mhurhangee/ep-ind-claims huggingface dataset:
A lock apparatus, comprising: a plurality of locking discs rotatable about a rotational axis between locked and unlocked states, each of said locking discs having a locking engagement surface and an outer surface; at least one driver disc rotatable about said rotational axis and having a driving engagement surface; a movable catch having a locked position and an unlocked position, said movable catch having a catch surface that abuts said locking engagement surface of said locking discs when said movable catch is in said locked position wherein rotation of said locking discs is inhibited, and wherein said catch surface does not abut said locking engagement surface of said locking discs when said movable catch is in said unlocked position wherein rotation of said locking discs is enabled; and wherein said driving engagement surface of said at least one driver disc engages a portion of said movable catch upon rotation of said driver disc about said rotational axis to thereby displace said movable catch from said locked position to said unlocked position. a plurality of locking discs rotatable about a rotational axis between locked and unlocked states, each of said locking discs having a locking engagement surface and an outer surface; at least one driver disc rotatable about said rotational axis and having a driving engagement surface; a movable catch having a locked position and an unlocked position, said movable catch having a catch surface that abuts said locking engagement surface of said locking discs when said movable catch is in said locked position wherein rotation of said locking discs is inhibited, and wherein said catch surface does not abut said locking engagement surface of said locking discs when said movable catch is in said unlocked position wherein rotation of said locking discs is enabled; and wherein said driving engagement surface of said at least one driver disc engages a portion of said movable catch upon rotation of said driver disc about said rotational axis to thereby displace said movable catch from said locked position to said unlocked position.
A method for genotyping DNA molecules contained in at least one DNA sample comprising: a) digesting the DNA molecules contained in at least one DNA sample with a class IIB restriction endonuclease to generate DNA fragments; b) optionally separating DNA fragments comprising the recognition site for said class IIB restriction endonuclease from the remaining DNA fragments; c) attaching at least one adaptor DNA to the 5' and/or 3' end of one or both strands of the DNA fragments comprising the recognition site for said class IIB restriction endonuclease obtained in a) or separated in b) to form adaptor-fragment constructs; d) determining the sequence of at least a fraction of the DNA fragments obtained in c); and e) assigning genotypes to said at least one DNA sample analysed based on the sequence data obtained in d), wherein said at least one DNA sample is a plurality of DNA samples and wherein said adaptor DNA attached in c) (i) comprises a DNA barcode specific for each DNA sample; or (ii) is amplified using at least one primer binding to said adaptor DNA, wherein said primer comprises a DNA barcode specific for each DNA sample; and wherein step d) further comprises determining the sequence of the DNA barcode specific for each sample. a) digesting the DNA molecules contained in at least one DNA sample with a class IIB restriction endonuclease to generate DNA fragments; b) optionally separating DNA fragments comprising the recognition site for said class IIB restriction endonuclease from the remaining DNA fragments; c) attaching at least one adaptor DNA to the 5' and/or 3' end of one or both strands of the DNA fragments comprising the recognition site for said class IIB restriction endonuclease obtained in a) or separated in b) to form adaptor-fragment constructs; d) determining the sequence of at least a fraction of the DNA fragments obtained in c); and e) assigning genotypes to said at least one DNA sample analysed based on the sequence data obtained in d), wherein said at least one DNA sample is a plurality of DNA samples and wherein said adaptor DNA attached in c) (i) comprises a DNA barcode specific for each DNA sample; or (ii) is amplified using at least one primer binding to said adaptor DNA, wherein said primer comprises a DNA barcode specific for each DNA sample; and wherein step d) further comprises determining the sequence of the DNA barcode specific for each sample. (i) comprises a DNA barcode specific for each DNA sample; or (ii) is amplified using at least one primer binding to said adaptor DNA, wherein said primer comprises a DNA barcode specific for each DNA sample; and
Method for light microscopic imaging of a sample structure, wherein: - the sample structure is prepared with markers that may be transferred into a state that may be imaged by light microscopy, - an active marker subset is generated wherein a portion of the markers is transferred into a state that may be imaged by light microscopy, - in the presence of a predetermined activation state, in which the markers contained in the active marker subset are at a mean distance from one another that is greater than a minimum distance predetermined by the resolution limit of the light microscopic imaging, and wherein the sample structure is placed on an arrangement of sensor elements each of which generates a frame, wherein these frames yield a single frame of the sample structure in their entirety, while the presence of the predetermined activation state is checked, characterized in that the presence of the