mhurhangee/ep-ind-claims huggingface dataset:
A mold for foam molding, comprising: a plurality of gas-blowing units for removing a molding from the mold by pneumatically pushing the molding and gas flow-restricting units, wherein the gas-blowing units include gas channels extending to the cavity and valve elements which block the gas channels during molding and which are moved into the cavity during demolding in such a manner that the valve elements are pneumatically pushed by gas supplied to the gas channels, the gas channels are supplied with gas from a common gas supply source, and the gas flow-restricting units allow the gas to flow into the gas channels after the valve elements block the gas channels and restrict the gas to flow into the gas channels after the valve elements protrude, wherein the gas flow-restricting units are connected to the valve elements and include gas flow-restricting valves which move together with the valve elements, wherein the gas flow-restricting units spontaneously operate to allow the flow of the gas to be continued although reduce the amount of the gas flowing into the gas channels after the valve elements protrude, wherein the gas flow-restricting units include valve seat sections on which the gas flow-restrictingvalves sit after the valve elements protrude characterized in, that the valve seat sections have recessed sections for allowing the gas to flow into the gas channels. a plurality of gas-blowing units for removing a molding from the mold by pneumatically pushing the molding and gas flow-restricting units, wherein the gas-blowing units include gas channels extending to the cavity and valve elements which block the gas channels during molding and which are moved into the cavity during demolding in such a manner that the valve elements are pneumatically pushed by gas supplied to the gas channels, the gas channels are supplied with gas from a common gas supply source, and the gas flow-restricting units allow the gas to flow into the gas channels after the valve elements block the gas channels and restrict the gas to flow into the gas channels after the valve elements protrude, wherein the gas flow-restricting units are connected to the valve elements and include gas flow-restricting valves which move together with the valve elements, wherein the gas flow-restricting units spontaneously operate to allow the flow of the gas to be continued although reduce the amount of the gas flowing into the gas channels after the valve elements protrude, wherein the gas flow-restricting units include valve seat sections on which the gas flow-restrictingvalves sit after the valve elements protrude characterized in, that the valve seat sections have recessed sections for allowing the gas to flow into the gas channels.
Dental implant (100, 100', 500), which comprises a ceramic base body (130, 530), a ceramic abutment (120, 120', 520), a connector (1, 1', 1", 5) for connecting the base body (130, 530) and the abutment (120, 120', 520) to one another, and a bushing body, wherein, at least in a final assembly state of the dental implant (100, 100', 500), the bushing body is received at least partly in the base body (130, 530) and/or in the abutment (120, 120', 520) and wherein the bushing body reaches at least in some portions around the connector (1, 1', 1", 5), characterized in that the bushing body is provided with at least one latching element, which is configured to engage in a counter latching element configured on the connector (1, 1', 1", 5) in order at least temporarily to connect the bushing body and the connector (1, 1', 1", 5) captively to one another.
A sulfonate-based compound represented by the following Formula 1: in Formula 1, A1 to A4 are F, R1 is hydrogen, L is S, Z1 to Z4 are each independently the same as or different from each other, and are each independently a halogen group, R2 is one of the elements of Group 1 of the periodic table, n is an integer of 0 or more, m is an integer of 0 or more, p is an integer of 1 or more, and {(n × p) + (m × p)} is an integer of 3 to 10. A1 to A4 are F, R1 is hydrogen, L is S, Z1 to Z4 are each independently the same as or different from each other, and are each independently a halogen group, R2 is one of the elements of Group 1 of the periodic table, n is an integer of 0 or more, m is an integer of 0 or more, p is an integer of 1 or more, and {(n × p) + (m × p)} is an integer of 3 to 10.
A translucent substrate comprising: a translucent glass substrate; a scattering layer formed on the glass substrate and comprising a glass which contains: a base material having a first refractive index for at least one wavelength of light to be transmitted; and a plurality of scattering materials dispersed in the base material and having a second refractive index different from that of the base material; and a translucent electrode formed on the scattering layer and having a third refractive index higher than the first refractive index, wherein distribution of the scattering materials in the scattering layer decreases toward the translucent electrode in a vicinity of a surface at a translucent electrode side of the scattering layer, and wherein the difference between the first refractive index and the third refractive index is 0.2 or less, and a surface roughness Ra of the surface of the scattering layer is 3 nm or less, wherein the surface roughness Ra is a value calculated based on JIS B0601 with a cut-off value of long wavelength of 10 μm characterised in that the average thermal expansion coefficient of the scattering layer at 100°C to 400°C is from 70×10 -7 (°C -1) to 95×10 -7 (°C -1) and the glass transition temperature of the scattering layer is from 450°C to 550°C. a translucent glass substrate; a scattering layer formed on the glass substrate and comprising a glass which contains: a base material having a first refractive index for at least one wavelength of light to be transmitted; and a plurality of scattering materials dispersed in the base material and having a second refractive index different from that of the base material; and a translucent electrode formed on the scattering layer and having a third refractive index higher than the first refractive index, wherein distribution of the scattering materials in the scattering layer decreases toward the translucent electrode in a vicinity of a surface at a translucent electrode side of the scattering layer, and wherein the difference between the first refractive index and the third refractive index is 0.2 or less, and a surface roughness Ra of the surface of the scattering layer is 3 nm or less, wherein the surface roughness Ra is a value calculated based on JIS B0601 with a cut-off value of long wavelength of 10 μm characterised in that the average thermal expansion coefficient of the scattering layer at 100°C to 400°C is from 70×10 -7 (°C -1) to 95×10 -7 (°C -1) and the glass transition temperature of the scattering layer is from 450°C to 550°C.
