mhurhangee/ep-ind-claims huggingface dataset:
A structure comprising a room, said room comprising a ceiling, a floor and opposed side walls and defining an airspace, and an air moving device positioned within said room mounted to the ceiling, said air moving device being without a vertical tube that extends substantially from the ceiling to the floor and comprising: a housing having an air inlet at a first end and an air outlet at a second end spaced from said first end with an air flow passage between said first and second ends, a rotary fan mounted in said housing near said air inlet and having an impeller with a plurality of blades that produce an air flow with rotary and axial air flow components, and a plurality of spaced, axially extending air guide vanes located downstream of said rotary fan in said housing between said impeller and said air outlet for converting said rotary component of said air flow into combined laminar and axial air flow in said housing, said vanes being spaced from said impeller with a gap having a selected size which is less than one half of the diameter of the impeller, said gap size being selected to be no greater than a selected maximum dimension to avoid generation of turbulence and reduce static back pressure in said air flow, whereby said air flow exits said air outlet in an axial stream extending beyond said air outlet in a columnar pattern with minimal lateral dispersion, and said air moving device arranged in use to pull in warm air from near said ceiling, wherein the warm air exits the air moving device in a column that extends to the floor to push colder air toward the opposed side walls and upward towards the ceiling. a housing having an air inlet at a first end and an air outlet at a second end spaced from said first end with an air flow passage between said first and second ends, a rotary fan mounted in said housing near said air inlet and having an impeller with a plurality of blades that produce an air flow with rotary and axial air flow components, and a plurality of spaced, axially extending air guide vanes located downstream of said rotary fan in said housing between said impeller and said air outlet for converting said rotary component of said air flow into combined laminar and axial air flow in said housing, said vanes being spaced from said impeller with a gap having a selected size which is less than one half of the diameter of the impeller, said gap size being selected to be no greater than a selected maximum dimension to avoid generation of turbulence and reduce static back pressure in said air flow, whereby said air flow exits said air outlet in an axial stream extending beyond said air outlet in a columnar pattern with minimal lateral dispersion, and said air moving device arranged in use to pull in warm air from near said ceiling, wherein the warm air exits the air moving device in a column that extends to the floor to push colder air toward the opposed side walls and upward towards the ceiling.
A terminal device configured to communicate with a base station device, comprising: a higher layer processing unit configured to perform management related to radio resource control based on a setting notified from the base station, the setting including one or more shortened PDCCH settings; and a receiving unit configured to monitor a shortened PDCCH transmitted in an extended sub frame of a smaller number of symbols than a number of symbols corresponding to a sub frame and a resource block configured by the one or more shortened PDCCH settings, wherein the shortened PDCCH is transmitted through one or more control channel elements each constituted by a plurality of resource element groups, characterized in that a plurality of resource block pairs is configured by the one or more shortened PDCCH settings and in that a number of resource element groups constituted in each of the plurality of resource block pairs is equal to a number of symbols in the respective resource block pair of the plurality of resource block pairs. a higher layer processing unit configured to perform management related to radio resource control based on a setting notified from the base station, the setting including one or more shortened PDCCH settings; and a receiving unit configured to monitor a shortened PDCCH transmitted in an extended sub frame of a smaller number of symbols than a number of symbols corresponding to a sub frame and a resource block configured by the one or more shortened PDCCH settings, wherein the shortened PDCCH is transmitted through one or more control channel elements each constituted by a plurality of resource element groups, characterized in that a plurality of resource block pairs is configured by the one or more shortened PDCCH settings and in that a number of resource element groups constituted in each of the plurality of resource block pairs is equal to a number of symbols in the respective resource block pair of the plurality of resource block pairs.
