mhurhangee/ep-ind-claims huggingface dataset:
A scroll compressor comprising: a rotating shaft body that is installed in a housing and rotates around an axis of the housing; a movable scroll revolving around an eccentric shaft integrated with the rotating shaft body to revolve around the axis at a position eccentric to an axis of the rotating shaft body; and a fixed scroll fixed to the housing; and bearings that slidably support the rotating shaft body and the eccentric shaft, the bearings being installed within the housing, wherein at least one of the bearings is a sliding bearing including a back metal, and a sliding layer formed on the back metal by baking, the sliding layer includes 5 to 60 wt% of graphite including particles, with a balance of at least one of polyamide-imide resin and polyimide resin, characterized in that the particles have an average diameter of 5 to 50 μm, a graphitization degree of 0.6 or more, and 50 % or more of the particles in a number ratio have a particle ratio more than or equal to 0.5; wherein the particle ratio is the ratio between a graphite minor axis and major axis. a rotating shaft body that is installed in a housing and rotates around an axis of the housing; a movable scroll revolving around an eccentric shaft integrated with the rotating shaft body to revolve around the axis at a position eccentric to an axis of the rotating shaft body; and a fixed scroll fixed to the housing; and bearings that slidably support the rotating shaft body and the eccentric shaft, the bearings being installed within the housing, wherein at least one of the bearings is a sliding bearing including a back metal, and a sliding layer formed on the back metal by baking, a back metal, and a sliding layer formed on the back metal by baking, the sliding layer includes 5 to 60 wt% of graphite including particles, with a balance of at least one of polyamide-imide resin and polyimide resin, characterized in that the particles have an average diameter of 5 to 50 μm, a graphitization degree of 0.6 or more, and 5 to 60 wt% of graphite including particles, with a balance of at least one of polyamide-imide resin and polyimide resin, characterized in that the particles have an average diameter of 5 to 50 μm, a graphitization degree of 0.6 or more, and 50 % or more of the particles in a number ratio have a particle ratio more than or equal to 0.5; wherein the particle ratio is the ratio between a graphite minor axis and major axis.
A method for determining the presence, absence or one or more characteristics of a target analyte, comprising: (a) contacting the target analyte with a CsgG pore such that the target analyte moves with respect to the pore, wherein the pore comprises a mutant CsgG monomer comprising a variant of the sequence shown in SEQ ID NO: 2, wherein the variant comprises K94N, K94Q, K94R, K94F, K94Y, K94W, K94L or K94S; and (b) taking one or more measurements as the analyte moves with respect to the pore and thereby determining the presence, absence or one or more characteristics of the analyte. (a) contacting the target analyte with a CsgG pore such that the target analyte moves with respect to the pore, wherein the pore comprises a mutant CsgG monomer comprising a variant of the sequence shown in SEQ ID NO: 2, wherein the variant comprises K94N, K94Q, K94R, K94F, K94Y, K94W, K94L or K94S; and (b) taking one or more measurements as the analyte moves with respect to the pore and thereby determining the presence, absence or one or more characteristics of the analyte.
A process for producing tyres, in which a tread band of raw elastomeric material is circumferentially applied around a bearing structure incorporating reinforcing cords, so as to form a green tyre subsequently submitted to a curing treatment; wherein the tread band is formed by: - making an underlayer of raw elastomeric material; - making blocks of raw elastomeric material; - applying the blocks mutually spaced apart according to a predetermined tread pattern, onto the underlayer, wherein said curing treatment comprises: - introducing the tyre into a mould having forming recesses corresponding to respective blocks of the tyre; and - aligning the blocks with the respective forming recesses before closing the mould, so that each block is engaged in the respective forming recess, in consequence of closure of the mould, characterized in that before the curing treatment, at least one reference index indicative of the angular position of the blocks around a geometric rotation axis of the tyre is associated with the tyre itself, wherein alignment of the blocks with the respective forming recesses is carried out by making said at least one reference index carried by the tyre coincide with a fixed reference. - making an underlayer of raw elastomeric material; - making blocks of raw elastomeric material; - applying the blocks mutually spaced apart according to a predetermined tread pattern, onto the underlayer, wherein said curing treatment comprises: - introducing the tyre into a mould having forming recesses corresponding to respective blocks of the tyre; and - aligning the blocks with the respective forming recesses before closing the mould, so that each block is engaged in the respective forming recess, in consequence of closure of the mould, characterized in that before the curing treatment, at least one reference index indicative of the angular position of the blocks around a geometric rotation axis of the tyre is associated with the tyre itself, wherein alignment of the blocks with the respective forming recesses is carried out by making said at least one reference index carried by the tyre coincide with a fixed reference.
