mhurhangee/patent-ind-claim-en huggingface dataset:
Broiler container having a floor and side walls (12, 13; 112, 113; 212, 213; 312, 313; 412, 413; 512, 513; 612, 613; 712, 713) defining an inner volume which is designed and configured to receive and accommodate at least five live broilers, wherein the broiler container is designed and configured to be stackable with broiler containers of the same construction and has at least one ventilation opening and at least one air outflow opening, wherein the broiler container comprises at least one segment of a ventilation or air outflow column (14; 16; 114, 116; 214, 216; 314, 316; 414, 416; 514, 516; 614, 616; 714, 716) which extends through the inner volume and has at least one ventilation or air outflow opening (15, 20; 115, 120; 215, 220; 315;420; 515; 615, 620, 715, 720) at a distance from the side walls (12, 13; 112, 113; 212, 213; 312, 313; 412, 413; 512, 513; 612, 613; 712, 713), wherein each segment of the ventilation or air outflow column (14; 16; 114, 116; 214, 216; 314, 316; 414, 416; 514, 516; 614, 616; 714, 716) is designed and configured for connection to corresponding segments of broiler containers of the same construction and also for connection to an active ventilation system, characterized in that in addition to the or each ventilation or air outflow column (14; 16; 114, 116; 214, 216; 314, 316; 414, 416; 514, 516; 614, 616; 714, 716) that is situated at a distance from the side walls (12, 13; 112, 113; 212, 213; 312, 313; 412, 413; 512, 513; 612, 613, 712, 713), at least one side wall is provided with at least one ventilation column part wall having ventilation or air outflow openings (15, 20; 115, 120; 215, 220; 315; 420; 515; 615, 620).
Suspension, characterized in that the suspension comprises water, nanoscale organic particles having a volume-based mean particle size of less than 350 nm and at least one water-soluble salt of a transition metal, wherein transition metal cations and/or hydroxide complexes thereof are disposed at least to some extent on the surface of the organic particles, and wherein the nanoscale, organic particles comprise at least one organic compound having at least 6 carbon atoms and at least one acid group-containing radical. in that the suspension comprises water, nanoscale organic particles having a volume-based mean particle size of less than 350 nm and at least one water-soluble salt of a transition metal, wherein transition metal cations and/or hydroxide complexes thereof are disposed at least to some extent on the surface of the organic particles, and wherein the nanoscale, organic particles comprise at least one organic compound having at least 6 carbon atoms and at least one acid group-containing radical.
A computer-implemented method for magnetic resonance spectroscopy (MRS) processing to quantify and analyze metabolites, the method comprising: a. obtaining and inputting metabolite and image data to a magnetic resonance spectroscopy system; b. segregating a set of voxels containing data having a minimum signal-to-noise ratio based on given input; c. pre-processing spectral parameters from the remaining voxels; d. establishing individual spectral peak area from each voxel for conversion into metabolite concentration, wherein an iterative approach is used for baseline correction and peak fitting of the individual spectral peak area; e. generating a metabolite concentration map along with a magnetic resonance image as output, wherein the metabolite concentration map is corrected for partial volume effect at each voxel. a. obtaining and inputting metabolite and image data to a magnetic resonance spectroscopy system; b. segregating a set of voxels containing data having a minimum signal-to-noise ratio based on given input; c. pre-processing spectral parameters from the remaining voxels; d. establishing individual spectral peak area from each voxel for conversion into metabolite concentration, wherein an iterative approach is used for baseline correction and peak fitting of the individual spectral peak area; e. generating a metabolite concentration map along with a magnetic resonance image as output, wherein the metabolite concentration map is corrected for partial volume effect at each voxel.
A self-moving device comprising a housing , a moving module mounted on the housing and drivable to cause the device to move, a working module mounted on the housing configured to perform a work task, a plurality of cavities for receiving respective removable modules wherein the removable modules include sensing modules, a control module , and a communication system connecting the control module to the moving module, the working module and to the removable modules when mounted on the housing; wherein the control module is configured to detect a removable module and to modify a control program according to the detected type of the removable module, so that the self-mobile device can perform a function corresponding to the removable module; characterized in that the plurality of cavities comprise a primary cavity configured to mount the control module and a secondary cavity isolated from the primary cavity. a housing , a moving module mounted on the housing and drivable to cause the device to move, a working module mounted on the housing configured to perform a work task, a plurality of cavities for receiving respective removable modules wherein the removable modules include sensing modules, a control module , and a communication system connecting the control module to the moving module, the working module and to the removable modules when mounted on the housing; wherein the control module is configured to detect a removable module and to modify a control program according to the detected type of the removable module, so that the self-mobile device can perform a function corresponding to the removable module; characterized in that the plurality of cavities comprise a primary cavity configured to mount the control module and a secondary cavity isolated from the primary cavity.
