mhurhangee/patent-ind-claim-en huggingface dataset:
A sound-insulated room for living, working or staying in, having walls, a ceiling closing said walls at the top, and at least one sound absorber arrangement arranged on a wall surface or ceiling surface of the room and consisting of multiple sound absorber elements, which are arranged in the room with a floor area of 40 m 2 to 130 m 2 , wherein multiple lined-up sound absorber elements form one or more absorber strips, which extend (s) at least in some sections along an upper abutting edge running between the wall and the ceiling of the room , characterised in that - the sound absorber elements are panel-shaped and consist of foam glass granules having a grain size of 0.25-4 mm, wherein the granules are sintered in panel form or are joined with added binder; - the sound absorber elements have a width of 200-400 mm and a thickness of 40-65 mm; - the sound absorber elements have a flow resistivity within the range of 8-10 kPa*s/m 2 . - the sound absorber elements are panel-shaped and consist of foam glass granules having a grain size of 0.25-4 mm, wherein the granules are sintered in panel form or are joined with added binder; - the sound absorber elements have a width of 200-400 mm and a thickness of 40-65 mm; - the sound absorber elements have a flow resistivity within the range of 8-10 kPa*s/m 2 .
A smoke tube boiler comprising: a mix chamber which includes a mixing space (S) in which combustion gas and air are mixed, a mix chamber body having a flat shape, and a flat plate-shaped burner disposed in a horizontal direction above a combustion chamber (C); and a heat exchanger which includes an outer shell forming an outer wall of a tank (B) into and from which a heat medium is introduced and discharged and which accommodates the heat medium, a plurality of tubes formed in a flat shape that are configured to allow combustion gas generated in the combustion chamber (C) to flow therein and cause a heat exchange to occur between the combustion gas and the heat medium flowing outside the tubes , turbulators coupled to an inner side of the tube and configured to induce occurrence of a turbulent flow in the flow of the combustion gas, and multi-stage barriers disposed between the outer shell and the tube and configured to induce a heat medium flow direction to be alternately changed between a radially inward direction and a radially outward direction; characterized in that the flat plate-shaped burner is provide across the entire area of the mixing space (S), and a space between a lower surface of the mix chamber body and an upper surface of the flat plate-shaped burner is formed in a flat disc shape. a mix chamber which includes a mixing space (S) in which combustion gas and air are mixed, a mix chamber body having a flat shape, and a flat plate-shaped burner disposed in a horizontal direction above a combustion chamber (C); and a heat exchanger which includes an outer shell forming an outer wall of a tank (B) into and from which a heat medium is introduced and discharged and which accommodates the heat medium, a plurality of tubes formed in a flat shape that are configured to allow combustion gas generated in the combustion chamber (C) to flow therein and cause a heat exchange to occur between the combustion gas and the heat medium flowing outside the tubes , turbulators coupled to an inner side of the tube and configured to induce occurrence of a turbulent flow in the flow of the combustion gas, and multi-stage barriers disposed between the outer shell and the tube and configured to induce a heat medium flow direction to be alternately changed between a radially inward direction and a radially outward direction; characterized in that the flat plate-shaped burner is provide across the entire area of the mixing space (S), and a space between a lower surface of the mix chamber body and an upper surface of the flat plate-shaped burner is formed in a flat disc shape.
Device for switching medium and/or high voltages, comprising a spring energy store drive for driving a kinematic chain , wherein at least one energy storage spring and at least one damping element are included for generating a drive movement, wherein the at least one damping element is an active damping element , characterized in that the at least one damping element is designed to generate a drive movement with a specific drive characteristic through active damping depending on environmental variables and/or the nature of the switching case.
Use of a catalyst in the production of a higher silane from a lower silane, where a lower silane is a silane of formula Si n H 2n+2 where n is an integer of 1 or more and the higher silane has more silicon than the lower silane, the catalyst comprising a porous oxide having a crystalline zeolite structure formed from aluminosilicate, wherein a content of alkali metals and alkali earth metals in the porous oxide is not less than 0.00 wt% and not more than 2.00 wt%, and at least part of the alkali metal ions and the alkali earth metal ions is substituted with hydrogen ions, and a SiO 2 /Al 2 O 3 molar ratio in the porous oxide is not less than 10 and not more than 3,000.
