mhurhangee/patent-ind-claim-en huggingface dataset:
A method for drying wood in a drying compartment, comprising providing a flow of air over the wood in the drying compartment, measuring parameters related to temperature and humidity in the flow of air, which parameters comprise a dry-bulb temperature and a wet-bulb temperature, iteratively calculating expected values of the parameters related to temperature and humidity in the flow of air based on an estimate of the humidity of the wood and the air flow speed over the wood, comparing the measured parameters related to temperature and humidity with the expected parameters related to temperature and humidity, iteratively adjusting the estimated humidity of the wood in the calculation, providing a converging estimated humidity of the wood as an indication on the actual humidity in the wood, and the drying is discontinued when the indicated humidity of the wood reaches a predetermined threshold.
A switching device for a vehicle, in particular for a rail vehicle, the switching device comprising: - an enclosure , - a switching device positioned in the enclosure , - a control device of the switching device , the control device being positioned in the enclosure , and - an air renewal device (18; 118; 218) configured to renew at least some of the air in the enclosure , characterized in that the air renewal device (18; 118; 218) is further arranged to cool electronic components of the control device . - an enclosure , - a switching device positioned in the enclosure , - a control device of the switching device , the control device being positioned in the enclosure , and - an air renewal device (18; 118; 218) configured to renew at least some of the air in the enclosure ,
An aqueous pre-treatment liquid for use in ink jet printing, the pre-treatment liquid comprising: a. water; b. magnesium-sulfate; and c. a crystallization retarding agent selected from the group consisting of: β-alanine, proline and γ-aminobutyric acid. a. water; b. magnesium-sulfate; and c. a crystallization retarding agent selected from the group consisting of: β-alanine, proline and γ-aminobutyric acid.
A turbine bucket for a gas turbine engine , the turbine bucket comprising: a pressure side ; a suction side opposite the pressure side ; and, a bucket squealer tip attached to the pressure side and the suction side comprising a plurality of high hot hardness shroud-cutting deposits deposited on an exterior surface of the bucket squealer tip , wherein the plurality of high hot hardness shroud-cutting deposits have a hardness of at least about 1100 kg mm -2 and a melting temperature of at least about 1500 °C, wherein the plurality of high hot hardness shroud-cutting deposits are selected from the group consisting of CrN, Cr 3 C 2 , HfN, HfC, WC, Al 2 O 3 , SiC, BN, B 4 C and diamond carbon, and, wherein at least a first high hot hardness shroud cutting deposit comprises a first composition and at least a second high hot hardness shroud cutting deposit comprises a second composition different than the first composition, wherein the high hot hardness shroud-cutting deposits comprise a plurality of hard particles mixed with one or more braze filler metals wherein the plurality of hard particles deposits comprise both cubic BN and Al 2 O 3 at a ratio from about 50:50 to about 20:80. a pressure side ; a suction side opposite the pressure side ; and, a bucket squealer tip attached to the pressure side and the suction side comprising a plurality of high hot hardness shroud-cutting deposits deposited on an exterior surface of the bucket squealer tip , wherein the plurality of high hot hardness shroud-cutting deposits have a hardness of at least about 1100 kg mm -2 and a melting temperature of at least about 1500 °C, wherein the plurality of high hot hardness shroud-cutting deposits are selected from the group consisting of CrN, Cr 3 C 2 , HfN, HfC, WC, Al 2 O 3 , SiC, BN, B 4 C and diamond carbon, and, wherein at least a first high hot hardness shroud cutting deposit comprises a first composition and at least a second high hot hardness shroud cutting deposit comprises a second composition different than the first composition, wherein the high hot hardness shroud-cutting deposits comprise a plurality of hard particles mixed with one or more braze filler metals wherein the plurality of hard particles deposits comprise both cubic BN and Al 2 O 3 at a ratio from about 50:50 to about 20:80.
A method of enabling the drag and drop of a first object onto one of a plurality of second objects in a graphical user interface (GUI), each object being characterized by a respective size, the method comprising: - receiving a drag input on the first object, - determining one or more potential second objects onto which the first object is likely to be dropped using at least the received drag input, - altering the size of the first object based on the respective height and/or width of the determined one or more potential second objects and on the respective distance of the determined one or more potential second objects to the current position of the first object, - updating the GUI based on the drag input and the first object's altered size. - receiving a drag input on the first object, - determining one or more potential second objects onto which the first object is likely to be dropped using at least the received drag input, - altering the size of the first object based on the respective height and/or width of the determined one or more potential second objects and on the respective distance of the determined one or more potential second objects to the current position of the first object, - updating the GUI based on the drag input and the first object's altered size.
