mhurhangee/ep-ind-claims huggingface dataset:
A device comprising a table top, a substructure, and fastening screws, wherein the substructure has a fastening cross or a fastening plate, on which the table top rests, and wherein the substructure is to be screwed to the underside of the table top, wherein this fastening cross or this fastening plate has a defined hole pattern with a plurality of holes or mounts for the fastening screws that are to be inserted through these holes and that are used to screw the fastening cross or the fastening plate to the table top, wherein the underside of the table top has slots or grooves formed in it that run in such a way as to align with the holes or mounts of the fastening cross or fastening plate when placing the table top on the fastening cross or the fastening plate, and wherein the fastening screws can be screwed into the table top in the slots or grooves, wherein at least two slots or grooves extending along a line (13, 14) and which are interrupted by non-slotted portions of the table top are provided, characterised in that the fastening screws are self-tapping screws, wherein the width of the slots is approximately 75% to approximately 90% of the diameter of the self-tapping fastening screws used to fasten the table top on the fastening cross or fastening plate in the thread region. wherein the underside of the table top has slots or grooves formed in it that run in such a way as to align with the holes or mounts of the fastening cross or fastening plate when placing the table top on the fastening cross or the fastening plate, and wherein the fastening screws can be screwed into the table top in the slots or grooves, wherein at least two slots or grooves extending along a line (13, 14) and which are interrupted by non-slotted portions of the table top are provided, characterised in that the fastening screws are self-tapping screws, wherein the width of the slots is approximately 75% to approximately 90% of the diameter of the self-tapping fastening screws used to fasten the table top on the fastening cross or fastening plate in the thread region.
An implantable medical device, comprising: a power supply configured to produce a power supply voltage; a load circuit in parallel with a capacitance, wherein the load circuit comprises one or more circuits configured to draw power from the power supply voltage; a load circuit voltage across the load circuit and the capacitance; switching circuitry configured when closed to connect the power supply voltage to the load circuit voltage to thereby power the load circuit with the power supply voltage while the load circuit is operating; and current measurement circuitry configured to measure a load current drawn by the load circuit by opening the switching circuitry to disconnect the load circuit voltage from the power supply voltage, thus allowing the load circuit voltage to fall while the load circuit is operating, and determining a difference in the load circuit voltage while the load circuit voltage falls, wherein the difference in the load circuit voltage is indicative of the load current. a power supply configured to produce a power supply voltage; a load circuit in parallel with a capacitance, wherein the load circuit comprises one or more circuits configured to draw power from the power supply voltage; a load circuit voltage across the load circuit and the capacitance; switching circuitry configured when closed to connect the power supply voltage to the load circuit voltage to thereby power the load circuit with the power supply voltage while the load circuit is operating; and current measurement circuitry configured to measure a load current drawn by the load circuit by opening the switching circuitry to disconnect the load circuit voltage from the power supply voltage, thus allowing the load circuit voltage to fall while the load circuit is operating, and determining a difference in the load circuit voltage while the load circuit voltage falls, wherein the difference in the load circuit voltage is indicative of the load current. opening the switching circuitry to disconnect the load circuit voltage from the power supply voltage, thus allowing the load circuit voltage to fall while the load circuit is operating, and determining a difference in the load circuit voltage while the load circuit voltage falls, wherein the difference in the load circuit voltage is indicative of the load current.
A system for reducing demyelination and/or increasing remyelination by stimulation of a vagus nerve, the system comprising: a vagus nerve stimulator configured to be implanted over or adjacent to a vagus nerve; one or more electrodes on the vagus nerve stimulator configured to apply electrical stimulation to the vagus nerve; and a controller coupled to the vagus nerve stimulator and configured to apply electrical stimulation to the vagus nerve from the one or more electrodes, wherein the controller is constrained to apply a charge per day of between 2.5 nC and 7.5 mC to reduce demyelination and/or increase remyelination within the patient. a vagus nerve stimulator configured to be implanted over or adjacent to a vagus nerve; one or more electrodes on the vagus nerve stimulator configured to apply electrical stimulation to the vagus nerve; and a controller coupled to the vagus nerve stimulator and configured to apply electrical stimulation to the vagus nerve from the one or more electrodes, wherein the controller is constrained to apply a charge per day of between 2.5 nC and 7.5 mC to reduce demyelination and/or increase remyelination within the patient.
