mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining the concentration of an analyte in a sample with an unknown concentration of analyte using a bi-component detection method comprising: a. providing two non-immobilized analyte-specific binding components at known concentrations for conducting a bi-component detection method in a solution comprising bringing said two analyte-specific binding components in contact with said analyte to produce a signal that depends on the concentration of bi-component/analyte complexes formed in said solution, b. providing a non-bijective analyte concentration reference curve for said bi-component detection method which is a mathematical function reflecting the dependence of said signal on the concentration of analyte, c. preparing one or more dilutions of said sample using defined dilutions factors, d. applying the bi-component detection method to the sample and the one or more dilutions, e. determining the concentration of the analyte using said signal detected in the sample and in the one or more dilutions as a constraining input for a mathematical fit for said non-bijective analyte concentration reference curve at different analyte concentration. a. providing two non-immobilized analyte-specific binding components at known concentrations for conducting a bi-component detection method in a solution comprising bringing said two analyte-specific binding components in contact with said analyte to produce a signal that depends on the concentration of bi-component/analyte complexes formed in said solution, b. providing a non-bijective analyte concentration reference curve for said bi-component detection method which is a mathematical function reflecting the dependence of said signal on the concentration of analyte, c. preparing one or more dilutions of said sample using defined dilutions factors, d. applying the bi-component detection method to the sample and the one or more dilutions, e. determining the concentration of the analyte using said signal detected in the sample and in the one or more dilutions as a constraining input for a mathematical fit for said non-bijective analyte concentration reference curve at different analyte concentration.
A female coupling comprising an outer hollow main assembly , adapted to be connected to and disconnected from a corresponding male coupling by means of pushing and pulling actions, respectively, said female coupling and male coupling comprising a female valve assembly and a male valve assembly, respectively, each of said female and male valve assemblies being adapted to be alternatively translated forwards and backwards between a first closing position and a second opening position, wherein the flow of a fluid is possible between the female coupling and male coupling with said female and male valve assemblies in the respective opening positions, wherein said female coupling comprises mechanical locking means adapted to prevent the backward translation of the female valve assembly from its said second opening position, wherein said mechanical locking means comprise a rocker arm adapted to oscillate or pivot between a first engaging position and a second releasing position, and wherein said rocker arm , in its first engaging position, engages said female valve assembly , thus locking it in its second opening position so as to prevent the backward translation of said female valve assembly from its said second opening position, characterized in that said rocker arm is adapted to be translated with respect to said hollow main assembly between a first front position and second rear position, and in that said rocker arm is adapted to be automatically switched from its engaging position to its second releasing position as the result of its translation from its first front position towards its second rear position.
A guide wire including a core wire and a coil externally mounted about a distal end portion of the core wire , wherein a cross-sectional shape of a wire that constitutes the coil varies in a lengthwise direction of the coil ; and a cross-sectional area of the wire that constitutes the coil becomes smaller from a proximal end side toward a distal end side of the coil , the guide wire being characterized in that : a height dimension (Da) of the cross-sectional shape of the wire at a proximal end portion of the coil , a height dimension (Db) of the cross-sectional shape of the wire at a medial portion of the coil , and a height dimension (Dc) of the cross-sectional shape of the wire at a distal end portion of the coil are equal to each other.
A control apparatus for a vehicle comprising a manual transmission (MT), the manual transmission (MT) being configured to transmit a drive force from a traveling drive source to drive wheels (T) and allowing any one of a plurality of shift stages to be selected through a manual shift manipulation of a driver, the control apparatus being configured to store a plurality of shift stage corresponding characteristics to set output characteristics of the traveling drive source in accordance with the shift stages, determine a shift stage selected based on a ratio of revolution of the traveling drive source to a revolution of an output shaft of the manual transmission (MT), and change shift stage corresponding characteristics of the traveling drive source in accordance with a result of the determination, wherein change of the shift stage corresponding characteristics of the traveling drive source executed in accordance with the result of the determination of the shift stage is carried out after the manual shift manipulation of the manual transmission (MT) and during a predetermined time starting from a time point at which transmission of the drive force from the traveling drive source to the drive wheels (T) is started, characterized in that the control apparatus is further configured to change, during the predetermined time, the shift stage corresponding characteristic only when a condition where a shift stage targeted by the shift stage corresponding characteristic currently set is different from a shift stage obtained based on the result of the determination and the shift stage obtained based on the result of the determination is maintained continues for a predetermined first determination time.