A method of blunting sharp edges of glass objects, comprising treating the glass edge with a focused laser beam, while relatively moving the glass object and/or the beam, wherein said treating comprises heating the glass edge with the laser beam to a temperature above glass transition temperature, T > Tg, characterized in that said treating of the glass edge is carried out with the laser beam having a ring-shaped section.
A nanoparticle comprising: an iron-based core, wherein the iron-based core comprises at least one of α"-Fe 16 N 2 and α'-Fe(Co)N; and characterised by a manganese nitride shell .
A mounting inspection device , comprising: missing component inspection means for performing missing component inspection of components (P) mounted on a printed circuit board (S); and foreign object inspection means for performing foreign object inspection in which foreign objects on a printed circuit board (S) are inspected with regard to a printed circuit board (S) on which a missing component (P) is detected, based on results of the missing component inspection carried out by the missing component inspection means , characterized in that the foreign object inspection means is configured to acquire missing component position information which is information relating to a position in which the missing component (P) is detected in the printed circuit board (S), and is configured to perform the foreign object inspection by starting on a periphery of the position which is specified by the missing component position information in the printed circuit board (S). missing component inspection means for performing missing component inspection of components (P) mounted on a printed circuit board (S); and foreign object inspection means for performing foreign object inspection in which foreign objects on a printed circuit board (S) are inspected with regard to a printed circuit board (S) on which a missing component (P) is detected, based on results of the missing component inspection carried out by the missing component inspection means , characterized in that the foreign object inspection means is configured to acquire missing component position information which is information relating to a position in which the missing component (P) is detected in the printed circuit board (S), and is configured to perform the foreign object inspection by starting on a periphery of the position which is specified by the missing component position information in the printed circuit board (S).
Device for securing loads on a loading area with at last one planar securing means which is built up of plastic belts crossing each other, wherein at the respective crossing points the plastic belts are adhesively connected to each other, characterised in that the plastic belts are ultrasonically welded to each other at the respective crossing point by means of a sonotrode and - for this purpose the sonotrode is applied as a stamp or in a stamp-like manner in each case from one side or from both sides to the plastic belt at the crossing point and with its direct contact ensures that through the introduce ultrasonic vibrations the plastic belt is caused to melt in the area of the crossing point . - for this purpose the sonotrode is applied as a stamp or in a stamp-like manner in each case from one side or from both sides to the plastic belt at the crossing point and with its direct contact ensures that through the introduce ultrasonic vibrations the plastic belt is caused to melt in the area of the crossing point .
A combined cycle power generation system for an aircraft comprising: a fuel cell cycle comprising: a first compressor disposed on a first shaft ; a first turbine disposed on the first shaft; a fuel cell in fluid communication with the first compressor and a fuel source , the fuel cell being configured to receive first compressed fluid from the first compressor and fuel from the fuel source; and a combustor in fluid communication with the fuel cell and the first turbine, the combustor being configured to combust partially spent fuel from the fuel cell and produce combustion exhaust gas for delivery to the turbine; a supercritical CO 2 cycle comprising: a second compressor disposed on a second shaft ; shaft, a second turbine disposed on the second shaft; a supercritical CO 2 fluid circuit in thermal communication with the combustor and configured to deliver CO 2 to the second turbine and the second compressor; and a first heat exchanger in thermal communication with the supercritical CO 2 fluid circuit and a source of cooling fluid; and a mechanical linkage configured to transfer power from the second shaft to the first shaft. a fuel cell cycle comprising: a first compressor disposed on a first shaft ; a first turbine disposed on the first shaft; a fuel cell in fluid communication with the first compressor and a fuel source , the fuel cell being configured to receive first compressed fluid from the first compressor and fuel from the fuel source; and a combustor in fluid communication with the fuel cell and the first turbine, the combustor being configured to combust partially spent fuel from the fuel cell and produce combustion exhaust gas for delivery to the turbine; a first compressor disposed on a first shaft ; a first turbine disposed on the first shaft; a fuel cell in fluid communication with the first compressor and a fuel source , the fuel cell being configured to receive first compressed fluid from the first compressor and fuel from the fuel source; and a combustor in fluid communication with the fuel cell and the first turbine, the combustor being configured to combust partially spent fuel from the fuel cell and produce combustion exhaust gas for delivery to the turbine; a supercritical CO 2 cycle comprising: a second compressor disposed on a second shaft ; shaft, a second turbine disposed on the second shaft; a supercritical CO 2 fluid circuit in thermal communication with the combustor and configured to deliver CO 2 to the second turbine and the second compressor; and a first heat exchanger in thermal communication with the supercritical CO 2 fluid circuit and a source of cooling fluid; and a second compressor disposed on a second shaft ; shaft, a second turbine disposed on the second shaft; a supercritical CO 2 fluid circuit in thermal communication with the combustor and configured to deliver CO 2 to the second turbine and the second compressor; and a first heat exchanger in thermal communication with the supercritical CO 2 fluid circuit and a source of cooling fluid; and a mechanical linkage configured to transfer power from the second shaft to the first shaft.
