mhurhangee/ep-ind-claims huggingface dataset:
A component mounting system comprising: an electrical component module having a positioning bolt (103-1, 103-2); a retaining case for inserting the component module; and characterized by an extraction device for extracting the component module from the retaining case, the extraction device having an opening (109-1, 109-2) for seating the extraction device on the positioning bolt (103-1, 103-2) of the component module, wherein the extraction device is formed by an elastic, tongue-shaped flat part, and wherein the positioning bolt (103-1, 103-2) is curved opposite to a direction of extraction. an electrical component module having a positioning bolt (103-1, 103-2); a retaining case for inserting the component module; and characterized by an extraction device for extracting the component module from the retaining case, the extraction device having an opening (109-1, 109-2) for seating the extraction device on the positioning bolt (103-1, 103-2) of the component module, wherein the extraction device is formed by an elastic, tongue-shaped flat part, and wherein the positioning bolt (103-1, 103-2) is curved opposite to a direction of extraction.
A hair pipeline for generating digitally rendered hair comprising: a surface definition module to define a surface and a control hair; and a hair motion compositor module to combine different curve shapes associated with the control hair and the surface, the hair motion compositor module being operable, with respect to a directed acyclic graph of nodes representing animations or operations applied to animation, to: provide a static node defining a static curve shape of the control hair; provide an animation node defining an animation curve shape of the control hair; and provide a blend node to combine the control hair's static curve shape of the static node with the control hair's animation curve shape of the animation node to produce a resultant curve shape for the control hair, wherein the blend node defines a blend factor parameter corresponding to a weighting assigned to the static curve shape of the control hair and to the animation curve shape of the control hair for use in the combining of the static and animation curve shapes of the control hair, wherein the blend node further defines a blend ball assign different blend factor parameters to different portions of the control hair (2602, 2604). a surface definition module to define a surface and a control hair; and a hair motion compositor module to combine different curve shapes associated with the control hair and the surface, the hair motion compositor module being operable, with respect to a directed acyclic graph of nodes representing animations or operations applied to animation, to: provide a static node defining a static curve shape of the control hair; provide an animation node defining an animation curve shape of the control hair; and provide a blend node to combine the control hair's static curve shape of the static node with the control hair's animation curve shape of the animation node to produce a resultant curve shape for the control hair, wherein the blend node defines a blend factor parameter corresponding to a weighting assigned to the static curve shape of the control hair and to the animation curve shape of the control hair for use in the combining of the static and animation curve shapes of the control hair, wherein the blend node further defines a blend ball assign different blend factor parameters to different portions of the control hair (2602, 2604). provide a static node defining a static curve shape of the control hair; provide an animation node defining an animation curve shape of the control hair; and provide a blend node to combine the control hair's static curve shape of the static node with the control hair's animation curve shape of the animation node to produce a resultant curve shape for the control hair, wherein the blend node defines a blend factor parameter corresponding to a weighting assigned to the static curve shape of the control hair and to the animation curve shape of the control hair for use in the combining of the static and animation curve shapes of the control hair, wherein the blend node further defines a blend ball assign different blend factor parameters to different portions of the control hair (2602, 2604).
A linear fader (300, 400, 401), comprising: a slider (100, 200) that is configured to slide along a rail (104, 204), wherein the slider comprises a magnet (107, 207); a plurality of coils spaced along a length of the rail; one or more sensors configured to detect a position of the slider along the rail; and control circuitry operatively coupled to the plurality of coils and the one or more sensors, wherein the control circuitry is configured to: receive a first location of the slider from at least one of the one or more sensors; receive a signal corresponding to a desired location of the slider; cause a first electrical current to pass through the plurality of coils, thereby generating a force on the slider in a direction toward the desired location; and characterized in that the control circuitry is further configured to control a second electrical current that passes through the plurality of coils, wherein a magnetic field of the second electrical current through the plurality of coils resists movement of the slider along the rail. a slider (100, 200) that is configured to slide along a rail (104, 204), wherein the slider comprises a magnet (107, 207); a plurality of coils spaced along a length of the rail; one or more sensors configured to detect a position of the slider along the rail; and control circuitry operatively coupled to the plurality of coils and the one or more sensors, wherein the control circuitry is configured to: receive a first location of the slider from at least one of the one or more sensors; receive a signal corresponding to a desired location of the slider; cause a first electrical current to pass through the plurality of coils, thereby generating a force on the slider in a direction toward the desired location; and characterized in that the control circuitry is further configured to control a second electrical current that passes through the plurality of coils, wherein a magnetic field of the second electrical current through the plurality of coils resists movement of the slider along the rail. receive a first location of the slider from at least one of the one or more sensors; receive a signal corresponding to a desired location of the slider; cause a first electrical current to pass through the plurality of coils, thereby generating a force on the slider in a direction toward the desired location; and characterized in that the control circuitry is further configured to control a second electrical current that passes through the plurality of coils, wherein a magnetic field of the second electrical current through the plurality of coils resists movement of the slider along the rail.
