mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of analysis of a signal derived from a polymer during translocation of the polymer with respect to a nanopore, the polymer comprising a series of polymer units belonging to a set of possible types of polymer unit, the method comprising: analysing the signal using a machine learning technique that outputs a series of weight distributions; and deriving an estimate of the series of polymer units from the weight distributions, characterised in that each weight distribution comprises weights in respect of transitions between labels over a set of labels, including labels representing the possible types of polymer unit. analysing the signal using a machine learning technique that outputs a series of weight distributions; and deriving an estimate of the series of polymer units from the weight distributions, characterised in that each weight distribution comprises weights in respect of transitions between labels over a set of labels, including labels representing the possible types of polymer unit.
A heat exchange system including: a shell having an interior with an inlet and an outlet wherein a first fluid circuit is defined from the inlet, through a heat exchange volume within the interior of the shell, to the outlet; a set of tubes extending through the heat exchange volume, and a spray nozzle, a tubesheet (110, 112) is mounted within the shell dividing between the heat exchange volume and a plenum (114, 116) of a second fluid circuit within the interior of the shell; that a respective interior passage of each tube is in fluid communication with the plenum (114, 116) through a respective opening through the tubesheet (110, 112), wherein the second fluid circuit includes the plenum (114, 116) and interior passages of the tubes; characterised in that the spray nozzle is mounted in the plenum (114, 116) of the second fluid circuit with a spray outlet directed toward the tubesheet (110. 112) for cleaning the tubesheet (110, 112) with a submerged impingement jet issued from the spray nozzle; and in that the spray nozzle includes a mechanism configured to move the spray outlet through a procession of angles relative to the tubesheet (110, 112) in two directions (A, B) to move the impingement jet over an area of the tubesheet (110, 112). a shell having an interior with an inlet and an outlet wherein a first fluid circuit is defined from the inlet, through a heat exchange volume within the interior of the shell, to the outlet; a set of tubes extending through the heat exchange volume, and a spray nozzle, a tubesheet (110, 112) is mounted within the shell dividing between the heat exchange volume and a plenum (114, 116) of a second fluid circuit within the interior of the shell; that a respective interior passage of each tube is in fluid communication with the plenum (114, 116) through a respective opening through the tubesheet (110, 112), wherein the second fluid circuit includes the plenum (114, 116) and interior passages of the tubes; characterised in that the spray nozzle is mounted in the plenum (114, 116) of the second fluid circuit with a spray outlet directed toward the tubesheet (110. 112) for cleaning the tubesheet (110, 112) with a submerged impingement jet issued from the spray nozzle; and in that the spray nozzle includes a mechanism configured to move the spray outlet through a procession of angles relative to the tubesheet (110, 112) in two directions (A, B) to move the impingement jet over an area of the tubesheet (110, 112).
A service satellite having a satellite body, a controller and a docking unit, the docking unit comprising: at least two foldable, adjustable gripping arms (204, 204') pivotally mounted on the satellite body, each gripping arm (204, 204') being pivotable relative to the satellite body; and a gripping end at each free end of the gripping arms (204, 204'), wherein the gripping ends are configured to capture and grip a target portion of an orbiting satellite; each gripping arm (204, 204') being controllable independently by the controller, wherein the controller is configured to coordinate motion of the gripping arms; characterised in that each gripping arm (204, 204') is formed of a multiple bar linkage pivotally mounted on the satellite body, the multiple bar linkage including: a first and second crank (204C, 204D) pivotally mounted on the satellite body; an operational rod comprising at one end the gripping end, and being pivotally mounted at its other end to the first crank, and being pivotally mounted at another location along its length to the second crank; and a motor on one pivot, coupled to the controller. at least two foldable, adjustable gripping arms (204, 204') pivotally mounted on the satellite body, each gripping arm (204, 204') being pivotable relative to the satellite body; and a gripping end at each free end of the gripping arms (204, 204'), wherein the gripping ends are configured to capture and grip a target portion of an orbiting satellite; each gripping arm (204, 204') being controllable independently by the controller, wherein the controller is configured to coordinate motion of the gripping arms; characterised in that each gripping arm (204, 204') is formed of a multiple bar linkage pivotally mounted on the satellite body, the multiple bar linkage including: a first and second crank (204C, 204D) pivotally mounted on the satellite body; an operational rod comprising at one end the gripping end, and being pivotally mounted at its other end to the first crank, and being pivotally mounted at another location along its length to the second crank; and a motor on one pivot, coupled to the controller. a first and second crank (204C, 204D) pivotally mounted on the satellite body; an operational rod comprising at one end the gripping end, and being pivotally mounted at its other end to the first crank, and being pivotally mounted at another location along its length to the second crank; and a motor on one pivot, coupled to the controller.
