mhurhangee/ep-ind-claims huggingface dataset:
A lock for a door with a housing, in which a claw-latch bolt is accommodated to be movable in a direction of thrust such that the claw-latch bolt may be brought into a locking location, in which the latter protrudes from the housing, and such that the claw-latch bolt may be brought into an opening location, in which the latter is retracted into the housing, and wherein a blocking device is provided, by means of which the claw-latch bolt is blockable in the locking position, wherein the blocking device is formed by a toggle lever arrangement, which comprises a first lever element and a second lever element, wherein the lever elements (14, 15) are connected to each other via an articulated connection, characterized in that a slider element is provided, and is accommodated to be movable in the housing, wherein the second lever element is rotatable around a housing-fixed axis and configured for an operative connection with the slider element.
A printing system, comprising: a transport apparatus adapted to transport a flexible web of polymeric material along a process direction; first and second individually controllable ink jet imager units (30, 44) offset from one another along the process direction, wherein each of the first inkjet imager unit and the second ink jet imager unit includes a first portion operable to print on a first portion (24a, 24b) of the web of polymeric material and a second portion operable to print on the second portion (24b, 24a) of the web of polymeric material, wherein each of the first portion and second portion of the first and second ink jet imager units (30, 44) is stationary along the process direction and the lateral direction and wherein the first inkjet imager unit prints on the web of polymeric material at a first resolution and the second ink jet imager unit prints on the web of polymeric material at a second resolution; and a second closed-loop control system that controls registration between the first ink jet imager unit and the second ink jet imager unit; characterized by the second resolution being different from the first resolution; and a first closed-loop control system that is configured to control web handling and a distance of at least one of the first portion and the second portion of at least one of the first ink jet imager unit and the second ink jet imager unit from the web of polymeric material. a transport apparatus adapted to transport a flexible web of polymeric material along a process direction; first and second individually controllable ink jet imager units (30, 44) offset from one another along the process direction, wherein each of the first inkjet imager unit and the second ink jet imager unit includes a first portion operable to print on a first portion (24a, 24b) of the web of polymeric material and a second portion operable to print on the second portion (24b, 24a) of the web of polymeric material, wherein each of the first portion and second portion of the first and second ink jet imager units (30, 44) is stationary along the process direction and the lateral direction and wherein the first inkjet imager unit prints on the web of polymeric material at a first resolution and the second ink jet imager unit prints on the web of polymeric material at a second resolution; and a second closed-loop control system that controls registration between the first ink jet imager unit and the second ink jet imager unit; characterized by the second resolution being different from the first resolution; and a first closed-loop control system that is configured to control web handling and a distance of at least one of the first portion and the second portion of at least one of the first ink jet imager unit and the second ink jet imager unit from the web of polymeric material.
A soybean plant seed comprising: (a) (i) a soybean 7Sα' promoter linked to a fragment of the soybean FAD2-1 intron #1 of SEQ ID NO:1 which is reduced by 100 contiguous nucleotides from the 3' end, and which is ligated to (ii) a fragment of the soybean FAT-B gene of SEQ ID NO:28 that comprises 42 contiguous nucleotides of the 5' un-translated region and the chloroplast transit peptide coding region, and (iii) a CP4 EPSPS gene operably linked to an enhanced FMV promoter and a pea Rubisco E9 3' termination sequence; wherein the expression of both an endogenous soybean FAD2-1 and an endogenous soybean FATB gene are decreased; and (b) loss-of-function mutations in the endogenous soybean FAD3 genes of SEQ ID NO:61 and SEQ ID NO:62. (a) (i) a soybean 7Sα' promoter linked to a fragment of the soybean FAD2-1 intron #1 of SEQ ID NO:1 which is reduced by 100 contiguous nucleotides from the 3' end, and which is ligated to (ii) a fragment of the soybean FAT-B gene of SEQ ID NO:28 that comprises 42 contiguous nucleotides of the 5' un-translated region and the chloroplast transit peptide coding region, and (iii) a CP4 EPSPS gene operably linked to an enhanced FMV promoter and a pea Rubisco E9 3' termination sequence; wherein the expression of both an endogenous soybean FAD2-1 and an endogenous soybean FATB gene are decreased; and (b) loss-of-function mutations in the endogenous soybean FAD3 genes of SEQ ID NO:61 and SEQ ID NO:62.