Method for operating an electromagnetic transfer system, wherein the transfer system serves to convey objects (1; 1a) to a downstream conveying device, having a preferably closed carrier path on which at least one moving transport element for an object (1; 1a) is arranged, the said object being moved along on a transport surface by the transport element, wherein the transport element has at least one permanent magnet element which is arranged in operative connection with induction coils which are arranged along the carrier path and to which current can be supplied individually, wherein position identification means are provided for detecting the position of the transport element on the carrier path, and wherein the object (1; 1a) is transferred from the transport surface to the downstream conveying device, which has a separate drive, in a transfer region, characterized in that, in order to reduce the distance (A, A 1, A 2) between individual objects (1; 1a) on the downstream conveying device, the conveying speed (v 4) of the conveying device at the transfer point from the transport surface to the conveying device is temporarily reduced in relation to the speed (v 2) of the transport element or the speed (v 2) of the transport element at the transfer point is increased in relation to the conveying speed (v 4) of the conveying device.
A delivery system comprising: an implantable medical device; a constraining mechanism including interlocking loops configured to releasably constrain the implantable medical device in a delivery configuration, and a lock line arranged through a portion of the interlocking loops and configured to be withdrawn to enable release of the constraining mechanism, wherein the lock line comprises an adhesive on an exterior surface of the lock line to increase friction between the interlocking loops; wherein each loop of the interlocking loops includes at least two strands (110, 112) forming the loop; wherein one strand of the loop overlaps with a strand of an adjacent loop to form an interlocking loop (116, 118), and wherein the lock line is arranged in at least a knot row to prevent the knot row from unraveling. an implantable medical device; a constraining mechanism including interlocking loops configured to releasably constrain the implantable medical device in a delivery configuration, and a lock line arranged through a portion of the interlocking loops and configured to be withdrawn to enable release of the constraining mechanism, wherein the lock line comprises an adhesive on an exterior surface of the lock line to increase friction between the interlocking loops; wherein each loop of the interlocking loops includes at least two strands (110, 112) forming the loop; wherein one strand of the loop overlaps with a strand of an adjacent loop to form an interlocking loop (116, 118), and wherein the lock line is arranged in at least a knot row to prevent the knot row from unraveling.
A device for protecting deep wells from pressure, in particular geothermal, oil, gas and/or cavern wells, the device comprising at least one receiving body (46, 146, 246) configured to receive a compressible medium in an interior space, the receiving body (46, 146, 246) having: at least one opening (54, 56) forming a transition between the interior space and an environment of the receiving body (46, 146, 246), wherein the at least one opening (54, 56) is closable by means of at least one closure member (58, 60) disposed in the opening (54, 56) assigned thereto and configured to assume an open and a closed state as a function of a predetermined pressure difference between the interior space and the environment, characterized in that the receiving body (46, 146, 246) is formed, at least in sections, by a coiled tubular member (48, 148, 248), the coiled tubular member (48, 148, 248) having a helical shape. at least one opening (54, 56) forming a transition between the interior space and an environment of the receiving body (46, 146, 246), wherein the at least one opening (54, 56) is closable by means of at least one closure member (58, 60) disposed in the opening (54, 56) assigned thereto and configured to assume an open and a closed state as a function of a predetermined pressure difference between the interior space and the environment, characterized in that the receiving body (46, 146, 246) is formed, at least in sections, by a coiled tubular member (48, 148, 248), the coiled tubular member (48, 148, 248) having a helical shape.
Computer-implemented method for training an artificial neural network, ANN, designed as an image classifier, with learning datasets that each comprise a sample and an associated label, wherein each sample represents values of one or more input variables of the ANN and the associated label represents values of one or more output variables of the ANN, comprising the following steps: • the ANN is trained without supervision based on the samples contained in the learning datasets, wherein the unsupervised training is aimed at dividing the samples into a predefined number k of clusters; • a weighting of the learning datasets is ascertained based on at least one quality criterion for the reliability and/or quality of the assignment of labels to samples in the learning datasets; • taking this weighting into consideration, the ANN is trained with supervision based on the samples and associated labels contained in the learning datasets, wherein • an image to be classified by the ANN contains pixels each of which is assigned colour values or grayscale values, and • the ANN is designed to detect objects in the image on the basis of these pixels, and/or to semantically segment the image, and wherein • one and the same ANN is trained alternately without supervision and with supervision, and/or • a first instance of the ANN is trained without supervision, a second instance of the ANN having the same architecture is trained with supervision, and both trained instances (1a*, 1b*) are combined to give an overall result (1*). • the ANN is trained without supervision based on the samples contained in the learning datasets, wherein the unsupervised training is aimed at dividing the samples into a predefined number k of clusters; • a weighting of the learning datasets is ascertained based on at least one quality criterion for the reliability and/or quality of the assignment of labels to samples in the learning datasets; • taking this weighting into consideration, the ANN is trained with supervision based on the samples and associated labels contained in the learning datasets, • an image to be classified by the ANN contains pixels each of which is assigned colour values or grayscale values, and • the ANN is designed to detect objects in the image on the basis of these pixels, and/or to semantically segment the image, and wherein • one and the same ANN is trained alternately without supervision and with supervision, and/or • a first instance of the ANN is trained without supervision, a second instance of the ANN having the same architecture is trained with supervision, and both trained instances (1a*, 1b*) are combined to give an overall result (1*).