Method for aligning a metal sheet while feeding the metal sheet to a machining station, in particular to a punch press, wherein the feeding takes place in a first direction (Y axis) of two orthogonal directions (X axis and Y axis), wherein in a first alignment step the alignment of the metal sheet takes place in the first direction (Y axis) and in a second step the alignment takes place in the second direction (X axis), in order to achieve a predetermined alignment position of the metal sheet, and wherein the metal sheet is gripped for feeding by a gripping arrangement and moved to the machining station and introduced into the machining station and is additionally moved back and forth in the machining station in the second direction for producing the desired machining image, in particular punching image, wherein the alignment of the metal sheet in the second direction (X axis) is effected by the following steps: - determination of the position of the metal sheet in the second direction (X axis) by a sensor means; - detection of the deviation of the metal sheet from its predetermined alignment position in the second direction by evaluating the sensor signal with a control unit; and - correction of the deviation of the alignment position from the predetermined alignment position in the second direction (X axis) after gripping of the metal sheet by means of the gripping arrangement, in that the gripping arrangement, controlled by the control unit, carries out the movement of the metal sheet into the predetermined alignment position in the second direction, in particular combined with the feed movement of the metal sheet to the machining station, characterized in that, before gripping the sheet, the position of the gripping arrangement is adapted to the detected position of the sheet deviating in the second direction by displacing the gripping arrangement correspondingly in the second direction in order to effect the gripping of the sheet at the position intended for this purpose. - determination of the position of the metal sheet in the second direction (X axis) by a sensor means; - detection of the deviation of the metal sheet from its predetermined alignment position in the second direction by evaluating the sensor signal with a control unit; and - correction of the deviation of the alignment position from the predetermined alignment position in the second direction (X axis) after gripping of the metal sheet by means of the gripping arrangement, in that the gripping arrangement, controlled by the control unit, carries out the movement of the metal sheet into the predetermined alignment position in the second direction, in particular combined with the feed movement of the metal sheet to the machining station, characterized in that, before gripping the sheet, the position of the gripping arrangement is adapted to the detected position of the sheet deviating in the second direction by displacing the gripping arrangement correspondingly in the second direction in order to effect the gripping of the sheet at the position intended for this purpose.
A method of production of grain-oriented electrical steel sheet comprising heating a silicon steel material containing, by mass%, Si: 0.8 to 7%, C: 0.085% or less, acid soluble Al: 0.01 to 0.065%, and N: 0.012% or less, and optionally one or more of Mn: 1% or less, Cr: 0.3% or less, Cu: 0.4% or less, P: 0.5% or less, Sn: 0.3% or less, Sb: 0.3% or less, Ni: 1% or less, and S and Se in a total of 0.015% or less, and a balance consisting of Fe and unavoidable impurities at a temperature of 1280°C or less, then hot rolling it, annealing the obtained hot rolled sheet, then cold rolling it once or cold rolling it several times with intermediate annealing to obtain steel sheet of the final sheet thickness, decarburization annealing this steel sheet, then coating an annealing separator, applying final annealing, and applying treatment to increase an amount of nitrogen of the steel sheet from the decarburization annealing to the start of secondary recrystallization in the final annealing, characterized by performing the annealing of the hot rolled sheet by heating the sheet up to a predetermined temperature of 1000 to 1150°C to cause recrystallization, then annealing it by a temperature of 850 to 1100°C lower than that temperature to thereby control a lamellar spacing in the grain structure after annealing to 20 μm or more and by performing only an induction heating in the temperature elevation process in the decarburization annealing of the steel sheet by a rate of 40°C/s or more in the temperature range of a steel sheet temperature of 550°C to 720°C.