A network structure having a three-dimensional random loop bonded structure composed of a thermoplastic elastomer continuous linear body having a fiber diameter of not less than 0.1 mm and not more than 3.0 mm, wherein the thermoplastic elastomer continuous linear body is complexed with a thermoplastic elastomer including a polyester-based thermoplastic elastomer and a polystyrene-based thermoplastic elastomer, wherein the polyester-based thermoplastic elastomer has a melting point of lower than 200°C and a Shore D hardness of not more than 40, wherein a volume ratio of the polyester-based thermoplastic elastomer to the polystyrene-based thermoplastic elastomer is 90/10 to 10/90, wherein a complexed structure of the thermoplastic elastomer continuous linear body is a sheath-core structure in which 100% of the surface of the linear body is occupied by the polyester-based thermoplastic elastomer, and wherein the network structure has a 70°C compressive residual strain of not more than 35% and a rebound resilience of not more than 10%, as measured in accordance with the method specified in the description, respectively. wherein the thermoplastic elastomer continuous linear body is complexed with a thermoplastic elastomer including a polyester-based thermoplastic elastomer and a polystyrene-based thermoplastic elastomer, wherein the polyester-based thermoplastic elastomer has a melting point of lower than 200°C and a Shore D hardness of not more than 40, wherein a volume ratio of the polyester-based thermoplastic elastomer to the polystyrene-based thermoplastic elastomer is 90/10 to 10/90, wherein a complexed structure of the thermoplastic elastomer continuous linear body is a sheath-core structure in which 100% of the surface of the linear body is occupied by the polyester-based thermoplastic elastomer, and wherein the network structure has a 70°C compressive residual strain of not more than 35% and a rebound resilience of not more than 10%, as measured in accordance with the method specified in the description, respectively.
A Mg-based alloy wrought material comprising Mg-A mol% Bi-B mol% Z wherein a remainder comprises Mg and unavoidable impurities, wherein Z is at least one kind of element from Al, Ca, Li and Y, wherein a value of A is at least 0.03 mol% and not exceeding 1 mol%, wherein, with respect to a relationship of A and B, A≥B and an upper limit of B is not exceeding 1.0 times as large as an upper limit of A and a lower limit of B is at least 0.03 mol%, and wherein an average crystal grain size of the Mg-based alloy wrought material is not exceeding 20 micrometer, and wherein intermetallic compound particles having an average diameter of not exceeding 0.5 micrometer exist in Mg parent phase or crystal grain boundaries of a metallographic structure of the Mg-based alloy wrought material. wherein Z is at least one kind of element from Al, Ca, Li and Y, wherein a value of A is at least 0.03 mol% and not exceeding 1 mol%, wherein, with respect to a relationship of A and B, A≥B and an upper limit of B is not exceeding 1.0 times as large as an upper limit of A and a lower limit of B is at least 0.03 mol%, and wherein an average crystal grain size of the Mg-based alloy wrought material is not exceeding 20 micrometer, and wherein intermetallic compound particles having an average diameter of not exceeding 0.5 micrometer exist in Mg parent phase or crystal grain boundaries of a metallographic structure of the Mg-based alloy wrought material.
A wearable sensor apparatus comprising: a motion sensor configured to sense two or three dimensional movement and orientation of the sensor; a vibration sensor configured to sense acoustic vibrations, the vibration sensor comprising an acoustic pressure sensor; means for attaching the motion sensor and the vibration sensor to a body; and a classification processor configured to receive the sensed two- or three-dimensional movement and orientation motion signals from the motion sensor and to receive mechanomyographic muscle signals from the vibration sensor, and to classify a pattern of movement, or a posture of, at least one part of a body on which the wearable sensor apparatus is attached, based on said motion signals, and to use both the motion signals and the mechanomyographic muscle signals to determine simultaneous patterns of movement, or postures of, multiple articulating parts of the body on which the wearable sensor apparatus is attached. a motion sensor configured to sense two or three dimensional movement and orientation of the sensor; a vibration sensor configured to sense acoustic vibrations, the vibration sensor comprising an acoustic pressure sensor; means for attaching the motion sensor and the vibration sensor to a body; and a classification processor configured to receive the sensed two- or three-dimensional movement and orientation motion signals from the motion sensor and to receive mechanomyographic muscle signals from the vibration sensor, and to classify a pattern of movement, or a posture of, at least one part of a body on which the wearable sensor apparatus is attached, based on said motion signals, and to use both the motion signals and the mechanomyographic muscle signals to determine simultaneous patterns of movement, or postures of, multiple articulating parts of the body on which the wearable sensor apparatus is attached.