A hollow structure Luneburg lens comprising: a three-dimensional scaffold comprising multiple junctions; wherein each junction is at least partially metalized (170, 180); a center point of the lens is formed by the three-dimensional scaffold; and an outer edge of the lens is formed by the three-dimensional scaffold; wherein the junctions are positioned from the innermost of the lens at or near the center point toward the outermost of the lens at or near the edge of the lens; wherein each junction resides in an imaginary unit cell; each imaginary unit cell is at least partially metalized to the degree of the at least partially metalized junction that resides within each imaginary unit cell; and wherein the further the partially metalized junction is away from the center point, the less the degree of the metallization of the imaginary cell. a three-dimensional scaffold comprising multiple junctions; wherein each junction is at least partially metalized (170, 180); a center point of the lens is formed by the three-dimensional scaffold; and an outer edge of the lens is formed by the three-dimensional scaffold; wherein the junctions are positioned from the innermost of the lens at or near the center point toward the outermost of the lens at or near the edge of the lens; wherein each junction resides in an imaginary unit cell; each imaginary unit cell is at least partially metalized to the degree of the at least partially metalized junction that resides within each imaginary unit cell; and wherein the further the partially metalized junction is away from the center point, the less the degree of the metallization of the imaginary cell.
A method for detecting and removing EEG artifacts, the method comprising: generating an EEG signal via electrodes; separating via a processor the EEG signal into a plurality of sources, each source of the plurality of sources separated for a selected artifact type; reconstituting via the processor each source of the plurality of sources into a recorded montage and an optimal reference montage for recognizing the selected artifact type of each source of the plurality of sources; examining via a processor a plurality of channels of the optimal reference montage for each source of the plurality of sources to determine if the selected artifact type is the true artifact of each source of the plurality of sources; determining via a processor that the selected artifact type is the true artifact of each source of the plurality of sources; removing via a processor each source of the plurality of sources for the selected artifact type to generate a plurality of remaining sources; and reconstituting via a processor the plurality of remaining sources into a filtered montage for the EEG signal. generating an EEG signal via electrodes; separating via a processor the EEG signal into a plurality of sources, each source of the plurality of sources separated for a selected artifact type; reconstituting via the processor each source of the plurality of sources into a recorded montage and an optimal reference montage for recognizing the selected artifact type of each source of the plurality of sources; examining via a processor a plurality of channels of the optimal reference montage for each source of the plurality of sources to determine if the selected artifact type is the true artifact of each source of the plurality of sources; determining via a processor that the selected artifact type is the true artifact of each source of the plurality of sources; removing via a processor each source of the plurality of sources for the selected artifact type to generate a plurality of remaining sources; and reconstituting via a processor the plurality of remaining sources into a filtered montage for the EEG signal.
A cap assembly for a secondary battery, coupled to an open end of a battery can free from a beading portion, the cap assembly comprising: a top cap disposed on an uppermost portion in a protrusive form to form a cathode terminal; a safety element disposed below the top cap to contact the top cap; a safety vent disposed to contact the safety element a gasket surrounding outer circumferences of the top cap the safety element and the safety vent; a cover surrounding the gasket so that the top cap, the safety element and the safety vent closely adhere to each other; characterized in a welding member disposed at an upper portion of the cover and having an outer end located to protrude more outwards than the outer end of the cover so as to be placed on the open end of the battery can, the welding member having a first notch formed at an upper surface thereof, which protrudes more than the outer end of the cover, and being welded to the open end of the battery can at a portion where the first notch is formed. a top cap disposed on an uppermost portion in a protrusive form to form a cathode terminal; a safety element disposed below the top cap to contact the top cap; a safety vent disposed to contact the safety element a gasket surrounding outer circumferences of the top cap the safety element and the safety vent; a cover surrounding the gasket so that the top cap, the safety element and the safety vent closely adhere to each other; characterized in a welding member disposed at an upper portion of the cover and having an outer end located to protrude more outwards than the outer end of the cover so as to be placed on the open end of the battery can, the welding member having a first notch formed at an upper surface thereof, which protrudes more than the outer end of the cover, and being welded to the open end of the battery can at a portion where the first notch is formed.