An aircraft seat comprising: a seatback; a frame; and a head impact criteria device for a controlling breakover, the HIC device comprising: a first energy absorbing member coupled to the seatback; a second energy absorbing member coupled to a frame; a fuse link encapsulated by the first energy absorbing member and the second energy absorbing member; and configured to couple the first energy absorbing member to the second energy absorbing member; wherein the first energy absorbing member, the second energy absorbing member, and the fuse link are configured to transmit a breakover energy associated with the seatback during a dynamic event, and wherein the first energy absorbing member and the second energy absorbing member are configured to rotate around a same axis, wherein, responsive to the HIC device being subjected to a load above a threshold load associated with the dynamic event, the fuse link breaks, the breaking of the fuse link enabling the first energy absorbing member and the second energy absorbing member to rotate around the axis. a seatback; a frame; and a head impact criteria device for a controlling breakover, the HIC device comprising: a first energy absorbing member coupled to the seatback; a second energy absorbing member coupled to a frame; a fuse link encapsulated by the first energy absorbing member and the second energy absorbing member; and configured to couple the first energy absorbing member to the second energy absorbing member; wherein the first energy absorbing member, the second energy absorbing member, and the fuse link are configured to transmit a breakover energy associated with the seatback during a dynamic event, and wherein the first energy absorbing member and the second energy absorbing member are configured to rotate around a same axis, wherein, responsive to the HIC device being subjected to a load above a threshold load associated with the dynamic event, the fuse link breaks, the breaking of the fuse link enabling the first energy absorbing member and the second energy absorbing member to rotate around the axis. a first energy absorbing member coupled to the seatback; a second energy absorbing member coupled to a frame; a fuse link encapsulated by the first energy absorbing member and the second energy absorbing member; and configured to couple the first energy absorbing member to the second energy absorbing member; wherein the first energy absorbing member, the second energy absorbing member, and the fuse link are configured to transmit a breakover energy associated with the seatback during a dynamic event, and wherein the first energy absorbing member and the second energy absorbing member are configured to rotate around a same axis, wherein, responsive to the HIC device being subjected to a load above a threshold load associated with the dynamic event, the fuse link breaks, the breaking of the fuse link enabling the first energy absorbing member and the second energy absorbing member to rotate around the axis.
Method for generating slice data for at least one object to be manufactured with an apparatus for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy source, wherein slice data are provided relating to an application of build material in at least one section (14 - 18) of an object to be built, wherein the slice data comprise a number of slices relating to corresponding layers of build material to be applied, wherein the slice data comprise a number of first slices corresponding to a first section (14 - 18) of the object and at least a number of second slices corresponding to at least a second section (14 - 18) of the object, wherein the number of first slices and the number of second slices differ, wherein the number of first slices per section height and the number of second slices per section height and/or the number of first slices per unit length and the number of second slices per unit length differ, wherein the first section (14 - 18) of the object and the at least one second section (14 - 18) of the object are arranged in different x-positions and/or y-positions and/or z-positions, characterised in that the first section and the at least one second section at least partially overlap in a z-direction.