An oral pharmaceutical composition comprising: a) a pharmaceutically acceptable surface-modified acidic medicinal auxiliary material, wherein the pharmaceutically acceptable surface-modified acidic auxiliary material is a powder and comprises an acidic medicinal auxiliary material and a neutral salt layer on a surface of the acidic medicinal auxiliary material, wherein the neutral salt layer comprises an anion of the acidic medicinal auxiliary material and a cation of an alkaline substance for modification, wherein the acidic medicinal auxiliary material is tartaric acid, fumaric acid, succinic acid, citric acid, lactic acid, or malic acid, and wherein the alkaline substance for modification is a hydroxide salt, water-soluble alkaline carbonate or water-soluble alkaline phosphate; and b) ethyl 3-[(2-{4-(hexyloxycarbonylamino-imino-methyl)-phenylamino]-methyl}-1-methyl-1H-benzimidazole-5-carbonyl)-pyridin-2-yl-amino]-propionate that is also called as dabigatran etexilate, or a pharmaceutically acceptable salt or hydrate thereof. a) a pharmaceutically acceptable surface-modified acidic medicinal auxiliary material, wherein the pharmaceutically acceptable surface-modified acidic auxiliary material is a powder and comprises an acidic medicinal auxiliary material and a neutral salt layer on a surface of the acidic medicinal auxiliary material, wherein the neutral salt layer comprises an anion of the acidic medicinal auxiliary material and a cation of an alkaline substance for modification, wherein the acidic medicinal auxiliary material is tartaric acid, fumaric acid, succinic acid, citric acid, lactic acid, or malic acid, and wherein the alkaline substance for modification is a hydroxide salt, water-soluble alkaline carbonate or water-soluble alkaline phosphate; and wherein the neutral salt layer comprises an anion of the acidic medicinal auxiliary material and a cation of an alkaline substance for modification, wherein the acidic medicinal auxiliary material is tartaric acid, fumaric acid, succinic acid, citric acid, lactic acid, or malic acid, and wherein the alkaline substance for modification is a hydroxide salt, water-soluble alkaline carbonate or water-soluble alkaline phosphate; and b) ethyl 3-[(2-{4-(hexyloxycarbonylamino-imino-methyl)-phenylamino]-methyl}-1-methyl-1H-benzimidazole-5-carbonyl)-pyridin-2-yl-amino]-propionate that is also called as dabigatran etexilate, or a pharmaceutically acceptable salt or hydrate thereof.
A method for bending a first substrate with and a second substrate at mutually facing contact faces of the substrates (4o, 4u) with the following steps, in particular the following sequence: - mounting the first substrate on a first mounting surface (1s, 1s′, 1sʺ 1s′′′) of a first mounting device (1, 1′, 1ʺ, 1′′′, 1 lV, 1 V, 1 Vl) and mounting the first second substrate on a second mounting surface (1s 1s′, 1sʺ, 1s′′′) of a second mounting device (1, 1′, 1ʺ, 1′′′, 1 IV, 1 V, 1 VI), - curving of the contact faces before contact is made between the contact faces, characterised in that a change in curvature of the contact face of the first substrate and/or a change in curvature of the contact face of the second substrate is controlled during the course of a bonding wave. - mounting the first substrate on a first mounting surface (1s, 1s′, 1sʺ 1s′′′) of a first mounting device (1, 1′, 1ʺ, 1′′′, 1 lV, 1 V, 1 Vl) and mounting the first second substrate on a second mounting surface (1s 1s′, 1sʺ, 1s′′′) of a second mounting device (1, 1′, 1ʺ, 1′′′, 1 IV, 1 V, 1 VI), - curving of the contact faces before contact is made between the contact faces,
A device deliverable via a transcatheter delivery catheter to a heart valve and attacheable to native tissues of the heart valve for therapy of the heart valve, said device comprising; A. a support frame (200, 15) having a support frame perimeter, said support frame (200, 15) having a plurality of barbs attached thereto along said support frame perimeter, said support frame (200, 15) having a torus balloon attached thereto along said support frame perimeter, B. said support frame (200, 15) being expandable from an unexpanded configuration to an expanded configuration having an expanded support frame perimeter, C. said support frame (200, 15) attacheable upstream to native valve leaflets of the heart valve in said expanded configuration, D. said plurality of barbs having a plurality of barb tips having an inactive configuration with said plurality of barb tips located on an inside luminal region of