A CPAP device comprising: a humidifier; and a flow generator (20, 600) including: a flow generator outlet, a motor having a motor outlet, characterized in that the flow generator further includes: a muffler chamber (645, 705) having an inlet coupled to the motor outlet and a muffler chamber outlet in communication with the flow generator outlet, wherein said muffler chamber includes an upper part conduit portion and a lower storage portion integrally formed with the upper part conduit portion, and wherein the lower storage portion is configured and dimensioned to store spill-back from the humidifier to prevent water from reaching electronics or the motor. a humidifier; and a flow generator (20, 600) including: a flow generator outlet, a motor having a motor outlet, characterized in that the flow generator further includes: a muffler chamber (645, 705) having an inlet coupled to the motor outlet and a muffler chamber outlet in communication with the flow generator outlet, wherein said muffler chamber includes an upper part conduit portion and a lower storage portion integrally formed with the upper part conduit portion, and wherein the lower storage portion is configured and dimensioned to store spill-back from the humidifier to prevent water from reaching electronics or the motor. a flow generator outlet, a motor having a motor outlet, characterized in that the flow generator further includes: a muffler chamber (645, 705) having an inlet coupled to the motor outlet and a muffler chamber outlet in communication with the flow generator outlet, wherein said muffler chamber includes an upper part conduit portion and a lower storage portion integrally formed with the upper part conduit portion, and wherein the lower storage portion is configured and dimensioned to store spill-back from the humidifier to prevent water from reaching electronics or the motor. a muffler chamber (645, 705) having an inlet coupled to the motor outlet and a muffler chamber outlet in communication with the flow generator outlet, wherein said muffler chamber includes an upper part conduit portion and a lower storage portion integrally formed with the upper part conduit portion, and wherein the lower storage portion is configured and dimensioned to store spill-back from the humidifier to prevent water from reaching electronics or the motor.
A compound having a substituted anthracene ring structure and a pyridoindole ring structure, which is represented by the following general formula: (in the formula, Ar 1 and Ar 2 may be the same or different from each other, wherein Ar 1 represents an unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted aromatic heterocyclic group or a substituted or unsubstituted condensed polycyclic aromatic group, and Ar 2 represents a substituted or unsubstituted aromatic hydrocarbon group or a substituted or unsubstituted condensed polycyclic aromatic group; A and B may be the same or different from each other and each represents a single bond, a substituted or unsubstituted aromatic hydrocarbon divalent group, a substituted or unsubstituted aromatic heterocyclic divalent group or a substituted or unsubstituted condensed polycyclic aromatic divalent group; R 1 to R 7 may be the same or different from one another, and each represents a hydrogen atom, a deuterium atom, a fluorine atom, a chlorine atom, a cyano group, a trifluoromethyl group, a linear or branched alkyl group having from 1 to 6 carbon atoms, a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted aromatic heterocyclic group or a substituted or unsubstituted condensed polycyclic aromatic group; R 8 represents a deuterium atom, a fluorine atom, a chlorine atom, a cyano group, a trifluoromethyl group, or a linear or branched alkyl group having from 1 to 6 carbon atoms; r 8 represents 0 or an integer of from 1 to 8, wherein when r 8 is 2 or more, two or more of R 8 's may be the same or different from one another and when r 8 is 0, it means no substitution with R 8; and each of W, X, Y and Z represents a carbon atom or a nitrogen atom, wherein only one of W, X, Y and Z is nitrogen atom and the nitrogen atom in that case does not have the hydrogen atom or substituent group of R 1 to R 4).
A method of producing an edible food product, comprising 40% cocoa butter, 5% pea protein isolate and 50% lyophilized powder of plant and/or animal origin, characterized in that said method comprises the steps of: a) melting the cocoa butter at a temperature of 35 - 40°C; b) mixing the ingredient obtained in step a) with pea protein isolate and further heating; c) mixing the mixture obtained in step b) with a lyophilized powder of plant/animal origin; d) dispensing the resulting mixture into molds and cooling at about -18° C, for about 15 minutes. a) melting the cocoa butter at a temperature of 35 - 40°C; b) mixing the ingredient obtained in step a) with pea protein isolate and further heating; c) mixing the mixture obtained in step b) with a lyophilized powder of plant/animal origin; d) dispensing the resulting mixture into molds and cooling at about -18° C, for about 15 minutes.