A polypeptide having lipase activity wherein the polypeptide is a. a polypeptide, which, when aligned with the polypeptide according to SEQ ID NO: 1, comprises at least one amino acid substitution resulting in Trp at position 307, wherein the position is defined with reference to SEQ ID NO: 1, wherein Ala at position 1 in SEQ ID NO: 1 is counted as number 1; or, b. a polypeptide comprising an amino acid sequence according to SEQ ID NO: 1, wherein SEQ ID NO: 1 comprises at least one amino acid substitution L307W, wherein the substitution is defined with reference to SEQ ID NO: 1, wherein Ala at position 1 in SEQ ID NO: 1 is counted as number 1; or, c. a polypeptide encoded by a nucleic acid which has at least 80%, 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, or 99% identity to the nucleotide sequence of SEQ ID NO: 2, wherein SEQ ID NO: 2 comprises at least one mutation resulting in an amino acid Trp at position 307 of a polypeptide according to SEQ ID NO: 1, wherein Ala at position 1 in SEQ ID NO: 1 is counted as number 1, and wherein the polypeptide according to a) or b) or c) is a variant of SEQ ID NO: 1, wherein said variant has at least 80%, 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%% or 99% identity to amino sequence of SEQ ID NO: 1 and wherein said variant has a higher specificity towards butyrate as a side chain than the specificity towards octanoate and/or palmitate as a side chain. a. a polypeptide, which, when aligned with the polypeptide according to SEQ ID NO: 1, comprises at least one amino acid substitution resulting in Trp at position 307, wherein the position is defined with reference to SEQ ID NO: 1, wherein Ala at position 1 in SEQ ID NO: 1 is counted as number 1; or, b. a polypeptide comprising an amino acid sequence according to SEQ ID NO: 1, wherein SEQ ID NO: 1 comprises at least one amino acid substitution L307W, wherein the substitution is defined with reference to SEQ ID NO: 1, wherein Ala at position 1 in SEQ ID NO: 1 is counted as number 1; or, c. a polypeptide encoded by a nucleic acid which has at least 80%, 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, or 99% identity to the nucleotide sequence of SEQ ID NO: 2, wherein SEQ ID NO: 2 comprises at least one mutation resulting in an amino acid Trp at position 307 of a polypeptide according to SEQ ID NO: 1, wherein Ala at position 1 in SEQ ID NO: 1 is counted as number 1, and wherein the polypeptide according to a) or b) or c) is a variant of SEQ ID NO: 1, wherein said variant has at least 80%, 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%% or 99% identity to amino sequence of SEQ ID NO: 1 and wherein said variant has a higher specificity towards butyrate as a side chain than the specificity towards octanoate and/or palmitate as a side chain.
A device for carrying out a method for separating composite materials and mixtures, in particular solid-material mixtures and slags, comprising the step of transporting the composite material or the mixture through a separating device (31, 41; 32, 42), wherein the composite material to be separated or the mixture to be separated is excited by mechanical impulses as it passes through the separating device and is thereby separated, wherein the device comprises a drive unit for driving a rotor element which is connected to a bearing/shaft unit having an axis of rotation which is hereinafter referred to as the X-axis and which is substantially parallel to the force of gravity, the rotor element being part of a rotor unit, the rotor element itself having at least one rotor tool and each rotor tool having at least one rotor tool component, the rotor element being surrounded by a stator element, which is part of a stator unit, the stator element itself having at least one stator tool and each stator tool having at least one stator tool component, the rotor element and the stator element being substantially cylindrical and the device additionally comprising a material inlet for supplying the composite material or the mixture above the rotor/stator unit (31, 41) and a material outlet for discharging the separated material below the rotor/stator unit (31, 41), characterized in that the at least one rotor tool and the at least one rotor tool component are substantially oriented in the direction of the X-axis, hereinafter referred to as the X-direction, the X-direction and the tangential direction of the stator element together define a plane A at the position of the at least one stator tool component, and the X-direction and the radial direction of the stator element together define a plane B at the position of the at least one stator tool component, the at least one stator tool component being orientable relative to the X-direction both in plane A and in plane B.
A base makeup cosmetic molded by filling a slurry into a container, the slurry comprising a solvent and a cosmetic base material comprising a red iron oxide and a red composite powder having a composite structure in which a red pigment selected from the group consisting of lithol rubine B and lithol rubine BCA is intercalated into an inorganic substance, and then removing the solvent, wherein the solvent is ethanol, water, or a combination thereof and wherein a reflectance spectrum of an apparent color of the base makeup cosmetic has a local minimal value in a wavelength region from 500 nm to 600 nm.