Device for heating a railway vehicle carriage, said carriage comprising at least one toilet cubicle , the heating device comprising: - a heating unit , capable of operating in an open-loop operating mode and in a closed- or pseudo-closed-loop preconditioning mode, and - a unit for controlling the heating unit , capable of controlling the activation of the heating unit in the operating mode or in the preconditioning mode, characterised in that it comprises a hot-air hand dryer which is to be arranged in the toilet cubicle , the hand dryer being connected to the control unit so that the control unit is capable of controlling the continuous operation of the hand dryer conjointly with controlling the activation of the heating unit in the preconditioning mode. - a heating unit , capable of operating in an open-loop operating mode and in a closed- or pseudo-closed-loop preconditioning mode, and - a unit for controlling the heating unit , capable of controlling the activation of the heating unit in the operating mode or in the preconditioning mode,
A hyperstable liposome comprising an inner milieu separated from an external environment by a membrane, the inner milieu comprising an anti-mitotic drug, two anions and one or more cations entrapped in the inner milieu, wherein the anti-mitotic drug is a polo-like kinase inhibitor, a kinesin spindle inhibitor or an aurora kinase inhibitor, wherein the membrane comprises l,2-distearoyl-sn-glycerol-3-phosphoethanolamine-N-[methoxy (polyethylene glycol)- 2000] (DSPE-PEG2000), hydrogenated egg L-α-phosphatidyl-choline(HEPC) and cholesterol (Chol), wherein the molar ratio of HEPC:Chol:DSPE-PEG2000 is 50:45:5, wherein the two anions are citrate and phosphate, citrate and acetate or acetate and phosphate in a ratio of about 1:3 to about 1:7 and wherein the entrapped anti-mitotic drug is released at a slow rate that is less than 0.6% in 12 hours or less than 5% in 8 days when the liposome is suspended in 600 mM sucrose. wherein the anti-mitotic drug is a polo-like kinase inhibitor, a kinesin spindle inhibitor or an aurora kinase inhibitor, wherein the membrane comprises l,2-distearoyl-sn-glycerol-3-phosphoethanolamine-N-[methoxy (polyethylene glycol)- 2000] (DSPE-PEG2000), hydrogenated egg L-α-phosphatidyl-choline(HEPC) and cholesterol (Chol), wherein the molar ratio of HEPC:Chol:DSPE-PEG2000 is 50:45:5, wherein the two anions are citrate and phosphate, citrate and acetate or acetate and phosphate in a ratio of about 1:3 to about 1:7 and wherein the entrapped anti-mitotic drug is released at a slow rate that is less than 0.6% in 12 hours or less than 5% in 8 days when the liposome is suspended in 600 mM sucrose.
Tank for containing a fluid, comprising a wall made of a plastic material and defining therein a tank chamber , and an assembly for drawing the fluid contained in the tank, said assembly being equipped with a second unit , or drawing unit, which comprises a duct having an inlet opening and an outlet opening located inside and outside the tank , respectively, wherein the drawing unit comprises an extension arranged inside the tank , said extension defining therein an intake chamber communicating with the outlet opening and communicating with the chamber of the tank through a filter , characterized in that said drawing unit comprises a ferrule for fixing the drawing unit to the wall of the tank , and wherein temperature, level and quality sensors for the liquid contained in the tank are further associated with the ferrule either directly or through a rod and in that said filter defines a corresponding interchangeable cartridge which has a cylindrical shape with a substantially toroidal development, provided with a filtering material pleated for increasing the filtering surface thereof and comprising a closed bottom , said ferrule being provided with a hole for housing said filter secured into said hole .
An in vitro method of generating lymphoblastoid cell line derived induced pluripotent stem cells, comprising: providing a quantity of lymphoblastoid cell line cells (LCLs); delivering a quantity of reprogramming factors into the LCLs, wherein the reprogramming factors comprise short hairpin RNAs targeting p53 ("shRNA-p53"); culturing the LCLs in a reprogramming media for at least 7 days, wherein the reprogramming media comprises small chemical induction molecules PD0325901, CHIR99021, HA-100, and A-83-01; and further culturing the LCLs in an induction media for at least 10 days, wherein delivering the reprogramming factors, culturing and further culturing generates lymphoblastoid cell line derived induced pluripotent stem cells. providing a quantity of lymphoblastoid cell line cells (LCLs); delivering a quantity of reprogramming factors into the LCLs, wherein the reprogramming factors comprise short hairpin RNAs targeting p53 ("shRNA-p53"); culturing the LCLs in a reprogramming media for at least 7 days, wherein the reprogramming media comprises small chemical induction molecules PD0325901, CHIR99021, HA-100, and A-83-01; and further culturing the LCLs in an induction media for at least 10 days, wherein delivering the reprogramming factors, culturing and further culturing generates lymphoblastoid cell line derived induced pluripotent stem cells.