mhurhangee/ep-ind-claims huggingface dataset:
A multiple wavelength light system for optical flow cytometry systems comprising: a plurality of light sources (24, 25, 26); an at least one mirror (31, 32, 33) proximate to the plurality of light sources (24, 25, 26); at least one multiplexer connected to the plurality of light sources (24, 25, 26); a single detector proximate to a target, the single detector comprising a central light sensitive area and one or more annular light sensitive areas (18, 19) concentrically around the central light sensitive area; and a demultiplexer connected to the signal detector, the demultiplexer separates out light from the plurality of light sources that is detected by the central light sensitive area and the one or more annular light sensitive areas of the single detector into component signals according to their respective wavelengths and light source; a processor connected to the at least one multiplexer and the demultiplexer, the processor receiving and analyzing the component signals from the demultiplexer, wherein the central light sensitive area and the one or more annular light sensitive areas (18, 19) are isolated from each other by an annular area that is not sensitive to light such that each of the central light sensitive area and the one or more annular light sensitive areas (18, 19) subtends its own prescribed angle and provide an electrical signal representing light impinging the single detector at respective angles. a plurality of light sources (24, 25, 26); an at least one mirror (31, 32, 33) proximate to the plurality of light sources (24, 25, 26); at least one multiplexer connected to the plurality of light sources (24, 25, 26); a single detector proximate to a target, the single detector comprising a central light sensitive area and one or more annular light sensitive areas (18, 19) concentrically around the central light sensitive area; and a demultiplexer connected to the signal detector, the demultiplexer separates out light from the plurality of light sources that is detected by the central light sensitive area and the one or more annular light sensitive areas of the single detector into component signals according to their respective wavelengths and light source; a processor connected to the at least one multiplexer and the demultiplexer, the processor receiving and analyzing the component signals from the demultiplexer, wherein the central light sensitive area and the one or more annular light sensitive areas (18, 19) are isolated from each other by an annular area that is not sensitive to light such that each of the central light sensitive area and the one or more annular light sensitive areas (18, 19) subtends its own prescribed angle and provide an electrical signal representing light impinging the single detector at respective angles.
A wheelchair comprising: a chassis (3, 101); a positioning module (5, 105) mounted to an upper portion of the chassis, the positioning module being operable to adjust at least one of an angular position and an elevational position of a seating area of the positioning module; a seat frame (10, 20, 30, 40, 50, 50', 150) comprising: a support member (12, 22, 32, 42, 52, 52', 152) secured to and spanning the seating area of the positioning module; characterized in that: the seat frame further comprises a front frame member (14, 24, 44, 54, 54', 154) secured to a front end portion of the support member and overhanging a front edge of the seating area of the positioning module, such that the seat frame at least partially straddles the positioning module, the front frame member being connected with and at least partially supporting at least one of a side frame member (37, 39, 47, 49, 57, 59, 57', 59', 157, 159), foot rest, leg rest and arm rest assembled with and supported by the front frame member; and a seat secured to an upper surface of the support member; wherein an upper surface of the front frame member does not extend above an upper surface of the support member. a chassis (3, 101); a positioning module (5, 105) mounted to an upper portion of the chassis, the positioning module being operable to adjust at least one of an angular position and an elevational position of a seating area of the positioning module; a seat frame (10, 20, 30, 40, 50, 50', 150) comprising: a support member (12, 22, 32, 42, 52, 52', 152) secured to and spanning the seating area of the positioning module; the seat frame further comprises a front frame member (14, 24, 44, 54, 54', 154) secured to a front end portion of the support member and overhanging a front edge of the seating area of the positioning module, such that the seat frame at least partially straddles the positioning module, the front frame member being connected with and at least partially supporting at least one of a side frame member (37, 39, 47, 49, 57, 59, 57', 59', 157, 159), foot rest, leg rest and arm rest assembled with and supported by the front frame member; and a seat secured to an upper surface of the support member; wherein an upper surface of the front frame member does not extend above an upper surface of the support member.