A printing control device which is adapted to control a printing device having a head for scanning a recording medium and ejecting an ink onto the recording medium, comprising: a scan width information receiver that is adapted to receive a scan width information representing a width over which the head will move during scanning, wherein as the scan width of the head , the specific width, which is the maximum drawing width over which the printing device can perform printing, is preset, wherein the scan width information is information representing a length of the width over which the head will move, or information representing a time required for the head to move by the width, wherein the width over which the head will move may be different from the width of the recording medium, and wherein an input unit by which a user inputs the scan width information according to the degree of drying of ink and the length of printing time as desired is included. a scan width information receiver that is adapted to receive a scan width information representing a width over which the head will move during scanning, wherein as the scan width of the head , the specific width, which is the maximum drawing width over which the printing device can perform printing, is preset, wherein the scan width information is information representing a length of the width over which the head will move, or information representing a time required for the head to move by the width, wherein the width over which the head will move may be different from the width of the recording medium, and wherein an input unit by which a user inputs the scan width information according to the degree of drying of ink and the length of printing time as desired is included.
A magnetocaloric material comprising: (A x B 1-x ) Si 1-y-z (D y E z ) wherein A and B are selected from the group consisting of Ce, Nd, and Gd, wherein D is selected from the group consisting of Cr and Mn, wherein E is selected from the group consisting of Cr, Mn, Fe, Al, Ni, Co, Cu, and Zn, wherein x is in the range of about 0 to about 1.0, wherein y is in the range of about 0.05 to about 0.3, wherein z is in the range of about 0 to about 0.3, and wherein 0.05 ≤ y+z ≤ 0.3, preferably wherein y + z = 0.2. wherein A and B are selected from the group consisting of Ce, Nd, and Gd, wherein D is selected from the group consisting of Cr and Mn, wherein E is selected from the group consisting of Cr, Mn, Fe, Al, Ni, Co, Cu, and Zn, wherein x is in the range of about 0 to about 1.0, wherein y is in the range of about 0.05 to about 0.3, wherein z is in the range of about 0 to about 0.3, and wherein 0.05 ≤ y+z ≤ 0.3, preferably wherein y + z = 0.2.
An attachment unit for attaching a container element to a container body , said attachment unit comprising - a retaining device , adapted to retain said container body while said container element is being attached to said container body , - an applicator for positioning said container element in said container body , - a transfer plate for a container element , said transfer plate extending in a first direction (x) and a second direction (y) being perpendicular to each other, said transfer plate comprising a cavity portion comprising at least one through-going first cavity adapted to receive and hold said container element , said first cavity having a first open area (A 1 ), wherein said retaining device comprises at least one through-going second cavity with a second open area (A 2 ) corresponding to that of said first open area (A 1 ), said second cavity being adapted to receive a portion of said container body , said applicator is aligned with said second cavity wherein said transfer plate is displaceable between a first position, in which said transfer plate is adapted to receive said container element in said first cavity , and a second position in which said first cavity is aligned with said second cavity of said retaining device , said transfer plate in said second position being located between said applicator and said second cavity of said retaining device , such that said container element is displaceable by means of said applicator from said first cavity in said transfer plate into said container body by moving through said first cavity and at least partly through said second cavity of said retaining device , characterized in that said transfer plate further comprises a cover portion being at least as large as, or substantially as large as, said first open area (A 1 ), said transfer plate in said first position being located, such that said cover portion covers or substantially covers said second open area (A 2 ). - a retaining device , adapted to retain said container body while said container element is being attached to said container body , - an applicator for positioning said container element in said container body , - a transfer plate for a container element , said transfer plate extending in a first direction (x) and a second direction (y) being perpendicular to each other, said transfer plate comprising a cavity portion comprising at least one through-going first cavity adapted to receive and hold said container element , said first cavity having a first open area (A 1 ), wherein said retaining device comprises at least one through-going second cavity with a second open area (A 2 ) corresponding to that of said first open area (A 1 ), said second cavity being adapted to receive a portion of said container body , said applicator is aligned with said second cavity
A particle comprising, in a surface layer thereof, a copolymer having a repeating unit A and a repeating unit B, wherein the repeating unit A has a side chain A, and the side chain A has, at a terminal thereof, a carboxy group to be bonded to a ligand, wherein the repeating unit B has a side chain B, and the side chain B has a hydroxy group at a terminal thereof, wherein the particle is configured such that, when the particle is dispersed in ion-exchanged water, the surface layer of the particle is hydrated to form a swollen layer, wherein a density of the carboxy groups, determined by the method mentioned in the specification, to be incorporated into the swollen layer satisfies the formula (1-1), and wherein a dry particle diameter to be measured when the particle is dried and a particle diameter in water, both determined by the method mentioned in the specification, to be measured when the particle is dispersed in ion-exchanged water satisfy the formula (1-2). 0.04 ≤ Carboxy group density group / nm 3 ≤ 0.15 1.10 ≤ Particle diameter in water / dry particle diameter ≤ 1.40 wherein the repeating unit A has a side chain A, and the side chain A has, at a terminal thereof, a carboxy group to be bonded to a ligand, wherein the repeating unit B has a side chain B, and the side chain B has a hydroxy group at a terminal thereof, wherein the particle is configured such that, when the particle is dispersed in ion-exchanged water, the surface layer of the particle is hydrated to form a swollen layer, wherein a density of the carboxy groups, determined by the method mentioned in the specification, to be incorporated into the swollen layer satisfies the formula (1-1), and wherein a dry particle diameter to be measured when the particle is dried and a particle diameter in water, both determined by the method mentioned in the specification, to be measured when the particle is dispersed in ion-exchanged water satisfy the formula (1-2). 0.04 ≤ Carboxy group density group / nm 3 ≤ 0.15 1.10 ≤ Particle diameter in water / dry particle diameter ≤ 1.40
