mhurhangee/ep-ind-claims huggingface dataset:
Apparatus (23, 30) for converting a feed gas comprising organic compounds and water vapour into a product gas substantially comprising carbon dioxide and hydrogen, comprising - a reformer part with at least one reaction chamber which is provided with an inlet opening for feed gas and an outlet opening for product gas and which is bounded by the inner wall of an outer tube closed at one outer end and the outer wall of an inner tube received coaxially in this outer tube and open at both its outer ends, and - a furnace part for heating the reaction chamber, - wherein the inlet opening is provided by the open outer end of the inner tube distally of the closed outer end of the outer tube, and the outlet opening is provided by the open outer end of the outer tube, - wherein the reformer part is provided with an outlet chamber, into a first wall of which the open outer end of the outer tube debouches, which outlet chamber is provided with a second wall lying opposite the first wall, characterized in that the reformer part is provided with an inlet chamber which is bounded by the second wall of the outlet chamber and a third wall lying opposite this second wall and coupled releasably to the second wall, and the second wall is provided with a closable insertion opening lying opposite the outer tube allowing the inner tube to be inserted into the outer tube, wherein the inner tube is fixed by means of flanges to the second wall and the third wall is coupled releasably to the outlet chamber by means of flanges (33, 34). - a reformer part with at least one reaction chamber which is provided with an inlet opening for feed gas and an outlet opening for product gas and which is bounded by the inner wall of an outer tube closed at one outer end and the outer wall of an inner tube received coaxially in this outer tube and open at both its outer ends, and - a furnace part for heating the reaction chamber, - wherein the inlet opening is provided by the open outer end of the inner tube distally of the closed outer end of the outer tube, and the outlet opening is provided by the open outer end of the outer tube, - wherein the reformer part is provided with an outlet chamber, into a first wall of which the open outer end of the outer tube debouches, which outlet chamber is provided with a second wall lying opposite the first wall, characterized in that
A method for fabricating a metal and non-metal co-doped lithium titanate material comprising: mixing a tetrabutyl titanate, lithium acetate dihydrate, and at least one non-metal dopant precursor in at least one solvent to form a mixture; heating the mixture through a hydrothermal process under a pressure ranging from 1.5 to 5 atm, and a heating temperature ranging from 120 to 200°C to form nano-sized primary LTO particles, wherein one or more of the nano-sized primary LTO particles are encapsulated by at least one non-metal layer formed by at least one non-metal dopant; calcinating the nano-sized primary LTO particles at a first calcination temperature ranging from 450 to 750°C to form micron-sized secondary LTO spheres; immersing the micron-sized secondary LTO spheres into at least one metal dopant containing solution to incorporate at least one metal dopant into the micron-sized secondary LTO spheres; drying the micron-sized secondary LTO spheres incorporated with the metal dopant in vacuum; and calcinating the micron-sized secondary LTO spheres incorporated with the metal dopant at a second calcination temperature ranging from 450 to 750°C to form the metal and non-metal co-doped LTO material. mixing a tetrabutyl titanate, lithium acetate dihydrate, and at least one non-metal dopant precursor in at least one solvent to form a mixture; heating the mixture through a hydrothermal process under a pressure ranging from 1.5 to 5 atm, and a heating temperature ranging from 120 to 200°C to form nano-sized primary LTO particles, wherein one or more of the nano-sized primary LTO particles are encapsulated by at least one non-metal layer formed by at least one non-metal dopant; calcinating the nano-sized primary LTO particles at a first calcination temperature ranging from 450 to 750°C to form micron-sized secondary LTO spheres; immersing the micron-sized secondary LTO spheres into at least one metal dopant containing solution to incorporate at least one metal dopant into the micron-sized secondary LTO spheres; drying the micron-sized secondary LTO spheres incorporated with the metal dopant in vacuum; and calcinating the micron-sized secondary LTO spheres incorporated with the metal dopant at a second calcination temperature ranging from 450 to 750°C to form the metal and non-metal co-doped LTO material.