A process for making dronedarone of formula I or a pharmaceutically acceptable salt thereof, comprising the steps of: a. reacting the compound of formula with the compound of formula in the presence of a Lewis acid and a suitable solvent to form the compound of formula as shown below: b. reacting the compound of formula with N -benzylmethanesulfonamide (MeSO 2 NHBn) in the presence of a suitable catalyst and a suitable solvent to form the compound of formula as shown below: c. reacting the compound of formula with dibutylaminopropanol in the presence of a suitable base and a suitable solvent to form the compound of formula as shown below: d. reacting the compound of formula with a suitable deprotecting agent to form the compound of formula as shown below: a. reacting the compound of formula with the compound of formula in the presence of a Lewis acid and a suitable solvent to form the compound of formula as shown below: b. reacting the compound of formula with N -benzylmethanesulfonamide (MeSO 2 NHBn) in the presence of a suitable catalyst and a suitable solvent to form the compound of formula as shown below: c. reacting the compound of formula with dibutylaminopropanol in the presence of a suitable base and a suitable solvent to form the compound of formula as shown below: d. reacting the compound of formula with a suitable deprotecting agent to form the compound of formula as shown below:
A latch assembly comprising: a connector; a first lever coupled to the connector via a first pivot point; an L-shaped load member extending through an opening in the first lever, wherein the first lever comprises a first part coupled to the connector and a second part extending perpendicular to the first part, wherein the opening is formed in the second part of the first lever; a second lever coupled to the L-shaped load member via a second pivot point; and a spring to bias the L-shaped load member away from the opening in the first lever. a connector; a first lever coupled to the connector via a first pivot point; an L-shaped load member extending through an opening in the first lever, wherein the first lever comprises a first part coupled to the connector and a second part extending perpendicular to the first part, wherein the opening is formed in the second part of the first lever; a second lever coupled to the L-shaped load member via a second pivot point; and a spring to bias the L-shaped load member away from the opening in the first lever.
An eye refractive power measurement apparatus for objectively measuring eye refractive power of a patient's eye, comprising: a light-projecting optical system that includes a light source and projects measurement light onto a fundus of the patient's eye, the light source being a super-luminescent diode or a laser diode; a light-receiving optical system that includes an imager device serving as a two-dimensional light-receiving element and receives the measurement light reflected from the fundus; and an operating section that determines the eye refractive power of the eye based on a two-dimensional pattern image by the measurement light imaged by the imager device, characterised in that said light source emits light having a center wavelength in a range of 870 nm to 900 nm. a light-projecting optical system that includes a light source and projects measurement light onto a fundus of the patient's eye, the light source being a super-luminescent diode or a laser diode; a light-receiving optical system that includes an imager device serving as a two-dimensional light-receiving element and receives the measurement light reflected from the fundus; and an operating section that determines the eye refractive power of the eye based on a two-dimensional pattern image by the measurement light imaged by the imager device, characterised in that said light source emits light having a center wavelength in a range of 870 nm to 900 nm.