A flexible display device comprising a plurality of panels that are adhered to each other by using at least one adhesive layer (501, 502, 503), the flexible display device comprising: a display panel configured to display an image; and a protective panel disposed on the display panel and comprising a transparent substrate, an outer hard coating layer formed on an outer surface of the transparent substrate, and an inner hard coating layer formed on an inner surface of the transparent substrate opposite to the outer surface of the transparent substrate, and each of the outer hard coating layer, and the inner hard coating layer has a hardness greater than a hardness of the transparent substrate, wherein a thickness of the outer hard coating layer is greater than a thickness of the inner hard coating layer, and wherein a stress neutral surface of the flexible display device is configured so that a compressive stress is applied to the inner hard coating layer in response to the flexible display device being bent, characterized in that a touch electrode layer is directly disposed on the inner surface of the transparent substrate, wherein the inner hard coating layer is directly disposed on an inner surface of the touch electrode layer. a display panel configured to display an image; and a protective panel disposed on the display panel and comprising a transparent substrate, an outer hard coating layer formed on an outer surface of the transparent substrate, and an inner hard coating layer formed on an inner surface of the transparent substrate opposite to the outer surface of the transparent substrate, and each of the outer hard coating layer, and the inner hard coating layer has a hardness greater than a hardness of the transparent substrate, wherein a thickness of the outer hard coating layer is greater than a thickness of the inner hard coating layer, and wherein a stress neutral surface of the flexible display device is configured so that a compressive stress is applied to the inner hard coating layer in response to the flexible display device being bent, characterized in that a touch electrode layer is directly disposed on the inner surface of the transparent substrate, wherein the inner hard coating layer is directly disposed on an inner surface of the touch electrode layer.
A polycrystalline silicon fragment obtained by fracturing a polycrystalline silicon block, and a content ratio of a polycrystalline silicon powder having a particle size of 500 to 1000 μm is 0.1 to 40 ppmw, wherein 90 wt% or more of said polycrystalline silicon fragment has a particle size of 2 to 90 mm.
Method for filling a cooling module assigned to a transport container for transporting cooled products, with a coolant which, in normal use of the transport container, is brought into thermal contact with a product stored in a storage region of the transport container and in that context cools the product by making use of the enthalpy of vaporization, of fusion or of sublimation of the coolant, wherein prior to the beginning of use a gross mass value for the quantity of coolant to be supplied to the cooling module is calculated on the basis of the cooling duration, the difference between the storage temperature and the ambient temperature during use and the thermal transmission coefficients and geometry of the transport container, characterized in that prior to the beginning of use the mass of product stored in the storage region is determined, on the basis of the mass and the specific water content of the stored product, a value for the total mass of water in the product is calculated, on the basis of the total mass of water in the product and a tolerance temperature difference, an enthalpy value for the heating of the total mass of water in the product around tolerance temperature difference is determined, the enthalpy value for the heating of the total mass of water is related to the enthalpy of sublimation of coolant in order to calculate an equivalence mass value of coolant, the equivalence mass value is subtracted from the calculated gross mass value for the coolant to be supplied to the cooling module, and in this way a net mass value of coolant is determined and a mass of coolant corresponding to the net mass value is supplied to the cooling module.
A wall module system comprising a plurality of vertically spaced plant pots (6, 6', 6", 6"'), where the wall module system comprises one or more tracks (4, 4', 4", 4"') constituting a base for mounting the pots (6, 6', 6", 6"'), where the pots (6, 6', 6", 6"') are configured to be attached to one or more tracks (4, 4', 4", 4"'), where each pot (6, 6', 6", 6"') is provided with means for draining excess water, wherein each pot (6, 6', 6", 6"') is provided with a water reservoir inside the pot (6, 6', 6", 6"'), and a drainage member that is configured to drain excess water from the pot (6, 6', 6", 6"') characterized in that the excess water is conducted through the underlying pot (6', 6", 6") without bringing the excess water into contact with a media such as potting soil, when the media such as potting soil is filled into the underlying pot (6' 6", 6").