A medical X-ray photographing apparatus (20,20A,20B) comprising: a support (30,30A,30B) configured to turn an X-ray generator and an X-ray detector about a predetermined turning axis while holding said X-ray generator and said X-ray detector in a facing state, said X-ray generator being configured to emit an X-ray, said X-ray detector being configured to output an electric signal according to an incident X-ray; a support holder configured to rotatably hold said support (30,30A,30B); a turning mechanism configured to turn said support (30,30A,30B) held by said support holder; and a turning controller configured to control said turning mechanism, an image processor configured to generate an X-ray image by processing a plurality of projection images based on said electric signal output from said X-ray detector; characterised in that said medical X-ray photographing apparatus further comprises a light emitter comprising an arc shaped section disposed on a virtual loop line (670,670A) surrounding said turning axis; and a light emitter controller configured to control said light emitter in association with turning of said support (30,30A,30B) to display information about the turning of the support (30, 30A, 30B). a support (30,30A,30B) configured to turn an X-ray generator and an X-ray detector about a predetermined turning axis while holding said X-ray generator and said X-ray detector in a facing state, said X-ray generator being configured to emit an X-ray, said X-ray detector being configured to output an electric signal according to an incident X-ray; a support holder configured to rotatably hold said support (30,30A,30B); a turning mechanism configured to turn said support (30,30A,30B) held by said support holder; and a turning controller configured to control said turning mechanism, an image processor configured to generate an X-ray image by processing a plurality of projection images based on said electric signal output from said X-ray detector; characterised in that said medical X-ray photographing apparatus further comprises a light emitter comprising an arc shaped section disposed on a virtual loop line (670,670A) surrounding said turning axis; and a light emitter controller configured to control said light emitter in association with turning of said support (30,30A,30B) to display information about the turning of the support (30, 30A, 30B).
A lancing device comprising a housing, a lancet carrier translationally mounted at least partially within an interior of the housing, and a charging mechanism comprising an actuator operable by pushing toward the interior of the housing to retract the lancet carrier toward a charged position, wherein the actuator comprises a cam actuator that contacts a cam-follower surface of the lancet carrier to retract the lancet carrier toward a charged position, wherein the actuator comprises a pivot axle bore pivotally mounted to a pivot axle of the housing, characterised in that an opening is provided on the actuator wherein a torsion spring is axially aligned with the pivot bore to bias the actuator outwardly.
A method of determining acceptance criteria for identification of an occluding particle in a lumen of a device to be inspected, the method comprising: a. isolating a defined number of one or more occluding test particles; b. occluding the lumen of a representative device with the defined number of particles by adhering the particles in the lumen of the representative device; c. obtaining a mass flow measurement for the occluded representative device; and d. calculating an upper test limit mass flow rate for the occluded representative device; wherein the upper test limit mass flow rate is the acceptance criteria, and wherein an inspected device is determined to be occluded if a mass flow measurement for the inspected device is equal to or lower than the acceptance criteria, and the inspected device is determined to be unoccluded if the mass flow measurement in the inspected device is higher than the acceptance criteria. a. isolating a defined number of one or more occluding test particles; b. occluding the lumen of a representative device with the defined number of particles by adhering the particles in the lumen of the representative device; c. obtaining a mass flow measurement for the occluded representative device; and d. calculating an upper test limit mass flow rate for the occluded representative device;
A method of forming an ultrafine hydrous kaolin clay, the method comprising: (i) refining a tertiary, fine crude kaolin clay having a first alkali content, to form an ultrafine, hydrous kaolin stream having particles wherein at least 90% of the particles by weight have a diameter of 1 micron or less, wherein refining the tertiary, fine crude kaolin clay comprises selective flocculation and ozonating, wherein the ultrafine hydrous kaolin stream has a second alkali content that is less than the first alkali content, particles wherein at least 70% by weight have a diameter of 0.3 micron or less, and an average crystallite size of 400 Å or less; and (ii) refining the ultrafine hydrous kaolin stream into an ultrafine hydrous kaolin clay using flocculation, bleaching, filtering, re-dispersing, spray drying, pulverizing, or combinations thereof, and wherein the ultrafine hydrous kaolin clay has a total alkali content of 