A light emitting device comprising a substrate and a light emitting element on the substrate, the light emitting element comprising: an N-type semiconductor player; a P-type semiconductor layer; and an active layer that is situated between the N-type semiconductor layer and the P-type semiconductor layer, wherein the light emitting element includes a side-view profile that includes a polygon with more than four sides, forming a light extraction region that includes a plurality of planar light extraction surfaces, at least one light extraction surface being non-orthogonal to, and non-planar with, an adjacent light extraction surface, characterized in that , the polygon is a regular polygon. an N-type semiconductor player; a P-type semiconductor layer; and an active layer that is situated between the N-type semiconductor layer and the P-type semiconductor layer, wherein the light emitting element includes a side-view profile that includes a polygon with more than four sides, forming a light extraction region that includes a plurality of planar light extraction surfaces, at least one light extraction surface being non-orthogonal to, and non-planar with, an adjacent light extraction surface, characterized in that , the polygon is a regular polygon.
A refrigerator comprising: a main body comprising a storage compartment having at least one shelf configured to partition the storage compartment into a plurality of storage portions ; a door configured to open and close the storage compartment , the door having a door pocket configured to accommodate an object; and a camera device mounted on an inner surface of the door and arranged to face the storage compartment when the door is closed to photograph the plurality of storage portions , characterized in that the camera device includes: at least one camera configured to photograph the plurality of storage portions , and a housing , in which the at least one camera is mounted, configured to support the door pocket on the inner surface of the door . a main body comprising a storage compartment having at least one shelf configured to partition the storage compartment into a plurality of storage portions ; a door configured to open and close the storage compartment , the door having a door pocket configured to accommodate an object; and a camera device mounted on an inner surface of the door and arranged to face the storage compartment when the door is closed to photograph the plurality of storage portions , characterized in that the camera device includes: at least one camera configured to photograph the plurality of storage portions , and a housing , in which the at least one camera is mounted, configured to support the door pocket on the inner surface of the door . at least one camera configured to photograph the plurality of storage portions , and a housing , in which the at least one camera is mounted, configured to support the door pocket on the inner surface of the door .
Dry-type vacuum pump , comprising: - at least one oil sump , - at least one pumping stage , - two rotating shafts , each of which bears at least one rotor extending into the at least one pumping stage , the rotors being configured to turn synchronously in opposite directions in order to entrain a gas that is to be pumped between an intake and a delivery of the vacuum pump , the shafts being supported by bearings that are lubricated by a lubricant situated in the at least one oil sump , and - at least one sealing device for sealing against lubricants, which is interposed between the at least one oil sump and a pumping stage at each shaft passage, characterized in that the vacuum pump moreover comprises at least one expansion device configured to reduce the variations in pressure between a pumping-side volume (11; 24) and the at least one oil sump . - at least one oil sump , - at least one pumping stage , - two rotating shafts , each of which bears at least one rotor extending into the at least one pumping stage , the rotors being configured to turn synchronously in opposite directions in order to entrain a gas that is to be pumped between an intake and a delivery of the vacuum pump , the shafts being supported by bearings that are lubricated by a lubricant situated in the at least one oil sump , and - at least one sealing device for sealing against lubricants, which is interposed between the at least one oil sump and a pumping stage at each shaft passage,
A device for swabbing a surface and collecting a substance therefrom, comprising: a handle having a user gripping portion or end and a frame end; a frame connected to or integral with the handle at the frame end and having upper and lower frame surfaces, the frame defining a framed or partially framed area; and cantilever retention members (101A; 101B) positioned on each of the upper and lower frame surfaces, and extending at least partially over the framed or partially framed area, wherein the frame and cantilever retention members (101A; 101B) are configured to cooperatively receive and frictionally retain, by pressure in a direction orthogonal to the extension direction of the cantilever retention members (101A; 101B) in operation of the device, a releasably mountable collecting member between the upper and lower cantilever retention members (101A; 101B) within the framed or partially framed area. a handle having a user gripping portion or end and a frame end; a frame connected to or integral with the handle at the frame end and having upper and lower frame surfaces, the frame defining a framed or partially framed area; and cantilever retention members (101A; 101B) positioned on each of the upper and lower frame surfaces, and extending at least partially over the framed or partially framed area, wherein the frame and cantilever retention members (101A; 101B) are configured to cooperatively receive and frictionally retain, by pressure in a direction orthogonal to the extension direction of the cantilever retention members (101A; 101B) in operation of the device, a releasably mountable collecting member between the upper and lower cantilever retention members (101A; 101B) within the framed or partially framed area.