predetermined activation state is checked by generating at least two check frames separated by a time interval, wherein the change of the image signal between the two check frames is detected for at least one portion of the sensor elements, and the presence of the predetermined activation state is detected when the detected changes of the image signals exceed a predetermined magnitude in their entirety. - the sample structure is prepared with markers that may be transferred into a state that may be imaged by light microscopy, - an active marker subset is generated wherein a portion of the markers is transferred into a state that may be imaged by light microscopy, - in the presence of a predetermined activation state, in which the markers contained in the active marker subset are at a mean distance from one another that is greater than a minimum distance predetermined by the resolution limit of the light microscopic imaging, and wherein the sample structure is placed on an arrangement of sensor elements each of which generates a frame, wherein these frames yield a single frame of the sample structure in their entirety, while the presence of the predetermined activation state is checked,
Segmentation method of an image, the method being computer-implemented and comprising the following steps: selecting pixels of said image; (i) evaluating a curvature at each of said pixels, a domain of values of the curvature being discretized into a finite number of values, and said curvature being evaluated in said discretized domain; (ii) defining a topographic relief based on said image, an altitude of each of said pixels corresponding to said curvature evaluated in step (i); (iii) calculating a watershed of said topographic relief defined in step (ii) to delimitate catchment basins; (iv) defining a partition of said pixels based on said watershed calculated in step (iii); (v) defining a segmentation of said image into one or more groups of pixels based on said partition defined in step (iv). selecting pixels of said image; (i) evaluating a curvature at each of said pixels, a domain of values of the curvature being discretized into a finite number of values, and said curvature being evaluated in said discretized domain; (ii) defining a topographic relief based on said image, an altitude of each of said pixels corresponding to said curvature evaluated in step (i); (iii) calculating a watershed of said topographic relief defined in step (ii) to delimitate catchment basins; (iv) defining a partition of said pixels based on said watershed calculated in step (iii); (v) defining a segmentation of said image into one or more groups of pixels based on said partition defined in step (iv).
An application device for treating the teats of animals with a liquid, the device comprising i) a cup portion having internal and external surfaces, an upper open first end capable of receiving an animal teat and a lower closed second end and ii) a fluid supply conduit having an outlet through which the liquid is conveyed into the cup portion, characterised in that the cross-sectional area of the outlet is greater than the horizontal cross-sectional area of the fluid supply conduit.
A production method for pure scandium comprising process steps of: a) obtaining fluorinated salt mixture of scandium in NaScF 4 and Na 3 ScF 6 forms from the scandium compound in (NH 4) 2 NaScF 6 form via calcination process, wherein the calcination process of the scandium compound in (NH 4) 2 NaScF 6 form, is conducted at 350-400 °C for a duration of 1-3 hours; b) electrolysis process of the obtained fluorinated scandium salt mixture in NaScF 4 and Na 3 ScF 6 forms via molten salt electrolysis method, wherein the electrolysis process comprises: • heating the fluorinated scandium salt mixture in NaScF 4 and Na 3 ScF 6 forms, until it is molten to the temperature of 600-1100 °C, • applying an electrical current to the obtained molten salt bath through the anode and the cathode in order to maintain 2-8 volts of potential difference, • obtaining pure scandium metal at the bottom of the electrolysis cell by reducing and separating the Sc +3 ions from the molten salt mixture via this applied electrical current and potential. a) obtaining fluorinated salt mixture of scandium in NaScF 4 and Na 3 ScF 6 forms from the scandium compound in (NH 4) 2 NaScF 6 form via calcination process, wherein the calcination process of the scandium compound in (NH 4) 2 NaScF 6 form, is conducted at 350-400 °C for a duration of 1-3 hours; b) electrolysis process of the obtained fluorinated scandium salt mixture in NaScF 4 and Na 3 ScF 6 forms via molten salt electrolysis method, wherein the electrolysis process comprises: • heating the fluorinated scandium salt mixture in NaScF 4 and Na 3 ScF 6 forms, until it is molten to the temperature of 600-1100 °C, • applying an electrical current to the obtained molten salt bath through the anode and the cathode in order to maintain 2-8 volts of potential difference, • obtaining pure scandium metal at the bottom of the electrolysis cell by reducing and separating the Sc +3 ions from the molten salt mixture via this applied electrical current and potential. • heating the fluorinated scandium salt mixture in NaScF 4 and Na 3 ScF 6 forms, until it is molten to the temperature of 600-1100 °C, • applying an electrical current to the obtained molten salt bath through the anode and the cathode in order to maintain 2-8 volts of potential difference, • obtaining pure scandium metal at the bottom of the electrolysis cell by reducing and separating the Sc +3 ions from the molten salt mixture via this applied electrical current and potential.