0.2% or less by weight of the ultrafine hydrous kaolin clay. (i) refining a tertiary, fine crude kaolin clay having a first alkali content, to form an ultrafine, hydrous kaolin stream having particles wherein at least 90% of the particles by weight have a diameter of 1 micron or less, wherein refining the tertiary, fine crude kaolin clay comprises selective flocculation and ozonating, wherein the ultrafine hydrous kaolin stream has a second alkali content that is less than the first alkali content, particles wherein at least 70% by weight have a diameter of 0.3 micron or less, and an average crystallite size of 400 Å or less; and (ii) refining the ultrafine hydrous kaolin stream into an ultrafine hydrous kaolin clay using flocculation, bleaching, filtering, re-dispersing, spray drying, pulverizing, or combinations thereof, and wherein the ultrafine hydrous kaolin clay has a total alkali content of 0.2% or less by weight of the ultrafine hydrous kaolin clay.
A device (100, 200, 300; 400, 500, 600) for generating an inhalable aerosol comprising: a mouthpiece (110, 310; 410, 510); a body; an electronic heater (105, 104, 210; 524) within said body configured to heat a vaporizable material and generate an inhalable aerosol; a temperature regulator; and a sensor comprising an accelerometer, tactile sensor or vibration sensor, characterised in that: the temperature regulator is operable to control the electronic heater to maintain a regulation temperature of the device, the device is operable in on and standby modes, the temperature regulator maintains a regulation temperature in both the on and standby modes, the regulation temperature being lower in the standby mode than in the on mode to conserve battery power, and the device is operable to convert from the on mode to the standby mode after a lack of movement of the device sensed by the sensor, and from the standby mode to the on mode by a change in movement of the device sensed by the sensor. a mouthpiece (110, 310; 410, 510); a body; an electronic heater (105, 104, 210; 524) within said body configured to heat a vaporizable material and generate an inhalable aerosol; a temperature regulator; and a sensor comprising an accelerometer, tactile sensor or vibration sensor, the temperature regulator is operable to control the electronic heater to maintain a regulation temperature of the device, the device is operable in on and standby modes, the temperature regulator maintains a regulation temperature in both the on and standby modes, the regulation temperature being lower in the standby mode than in the on mode to conserve battery power, and the device is operable to convert from the on mode to the standby mode after a lack of movement of the device sensed by the sensor, and from the standby mode to the on mode by a change in movement of the device sensed by the sensor.
Motor vehicle having an instrument panel which has at least one display apparatus for displaying at least one piece of content associated with an operating state of the motor vehicle, and having a steering handle for influencing lateral control of the motor vehicle by a driver of the motor vehicle, wherein the instrument panel is movable, relative to a holder which receives the instrument panel and is arranged in a passenger compartment of the motor vehicle, from a first position, in which the instrument panel is retracted into the holder, to a second position, in which the instrument panel is moved further out of the holder in the longitudinal direction (x) of the vehicle than in the first position, and from the second position back into the first position, wherein a front side of the instrument panel facing the driver in the first position has a first surface region, which in the first position is aligned substantially parallel to the vertical direction (z) of the vehicle, and a second surface region, and wherein a first end of the second surface region in the first position is closer to the first surface region in the longitudinal direction (x) of the vehicle than a second end of the second surface region, characterised in that the first surface region and the second surface region are formed as regions of a continuous screen arranged on a main body of the instrument panel. wherein the instrument panel is movable, relative to a holder which receives the instrument panel and is arranged in a passenger compartment of the motor vehicle, from a first position, in which the instrument panel is retracted into the holder, to a second position, in which the instrument panel is moved further out of the holder in the longitudinal direction (x) of the vehicle than in the first position, and from the second position back into the first position, wherein a front side of the instrument panel facing the driver in the first position has a first surface region, which in the first position is aligned substantially parallel to the vertical direction (z) of the vehicle, and a second surface region, and wherein a first end of the second surface region in the first position is closer to the first surface region in the longitudinal direction (x) of the vehicle than a second end of the second surface region, characterised in that the first surface region and the second surface region are formed as regions of a continuous screen arranged on a main body of the instrument panel.