A tank body (B) comprising a drain plug device; the tank body (B) including a drain port formed in a bottom surface of the tank body (B) and an overflow port formed in a side wall of the tank body (B); the drain plug device including: a drain plug with a valve member that opens and closes the drain port ; an operation unit that is attached to the overflow port to perform a raising operation of the valve member ; and a transmission member that transmits operation applied to the operation unit to the valve member , wherein the operation unit includes an activation unit displaceable with respect to the tank body (B) in a displacement direction, and the activation unit includes an inlet to the overflow port in a lower surface of the activation unit , and the transmission member that transmits the operation applied to the operation unit to the valve member includes: an outer tube of a hollow tube body; and an inner wire that transmits displacement of the operation unit by sliding on an inside of the outer tube when the operation is applied to the operation unit , characterized in that at least the inner wire extends from the overflow port toward an operation unit side, and this part of the wire extending from the overflow port having an inner wire end which is bent and oriented toward the displacement direction of the activation unit . a drain plug with a valve member that opens and closes the drain port ; an operation unit that is attached to the overflow port to perform a raising operation of the valve member ; and a transmission member that transmits operation applied to the operation unit to the valve member , wherein the operation unit includes an activation unit displaceable with respect to the tank body (B) in a displacement direction, and the activation unit includes an inlet to the overflow port in a lower surface of the activation unit , and the transmission member that transmits the operation applied to the operation unit to the valve member includes: an outer tube of a hollow tube body; and an inner wire that transmits displacement of the operation unit by sliding on an inside of the outer tube when the operation is applied to the operation unit , characterized in that at least the inner wire extends from the overflow port toward an operation unit side, and this part of the wire extending from the overflow port having an inner wire end which is bent and oriented toward the displacement direction of the activation unit . an outer tube of a hollow tube body; and an inner wire that transmits displacement of the operation unit by sliding on an inside of the outer tube when the operation is applied to the operation unit , characterized in that at least the inner wire extends from the overflow port toward an operation unit side, and this part of the wire extending from the overflow port having an inner wire end which is bent and oriented toward the displacement direction of the activation unit .
A micro device for solid phase extraction comprising: an inlet configured to receive injection of a solvent and a filler ; an outlet configured to receive discharging of the solvent; and a dam-forming portion located between the inlet and the outlet ; and a dam disposed within the dam-forming portion , the dam configured to allow the solvent to flow therethrough and configured to allow the solvent to be discharged via a side surface of the dam surrounding the portion where the dam is located in the dam-forming portion , but configured to prevent the filler from passing therethrough, wherein in case that the diameter of the dam-forming portion is equal to the diameter of the dam , there is further provided a protruded portion in which the side surface is further protruded so that the protruded portion is configured to allow the solvent to move between the side surface of the dam and the inner surface of the dam-forming portion , or in case that the diameter of the dam is smaller than the diameter of the dam-forming portion , the solvent can pass by the side surface of the dam , wherein each of the dam-forming portion and the dam has a circular cross section with respect to a central axis of the micro device, the central axis extending in a longitudinal direction of the inlet in which the inlet extends, each cross section being perpendicular to the central axis, and wherein the dam-forming portion is configured to accommodate the filler deposited onto the dam in the form of a disk that is centered with respect to the central axis in the dam-forming portion . an inlet configured to receive injection of a solvent and a filler ; an outlet configured to receive discharging of the solvent; and a dam-forming portion located between the inlet and the outlet ; and a dam disposed within the dam-forming portion , the dam configured to allow the solvent to flow therethrough and configured to allow the solvent to be discharged via a side surface of the dam surrounding the portion where the dam is located in the dam-forming portion , but configured to prevent the filler from passing therethrough, wherein in case that the diameter of the dam-forming portion is equal to the diameter of the dam , there is further provided a protruded portion in which the side surface is further protruded so that the protruded portion is configured to allow the solvent to move between the side surface of the dam and the inner surface of the dam-forming portion , or in case that the diameter of the dam is smaller than the diameter of the dam-forming portion , the solvent can pass by the side surface of the dam , wherein each of the dam-forming portion and the dam has a circular cross section with respect to a central axis of the micro device, the central axis extending in a longitudinal direction of the inlet in which the inlet extends, each cross section being perpendicular to the central axis, and wherein the dam-forming portion is configured to accommodate the filler deposited onto the dam in the form of a disk that is centered with respect to the central axis in the dam-forming portion .