An active grille system comprising: an active grille having at least one driven vane movable between an open position and a closed position; an electrically driven actuator connectable to the at least one driven vane and configured to provide power that drives the at least one driven vane between the closed position and the open position; and a fail safe module, characterized by the fail safe module connected between the at least one driven vane and the electrically driven actuator wherein the fail safe module selectively provides a fail safe position to the at least one driven vane and the fail safe module has a lock position where the fail safe module, the electrically driven actuator and the at least one driven vane move together in response to the power provided by the electrically driven actuator and an unlocked position where the fail safe module disengages the at least one driven vane from the electrically driven actuator and moves the at least one driven vane to the fail safe position. an active grille having at least one driven vane movable between an open position and a closed position; an electrically driven actuator connectable to the at least one driven vane and configured to provide power that drives the at least one driven vane between the closed position and the open position; and a fail safe module, characterized by the fail safe module connected between the at least one driven vane and the electrically driven actuator wherein the fail safe module selectively provides a fail safe position to the at least one driven vane and the fail safe module has a lock position where the fail safe module, the electrically driven actuator and the at least one driven vane move together in response to the power provided by the electrically driven actuator and an unlocked position where the fail safe module disengages the at least one driven vane from the electrically driven actuator and moves the at least one driven vane to the fail safe position.
A household appliance comprising a number of control knobs on a control panel, said control panel having knob openings and corresponding knob holders having a hollow body for securely holding and fixing of said knobs, characterized in that, the control panel further comprises an inwardly arranged ridge formed integrally with the control panel in the circumferential vicinity of each knob opening wherein each ridge comprises at least one clamping slot arranged in perpendicular direction to the control panel, and in that, the knob holder comprises a latching device having a tip portion arranged to be fixedly engaged with the slot when the knob holder abuts to the circumferential area of said ridge, wherein the knob holder is adapted tightly to surround the ridge.
A shredding apparatus for pre-composting kitchen materials comprising a shredder assembly, the shredder assembly comprises: a housing having a top opening and a front opening; and an open-topped bin received within the housing through the front opening and removable from the housing, a hopper having an upper opening, a lower opening, a first plurality of lateral, substantially vertical channels (511 a-g) in a side of the hopper, and a second plurality of lateral, substantially vertical channels (511 h-n) in another side of the hopper opposite the first plurality of channels (511a-g); a substantially horizontal axle rotatably mounted through sides of the hopper with the first and second pluralities of channels (511a-n) being on opposite sides of the axle; a plurality of struts (630a-f), each of which has a first end received in a corresponding channel of the first plurality of channels (511 a-g), has a second end received in a corresponding channel of the second plurality of channels (511 h-n), and is rotatably mounted at a central portion thereof on the axle, wherein engagement of the ends of the struts (630a-f) in the corresponding channels (611 a-n) limits or prevents rotation of the struts relative to the hopper upon rotation of the axle; and a plurality of blades (620a-h), each of which is non-rotatably mounted at a central portion thereof on the axle, arranged with the struts (630a-f) and the blades (620a-h)alternating along the length of the axle, wherein rotation of the axle causes rotation of the blades (620a-h) relative to the hopper and struts (630a-f), wherein the shredder assembly is arranged so that rotation of the axle and concomitant rotation of the blades (620a-h) relative to the hopper and struts (630a-f) causes material entering the hopper through the upper opening to be drawn between the struts (630a-f) by the rotating blades (620a-h) and to exit through the lower opening, the shredder assembly is positioned within the housing so that material passing through the housing from the top opening into the bin passes through the shredder assembly; the upper opening of the hopper communicates with the top opening of the housing and the lower opening of the hopper communicates with the open top of the bin, and the shredder assembly is removable from the housing. a housing having a top opening and a front opening; and an open-topped bin received within the housing through the front opening and removable from the housing,