Hearing aid unit comprising ear jewellery with a jewellery body and a hearing aid with a recording and playback function, the jewellery body comprising a cavity for receiving the hearing aid, with one or more sound openings extending to the outside opening into said cavity, and the hearing aid comprising at least one microphone for recording acoustic signals, a signal processing unit for processing the recorded acoustic signals, a sound transducer and a signal conductor for transmitting acoustic signals or audio signals into the auditory canal, characterized in that the hearing aid is loosely placed into the cavity of the jewellery body and may be removed, and at least one microphone is arranged in the hearing aid in such a way that it is assigned to a sound entrance opening in the ear jewellery, for the purposes of recording acoustic signals, in the inserted state of the hearing aid.
A fabric wherein a composite yarn of fluororesin fibers A and fibers B other than fluororesin fibers is used for at least one of a warp yarn and a weft yarn, a mass ratio α of the fluororesin fibers A in the composite yarn is 5 to 70%, wherein the mass ratio α is measured by the method of the description, characterised in that a ratio X/Y of an area ratio X of the fluororesin fibers A in a fabric surface to a mass ratio Y of the fluororesin fibers A in the fabric is 1 or more and 5 or less, wherein the area ratio X is measured by the method of the description and the mass ratio Y is measured by the method of the description, and wherein the fibers B are fibers that are 7 cN/dtex or more in tensile strength, wherein the tensile strength is measured in accordance with 8.5 of JIS L1013: 2010 "Testing methods for man-made filament yarns". characterised in that a ratio X/Y of an area ratio X of the fluororesin fibers A in a fabric surface to a mass ratio Y of the fluororesin fibers A in the fabric is 1 or more and 5 or less, wherein the area ratio X is measured by the method of the description and the mass ratio Y is measured by the method of the description, and wherein the fibers B are fibers that are 7 cN/dtex or more in tensile strength, wherein the tensile strength is measured in accordance with 8.5 of JIS L1013: 2010 "Testing methods for man-made filament yarns".
An electronic device comprising: a display unit comprising an active area configured to display an image and a peripheral area adjacent to the active area; and an input sensing unit on the display unit and comprising a first sensing electrode in the active area and a second sensing electrode in the active area, wherein a hole at least partially penetrating the display unit is defined in the active area, wherein the first sensing electrode comprises a first main pattern, a first auxiliary pattern (SP1H) having an area smaller than that of the first main pattern, a first connection pattern connected to the first main pattern, and a first compensation pattern (SP1C) adjacent to the hole and electrically connected to the first auxiliary pattern (SP1H), wherein the second sensing electrode comprises a second main pattern spaced apart from the first main pattern, a second auxiliary pattern (SP2H) having an area smaller than that of the second main pattern, a second connection pattern connected to the second main pattern and on a layer different from the first connection pattern, and a second compensation pattern (SP2C) adjacent to the hole and spaced from the first compensation pattern (SP1C) and electrically connected to the second auxiliary pattern (SP2H), and wherein the first compensation pattern (SP1C) is between and adjacent to the second auxiliary pattern (SP2H) and the hole, and the second compensation pattern (SP2C) is between and adjacent to the first auxiliary pattern (SP1H) and the hole. a display unit comprising an active area configured to display an image and a peripheral area adjacent to the active area; and an input sensing unit on the display unit and comprising a first sensing electrode in the active area and a second sensing electrode in the active area, wherein a hole at least partially penetrating the display unit is defined in the active area, wherein the first sensing electrode comprises a first main pattern, a first auxiliary pattern (SP1H) having an area smaller than that of the first main pattern, a first connection pattern connected to the first main pattern, and a first compensation pattern (SP1C) adjacent to the hole and electrically connected to the first auxiliary pattern (SP1H), wherein the second sensing electrode comprises a second main pattern spaced apart from the first main pattern, a second auxiliary pattern (SP2H) having an area smaller than that of the second main pattern, a second connection pattern connected to the second main pattern and on a layer different from the first connection pattern, and a second compensation pattern (SP2C) adjacent to the hole and spaced from the first compensation pattern (SP1C) and electrically connected to the second auxiliary pattern (SP2H), and wherein the first compensation pattern (SP1C) is between and adjacent to the second auxiliary pattern (SP2H) and the hole, and the second compensation pattern (SP2C) is between and adjacent to the first auxiliary pattern (SP1H) and the hole.