A method for concentrating an aqueous solution containing at least 3-hydroxy-2,2-dimethyl propanal and/or a dimer thereof, comprising subjecting a mixed solution of an aqueous solution containing at least 3-hydroxy-2,2-dimethyl propanal and/or a dimer thereof and an azeotropic agent to azeotropic distillation in a distillation column to distil off water and the azeotropic agent from the mixed solution, wherein the mixed solution is prepared by adding, as the azeotropic agent, at least one selected from the group consisting of 1-butanol, 2-butanol, 2-methyl-1-propanol, 1-pentanol and 1-hexanol to the aqueous solution; and wherein the aqueous solution containing at least 3-hydroxy-2,2-dimethyl propanal and/or a dimer thereof is an aqueous solution containing at least one selected from the group consisting of the following (a) to (c): (a) an aqueous 3-hydroxy-2,2-dimethyl propanal solution obtained by distilling off low-boiling point components including unreacted isobutylaldehyde from a reaction product solution produced by an aldol condensation reaction between an aqueous formaldehyde solution and isobutylaldehyde in the presence of a basic catalyst; (b) a filtrate recovered by subjecting the aqueous solution (a) to crystallization, and then subjecting the resultant product to solid-liquid separation; and (c) an aqueous solution obtained by subjecting the aqueous solution (a) to crystallization, then subjecting the resultant product to solid-liquid separation, and then dissolving purified 3-hydroxy-2,2-dimethyl propanal recovered by the solid-liquid separation into water. (a) an aqueous 3-hydroxy-2,2-dimethyl propanal solution obtained by distilling off low-boiling point components including unreacted isobutylaldehyde from a reaction product solution produced by an aldol condensation reaction between an aqueous formaldehyde solution and isobutylaldehyde in the presence of a basic catalyst; (b) a filtrate recovered by subjecting the aqueous solution (a) to crystallization, and then subjecting the resultant product to solid-liquid separation; and (c) an aqueous solution obtained by subjecting the aqueous solution (a) to crystallization, then subjecting the resultant product to solid-liquid separation, and then dissolving purified 3-hydroxy-2,2-dimethyl propanal recovered by the solid-liquid separation into water.
A luminaire with a direct or an indirect carrier unit to be fastened to a wall or ceiling, which has means for the power supply as well as corresponding connections, as well as at least one disk-like luminaire module with one or several light sources as well as a broad light radiating surface for the emission of the light emitting from the light source or light sources, wherein the luminaire module is designed to contact the connections for the power supply in a state arranged on the carrier unit, characterized in that the connections of the carrier unit as well as connections areas located on the luminaire module are designed for contacting the connections of the carrier unit in such a manner that the luminaire module can be arranged in different positions and/or orientations on the carrier unit, wherein the connection areas of the luminaire module are formed by contacting tracks, which are arranged on the narrow circumferential area of the luminaire module.
Device for holding an assembly to be fractured, the assembly being intended to separate along a fracture plane defined between an upper part and a lower part of the assembly to be fractured, the holding device comprising: - at least two lugs designed to hold the assembly to be fractured in suspension in a substantially horizontal holding position, the lugs being intended to be located between the upper part and the lower part and against a peripheral chamfer of the upper part; - a support, located below and at a distance from the lugs so as to receive the lower part by gravity when the assembly to be fractured is separated, and to hold said lower part at a distance from the upper part held by the lugs, the distance between the support and the lugs being between 1.5 and 10 mm, preferably between 2 and 5 mm. - at least two lugs designed to hold the assembly to be fractured in suspension in a substantially horizontal holding position, the lugs being intended to be located between the upper part and the lower part and against a peripheral chamfer of the upper part; - a support, located below and at a distance from the lugs so as to receive the lower part by gravity when the assembly to be fractured is separated, and to hold said lower part at a distance from the upper part held by the lugs, the distance between the support and the lugs being between 1.5 and 10 mm, preferably between 2 and 5 mm.
A positron emission tomography apparatus, comprising: a scanner including a plurality of radiation detectors configured to detect radiation generated in an object and arranged around a top plate with a cylindrical shape having a predetermined axial length along a major axis direction of the top plate and a predetermined ring diameter; and a controller configured: to determine a largest time-of-flight difference of the radiation by a longest oblique line-of-response with an emission location at an edge of a field of view for the object based on the axial length, the ring diameter, and a diameter of the field of view for the object; and to calculate an optimal coincidence time width based on the oblique line of response the largest time-of-flight difference and a standard deviation of a time-of-flight difference of the radiation; wherein the controller is configured to determine the diameter of the field of view based on a scanogram generated by performing X-ray computed tomography on the object. a scanner including a plurality of radiation detectors configured to detect radiation generated in an object and arranged around a top plate with a cylindrical shape having a predetermined axial length along a major axis direction of the top plate and a predetermined ring diameter; and a controller configured: to determine a largest time-of-flight difference of the radiation by a longest oblique line-of-response with an emission location at an edge of a field of view for the object based on the axial length, the ring diameter, and a diameter of the field of view for the object; and to calculate an optimal coincidence time width based on the oblique line of response the largest time-of-flight difference and a standard deviation of a time-of-flight difference of the radiation; wherein the controller is configured to determine the diameter of the field of view based on a scanogram generated by performing X-ray computed tomography on the object. to determine a largest time-of-flight difference of the radiation by a longest oblique line-of-response with an emission location at an edge of a field of view for the object based on the axial length, the ring diameter, and a diameter of the field of view for the object; and to calculate an optimal coincidence time width based on the oblique line of response the largest time-of-flight difference and a standard deviation of a time-of-flight difference of the radiation; wherein the controller is configured to determine the diameter of the field of view based on a scanogram generated by performing X-ray computed tomography on the object.