A liquid cartridge comprising: a front surface ; an upper surface facing an upward direction when the liquid cartridge is installed in a liquid consuming apparatus; a liquid outlet portion facing a first direction at the front surface ; a circuit board disposed on the upper surface ; and a liquid detection portion for detecting a state of liquid stored in the liquid cartridge ; and a locking surface disposed at the upper surface and configured to contact a locking portion of a cartridge attaching unit of the liquid consuming apparatus in a second direction opposite to the first direction; wherein the liquid detection portion comprises a light access portion configured to be accessed with light traveling from a first point toward a second point, characterized in that the light access portion is displaced from the circuit board in the second direction , and wherein the locking surface is displaced from the light access portion in the second direction , and an intervening wall is disposed between the circuit board and the light access portion , the intervening wall including a particular surface extending in a third direction which intersects the first direction and the upward direction . a front surface ; an upper surface facing an upward direction when the liquid cartridge is installed in a liquid consuming apparatus; a liquid outlet portion facing a first direction at the front surface ; a circuit board disposed on the upper surface ; and a liquid detection portion for detecting a state of liquid stored in the liquid cartridge ; and a locking surface disposed at the upper surface and configured to contact a locking portion of a cartridge attaching unit of the liquid consuming apparatus in a second direction opposite to the first direction; wherein the liquid detection portion comprises a light access portion configured to be accessed with light traveling from a first point toward a second point, characterized in that the light access portion is displaced from the circuit board in the second direction , and wherein the locking surface is displaced from the light access portion in the second direction , and an intervening wall is disposed between the circuit board and the light access portion , the intervening wall including a particular surface extending in a third direction which intersects the first direction and the upward direction .
A transmission device comprising: a generator configured to generate a first combination including (i) identification information associating area information indicating an area where data should be received and a timing when the area information should be transmitted, and (ii) the area information and that generates a second combination including the identification information in the first combination and data; and a transmitter configured to transmit one of the first combination and the second combination generated by the generator to a base station via a network , wherein the generator is configured to generate the second combination at a further timing subsequent to the timing associated with the identification information in the first combination, and the transmitter is configured to transmit the first combination at the timing associated with the identification information in the first combination and transmits the second combination at the further timing. a generator configured to generate a first combination including (i) identification information associating area information indicating an area where data should be received and a timing when the area information should be transmitted, and (ii) the area information and that generates a second combination including the identification information in the first combination and data; and a transmitter configured to transmit one of the first combination and the second combination generated by the generator to a base station via a network , wherein the generator is configured to generate the second combination at a further timing subsequent to the timing associated with the identification information in the first combination, and the transmitter is configured to transmit the first combination at the timing associated with the identification information in the first combination and transmits the second combination at the further timing.
A packaged boost system for a power plant , comprising: a. a supercharger housing a pair of Roots-type rotors operably coupled to a supercharger input shaft ; b. a brake assembly having a brake operably coupled to a brake shaft , the brake being configured to provide a braking force on the brake shaft when a current is applied to the brake, the brake shaft being coupled to the supercharger input shaft; c. a planetary gear set including a sun gear , a ring gear and a carrier that carries planetary gears, the carrier, the sun gear and the ring gear being configured to rotate about a central axis of the planetary gear set, wherein the sun gear is coupled to the brake shaft; d. a first power transmission component operably coupled to the carrier, the first power transmission component being configured to engage with a power input of the power plant; and e. a second power transmission component operably connected to the ring gear, the second power transmission component being configured to engage with an electric motor , characterized in that the brake assembly is housed in a brake housing mechanically coupled to the supercharger housing , wherein the planetary gear set is housed in a transmission housing mechanically coupled to the brake housing, and wherein the brake is located between the supercharger and the planetary gear set. a. a supercharger housing a pair of Roots-type rotors operably coupled to a supercharger input shaft ; b. a brake assembly having a brake operably coupled to a brake shaft , the brake being configured to provide a braking force on the brake shaft when a current is applied to the brake, the brake shaft being coupled to the supercharger input shaft; c. a planetary gear set including a sun gear , a ring gear and a carrier that carries planetary gears, the carrier, the sun gear and the ring gear being configured to rotate about a central axis of the planetary gear set, wherein the sun gear is coupled to the brake shaft; d. a first power transmission component operably coupled to the carrier, the first power transmission component being configured to engage with a power input of the power plant; and e. a second power transmission component operably connected to the ring gear, the second power transmission component being configured to engage with an electric motor , characterized in that the brake assembly is housed in a brake housing mechanically coupled to the supercharger housing , wherein the planetary gear set is housed in a transmission housing mechanically coupled to the brake housing, and wherein the brake is located between the supercharger and the planetary gear set.