Gripping device for gripping a plate-shaped workpiece carrier, wherein the gripping device has a main body which is mounted so as to be rotatable with regard to a vertical axis, wherein the gripping device has four corner regions, at which a first and a second straight gripping edge (23; 24), respectively, which are arranged at right angles to one another, are arranged, wherein the corner regions are arranged in a manner distributed about the vertical axis such that the gripping edges (23; 24) define a gripping rectangle, wherein the gripping device is arranged entirely within the gripping rectangle, wherein the gripping edges define a gripping plane which is arranged perpendicularly to the vertical axis, wherein the gripping device is arranged entirely on one side of the gripping plane, wherein the gripping edges (23; 24) are each assigned a separate pressure piece which is mounted so as to be movable relative to the main body, characterized in that the pressure pieces are each mounted in a rotatable manner with respect to an axis of rotation such that the spacing between two parallel gripping edges (23; 24) is increased by the action of a weight force of the workpiece carrier on the pressure pieces, wherein the axis of rotation extends perpendicularly to the vertical axis, wherein the pressure pieces are each assigned a return spring which is constructed such that it is put under tension by the action of a weight force of the workpiece carrier on the pressure pieces.
A method for real-time detection of low start-up for a working electrode of a sensor having a catalyzing agent and electrodes, the method comprising: performing an electrochemical impedance spectroscopy procedure to generate a set of impedance-related data for said working electrode; and characterised in that based on only that set of impedance-related data, determining whether said working electrode is experiencing low start-up; whereby the detection of low start-up is based on a bound check and a reliability index which is high when the 1kHz real impedance and the Nyquist slope are lower than their corresponding upper bounds and which is low when 1kHz real impedance and the Nyquist slope are higher than their corresponding upper bounds; whereby the Nyquist slope is a linear fit to the impedance-related data if the real part of impedance is plotted against its imaginary part. performing an electrochemical impedance spectroscopy procedure to generate a set of impedance-related data for said working electrode; and characterised in that based on only that set of impedance-related data, determining whether said working electrode is experiencing low start-up; whereby the detection of low start-up is based on a bound check and a reliability index which is high when the 1kHz real impedance and the Nyquist slope are lower than their corresponding upper bounds and which is low when 1kHz real impedance and the Nyquist slope are higher than their corresponding upper bounds; whereby the Nyquist slope is a linear fit to the impedance-related data if the real part of impedance is plotted against its imaginary part.
A rechargeable battery comprising: an electrode assembly formed by disposing first and second electrodes (11, 12) on either side of each separator, the first and second electrodes (11, 12) each having coated regions (111, 121) and uncoated region tabs (112, 122); a case for accommodating the electrode assembly; and a cap plate attached to an opening of the case to close and seal the case and having a vent plate formed integrally with a vent hole, wherein the vent plate is formed beyond the thickness of the cap plate; wherein the vent plate is formed by a coining process such that the vent plate protrudes toward the electrode assembly by a height from an inner surface of the cap plate, wherein the rechargeable battery further comprises a first electrode terminal connected to the uncoated region tabs of the first electrodes and installed with a gasket placed in a terminal hole of the cap plate; and a second electrode terminal connected to the uncoated region tabs of the second electrodes and formed integrally with the cap plate, wherein the second electrode terminal protrudes outwards from the cap plate, characterized in that the cap plate further comprises a current collecting portion protruding toward the electrode assembly so as to be connected to the uncoated region tabs of the second electrodes. an electrode assembly formed by disposing first and second electrodes (11, 12) on either side of each separator, the first and second electrodes (11, 12) each having coated regions (111, 121) and uncoated region tabs (112, 122); a case for accommodating the electrode assembly; and a cap plate attached to an opening of the case to close and seal the case and having a vent plate formed integrally with a vent hole, wherein the vent plate is formed beyond the thickness of the cap plate; wherein the vent plate is formed by a coining process such that the vent plate protrudes toward the electrode assembly by a height from an inner surface of the cap plate, wherein the rechargeable battery further comprises a first electrode terminal connected to the uncoated region tabs of the first electrodes and installed with a gasket placed in a terminal hole of the cap plate; and a second electrode terminal connected to the uncoated region tabs of the second electrodes and formed integrally with the cap plate, wherein the second electrode terminal protrudes outwards from the cap plate, characterized in that the cap plate further comprises a current collecting portion protruding toward the electrode assembly so as to be connected to the uncoated region tabs of the second electrodes.