A lidar imaging apparatus for a motor vehicle, comprising an emitting section adapted to emit a pulsed light beam and to change the direction of the light beam in two dimensions perpendicularly to the light beam, a receiving section having a lens objective and a lidar detector, and an electronic processing unit, wherein light entering the lidar imaging apparatus through said lens objective is directed on said lidar detector, wherein said electronic processing unit is adapted to determine the time-of-flight of a laser pulse from said emitting section to said lidar detector, wherein the receiving section comprises a beam splitter arranged in the light path from said lens objective to said lidar detector, and a further photo detector, wherein said beam splitter is adapted to split off a part of the light beam from said lens objective and to direct the split-off part of said light beam to said further photo detector, characterized in that said electronic processing unit is adapted to determine a condition, where, due to a reduced detection range caused by adverse weather conditions, said lidar imaging is not fully operative, and if such condition is determined, to use images from said further photo detector at different depths to estimate a depth map.
Method for calibrating an inertial head tracking device carried by a user and measuring at least one rotational angle of the moving head of the user, comprising emitting an electromagnetic beam from the inertial head tracking device; deflecting the emitted electromagnetic beam in one direction, in particular, vertically, within a predetermined angular range; providing a mirror at a fixed position spaced apart from the inertial head tracking device; at least partly reflecting the electromagnetic beam from the mirror to the inertial head tracking device and receiving the at least partly reflected electromagnetic beam by the inertial head tracking device; and resetting the at least one measured rotational angle to a predetermined value when the at least partly reflected electromagnetic beam is received by the inertial head tracking device in response to the reception of the at least partly reflected electromagnetic beam.
A coated substrate comprising a fibrous substrate comprising polytrimethylene terephthalate wherein the fibrous substrate is at least partially coated with a dried coating composition comprising a perfluoropolyether of Formula I: F-[CF(CF 3)-CF 2 O] n -CF 2 CF 3 wherein n is an integer from 5 to 100; and, wherein the coated substrate contains from 5 to 35 wt% of the perfluoropolyether of Formula I relative to the total weight of the coated substrate.
A halogen-free resin composition, characterized in comprising the following components in parts by weight: from 50 to 100 parts of an epoxy resin, from 20 to 70 parts of benzoxazine, from 5 to 40 parts of a polyphenyl ether, from 5 to 40 parts of allylbenzene-maleic anhydride, from 10 to 60 parts of a halogen-free flame retardant, from 0.2 to 5 parts of a curing accelerator, and from 20 to 100 parts of a filler; wherein the allylbenzene-maleic anhydride has the following chemical structural formula wherein x is any one selected from the group consisting of 1-4, 6 and 8; n is any one selected from the group consisting of 1-12; both x and n are integers.