A process for improving the barrier properties of a barrier layer comprised in a pulp-based substrate layer having a barrier layer, comprising the steps of a) providing a pulp-based substrate layer having a layer of an aqueous barrier composition applied to it, wherein said barrier composition comprises a barrier compound, b) drying the pulp-based substrate layer having a layer of aqueous barrier composition applied to it to form a pulp-based substrate layer having a barrier layer, such that the moisture content of the pulp-based substrate layer having a barrier layer is below 2.5 % by weight, preferably below 2 % by weight, based on the weight of the pulp-based substrate layer having a barrier layer. a) providing a pulp-based substrate layer having a layer of an aqueous barrier composition applied to it, wherein said barrier composition comprises a barrier compound, b) drying the pulp-based substrate layer having a layer of aqueous barrier composition applied to it to form a pulp-based substrate layer having a barrier layer, such that the moisture content of the pulp-based substrate layer having a barrier layer is below 2.5 % by weight, preferably below 2 % by weight, based on the weight of the pulp-based substrate layer having a barrier layer.
A photovoltaic cell comprising a silicon substrate having two opposite main surfaces, wherein a first main surface of the two main surfaces is covered with a passivation layer stack, characterized in that the passivation layer stack comprises: - a PO x - and Al-comprising-layer covering the first main surface, and - a capping layer structure which covers the PO x - and Al-comprising-layer. - a PO x - and Al-comprising-layer covering the first main surface, and - a capping layer structure which covers the PO x - and Al-comprising-layer.
Household appliance for preparing food, having a housing , which has a first outer part , on which is embodied a control apparatus for setting operating conditions of the household appliance , and having at least one second outer part which is separate from the first outer part and is embodied in a beam-like manner and is arranged on the front of the household appliance , wherein the second outer part is embodied to be permeable at least in regions for light in the spectral range which is visible to humans and can be backlit for the visual display of information through the second outer part , characterised in that the second outer part has a lateral pilaster strip and is arranged as a vertical beam and is arranged laterally adjoining a door for closing a cooking compartment of the household appliance .
An orientable lighting device , comprising: - a frame configured to be mounted in a ceiling and/or a false ceiling, said frame defining a window facing an area to be illuminated; - a lighting unit connected to the frame and adapted to be oriented relative to the frame , said lighting unit at least partially fitting in said window ; - a cover element lying over said window and having an opening with an edge , said edge surrounding said lighting unit and contacting said lighting unit , said opening being allowed to move in said window to control the orientation of said lighting unit ; - a pair of uprights , said opening and said lighting unit being disposed between said uprights , said lighting unit being further connected and adapted to be tilted relative to said uprights ; characterized in that said cover element is disposed between said uprights , said cover element comprising a pair of half-parts which are connected to and adapted to be moved toward and away from each other. - a frame configured to be mounted in a ceiling and/or a false ceiling, said frame defining a window facing an area to be illuminated; - a lighting unit connected to the frame and adapted to be oriented relative to the frame , said lighting unit at least partially fitting in said window ; - a cover element lying over said window and having an opening with an edge , said edge surrounding said lighting unit and contacting said lighting unit , said opening being allowed to move in said window to control the orientation of said lighting unit ; - a pair of uprights , said opening and said lighting unit being disposed between said uprights , said lighting unit being further connected and adapted to be tilted relative to said uprights ;
A method for depositing at least one biological fluid onto a surface of a substrate , said method comprising the steps of: a) providing at least one thermal bubble-jet printhead (T1, T2, T3) loaded with at least one biological fluid; b) positioning said at least one printhead (T1, T2, T3) next to said substrate ; and c) supplying energy to said at least one printhead (T1, T2, T3) thereby depositing said at least one biological fluid onto said surface ; characterized in that said at least one printhead (T1, T2, T3) is supplied with an energy E such that 1.6*E th < E ≤ 3.0*E th where E th is the threshold energy of the printhead for said biological fluid. a) providing at least one thermal bubble-jet printhead (T1, T2, T3) loaded with at least one biological fluid; b) positioning said at least one printhead (T1, T2, T3) next to said substrate ; and c) supplying energy to said at least one printhead (T1, T2, T3) thereby depositing said at least one biological fluid onto said surface ;
Blow mould for forming plastic preforms into plastic containers , having at least two blow mould side parts and a bottom part , which form a cavity , within which plastic preforms are formed into the plastic containers by being acted upon by a flowable medium, wherein an inner wall of the blow mould side parts and of the bottom part which delimits the cavity has a contour which produces a predetermined shape of the plastic containers to be produced, wherein a plurality of openings being provided in at least one section of the bottom part , which openings allow a gaseous medium to be discharged during an expansion process of the plastic container, characterised in that a ratio between a surface area of the bottom part and a surface area of the openings is 35-175 and a ratio depends on a size of the plastic containers and a shape of the openings.