A method for generating a model of an environment enabling positioning within the environment, said method comprising: receiving a plurality of distance-dependent measurements from one or more receiving units, each of said distance-dependent measurements providing information relating to a distance between a receiving unit position of the one or more receiving units and a source position and said plurality of distance-dependent measurements providing information relating to distances between receiving unit positions and source positions for a plurality of sources; receiving information relating to at least three geographic positions, each of said geographic positions defining a receiving unit position or a source position; forming a candidate model, which defines candidate source positions for said plurality of source positions and candidate receiving unit positions for said plurality of receiving unit positions; iteratively reducing a model error of said candidate model, wherein said model error comprises a weighted contribution from distance-dependent errors, which are based on a difference between a distance-dependent value between a candidate source position and a candidate receiving unit position and the distance-dependent measurement related to the distance between the receiving unit position and the source position, and geographic position errors, which are based on a difference between a geographic position and a candidate position for the receiving unit position or source position, and outputting, from said iterative reducing, determined locations for said plurality of sources to form said model of the environment. receiving a plurality of distance-dependent measurements from one or more receiving units, each of said distance-dependent measurements providing information relating to a distance between a receiving unit position of the one or more receiving units and a source position and said plurality of distance-dependent measurements providing information relating to distances between receiving unit positions and source positions for a plurality of sources; receiving information relating to at least three geographic positions, each of said geographic positions defining a receiving unit position or a source position; forming a candidate model, which defines candidate source positions for said plurality of source positions and candidate receiving unit positions for said plurality of receiving unit positions; iteratively reducing a model error of said candidate model, wherein said model error comprises a weighted contribution from distance-dependent errors, which are based on a difference between a distance-dependent value between a candidate source position and a candidate receiving unit position and the distance-dependent measurement related to the distance between the receiving unit position and the source position, and geographic position errors, which are based on a difference between a geographic position and a candidate position for the receiving unit position or source position, and outputting, from said iterative reducing, determined locations for said plurality of sources to form said model of the environment.
A method for securing a container in a transport vehicle, which exhibits a loading platform and at least one lateral wall running parallel to a longitudinal axis of the transport vehicle, on which a fastening rail running parallel to the loading platform for attaching traction mechanisms is situated near the loading platform, wherein the container has an upper part and a rack-like lower part exhibiting at least one leg, with the following procedural steps: a) the container is placed adjacent to the lateral wall on the loading platform; b) the container is lashed by means of at least one traction mechanism connected directly or indirectly with the fastening rail in the direction toward the loading platform; c) a first end of the traction mechanism is connected with the fastening rail, and the traction mechanism is guided around the upper part of the container and a second end is also connected and tensioned with the fastening rail or at a coupling location with the upper part of the container in such a way that, as viewed in a vertical plane perpendicular to the lateral wall, a component of a retaining force transmitted by the traction mechanism runs in the direction toward the lateral wall, characterized by the following procedural step: d) Before the container is lashed by means of the at least one traction mechanism in the direction toward the loading platform, the traction mechanism is brought into contact with at least one leg of the container, and guided around the leg with the formation of a wrap angle of at least 60°. a) the container is placed adjacent to the lateral wall on the loading platform; b) the container is lashed by means of at least one traction mechanism connected directly or indirectly with the fastening rail in the direction toward the loading platform; c) a first end of the traction mechanism is connected with the fastening rail, and the traction mechanism is guided around the upper part of the container and a second end is also connected and tensioned with the fastening rail or at a coupling location with the upper part of the container in such a way that, as viewed in a vertical plane perpendicular to the lateral wall, a component of a retaining force transmitted by the traction mechanism runs in the direction toward the lateral wall, characterized by the following procedural step: d) Before the container is lashed by means of the at least one traction mechanism in the direction toward the loading platform, the traction mechanism is brought into contact with at least one leg of the container, and guided around the leg with the formation of a wrap angle of at least 60°.
Actuator assembly configured for rotary actuation around a pivot axis, especially for pivoting angles greater than 0° and less than 360°, comprising: a motor with a rotary drive; a drive train with a capstan drive comprising a drive pulley and a main pulley and transmission means for interconnecting the pulleys, wherein the main pulley is pivotable around the pivot axis, wherein the drive train couples the motor to the pivot axis via the drive pulley and the transmission means; an absolute torque sensor device configured for detecting the torque in the pivot axis; wherein the transmission means are provided by at least one cable, preferably a plurality of cables, each cable transmitting the drive pulley's pivoting motion to the main pulley by tensile forces applied to the lateral area (1.4) of the main pulley, characterized in that the absolute torque sensor device exhibits at least one force sensor (12.2), especially at least one strain gauge load cell, the force sensor being coupled to the capstan drive, especially coupled to the drive pulley, such that the actuator assembly is configured for absolute torque measurement via force measurement. a motor with a rotary drive; a drive train with a capstan drive comprising a drive pulley and a main pulley and transmission means for interconnecting the pulleys, wherein the main pulley is pivotable around the pivot axis, wherein the drive train couples the motor to the pivot axis via the drive pulley and the transmission means; an absolute torque sensor device configured for detecting the torque in the pivot axis; wherein the transmission means are provided by at least one cable, preferably a plurality of cables, each cable transmitting the drive pulley's pivoting motion to the main pulley by tensile forces applied to the lateral area (1.4) of the main pulley, characterized in that the absolute torque sensor device exhibits at least one force sensor (12.2), especially at least one strain gauge load cell, the force sensor being coupled to the capstan drive, especially coupled to the drive pulley, such that the actuator assembly is configured for absolute torque measurement via force measurement.