A method of performing a measurement of an analyte in a sample using an automatic analyzer (2500, 2700, 2900), wherein the automatic analyzer comprises: - a cartridge (100, 200, 300, 2100, 2200, 2300, 2502, 2502', 2502") for dispensing a fluid, - a measurement unit for performing the measurement, - a sample holder for receiving the sample, and - a pump (2100, 2102, 2200, 2202, 2300, 2302, 2502, 2504, 2502', 2504', 2502", 2504") for pumping the fluid out of the cartridge and into the sample holder; wherein the cartridge comprises: - a rigid portion - a flexible bladder, and - an outlet; wherein the outlet is attached to the rigid portion; wherein the rigid portion comprises an inner cavity; wherein the outlet is connected to the inner cavity; wherein the rigid portion comprises an opening; wherein the opening is connected to the inner cavity; wherein the flexible bladder seals the opening to form a fluid chamber from the inner cavity, wherein the fluid chamber is at least partially filled with the fluid, wherein the pump is connected to the outlet, wherein when the fluid chamber is filled with the fluid the flexible bladder is operable to expand out of the inner cavity to form a bladder volume; and wherein the bladder volume is defined by the opening and the flexible bladder, wherein the flexible bladder has an exterior surface, wherein the exterior surface is exposed to constant pressure during pumping of the fluid from the cartridge into the sample holder, wherein the fluid chamber is filled with the fluid such that the flexible bladder expands out of the inner cavity, wherein the inner cavity has an inner cavity surface, wherein when the fluid chamber is in an empty condition the flexible bladder is operable to cover the inner cavity surface; wherein the method comprises: - placing the sample into the sample holder; - controlling the pumping of the fluid from the cartridge into the sample holder; and - performing the measurement of the analyte using the measurement unit. - a cartridge (100, 200, 300, 2100, 2200, 2300, 2502, 2502', 2502") for dispensing a fluid, - a measurement unit for performing the measurement, - a sample holder for receiving the sample, and - a pump (2100, 2102, 2200, 2202, 2300, 2302, 2502, 2504, 2502', 2504', 2502", 2504") for pumping the fluid out of the cartridge and into the sample holder; wherein the cartridge comprises: - a rigid portion - a flexible bladder, and - an outlet; - placing the sample into the sample holder; - controlling the pumping of the fluid from the cartridge into the sample holder; and - performing the measurement of the analyte using the measurement unit.
A method for transmitting data from a plurality of input channels via a single output channel comprising: determining whether a first type or a second type of content data is to be transmitted, wherein the first type of the content data is to be transmitted at a first multiple of a clock frequency and the second type of the content data is to be transmitted at a second multiple of the clock frequency, wherein the content data is HDMI data, the first multiple is equal to the number of input channels, and the second multiple is less than the first multiple; selecting one or more channels from the plurality of input channels based on the type of the content data by eliminating a channel fixed to a constant for control data, wherein the content data of the selected channels is transmitted at the second multiple of the clock frequency via the single output channel; modifying the content data by compressing two input channels of the plurality of input channels of the content data to fit into a merged channel for data island data, wherein the compressed data from the merged channel and a portion of the content data from another input channel from the plurality of input channels are transmitted at the second multiple of the clock frequency via the single output channel; and transmitting the content data of the selected channels or the modified data via the single output channel at the selected transmission clock frequency by multiplexing the content data of the selected channels or the modified data. determining whether a first type or a second type of content data is to be transmitted, wherein the first type of the content data is to be transmitted at a first multiple of a clock frequency and the second type of the content data is to be transmitted at a second multiple of the clock frequency, wherein the content data is HDMI data, the first multiple is equal to the number of input channels, and the second multiple is less than the first multiple; selecting one or more channels from the plurality of input channels based on the type of the content data by eliminating a channel fixed to a constant for control data, wherein the content data of the selected channels is transmitted at the second multiple of the clock frequency via the single output channel; modifying the content data by compressing two input channels of the plurality of input channels of the content data to fit into a merged channel for data island data, wherein the compressed data from the merged channel and a portion of the content data from another input channel from the plurality of input channels are transmitted at the second multiple of the clock frequency via the single output channel; and transmitting the content data of the selected channels or the modified data via the single output channel at the selected transmission clock frequency by multiplexing the content data of the selected channels or the modified data.