Pyrrolidine derivatives of formula: wherein: - R 1 represents a hydrogen atom, a (C 1 -C 6)alkyl or C (C 1 -C 6)alkyl group, - R 2 and R 3, either identical or different, each represent independently of each other, a hydrogen atom or a (C 1 -C 6)alkyl group; or else R 2 =H and R 3 = C (C 1 -C 6)alkyl, - R 4 represents -COOH, -CN, -COOR a, -C(=NOH)NH 2, -CH 2 NH 2,-CH 2 OH -C NH 2, -C NHR a or -COSR a, with R a which represents a (C 1 -C 6)alkyl group, or else R 4 represents a tetrazole or 1,2,4-oxadiazole group, - R 5 represents a hydrogen atom or a (C 1 -C 6)alkyl group, - X represents -C - or -CHR b -, with R b which represents -OR c or -OC R c, R c representing a hydrogen atom or a (C 1 -C 6)alkyl group, optionally in a zwitterionic form, as a pure optical isomer, or a mixture of optical isomers in any proportions, or in a form enriched with an optical isomer, as well as their pharmaceutically acceptable salts, solvates or hydrates. - R 1 represents a hydrogen atom, a (C 1 -C 6)alkyl or C (C 1 -C 6)alkyl group, - R 2 and R 3, either identical or different, each represent independently of each other, a hydrogen atom or a (C 1 -C 6)alkyl group; or else R 2 =H and R 3 = C (C 1 -C 6)alkyl, - R 4 represents -COOH, -CN, -COOR a, -C(=NOH)NH 2, -CH 2 NH 2,-CH 2 OH -C NH 2, -C NHR a or -COSR a, with R a which represents a (C 1 -C 6)alkyl group, or else R 4 represents a tetrazole or 1,2,4-oxadiazole group, - R 5 represents a hydrogen atom or a (C 1 -C 6)alkyl group, - X represents -C - or -CHR b -, with R b which represents -OR c or -OC R c, R c representing a hydrogen atom or a (C 1 -C 6)alkyl group,
Hydraulic steering arrangement comprising a supply port arrangement (P, T) having a pressure port and a tank port, a working port arrangement having two working ports (L, R), a main flow path having a main orifice (A 1) and at least one further orifice (A 2, A 3, A 4) downstream the main orifice (A 1), the main flow path being arranged between the pressure port and the working port arrangement (L, R), a return flow path arranged between the working port arrangement (L, R) and the tank port, a measuring motor, an amplification flow path having an amplification orifice (Au) and being arranged between the pressure port and the working port arrangement (L, R), and an adjustable pressure source connected to the pressure port and having a load sensing port, wherein a main drain orifice (A drain) is connected between the main flow path downstream the main orifice (A 1) and the return flow path, characterized in that a dynamic main orifice (A1-dyn) is connected between the load sensing port and the main flow path downstream the main orifice, and a dynamic drain orifice (Adrain-dyn) is connected between the load sensing port and the return flow path, which dynamic drain orifice (Adrain-dyn) is open when the dynamic main orifice (A1-dyn) is closed.
A method for facilitating simulation of a shot from a weapon, wherein the weapon is equipped with a laser device which works on the time-of-flight principle, the method comprising the steps of: - receiving an emitted coded laser pulse from said weapon by a simulation device; - transferring a returned coded pulse sequence corresponding to said emitted coded laser pulse sequence back to the weapon by said simulation device, characterised in that said simulation device is a range simulation device and in that the method further comprises the step of: - delaying said transferring in relation to said receiving so that said delay is perceived by said weapon as a longer travel time of the emitted coded laser pulse sequence and the returned coded pulse sequence, respectively, wherein said delay is adjustable by an adjusting arrangement comprised in said simulation device. - receiving an emitted coded laser pulse from said weapon by a simulation device; - transferring a returned coded pulse sequence corresponding to said emitted coded laser pulse sequence back to the weapon by said simulation device, - delaying said transferring in relation to said receiving so that said delay is perceived by said weapon as a longer travel time of the emitted coded laser pulse sequence and the returned coded pulse sequence, respectively,
A light module for a motor vehicle headlight, having an optical system which has a light source subassembly with a primary optical element and has a secondary optical element having an optical axis, in which the light source subassembly has at least one row of n semiconductor light sources (14.i, where i = 1, 2,..., n) located next to one another in a straight line on a printed circuit board, the luminous flux of which these sources being capable of being controlled to be increased and decreased individually or in groups, and the primary optical element is arranged for generating an intermediate light distribution, which has a straight edge, from the light emitted by the light sources (14.i, where i = 1, 2,..., n) and for illuminating a light entry face of the secondary optical element, characterized in that the secondary optical element has at least two facets (30, 32), which are both focused on the intermediate light distribution, and each of the two facets (30, 32) has a sectional plane, parallel to the optical axis, with maximal refractive power for the respective facet (30, 32) and a sectional plane perpendicular thereto and parallel to the optical axis with minimal refractive power for the respective facet (30, 32), and the sectional planes with maximal refractive power of the various facets (30, 32) are rotated relative to one another by a first angle about the optical axis, and the sectional planes of minimal refractive power of the various facets (30, 32) are rotated relative to one another by the first angle about the optical axis.
Movement-damping apparatus in which a magnetorheological fluid for damping a movement is forced through a flow passage forming a constriction, wherein a unit generating a magnetic field is provided, the magnetic field of which in the region of the flow passage acts on the magnetorheological fluid through pole faces, wherein the flow passage is subdivided into at least two essentially flat flow paths by at least one essentially flat dividing wall forming an additional friction surface (13, 14), characterised in that the device generating the variable magnetic field has a core which is wrapped in a coil and forms the dividing wall which is arranged in the flow passage and is made of a ferromagnetic material, wherein the coil axis lies perpendicular to the flow paths, and in that the flow passage has a sheath made of magnetically conductive material.