A method for communicating data from a first computing device included in a first computer network, to a second computing device included in a second computer network, comprising: transmitting a data communication on said first computer network, said data communication including a first plurality of identity parameters which specify true values associated with at least one of said first and second computing devices; dynamically modifying a first set of said first plurality of identity parameters at a first location in said first computer network, to transform said first set to specify false information before re-transmitting said data communication to a bridge location; dynamically modifying said first set at said bridge location in said first computer network to transform said first set to specify true information; after transforming said first set to specify true information at said bridge location, transmitting said data communication from said bridge location to said second computer network; characterized by dynamically varying a position of said first location within the first computer network. transmitting a data communication on said first computer network, said data communication including a first plurality of identity parameters which specify true values associated with at least one of said first and second computing devices; dynamically modifying a first set of said first plurality of identity parameters at a first location in said first computer network, to transform said first set to specify false information before re-transmitting said data communication to a bridge location; dynamically modifying said first set at said bridge location in said first computer network to transform said first set to specify true information; after transforming said first set to specify true information at said bridge location, transmitting said data communication from said bridge location to said second computer network; characterized by dynamically varying a position of said first location within the first computer network.
A manufacturing method for a hydrotreating catalyst for hydrocarbon oil, the method comprising: a titania coating step including simultaneously and continuously adding an aqueous solution of an acidic compound containing titanium and an aqueous solution containing an alkaline compound to a hydrosol containing an alumina hydrate particle at a temperature ranging from 10 to 100°C and a pH ranging from 4.5 to 6.5, and coating a surface of the alumina hydrate particle with a titanium hydroxide particle while keeping the pH constant to give a titania-coated alumina hydrate particle; a washing step of washing the resultant titania-coated alumina hydrate particle to remove a contaminating ion which coexists with the particle; a forming step of forming the washed titania-coated alumina hydrate particle after dehydrating the particle so as to have a moisture content at which the particle is formable; a first drying step of drying a shaped material of a titanium-coated alumina hydrate particle obtained by the forming to give a titania-coated alumina support; an impregnating step of impregnating the resultant titania-coated alumina support with a catalytic component-containing aqueous solution containing at least one kind of periodic table group 6 metal compound, at least one kind of periodic table group 8-10 metal compound, and at least one kind of phosphorus compound as catalytic components, and a saccharide; and a second drying step of drying the titania-coated alumina support impregnated with the catalytic component-containing aqueous solution. a titania coating step including simultaneously and continuously adding an aqueous solution of an acidic compound containing titanium and an aqueous solution containing an alkaline compound to a hydrosol containing an alumina hydrate particle at a temperature ranging from 10 to 100°C and a pH ranging from 4.5 to 6.5, and coating a surface of the alumina hydrate particle with a titanium hydroxide particle while keeping the pH constant to give a titania-coated alumina hydrate particle; a washing step of washing the resultant titania-coated alumina hydrate particle to remove a contaminating ion which coexists with the particle; a forming step of forming the washed titania-coated alumina hydrate particle after dehydrating the particle so as to have a moisture content at which the particle is formable; a first drying step of drying a shaped material of a titanium-coated alumina hydrate particle obtained by the forming to give a titania-coated alumina support; an impregnating step of impregnating the resultant titania-coated alumina support with a catalytic component-containing aqueous solution containing at least one kind of periodic table group 6 metal compound, at least one kind of periodic table group 8-10 metal compound, and at least one kind of phosphorus compound as catalytic components, and a saccharide; and a second drying step of drying the titania-coated alumina support impregnated with the catalytic component-containing aqueous solution.