A method for determining the absolute position of a computing device (104, 500), the method comprising: obtaining, by the computing device (104, 500), an image of a subset of luminaries from a plurality of luminaires located in an indoor environment; whereby a database, stored either on the computing device or on a remote server that the computing device is able to communicate with, stores information about each of a plurality of uniquely identifiable subsets of said plurality of luminaries, wherein the database includes position information for each luminaire in the plurality of luminaires; the method characterized by comparing the subset of luminaires of the obtained image to the information in the database storing each uniquely identifiable subset of luminaires, determining a relative position of the computing device (104, 500) based on the comparison, and determining the absolute position of the computing device (104, 500) based on the determined relative position and on the corresponding position information of the luminaires of the subset of luminaires. obtaining, by the computing device (104, 500), an image of a subset of luminaries from a plurality of luminaires located in an indoor environment; whereby a database, stored either on the computing device or on a remote server that the computing device is able to communicate with, stores information about each of a plurality of uniquely identifiable subsets of said plurality of luminaries, wherein the database includes position information for each luminaire in the plurality of luminaires; the method characterized by comparing the subset of luminaires of the obtained image to the information in the database storing each uniquely identifiable subset of luminaires, determining a relative position of the computing device (104, 500) based on the comparison, and determining the absolute position of the computing device (104, 500) based on the determined relative position and on the corresponding position information of the luminaires of the subset of luminaires.
Use of an anionic polymer, wherein the anionic polymer comprises a net charge of at least -1 at the pH used in RT-PCR, wherein the anionic polymer is selected from the group consisting of dextran sulphate, sodium alginate, heparin, carrageen, sodium carboxymethylcellulose, polyphloretin phosphate, poly-L-glutamate, polyacrylic acid, poly(propylacrylic acid), poly(methyl-vinyl-ether-maelic anhydride), for suppressing or reducing the inhibition of nucleic acid replication by reverse transcriptase as observed in RT-PCR in a composition comprising one or more oligonucleotide primers, any one or more nucleotides or derivatives thereof, and two or more different polymerases, at least one of which has reverse transcriptase activity and at least one of which has nucleic acid polymerase activity.
A system, comprising: a rigid plate configured to be placed on the body of a patient, the rigid plate including a plurality of unique imaging fiducials (120, 125, 130, 135); an electromagnetic position sensor (140, 145) configured to provide position information of the rigid plate in a first coordinate system; a plurality of body surface electrodes coupled to the rigid plate, each body surface electrode configured to be placed on the thorax of the patient and further configured to measure cardiac electrical activity information of the patient in a second coordinate system; and a control unit configured to receive an image scan of the patient, the image scan including the rigid plate and the plurality of body surface electrodes, receive the cardiac electrical activity information from the plurality of body surface electrodes in the second coordinate system, receive position information of the rigid plate from the electromagnetic position sensor in the first coordinate system, use the position information of the rigid plate in the first coordinate system to construct a transformation matrix and use the transformation matrix to transform the cardiac electrical activity information received from the plurality of body surface electrodes from the second coordinate system into the first coordinate system. a rigid plate configured to be placed on the body of a patient, the rigid plate including a plurality of unique imaging fiducials (120, 125, 130, 135); an electromagnetic position sensor (140, 145) configured to provide position information of the rigid plate in a first coordinate system; a plurality of body surface electrodes coupled to the rigid plate, each body surface electrode configured to be placed on the thorax of the patient and further configured to measure cardiac electrical activity information of the patient in a second coordinate system; and a control unit configured to receive an image scan of the patient, the image scan including the rigid plate and the plurality of body surface electrodes, receive the cardiac electrical activity information from the plurality of body surface electrodes in the second coordinate system, receive position information of the rigid plate from the electromagnetic position sensor in the first coordinate system, use the position information of the rigid plate in the first coordinate system to construct a transformation matrix and use the transformation matrix to transform the cardiac electrical activity information received from the plurality of body surface electrodes from the second coordinate system into the first coordinate system.