A vacuum adiabatic body comprising: a first plate configured to define at least a portion of a wall for a first space; a second plate configured to define at least a portion of a wall for a second space having a temperature different from that of the first space; a seal configured to seal the first plate and the second plate so as to provide a third space that has a temperature between a temperature of the first space and a temperature of the second space and is in a vacuum state; a support configured to maintain the third space ; a conductive resistance sheet configured to reduce a heat transfer amount between the first plate and the second plate ; an exhaust port configured to discharge a gas in the third space ; a mullion configured to divide the first space into two spaces; and a connection pipe supported on the mullion so as to be fixed in position, the connection pipe being configured to connect the two space to each other; characterized in that : the vacuum adiabatic body further comprises a mullion seating frame coupled to the first plate and configured to support the mullion , and wherein the connection pipe has a groove with which the mullion seating frame is hooked. a first plate configured to define at least a portion of a wall for a first space; a second plate configured to define at least a portion of a wall for a second space having a temperature different from that of the first space; a seal configured to seal the first plate and the second plate so as to provide a third space that has a temperature between a temperature of the first space and a temperature of the second space and is in a vacuum state; a support configured to maintain the third space ; a conductive resistance sheet configured to reduce a heat transfer amount between the first plate and the second plate ; an exhaust port configured to discharge a gas in the third space ; a mullion configured to divide the first space into two spaces; and a connection pipe supported on the mullion so as to be fixed in position, the connection pipe being configured to connect the two space to each other;
A case hardening steel comprising a chemical composition containing, in mass%, C: 0.15 % or more and 0.30 % or less, Si: 0.80 % or more and 2.00 % or less, Mn: 0.20 % or more and 0.80 % or less, P: 0.003 % or more and 0.030 % or less, S: 0.005 % or more and 0.050 % or less, Cr: 1.00 % or more and less than 1.80 %, Mo: 0.03 % or more and 0.30 % or less, Al: 0.020 % or more and 0.060 % or less, N: 0.0060 % or more and 0.0300 % or less, and O: 0.0003 % or more and 0.0025 % or less within a range in which the following Expression and Expression are satisfied, optionally further containing, in mass%, one or more selected from the group consisting of Nb: 0.050 % or less, Ti: less than 0.025 %, Sb: 0.035 % or less, Cu: 1.0 % or less, Ni: 1.0 % or less, V: 0.050 % or less, Ca: 0.0050 % or less, Sn: 0.50 % or less, Se: 0.30 % or less, Ta: 0.10 % or less, and Hf: 0.10 % or less, with the balance being Fe and inevitable impurities, wherein the following Expression is satisfied: % Si + % Mn + % Cr + % Mo / 3 ≥ 1.5 180 − 45 % Mn − 14 % Cr − 51 % Mo + 5 % Si ≥ 125 √ I ≤ 80 where [%M] denotes a content of M element in mass%, and I denotes an area, in μm 2 , of an oxide-based inclusion located in a fish eye central portion at a fracture surface after subjecting the case hardening steel to carburizing-quenching and tempering and then performing a rotating bending fatigue test as defined in the description.
A host cell or cell population that contains a vector or expression cassette comprising a regulatory region, wherein said regulatory region comprises an EFS promoter; and wherein said regulatory region regulates the expression of an ADA transgene operably linked to said regulatory region, for use in treating ADA-SCID in a human patient.