A valve system apparatus (64, 66; 64, 86; 64, 94) for attachment to a small-volume nebulizer (50; 80), said valve system apparatus (64, 66; 64, 86; 64, 94) comprising: a valve system body comprising: a vertical port (56; 88) configured to connect with an aerosol output port of said small-volume nebulizer (50; 80), wherein contained within said vertical port (56; 88) is a valve gate (66; 86; 94) which is configured to open based upon an inhalation by a user and which is configured to close based upon an exhalation by the user; and a patient interface tube (58; 82) at the top of said vertical port (56; 88), wherein the patient interface tube (58; 82) includes a first end having a patient opening operable to connect with a patient interface component and a second end having a flow restrictor comprises an orifice plate and within an ambient port, wherein said flow restrictor is configured to choke or limit the airflow through the ambient port thereby choking the flow of the user's inspiratory and expiratory effort a valve system body comprising: a vertical port (56; 88) configured to connect with an aerosol output port of said small-volume nebulizer (50; 80), wherein contained within said vertical port (56; 88) is a valve gate (66; 86; 94) which is configured to open based upon an inhalation by a user and which is configured to close based upon an exhalation by the user; and a patient interface tube (58; 82) at the top of said vertical port (56; 88), a vertical port (56; 88) configured to connect with an aerosol output port of said small-volume nebulizer (50; 80), wherein contained within said vertical port (56; 88) is a valve gate (66; 86; 94) which is configured to open based upon an inhalation by a user and which is configured to close based upon an exhalation by the user; and a patient interface tube (58; 82) at the top of said vertical port (56; 88), wherein the patient interface tube (58; 82) includes a first end having a patient opening operable to connect with a patient interface component and a second end having a flow restrictor comprises an orifice plate and within an ambient port, wherein said flow restrictor is configured to choke or limit the airflow through the ambient port thereby choking the flow of the user's inspiratory and expiratory effort
A process for manufacturing a shaped article made of porous hydrogel that contains a polyvinyl alcohol acetalized with a dialdehyde, the process comprising gelating an aqueous solution containing a polyvinyl alcohol, a dialdehyde and a water-soluble polysaccharide to form a shaped article, and contacting the resulting shaped article with an aqueous solution containing a metal salt in 0.2 to 10 mol/L in anion equivalent with a pH of 3 or less to acetalize the polyvinyl alcohol; wherein the shaped article has a pore size of 0.1 to 50 μm, as measured according to the method mentioned in the description, and a water content of 50 to 98 % by weight and wherein an acetalization degree of the polyvinyl alcohol is 1 to 15 mol%.
A blender comprising: an outer case forming an outer appearance; an inner case disposed inside the outer case; a jar configured to be seated on a seating portion formed on an upper surface of the inner case and provided with a blade device for crushing food; a motor assembly provided inside the inner case and configured to be connected to the blade device to rotate the blade device; a mounting portion recessed from the upper surface of the inner case; and a touch device mounted on the mounting portion for inputting a user's manipulation, characterized in that the outer case is made of a metal material and the touch device is in close contact with an inner surface of the outer case and is configured to recognize touch manipulation on the outer case by the user. an outer case forming an outer appearance; an inner case disposed inside the outer case; a jar configured to be seated on a seating portion formed on an upper surface of the inner case and provided with a blade device for crushing food; a motor assembly provided inside the inner case and configured to be connected to the blade device to rotate the blade device; a mounting portion recessed from the upper surface of the inner case; and a touch device mounted on the mounting portion for inputting a user's manipulation, characterized in that the outer case is made of a metal material and the touch device is in close contact with an inner surface of the outer case and is configured to recognize touch manipulation on the outer case by the user.
System for qualitative and/or quantitative detection of molecular interactions between probe and target molecules, comprising: a) a reaction cartridge comprising a microarray having a substrate, onto which probe molecules are immobilized on array elements, wherein the microarray is arranged on a first surface of the reaction cartridge; and a reaction chamber, which is formed between the first surface having the microarray arranged thereon and a second surface of the reaction cartridge, wherein the distance between the microarray and the second surface is variable, and b) a device for accommodating the reaction cartridge, wherein the device comprises: an optical detection device, and a means for guiding the first surface, with which the microarray may be guided relative to the second surface by the means acting upon the first surface by pressure and/or tension; characterized in that the optical detection device is physically connected to a spacer and the spacer, when resting on the second surface, adjusts a distance between the detection system and the second surface and serves as an abutment for the means for guiding the first surface. a) a reaction cartridge comprising a microarray having a substrate, onto which probe molecules are immobilized on array elements, wherein the microarray is arranged on a first surface of the reaction cartridge; and a reaction chamber, which is formed between the first surface having the microarray arranged thereon and a second surface of the reaction cartridge, wherein the distance between the microarray and the second surface is variable, and b) a device for accommodating the reaction cartridge, wherein the device comprises: an optical detection device, and a means for guiding the first surface, with which the microarray may be guided relative to the second surface by the means acting upon the first surface by pressure and/or tension; characterized in that the optical detection device is physically connected to a spacer and the spacer, when resting on the second surface, adjusts a distance between the detection system and the second surface and serves as an abutment for the means for guiding the first surface. an optical detection device, and a means for guiding the first surface, with which the microarray may be guided relative to the second surface by the means acting upon the first surface by pressure and/or tension;