Injector for injecting fuel into a combustion chamber of an internal combustion engine having a control valve which opens or closes a connection out of a control space into a fuel return line, by a closing element being placed into a seat or releasing the latter, a bore being configured in the closing element, in which bore a pin is received in an axially movable manner, and the diameter of the bore corresponding substantially to the diameter of the pin, and the pin being supported with its end section (38; 38a) which faces away from the closing element at least indirectly on a supporting element, characterized in that an angle compensation element (40; 50) is arranged between the end section (38; 38a) of the pin and the supporting element, and in that an annular bearing face (45; 45a) is configured between the angle compensation element (40; 50) and the end section (38; 38a) of the pin.
A method for determining a mobility of ions, including the steps of: a. modulating an ion beam with an ion gate which is controlled by a modulation function for generating a modulated ion beam, wherein said modulation function is a pseudorandom sequence generated with a linear feedback shift register and wherein an autocorrelation of said modulation function is a two-valued function, b. guiding said modulated ion beam through a drifting region, c. measuring a signal of said modulated ion beam after said modulated ion beam has passed said drifting region, d. calculating a correlation of said modulation function and said signal in order to determine said mobility of said ions, characterised in that an interval of interest of possible ion drift times is chosen from said correlation and in that the method comprises a step of selecting said modulation function by selecting a tap set of said linear feedback shift register such that as many as possible false peaks (50.1, 50.2, 50.3, 50.4, 50.5, 50.6) in said correlation are located outside of said interval of interest. a. modulating an ion beam with an ion gate which is controlled by a modulation function for generating a modulated ion beam, wherein said modulation function is a pseudorandom sequence generated with a linear feedback shift register and wherein an autocorrelation of said modulation function is a two-valued function, b. guiding said modulated ion beam through a drifting region, c. measuring a signal of said modulated ion beam after said modulated ion beam has passed said drifting region, d. calculating a correlation of said modulation function and said signal in order to determine said mobility of said ions,
An ion exchanger configured to remove an impurity ion of a coolant for cooling a fuel cell, comprising: an inflow portion having an inflow path where the coolant enters; a discharge portion having a discharge path for discharging the coolant; an outer casing having an upstream end where the inflow portion is provided and a downstream end where the discharge portion is provided; an inner casing housed inside the outer casing; an ion exchange resin for removing an impurity ion from the coolant being filled in the inside of the inner casing; an outer path formed between the inner casing and the outer casing, the outer path being configured to communicate with the inflow path and the discharge path; an inner path that is formed inside the inner casing to cause the inflow path and the discharge path to communicate with each other and is configured to enclose the ion exchange resin, wherein the inner casing has a through-hole that causes the inner path and the outer path to communicate with each other, a mesh having a screen opening smaller than a particle size of the ion exchange resin is provided in a communicating portion between the inner path and the inflow path, in a communicating portion between the inner path and the discharge path, and in the through-hole, the inflow path and the outer path communicating with each other through a communication portion formed between the inflow path and the outer path, the discharge path and the outer path communicating with each other through a communication portion formed between the discharge path and the outer path. an inflow portion having an inflow path where the coolant enters; a discharge portion having a discharge path for discharging the coolant; an outer casing having an upstream end where the inflow portion is provided and a downstream end where the discharge portion is provided; an inner casing housed inside the outer casing; an ion exchange resin for removing an impurity ion from the coolant being filled in the inside of the inner casing; an outer path formed between the inner casing and the outer casing, the outer path being configured to communicate with the inflow path and the discharge path; an inner path that is formed inside the inner casing to cause the inflow path and the discharge path to communicate with each other and is configured to enclose the ion exchange resin, wherein the inner casing has a through-hole that causes the inner path and the outer path to communicate with each other, a mesh having a screen opening smaller than a particle size of the ion exchange resin is provided in a communicating portion between the inner path and the inflow path, in a communicating portion between the inner path and the discharge path, and in the through-hole, the inflow path and the outer path communicating with each other through a communication portion formed between the inflow path and the outer path, the discharge path and the outer path communicating with each other through a communication portion formed between the discharge path and the outer path.