An apparatus for controlling an air conditioner having a motor (100,110), comprising: a first microcomputer; a converter configured to convert an alternating current voltage into a direct current voltage, and boost the DC voltage; a converter controller (230,240): operationally coupled to the first microcomputer and the converter, and configured to control the converter according to a first signal received from the first microcomputer; an inverter (300,330) configured to convert the boosted DC voltage into an AC voltage to drive the motor; an inverter controller (310,340): operationally coupled to the first microcomputer and the inverter, and configured to control the inverter according to a second signal received from the first microcomputer; and characterized by: a supplementary microcomputer that is: implemented as a port-extension microcomputer and operationally coupled to the first microcomputer, controlled by the first microcomputer, configured to control a valve and a relay which do not require a real-time control, the valve for controlling a refrigerant flow inside a pipe of the air conditioner, and the relay for controlling a current flow, according to a third signal received from the first microcomputer. a first microcomputer; a converter configured to convert an alternating current voltage into a direct current voltage, and boost the DC voltage; a converter controller (230,240): operationally coupled to the first microcomputer and the converter, and configured to control the converter according to a first signal received from the first microcomputer; operationally coupled to the first microcomputer and the converter, and configured to control the converter according to a first signal received from the first microcomputer; an inverter (300,330) configured to convert the boosted DC voltage into an AC voltage to drive the motor; an inverter controller (310,340): operationally coupled to the first microcomputer and the inverter, and configured to control the inverter according to a second signal received from the first microcomputer; and characterized by: operationally coupled to the first microcomputer and the inverter, and configured to control the inverter according to a second signal received from the first microcomputer; and characterized by: a supplementary microcomputer that is: implemented as a port-extension microcomputer and operationally coupled to the first microcomputer, controlled by the first microcomputer, configured to control a valve and a relay which do not require a real-time control, the valve for controlling a refrigerant flow inside a pipe of the air conditioner, and the relay for controlling a current flow, according to a third signal received from the first microcomputer. implemented as a port-extension microcomputer and operationally coupled to the first microcomputer, controlled by the first microcomputer, configured to control a valve and a relay which do not require a real-time control, the valve for controlling a refrigerant flow inside a pipe of the air conditioner, and the relay for controlling a current flow, according to a third signal received from the first microcomputer.
A method for increasing the yield of a protein of interest in an animal or plant cell comprising transfecting or transducing said cell with at least one recombinant expression cassette encoding said protein of interest; and at least another recombinant expression cassette encoding: (i) an XBP1 protein having the amino acid sequence of SEQ ID NO:6 or a fragment thereof, wherein said protein or fragment thereof binds to a UPR element (UPRE) or ER-stress response element (ERSE) of said cell; or (ii) an ATF6 protein having the amino acid sequence of SEQ ID NO:9 or of amino acid residues 1-366 of SEQ ID NO:9, wherein said protein binds to a UPR element (UPRE) or ER-stress response element (ERSE) of said cell; wherein the ratio of the total number of said at least one recombinant expression cassette to the total number of said at least another recombinant expression cassette is at least 3:1. (i) an XBP1 protein having the amino acid sequence of SEQ ID NO:6 or a fragment thereof, wherein said protein or fragment thereof binds to a UPR element (UPRE) or ER-stress response element (ERSE) of said cell; or (ii) an ATF6 protein having the amino acid sequence of SEQ ID NO:9 or of amino acid residues 1-366 of SEQ ID NO:9, wherein said protein binds to a UPR element (UPRE) or ER-stress response element (ERSE) of said cell;
A method of removably attaching an exercise bar apparatus (100; 300; 900; 1100; 1200) to a pair of co-planar and non-parallel members (13; 15; 901; 1113; 1410; 1420), where said exercise bar apparatus (100; 300; 900; 1100; 1200) includes a pair of brackets (103; 1203)separated by a separation distance (W1; W2), said pair of brackets (103; 1203) being connected to each other by a bar (105, 1201) and each bracket comprises an inner surface, said exercise bar apparatus being configured for mounting on said members (13; 15; 901; 1113; 1410; 1420) placed between the brackets (103; 1203), said method comprising: positioning the pair of brackets (103; 1203) adjacent to and on either side of said members (13; 15; 901; 1113; 1410; 1420) at a location where the members are separated by a distance of less than the separation distance (W1; W2); and moving the brackets (103; 1203) to removably engage said brackets (103; 1203) with said members (13; 15; 901; 1113; 1410; 1420), such that the inner surfaces, which are non-parallel, contact the members (13; 15; 901; 1113; 1410; 1420) and such that the exercise bar apparatus (100; 300; 900; 1100; 1200) can support the weight of a user on the members (13; 15; 901; 1113; 1410; 1420).