An injector head for transiting tubing in and out of well bores, comprising: a plurality of chain loops arranged adjacent to each other, at least one of which is driven, and each of which has disposed thereon a plurality of gripping elements; the plurality of chain loops being arranged for gripping tubing constrained between the chain loops and moving the tubing by movement of the chain loops along an elongated, closed path, the path having a gripping portion, along which the gripping elements on the chain loops are being forced toward each other; and a chain guide for constraining movement of one of the plurality of chain loops along an otherwise free segment of a non-gripping portion of its path, outside the gripping portion of the path; the chain guide constraining movement of the one of the chain loops with at least a plurality of points along the free segment of the non-gripping portion of the path, the points being spaced apart for effectively preventing oscillation of the free segment of the one of the chain loops when transiting the tubing in and out of well bores, characterized in that the chain guide is comprised of a continuously curved member extending along at least a portion of the non-gripping portion of the path of the at least one of the plurality of chain loops, wherein the chain guide is incorporated as part of a frame of the injector head. a plurality of chain loops arranged adjacent to each other, at least one of which is driven, and each of which has disposed thereon a plurality of gripping elements; the plurality of chain loops being arranged for gripping tubing constrained between the chain loops and moving the tubing by movement of the chain loops along an elongated, closed path, the path having a gripping portion, along which the gripping elements on the chain loops are being forced toward each other; and a chain guide for constraining movement of one of the plurality of chain loops along an otherwise free segment of a non-gripping portion of its path, outside the gripping portion of the path; the chain guide constraining movement of the one of the chain loops with at least a plurality of points along the free segment of the non-gripping portion of the path, the points being spaced apart for effectively preventing oscillation of the free segment of the one of the chain loops when transiting the tubing in and out of well bores, characterized in that the chain guide is comprised of a continuously curved member extending along at least a portion of the non-gripping portion of the path of the at least one of the plurality of chain loops, wherein the chain guide is incorporated as part of a frame of the injector head.
A compound of formula or its stereoisomers or pharmaceutically acceptable salts thereof, wherein R 1 is an alkyl; R 2 is selected from the group consisting of hydrogen, halogen, cyano, nitro, alkyl, hydroxyalkyl, haloalkyl, haloalkyloxy and alkoxy; R' and R" are independently selected from hydrogen or alkyl; R 3 is -P (OR 5) 2; R 5 is selected from the group consisting of hydrogen, alkyl, -CH 2 OC alkyl or-CH 2 OC Oalkyl; R 5 is optionally substituted with 1 to 4 substituents independently selected from hydroxyl, halogen, alkyl, alkoxy, haloalkyl, -NR 8 R 9, -C OR 10, -OC R 10 or-NC R 10; R 8 and R 9 are independently selected from the group consisting of hydrogen and alkyl; R 10 is selected from the group consisting of hydrogen, hydroxy, halogen, amino, substituted amino, cyano, alkyl, alkoxy, haloalkyl, haloalkoxy, carboxy, carboxyalkyl, aminocarbonyl, aryl and arylalkyl; X is heteroarylene; A is selected from a bond or (C 1 -C 6)alkylene; B is selected from aryl or heteroaryl; wherein aryl and heteroaryl are unsubstituted or substituted independently with alkyl,halogen,haloalkyl or perhaloalkyl; D is selected from -O-, -S p- or -N(R a)-; R a is hydrogen or an alkyl; p is 0, 1 or 2; and t is 1. R 1 is an alkyl; R 2 is selected from the group consisting of hydrogen, halogen, cyano, nitro, alkyl, hydroxyalkyl, haloalkyl, haloalkyloxy and alkoxy; R' and R" are independently selected from hydrogen or alkyl; R 3 is -P (OR 5) 2; R 5 is selected from the group consisting of hydrogen, alkyl, -CH 2 OC alkyl or-CH 2 OC Oalkyl; R 5 is optionally substituted with 1 to 4 substituents independently selected from hydroxyl, halogen, alkyl, alkoxy, haloalkyl, -NR 8 R 9, -C OR 10, -OC R 10 or-NC R 10; R 8 and R 9 are independently selected from the group consisting of hydrogen and alkyl; R 10 is selected from the group consisting of hydrogen, hydroxy, halogen, amino, substituted amino, cyano, alkyl, alkoxy, haloalkyl, haloalkoxy, carboxy, carboxyalkyl, aminocarbonyl, aryl