A compound of the formula A-Rf-Z wherein Rf is a group of the formula -(OCF 2) a -(OC 2 F 4) b -(OC 3 F 6) c -(OC 4 F 8) d - wherein a, b, c, and d each independently are an integer of 0-200, the sum of a, b, c, and d is at least 1, and each of repeating units enclosed in parentheses with a, b, c, or d added thereto is present in arbitrary order in the formula, wherein ( a + b) ≥ 10 and ( c + d) ≤ 10; A is R 1 O-CO-W-, where R 1 is C 1-4 -alkyl, W and X each independently are a bond, C 1-4 -alkylene, C 1-4 -fluoroalkylene or C 1-4 -perfluoroalkylene, and Z is -X-Y, where X is a single bond or a bivalent organic group containing 1-4 carbon atoms and Y is a carboxylic acid group or salt thereof. Rf is a group of the formula -(OCF 2) a -(OC 2 F 4) b -(OC 3 F 6) c -(OC 4 F 8) d - wherein a, b, c, and d each independently are an integer of 0-200, the sum of a, b, c, and d is at least 1, and each of repeating units enclosed in parentheses with a, b, c, or d added thereto is present in arbitrary order in the formula, wherein ( a + b) ≥ 10 and ( c + d) ≤ 10; A is R 1 O-CO-W-, where R 1 is C 1-4 -alkyl, W and X each independently are a bond, C 1-4 -alkylene, C 1-4 -fluoroalkylene or C 1-4 -perfluoroalkylene, and Z is -X-Y, where X is a single bond or a bivalent organic group containing 1-4 carbon atoms and Y is a carboxylic acid group or salt thereof.
An aqueous ink composition for writing instruments, comprising: water, colored microspheres each comprising a matrix composed of a polymer and a water-insoluble dye, and non-colored microspheres, wherein the average particle diameter of the colored microspheres is 0.5 to 2.0 μm when measured by a laser diffraction method, the average particle diameter is the value of D50 calculated by volume reference in the laser diffraction method, and wherein the polymer that composes the matrices is an epoxy polymer, melamine polymer, urethane polymer, urea polymer or combination thereof. water, colored microspheres each comprising a matrix composed of a polymer and a water-insoluble dye, and non-colored microspheres, wherein the average particle diameter of the colored microspheres is 0.5 to 2.0 μm when measured by a laser diffraction method, the average particle diameter is the value of D50 calculated by volume reference in the laser diffraction method, and wherein the polymer that composes the matrices is an epoxy polymer, melamine polymer, urethane polymer, urea polymer or combination thereof.
A system for assessing coupling of a lead to tissue, comprising: a lead body including: an electrode disposed proximate a distal end of said lead body; a fixation element disposed near said distal end of said lead body, said fixation element configured to anchor said distal end of said lead body in said tissue; a meter configured to generate a signal indicative of a capacitance, inductance, voltage or current between said electrode and said fixation element, wherein the meter includes, respectively, a capacitance meter, an inductance meter, a volt-meter or an amp-meter; and an electronic control unit configured to determine a degree of coupling between said lead and said tissue responsive to said signal, wherein said electronic control unit is further configured, in determining said degree of coupling, to calculate a difference between the values of said capacitance, inductance, voltage or current at first and second times and to determine whether the lead is coupled to tissue or not by determining whether said difference meets a predetermined condition relative to a threshold value. a lead body including: an electrode disposed proximate a distal end of said lead body; a fixation element disposed near said distal end of said lead body, said fixation element configured to anchor said distal end of said lead body in said tissue; an electrode disposed proximate a distal end of said lead body; a fixation element disposed near said distal end of said lead body, said fixation element configured to anchor said distal end of said lead body in said tissue; a meter configured to generate a signal indicative of a capacitance, inductance, voltage or current between said electrode and said fixation element, wherein the meter includes, respectively, a capacitance meter, an inductance meter, a volt-meter or an amp-meter; and an electronic control unit configured to determine a degree of coupling between said lead and said tissue responsive to said signal, wherein said electronic control unit is further configured, in determining said degree of coupling, to calculate a difference between the values of said capacitance, inductance, voltage or current at first and second times and to determine whether the lead is coupled to tissue or not by determining whether said difference meets a predetermined condition relative to a threshold value.