A transaminase mutant, wherein the transaminase mutant having a transaminase activity has an amino acid mutation sequence of SEQ ID NO:1, and sites of the amino acid mutation comprise T7C+S47C.
Built-in cistern for WC ceramics, which built-in cistern can be installed in a recess of a wall behind a cover plate, comprising a water connection, an actuation mechanism, a connection tube between said built-in cistern and said WC ceramics as well as a moisture and leakage protection, characterized in that said built-in cistern includes a cover plate for covering said recess of said wall, that said moisture and leakage protection is designed as a flexible water-tight protective cover surrounding the built-in cistern and the connection tube, that on the bottom side of the protective cover a tubular appendix is formed which presents on the end thereof at least one bottom-side opening and that a rim is provided on said opening which is connectable to said cover plate in a sealing manner.
An X-ray microscope for measuring a sample comprising: a substrate which is a focusing chip; a polychromatic X-ray source disposed so as to be able to expose the sample on the focusing chip to polychromatic X-rays; a detector disposed so as to be able to detect and measure an intensity of the X-ray fluorescence of the sample due to irradiation of an atom of a chemical bound to a receptor of the sample by the polychromatic X-ray source; a recording means for making a record of the measured intensity of the X-ray fluorescence; and a record-control means which ensures the integrity of the record, wherein the substrate has a thickness of between 0.02 μm and 25 μm and comprises less than 50% by mass of at least one of the elements selected from fluorine, oxygen, phosphorus, sulfur and chlorine and greater than 10% of an element selected from beryllium, carbon, silicon, aluminium, iron, cobalt and gold. a substrate which is a focusing chip; a polychromatic X-ray source disposed so as to be able to expose the sample on the focusing chip to polychromatic X-rays; a detector disposed so as to be able to detect and measure an intensity of the X-ray fluorescence of the sample due to irradiation of an atom of a chemical bound to a receptor of the sample by the polychromatic X-ray source; a recording means for making a record of the measured intensity of the X-ray fluorescence; and a record-control means which ensures the integrity of the record, wherein the substrate has a thickness of between 0.02 μm and 25 μm and comprises less than 50% by mass of at least one of the elements selected from fluorine, oxygen, phosphorus, sulfur and chlorine and greater than 10% of an element selected from beryllium, carbon, silicon, aluminium, iron, cobalt and gold.
A deployment system for deploying a filter in a subject, the deployment system comprising: a deployment apparatus including an elongate shaft having a deployment device; a filter body having a proximal portion and a distal portion, and configured to have a deployed state in which the filter body extends radially outward from the elongate shaft and increases in size from the proximal portion to the distal portion, the filter body configured to trap particles in the filter body; a filter support being positioned distal of the proximal portion of the filter body and configured to couple to the elongate shaft and slide relative to the filter body; one or more support tethers extending from the filter support to the distal portion of the filter body; and a control device passing distally through the proximal portion of the filter body and coupling to the filter support, the control device configured to be slid proximally relative to the filter body to slide the filter support proximally to move the one or more support tethers and transition the filter body to the deployed state. a deployment apparatus including an elongate shaft having a deployment device; a filter body having a proximal portion and a distal portion, and configured to have a deployed state in which the filter body extends radially outward from the elongate shaft and increases in size from the proximal portion to the distal portion, the filter body configured to trap particles in the filter body; a filter support being positioned distal of the proximal portion of the filter body and configured to couple to the elongate shaft and slide relative to the filter body; one or more support tethers extending from the filter support to the distal portion of the filter body; and a control device passing distally through the proximal portion of the filter body and coupling to the filter support, the control device configured to be slid proximally relative to the filter body to slide the filter support proximally to move the one or more support tethers and transition the filter body to the deployed state.