Multi-component composition, in particular a three-component composition, especially for manufacture of a polyurethane cementitious hybrid coating or flooring, comprising or consisting of: a) a polyol component comprising at least one polyol and water; b) a hardener component comprising at least one polyisocyanate compound; c) a solid component comprising at least one hydraulic binder; wherein at least one of the components of the multi component composition comprises at least one comb polymer having a main chain comprising acid groups, and side chains being attached to the main chain, and wherein the comb polymer is present in an amount of 0.001 - 2 wt.-%, in particular 0.01 - 1 wt.-%, especially 0.015 - 0.1 wt.-% with respect to the total weight of the composition. a) a polyol component comprising at least one polyol and water; b) a hardener component comprising at least one polyisocyanate compound; c) a solid component comprising at least one hydraulic binder;
A device for sensing the linear position of a transmission member in the form of a cable, secured to a gearbox lever of a motor vehicle for detecting the position of said lever, said member being coupled to at least one of its ends to a cable terminator slidably mounted in a sheath terminator which is fixed, characterized in that it comprises a magnet mounted inside a tube which constitutes the cable terminator and a hall effect sensor positioned on part of the sheath terminator to detect the movement between the cable terminator and the sheath terminator corresponding to a movement of said lever.
A vinyl chloride resin composition comprising: a vinyl chloride resin (a); a plasticizer (b); and a compound (c) indicated by formula, shown below, R 1 (NR 2 COR 3) n where, in formula, n is an integer of not less than 2 and not more than 6, R 1 and R 3 are each a hydrocarbon group, R 2 is a hydrocarbon group or hydrogen, the R 2 groups may be the same as or different from one another, the R 3 groups may be the same as or different from one another, and at least one of the R 3 groups is an unsaturated hydrocarbon group including at least one carbon-carbon unsaturated bond, wherein the vinyl chloride resin (a) includes vinyl chloride resin particles and vinyl chloride resin fine particles, wherein the average particle diameter of the vinyl chloride resin particles is 30 μm or more, the average particle diameter of the vinyl chloride resin fine particles is less than 30 μm, and the average particle diameter is measured as the volume-average particle diameter by laser diffraction in accordance with JIS Z8825. a vinyl chloride resin (a); a plasticizer (b); and a compound (c) indicated by formula, shown below, R 1 (NR 2 COR 3) n where, in formula, n is an integer of not less than 2 and not more than 6, R 1 and R 3 are each a hydrocarbon group, R 2 is a hydrocarbon group or hydrogen, the R 2 groups may be the same as or different from one another, the R 3 groups may be the same as or different from one another, and at least one of the R 3 groups is an unsaturated hydrocarbon group including at least one carbon-carbon unsaturated bond, wherein the vinyl chloride resin (a) includes vinyl chloride resin particles and vinyl chloride resin fine particles, wherein the average particle diameter of the vinyl chloride resin particles is 30 μm or more, the average particle diameter of the vinyl chloride resin fine particles is less than 30 μm, and the average particle diameter is measured as the volume-average particle diameter by laser diffraction in accordance with JIS Z8825.