured to detect a position of a gazing point of each of the right and left eyeballs of a test subject observing the display screen based on the image data of the eyeball acquired by the image data acquisition unit; characterized in that the relation detector is configured to detect relation information between movement of the gazing point in a first direction along a moving direction of the image for determination and movement of the gazing point in a second direction orthogonal to the first direction; and the visual function detector is configured to detect a visual function of the test subject based on the relation information.