and arylalkyl; R 5 is selected from the group consisting of hydrogen, alkyl, -CH 2 OC alkyl or-CH 2 OC Oalkyl; R 5 is optionally substituted with 1 to 4 substituents independently selected from hydroxyl, halogen, alkyl, alkoxy, haloalkyl, -NR 8 R 9, -C OR 10, -OC R 10 or-NC R 10; R 8 and R 9 are independently selected from the group consisting of hydrogen and alkyl; R 10 is selected from the group consisting of hydrogen, hydroxy, halogen, amino, substituted amino, cyano, alkyl, alkoxy, haloalkyl, haloalkoxy, carboxy, carboxyalkyl, aminocarbonyl, aryl and arylalkyl; X is heteroarylene; A is selected from a bond or (C 1 -C 6)alkylene; B is selected from aryl or heteroaryl; wherein aryl and heteroaryl are unsubstituted or substituted independently with alkyl,halogen,haloalkyl or perhaloalkyl; wherein aryl and heteroaryl are unsubstituted or substituted independently with alkyl,halogen,haloalkyl or perhaloalkyl; D is selected from -O-, -S p- or -N(R a)-; R a is hydrogen or an alkyl; p is 0, 1 or 2; and R a is hydrogen or an alkyl; p is 0, 1 or 2; and t is 1.
Cooking oven comprising a main body with a cavity, and a side-opening door configured for closing the cavity and being mounted hingedly about a vertical axis by means of at least one door hinge to the main body, wherein the cooking oven further comprises a damping element which is mounted to the door and to the main body and extends between and interconnects the door and the main body characterized in that the damping element is adapted to at least one of damping a sideways opening movement of the door and damping a sideways closing movement of the door, wherein the damping element passes through an opening provided in a front lining of the main body.
A propylene-based resin composition comprising: an impact polypropylene component, and a linear low-density polyethylene component containing methylpentene as a comonomer, wherein the composition contains a xylene-soluble fraction in an amount of 8 to 20 mass%, measured using the boiling xylene method set out in the description, and an intrinsic viscosity measured for the xylene-soluble fraction using tetralin at 135°C as a solvent is in a range of 1.0 to 2.9 dL/g. an impact polypropylene component, and a linear low-density polyethylene component containing methylpentene as a comonomer, wherein the composition contains a xylene-soluble fraction in an amount of 8 to 20 mass%, measured using the boiling xylene method set out in the description, and an intrinsic viscosity measured for the xylene-soluble fraction using tetralin at 135°C as a solvent is in a range of 1.0 to 2.9 dL/g.
Onboard information system for vehicles, comprising a housing in which a computation unit and a first mass memory are arranged and are connected to one another for the purpose of data transfer, wherein the system comprises a support which can at least to some extent be moved out of the housing and which has a data interface for a second mass memory, which data interface is connected to the computation unit for the purpose of data transfer, wherein the support has, on the data interface, a receptacle for at least to some extent holding the second mass memory, wherein the receptacle comprises an opening for the insertion of the second mass memory into the receptacle, wherein the system comprises an adapter for connecting the second mass memory to the data interface, wherein the adapter is designed to correspond to the receptacle for the purpose of making a form-fit and/or force-fit connection between the adapter and the receptacle and wherein the adapter comprises at least one mount element for the second mass memory, wherein the opening in the receptacle for the second mass memory is not facing a front of the housing, wherein the front of the support can be moved out of the housing and the housing is configured as an installed housing that, apart from a front element of the housing arranged on the front, is installable in a corresponding installation slot, in particular in a dashboard in a vehicle, wherein operator control elements, a display and a passage opening for inserting a chip card of the on-board information system, in particular a driver's card, are arranged on the front element, wherein the system has a further data interface, to which the computation unit is connected in series for the purpose of data transfer, wherein the computation unit is set up to use this further data interface to write to and read the chip card, wherein the chip card can be pushed into the housing at least partially through the passage opening until contact is made between the chip card and the further data interface.