said support frame (200, 15), said plurality of barb tips having an active configuration with said plurality of barb tips located on an outside region of said support frame (200, 15), E. said torus balloon having an uninflated configuration and an inflated configuration, said torus balloon having an outer balloon perimeter able to provide an outward force in said inflated configuration onto said plurality of barbs thereby extending said plurality of barb tips into said active configuration, F. said support frame (200, 15) having said expanded configuration while said torus balloon is in said inflated configuration and said barb tips are in an active configuration, said plurality of barb tips able to extend into the native tissues of the heart valve. A. a support frame (200, 15) having a support frame perimeter, said support frame (200, 15) having a plurality of barbs attached thereto along said support frame perimeter, said support frame (200, 15) having a torus balloon attached thereto along said support frame perimeter, B. said support frame (200, 15) being expandable from an unexpanded configuration to an expanded configuration having an expanded support frame perimeter, C. said support frame (200, 15) attacheable upstream to native valve leaflets of the heart valve in said expanded configuration, D. said plurality of barbs having a plurality of barb tips having an inactive configuration with said plurality of barb tips located on an inside luminal region of said support frame (200, 15), said plurality of barb tips having an active configuration with said plurality of barb tips located on an outside region of said support frame (200, 15), E. said torus balloon having an uninflated configuration and an inflated configuration, said torus balloon having an outer balloon perimeter able to provide an outward force in said inflated configuration onto said plurality of barbs thereby extending said plurality of barb tips into said active configuration, F. said support frame (200, 15) having said expanded configuration while said torus balloon is in said inflated configuration and said barb tips are in an active configuration, said plurality of barb tips able to extend into the native tissues of the heart valve.
A composition comprising, in a cosmetically acceptable carrier: (a) at least one crosslinked anionic copolymer comprising organic polymer blocks and silicone blocks. (b) at least one nonionic film forming polymer; (c) at least one amphoteric film forming polymer; and (d) at least one neutralizer. (a) at least one crosslinked anionic copolymer comprising organic polymer blocks and silicone blocks. (b) at least one nonionic film forming polymer; (c) at least one amphoteric film forming polymer; and (d) at least one neutralizer.
A stator member (50, 60, 70), for disposing inside a casing having an inlet port and an outlet port, and, when disposed inside said casing, for facing a rotating body (8, 9, 10) provided in a gas transfer mechanism (7, 8, 9, 10, 50, 60, 70) that is disposed on a rotating shaft and transfers gas from the inlet port to the outlet port, and moreover which is subjected to a surface treatment, producing high thermal emissivity, in at least a part thereof, characterized in that the stator member (70,60,50)is not subjected to the surface treatment on a contact surface of the stator member (70,60,50) that, when disposed inside said casing, will be in contact with at least one of other members.
A method for identifying plants having reduced expression or lacking expression of a PPO11 gene comprising: a) screening a plurality of plants, obtained by random mutagenesis, for expression of a PPO11 gene having SEQ ID NO: 9, in which expression is positively correlated with browning or reduced shelf life of a processed product of the plant; b) selecting one or more screened plants comprising decreased expression of the PPO11 gene relative to expression of the PPO11 gene in a parent plant, or an otherwise isogenic plant, and which displays reduced browning or increased shelf life. a) screening a plurality of plants, obtained by random mutagenesis, for expression of a PPO11 gene having SEQ ID NO: 9, in which expression is positively correlated with browning or reduced shelf life of a processed product of the plant; b) selecting one or more screened plants comprising decreased expression of the PPO11 gene relative to expression of the PPO11 gene in a parent plant, or an otherwise isogenic plant, and which displays reduced browning or increased shelf life.