An encoding method, wherein the method comprises: encoding an input sequence by using a low density parity check LDPC matrix, wherein the LDPC matrix is obtained based on a lifting factor Z and a base matrix, and the base matrix comprises a row 0 to a row 4 and a column 0 to a column 26 in one of the following matrices: 30b-10, 30b-20, 30b-30, 30b-40, 30b-50, 30b-60, 30b-70, and 30b-80, which are shown respectively in figures 3b-1A and 3b-1B through 3b-8A and 3b-8B; wherein in these figures, -1 represents a zero element and non-zero elements are shift values; and wherein obtaining the LDPC matrix based on a lifting factor Z and a base matrix is by replacing a zero element by a zero matrix of dimension ZxZ and by replacing a non-zero element by a shifted circulant matrix of dimension ZxZ corresponding to the shift value; characterized in that the base matrix comprises the row 0 to a row (m - 1) and the column 0 to a column (n - 1) in one of the following matrices: 30b-10, 30b-20, 30b-30, 30b-40, 30b-50, 30b-60, 30b-70, and 30b-80, wherein 5<m≤46 , and 27 ≤ n ≤ 68. encoding an input sequence by using a low density parity check LDPC matrix, wherein the LDPC matrix is obtained based on a lifting factor Z and a base matrix, and the base matrix comprises a row 0 to a row 4 and a column 0 to a column 26 in one of the following matrices: 30b-10, 30b-20, 30b-30, 30b-40, 30b-50, 30b-60, 30b-70, and 30b-80, which are shown respectively in figures 3b-1A and 3b-1B through 3b-8A and 3b-8B; wherein in these figures, -1 represents a zero element and non-zero elements are shift values; and wherein obtaining the LDPC matrix based on a lifting factor Z and a base matrix is by replacing a zero element by a zero matrix of dimension ZxZ and by replacing a non-zero element by a shifted circulant matrix of dimension ZxZ corresponding to the shift value; characterized in that the base matrix comprises the row 0 to a row (m - 1) and the column 0 to a column (n - 1) in one of the following matrices: 30b-10, 30b-20, 30b-30, 30b-40, 30b-50, 30b-60, 30b-70, and 30b-80, wherein 5<m≤46 , and 27 ≤ n ≤ 68.
A protection arrangement of a flameproof electric machine, comprising a plurality of solid elements (200 to 210) layered one after another between a terminal box and a stator of the electric machine ; each of the solid elements (200 to 210) comprises a cable hole , and the cable holes are arranged to at least partially overlap with each other in order to have a cable channel of the successive cable holes through the solid elements (200 to 210); characterized in that at least a part of the plurality of solid elements (200 to 210) are adjustable in a radial direction of the cable channel for making a diameter of the cable channel equal to or smaller than a diameter of the electric cable input in the cable channel in response to adjustment in the radial direction, so that the electric cable from the terminal box to the stator is sealed so that a possible explosion in either the stator or the terminal box does not traverse to other; and the protection arrangement comprises a locking mechanism which is configured to immobilize said at least part of the plurality of solid elements (200 to 210).
A hydrogel comprising a self-aggregated tripeptide, wherein the self-aggregated tripeptide is selected from the group consisting of KFF, KYF, KYY, and KYW
An agrochemical composition comprising a pesticide and an alkoxylate of the formula (I) R 1 -[AO] n -O-C(R 3 )(R 4 )-O-[CH 2 -CH 2 -O] m -R 2 (I) where R 1 is a C 6 -C 32 aliphatic hydrocarbon group, R 2 is a C 1 -C 18 aliphatic hydrocarbon group, R 3 and R 4 are independently form another H or C 1 -C 12 aliphatic hydrocarbon groups, AO is C 2 -C 6 alkyleneoxy group, wherein the unit AO is bound to the unit R 1 via an oxygen atom of the alkyleneoxy group, n is from 1 to 100, and m is from 1 to 10. R 1 is a C 6 -C 32 aliphatic hydrocarbon group, R 2 is a C 1 -C 18 aliphatic hydrocarbon group, R 3 and R 4 are independently form another H or C 1 -C 12 aliphatic hydrocarbon groups, AO is C 2 -C 6 alkyleneoxy group, wherein the unit AO is bound to the unit R 1 via an oxygen atom of the alkyleneoxy group, n is from 1 to 100, and m is from 1 to 10.
Device for carrying out mitre cuts, comprising a central element which has cutting guide elements defining a cut line (S) and two legs articulated on the central element, which legs interact with a mechanism such that the cut line (S) extends along an angle bisector with respect to the adjustable and lockable pivot angle (α) of the legs , each leg having a fastening point for a locking lever , by means of which locking lever the pivot angle (α) can be locked by fixing a spacing of the two fastening points along a connection line (V) extending through the fastening points , characterised in that the locking lever is shaped and articulated on the legs such that when the legs pivot about the swivel pin from an extended position into a perpendicular position, said lever remains within the outline of the legs and the central element , the connection line (V) not extending through a swivel pin of one of the legs in any pivot position.