A unimolecular FRET probe, comprising: an acceptor consisting of a fluorescent protein to be enzymatically degraded inside a lysosome or a vacuole; and a donor having an amino acid sequence having a sequence identity of 95% or more with respect to an amino acid sequence represented by SEQ ID NO: 1, wherein the amino acid sequence of the donor has five or more of Q62, Y63, G64, S58, S60, A82, D142, V173, E182, S184, E199, C210, and A217, when the amino acids of the donor are counted from the second position of SEQ ID NO: 1. an acceptor consisting of a fluorescent protein to be enzymatically degraded inside a lysosome or a vacuole; and a donor having an amino acid sequence having a sequence identity of 95% or more with respect to an amino acid sequence represented by SEQ ID NO: 1, wherein the amino acid sequence of the donor has five or more of Q62, Y63, G64, S58, S60, A82, D142, V173, E182, S184, E199, C210, and A217, when the amino acids of the donor are counted from the second position of SEQ ID NO: 1.
A saddle type vehicle including: an engine; and a fuel tank or a dummy tank provided above the engine, and a duct for capturing wind generated while the vehicle is running from ahead of the vehicle and directing it to an intercooler, the intercooler being provided between the engine and the fuel tank or the dummy tank, characterized in that the intercooler is an air-cooling intercooler; the duct includes an air inlet (173a, 173b) and a wind vent; and the intercooler is contained in the duct between the air inlet (173a, 173b) and a wind vent and is provided at a center of a width direction of the vehicle. an engine; and a fuel tank or a dummy tank provided above the engine, and a duct for capturing wind generated while the vehicle is running from ahead of the vehicle and directing it to an intercooler, the intercooler being provided between the engine and the fuel tank or the dummy tank, characterized in that the intercooler is an air-cooling intercooler;
Computer-implemented method for dividing a virtual three-dimensional overall model of a body, representing a virtual image of a body to be manufactured, into at least two virtual partial models (13a, 13b), so that the body can be manufactured in a limited production area of an additive manufacturing device, comprising the following steps: - Providing a three-dimensional virtual base body and filling the base body with a plurality of unit cells, wherein each of said unit cells comprises multiple edges and a cell surface defining the outer shape of the respective unit cell; - Creating a virtual separating surface for the overall model of the body, which has a three-dimensional cell-conforming shape, i.e., a shape that follows the geometry, shape, outer surface and/or contour of the unit cells; - Creating the overall model of the body with a lattice structure formed from a plurality of cells, wherein the unit cells are replaced by struts extending along the edges of the unit cells and representing bodies with a volume; and - Dividing the overall model along the cell-conforming separating surface into two partial models (13a, 13b), wherein common struts of the lattice structure, which are each part of at least one cell of one partial model and part of at least one adjacent cell of the other partial model are divided by means of the cell-conforming separating surface in such a way that the corresponding cells (34a, 34b) remain closed. - Providing a three-dimensional virtual base body and filling the base body with a plurality of unit cells, wherein each of said unit cells comprises multiple edges and a cell surface defining the outer shape of the respective unit cell; - Creating a virtual separating surface for the overall model of the body, which has a three-dimensional cell-conforming shape, i.e., a shape that follows the geometry, shape, outer surface and/or contour of the unit cells; - Creating the overall model of the body with a lattice structure formed from a plurality of cells, wherein the unit cells are replaced by struts extending along the edges of the unit cells and representing bodies with a volume; and - Dividing the overall model along the cell-conforming separating surface into two partial models (13a, 13b),
A method for Enhancing Oil Recovery from an oil bearing formation, the method comprising: filtering at least some solids from a source water having a total dissolved solids content of from 10000 ppm to 50000 ppm in a filtration assembly to produce pre-treated water; treating the pre-treated water in a Capacitive De-Ionisation assembly comprising at least one flowpath for pre-treated water arranged between a pair of oppositely charged electrodes (13, 14) which adsorb and thereby remove at least some ions from the pre-treated water flowing through the flowpath, thereby producing treated water with a reduced salinity and solids content and having a TDS content between 1,000 and 5,000 ppm; and injecting the treated water with reduced salinity and solids content into the oil bearing formation to mobilize crude oil and enhance oil recovery. filtering at least some solids from a source water having a total dissolved solids content of from 10000 ppm to 50000 ppm in a filtration assembly to produce pre-treated water; treating the pre-treated water in a Capacitive De-Ionisation assembly comprising at least one flowpath for pre-treated water arranged between a pair of oppositely charged electrodes (13, 14) which adsorb and thereby remove at least some ions from the pre-treated water flowing through the flowpath, thereby producing treated water with a reduced salinity and solids content and having a TDS content between 1,000 and 5,000 ppm; and injecting the treated water with reduced salinity and solids content into the oil bearing formation to mobilize crude oil and enhance oil recovery.