A method for calibrating a pipelined analog-to-digital converter ADC, comprising: injecting a randomly determined amount of dither into one of a flash component and a multiplying digital-to-analog converter MDAC in at least one stage in the ADC; and for each stage (100, 110, 120) of the at least one stage: performing a correlation procedure to estimate, based on an output of the ADC, an amount of gain experienced by the injected dither after propagating through the stage; and calibrating the stage based on its respective gain estimate; and wherein each value of the dither is randomly selected from a plurality of discrete values contained within a predefined range, and wherein the plurality of discrete values has an odd number of equally spaced apart values, and the magnitude of each value of the dither is a proper fraction of the full-scale value of the ADC and the denominator of the proper fraction is an odd number, wherein the injected dither effectively dithers the linearity errors in all back-end stages of the ADC and propagates down the pipelined ADC and wherein in the presence of inter-stage gain errors, for an input signal injected into the pipelined ADC for analog-to-digital conversion, the injection of the said dither enables different values of the input signal to map to different integral non-linearity values in each stage of the ADC. injecting a randomly determined amount of dither into one of a flash component and a multiplying digital-to-analog converter MDAC in at least one stage in the ADC; and for each stage (100, 110, 120) of the at least one stage: performing a correlation procedure to estimate, based on an output of the ADC, an amount of gain experienced by the injected dither after propagating through the stage; and calibrating the stage based on its respective gain estimate; and performing a correlation procedure to estimate, based on an output of the ADC, an amount of gain experienced by the injected dither after propagating through the stage; and calibrating the stage based on its respective gain estimate; and wherein each value of the dither is randomly selected from a plurality of discrete values contained within a predefined range, and wherein the plurality of discrete values has an odd number of equally spaced apart values, and the magnitude of each value of the dither is a proper fraction of the full-scale value of the ADC and the denominator of the proper fraction is an odd number, wherein the injected dither effectively dithers the linearity errors in all back-end stages of the ADC and propagates down the pipelined ADC and wherein in the presence of inter-stage gain errors, for an input signal injected into the pipelined ADC for analog-to-digital conversion, the injection of the said dither enables different values of the input signal to map to different integral non-linearity values in each stage of the ADC.
Method for controlling a gas turbine, said method comprising the following steps: - measuring a state variable of a combustion within the gas turbine in a measuring step; - predicting a future combustion dynamic by means of the measured state variable in a predicting step; and - emitting a control signal by means of the prediction of the future combustion dynamic in a controlling step, characterized in that a basic state process, a noise process and a peak process are taken into account in the predicting step so as to predict the future combustion dynamic; wherein the basic state process is a process which leads to a slow variation of the combustion dynamic over several seconds or over several 10 seconds; wherein the noise process includes a superimposition of the basic state process with statistical noise on a significantly smaller time scale; and wherein the peak process represents an additional, very high acceleration within the combustion dynamic that arises on a very short time scale. - measuring a state variable of a combustion within the gas turbine in a measuring step; - predicting a future combustion dynamic by means of the measured state variable in a predicting step; and - emitting a control signal by means of the prediction of the future combustion dynamic in a controlling step, a basic state process, a noise process and a peak process are taken into account in the predicting step so as to predict the future combustion dynamic; wherein the basic state process is a process which leads to a slow variation of the combustion dynamic over several seconds or over several 10 seconds; wherein the noise process includes a superimposition of the basic state process with statistical noise on a significantly smaller time scale; and wherein the peak process represents an additional, very high acceleration within the combustion dynamic that arises on a very short time scale.
False ceiling consisting of individual, rectangular or square cover plates (1, 2) laid like a grid which is attachable without a tool to a bare ceiling or a further supporting structure and respectively locking hooks (3, 4, 23) are arranged on the one side of the attachment plane and are lockable using locking plates arranged on the opposite attachment plane, wherein in the locking plate, a clamped, resilient supporting rod is attached which engages over a plate-side locking slot and forms a load-bearing connection with the locking hook (3, 4, 23) which is insertable through the locking slot, characterised in that the supporting rod is clamped on one side and engages over the locking slot using its free resilient end and is movable to the side in a horizontal plane.