Method for controlling a running gear component of a vehicle, in which - a control unit of the running gear component continuously generates, in accordance with a generation clock frequency, a plurality of control requests, each comprising a control value , for a computational actuator of the running gear component; - a bus system of the vehicle continuously transmits, in accordance with a transmission clock frequency, control requests generated by the control unit to the actuator; - the actuator calculates a desired setting for the running gear component from the control value of each transmitted control request and an actual setting of the running gear component, and adjusts the running gear component in accordance with the calculated desired setting , and in which - the actuator calculates at least one intermediate setting between two control requests transmitted directly one after the other. - a control unit of the running gear component continuously generates, in accordance with a generation clock frequency, a plurality of control requests, each comprising a control value , for a computational actuator of the running gear component; - a bus system of the vehicle continuously transmits, in accordance with a transmission clock frequency, control requests generated by the control unit to the actuator; - the actuator calculates a desired setting for the running gear component from the control value of each transmitted control request and an actual setting of the running gear component, and adjusts the running gear component in accordance with the calculated desired setting , and in which - the actuator calculates at least one intermediate setting between two control requests transmitted directly one after the other.
A single stranded antisense oligonucleotide which is able to mediate gene regulation by RNase-H mediated antisense RNA targeting, for use in a method of therapy, wherein the single stranded oligonucleotide contains two or more acyl-amino-LNA nucleotide monomers, in which other nucleotide monomers can be DNA, RNA or chemically modified nucleotide monomers; in which the monomers of the oligonucleotide are linked by phosphodiester linkages and/or phosophorothioate linkages and/or phosphotriester linkages, in which the acyl groups of the acyl-amino-LNA monomers are optionally substituted and thus optionally contain one or more hydroxyl group(s), amino group(s), thio group(s), oxo group(s), alkylthio group(s), ether group(s), and/or thiol (mercapto) group(s), provided that the total number of carbon atoms in each acyl group is less than 30, wherein the acyl-amino-LNA monomers are acyl-amino-LNA monomers in which a mono-, di-, or trimeric galactosyl or N-acetylamino galactosyl moiety is linked via the 2'-amino group of the amino-LNA monomer.
A process for the manufacture of a hydroxytyrosol carbonate ester compound represented by Formula 2 wherein R 1 is a saturated or unsaturated, branched or straight chain, substituted or unsubstituted, C 1 -C 22 aliphatic, alicyclic, or alkaryl group, comprising oxidizing a lipophilic formyltyrosol ester represented by Formula 5: with a peroxide compound; wherein R 2 is a branched or straight chain, saturated or unsaturated, substituted or unsubstituted, C 2 -C 24 aliphatic, alicyclic, or alkaryl group; wherein said peroxide comprises hydrogen peroxide; to obtain a lipophilic hydroxytyrosol ester represented by Formula 6:
A method for an object sensing system comprising: designating a plurality of transmitter and receiver channels for a transmitter antenna array and a receiver antenna array of the object sensing system , wherein a transmitter channel is using one or a combination of antenna elements of the transmitter antenna array and a receiver channel is using one or a combination of antenna elements of the receiver antenna array ; scanning the transmitter antenna array and the receiver antenna array through the designated channels to measure channel responses corresponding to each one of the designated channels; forming a measurement matrix comprising entries corresponding to each measured channel response, wherein the designating the plurality of transmitter and receiver channels comprises: forming a transmitter amplitude weight vector, AWV, matrix comprising one or more transmitter AWVs corresponding to each transmitter channel in the plurality of transmitter and receiver channels, and forming a receiver AWV matrix comprising one or more receiver AWVs corresponding to each receiver channel in the plurality of transmitter and receiver channels; deriving a channel matrix from the measurement matrix, the transmitter AWV matrix, and the receiver AWV matrix; and determining a directional vector to or from an object by performing singular value decomposition on the channel matrix to determine at least a largest singular value corresponding to the directional vector to or from the object. designating a plurality of transmitter and receiver channels for a transmitter antenna array and a receiver antenna array of the object sensing system , wherein a transmitter channel is using one or a combination of antenna elements of the transmitter antenna array and a receiver channel is using one or a combination of antenna elements of the receiver antenna array ; scanning the transmitter antenna array and the receiver antenna array through the designated channels to measure channel responses corresponding to each one of the designated channels; forming a measurement matrix comprising entries corresponding to each measured channel response, wherein the designating the plurality of transmitter and receiver channels comprises: forming a transmitter amplitude weight vector, AWV, matrix comprising one or more transmitter AWVs corresponding to each transmitter channel in the plurality of transmitter and receiver channels, and forming a receiver AWV matrix comprising one or more receiver AWVs corresponding to each receiver channel in the plurality of transmitter and receiver channels; deriving a channel matrix from the measurement matrix, the transmitter AWV matrix, and the receiver AWV matrix; and determining a directional vector to or from an object by performing singular value decomposition on the channel matrix to determine at least a largest singular value corresponding to the directional vector to or from the object.