A generator which is operable in association with a turbine engine having an engine oil system , the generator comprising: a stator with a stator winding; a rotor with a field winding supported for rotation relative to the stator; a housing enclosing the stator and the rotor and an oil circuit including a plurality of selectors , the housing further comprising an independent system port configured to communicate independent source oil between the generator and an independent oil system land a shared system port arranged to communicate shared source oil between the generator and the engine oil system ; wherein the selectors are arranged to configure the generator to circulate oil from either the engine oil system or the independent oil system , wherein in a first generator arrangement the generator is arranged to circulate shared source oil from the engine oil system and in a second generator arrangement the generator is arranged to circulate independent source oil from the independent oil system ; and wherein, when the selectors fluidly couple the stator and one of the independent system port and the shared system port , the selectors fluidly separate the stator from the other of the independent system port and the shared system port. a stator with a stator winding; a rotor with a field winding supported for rotation relative to the stator; a housing enclosing the stator and the rotor and an oil circuit including a plurality of selectors , the housing further comprising an independent system port configured to communicate independent source oil between the generator and an independent oil system land a shared system port arranged to communicate shared source oil between the generator and the engine oil system ; wherein the selectors are arranged to configure the generator to circulate oil from either the engine oil system or the independent oil system , wherein in a first generator arrangement the generator is arranged to circulate shared source oil from the engine oil system and in a second generator arrangement the generator is arranged to circulate independent source oil from the independent oil system ; and wherein, when the selectors fluidly couple the stator and one of the independent system port and the shared system port , the selectors fluidly separate the stator from the other of the independent system port and the shared system port.
Blend comprising: a) granules, and b) vitamin B12 wherein said granules comprise naproxen or a pharmaceutically acceptable salt thereof and at least one binder. a) granules, and b) vitamin B12
A measurement apparatus comprising: a first speed calculation module configured to calculate a first speed of a railway vehicle, based on satellite radio waves from a satellite in a global navigation satellite system; a second speed calculation module configured to calculate a second speed of the railway vehicle from a detection value of a sensor installed in the railway vehicle; a first position calculation module configured to calculate first to third positions of the railway vehicle based on the satellite radio waves; and a determination module configured to: calculate a first direction vector connecting the first and second positions and a second direction vector connecting the second and third positions; calculate an inner product value of the first and second direction vectors; and determine which of the first speed and the second speed is employed, based on comparison between the inner product value and an employment threshold, the employment threshold being a value for determining whether an angle between the first and second direction vectors corresponds to a curvature of a route indicated by angle data. a first speed calculation module configured to calculate a first speed of a railway vehicle, based on satellite radio waves from a satellite in a global navigation satellite system; a second speed calculation module configured to calculate a second speed of the railway vehicle from a detection value of a sensor installed in the railway vehicle; a first position calculation module configured to calculate first to third positions of the railway vehicle based on the satellite radio waves; and a determination module configured to: calculate a first direction vector connecting the first and second positions and a second direction vector connecting the second and third positions; calculate an inner product value of the first and second direction vectors; and determine which of the first speed and the second speed is employed, based on comparison between the inner product value and an employment threshold, the employment threshold being a value for determining whether an angle between the first and second direction vectors corresponds to a curvature of a route indicated by angle data. calculate a first direction vector connecting the first and second positions and a second direction vector connecting the second and third positions; calculate an inner product value of the first and second direction vectors; and determine which of the first speed and the second speed is employed, based on comparison between the inner product value and an employment threshold, the employment threshold being a value for determining whether an angle between the first and second direction vectors corresponds to a curvature of a route indicated by angle data.
A determination device used in a shaping device in which a three-dimensional shaped object is shaped on an upper surface of a film adhered to a pallet , wherein the determination device determines whether the film is adhered to the pallet based on imaging data of the pallet.