mhurhangee/ep-ind-claims huggingface dataset:
A cable-type secondary battery, comprising: an electrode assembly including first and second polarity electrodes (11, 12), each electrode having a current collector (1, 5) whose cross-section perpendicular to its longitudinal direction is a circular, asymmetrical oval or polygonal shape, and an electrode active material (2, 4) applied onto the surface of the current collector (1, 5), and a separator or an electrolyte layer interposed between the first and second polarity electrodes (11, 12); and a cover member surrounding the electrode assembly, wherein the cable-type secondary battery is provided with a first polarity terminal and a second polarity terminal connected to the first polarity electrode and the second polarity electrode, respectively, at a first end of the cable-type secondary battery; a housing cap configured to fix the first and second polarity terminals (21, 22) and cover the first end of the cable-type secondary battery, the housing cap including a coupling unit at the outside thereof; and wherein a length-adjustable coupling unit is provided at a second end of the cable-type secondary battery, with the length-adjustable coupling unit being configured to adjust the length of a combination of the cable-type secondary battery and a device to which the cable-type secondary battery is mounted, characterized in that the length-adjustable coupling unit has two or more grooves or protrusions for insertion, coupling and in that the cable-type secondary battery and the device are coupled at the housing cap. an electrode assembly including first and second polarity electrodes (11, 12), each electrode having a current collector (1, 5) whose cross-section perpendicular to its longitudinal direction is a circular, asymmetrical oval or polygonal shape, and an electrode active material (2, 4) applied onto the surface of the current collector (1, 5), and a separator or an electrolyte layer interposed between the first and second polarity electrodes (11, 12); and a cover member surrounding the electrode assembly, wherein the cable-type secondary battery is provided with a first polarity terminal and a second polarity terminal connected to the first polarity electrode and the second polarity electrode, respectively, at a first end of the cable-type secondary battery; a housing cap configured to fix the first and second polarity terminals (21, 22) and cover the first end of the cable-type secondary battery, the housing cap including a coupling unit at the outside thereof; and wherein a length-adjustable coupling unit is provided at a second end of the cable-type secondary battery, with the length-adjustable coupling unit being configured to adjust the length of a combination of the cable-type secondary battery and a device to which the cable-type secondary battery is mounted, characterized in that the length-adjustable coupling unit has two or more grooves or protrusions for insertion, coupling and in that the cable-type secondary battery and the device are coupled at the housing cap.
Covering device (4; 50), in particular charging flap device, having a cover component (5; 51) and a displacement mechanism for the cover component (4; 51) for closing and releasing an opening (6; 52) in a vehicle body, wherein the cover component (5; 51) can be lowered under an adjacent region of the vehicle body; 51) can be lowered below an adjacent region of the vehicle body, having a rail guide system (7; 53) by means of which the cover component (5; 51) is guided moveable between a position closing the opening (6; 52) and a position releasing the opening (6; 52), characterized in that at least one control element (8; 54A, 54B) is provided which can be pivoted about a pivot point (9; 55) and is operatively connected to the cover component (5; 51) in a coupling region (10A; 59, 60A, 60B) spaced apart from the pivot point (9; 55), wherein the cover component (5; 51) is moved during pivoting of the control element (8; 54A, 54B) in the direction of a position corresponding to the releasing position of the cover component (5; 51) and during a further pivoting of the control element (8; 54A, 54B) in the direction of a position corresponding to the closing position of the cover component (5; 51).
A balloon-expandable stent comprising: a stent comprised of an alloy having a high work hardening rate with a strain hardening exponent in the range of 0.1-0.3, a high modulus of elasticity, and a low yield point of 206.8 to 551.6 MPa (30 to 80 ksi), wherein upon implantation the stent undergoes significant plastic deformation with less than 10% recoil; wherein the alloy is obtained by modifying a commercially available Co-Cr alloy selected from the group of MP35N and L605, by substituting, in the selected alloy, one of molybdenum and nickel with an element selected from the group of platinum, iridium, and tungsten.
Accommodative intraocular lens with variable power, that comprises an optical zone, a substrate that surrounds said optical zone, holding it and being capable of transmitting external forces to it, and a system of mechanical haptics (8, 9, 10) the bases of which are located on the substrate that surrounds said optical zone and that is able to transmit external forces to said substrate, characterised in that the optical zone comprises four refracting interfaces (13, 14, 15, 16), having a single common optical axis and which separate three materials (17, 18, 19), having the adjacent materials a different index of refraction, the equatorial end of which is joined by said substrate, and in that the materials that constitute the optical zone are flexible and capable of being deformed in response to external forces.
A steel sheet for structural components excellent in impact absorption property comprising, in mass%: C: 0.005 to 0.05%, N: 0.01 to 0.30%, Si: 0.1 to 2%, Mn: 0.1 to 15%, Ni: 0.5 to 8%, Cu: 0.1 to 5%, Cr: 11 to 20%, Al: 0.01 to 0.5%, and a balance of Fe and unavoidable impurities, wherein Md 30 value given by equation is 0 to 100 °C and wherein total impact energy absorption in dynamic tensile testing is 500 MJ/m 3 or greater and impact energy absorption to 10% strain in dynamic tensile testing is 50 MJ/m 3 or greater: Md 30 = 551 - 462 ⁢ C + N - 9.2 ⁢ Si - 8.1 ⁢ Mn - 13.7 ⁢ Cr - 29 ⁢ Ni + Cu C: 0.005 to 0.05%, N: 0.01 to 0.30%, Si: 0.1 to 2%, Mn: 0.1 to 15%, Ni: 0.5 to 8%, Cu: 0.1 to 5%, Cr: 11 to 20%, Al: 0.01 to 0.5%, and a balance of Fe and unavoidable impurities, wherein Md 30 value given by equation is 0 to 100 °C and wherein total impact energy absorption in dynamic tensile testing is 500 MJ/m 3 or greater and impact energy absorption to 10% strain in dynamic tensile testing is 50 MJ/m 3 or greater: Md 30 = 551 - 462 ⁢ C + N - 9.2 ⁢ Si - 8.1 ⁢ Mn - 13.7 ⁢ Cr - 29 ⁢ Ni + Cu
A lighting device comprising a light-transmissive enclosure and a light source, wherein the light-transmissive enclosure has an outer surface and an inner surface opposite to the outer surface, the inner surface at least in part forming a cavity, wherein the light-transmissive enclosure has an opening lying in a transverse plane, wherein the light source is arranged on the transverse plane, or on a side of the transverse plane opposite of the light-transmissive enclosure, and configured to emit light into the cavity, wherein the light-transmissive enclosure is arranged around a longitudinal axis, the longitudinal axis lying in a longitudinal plane that is perpendicular to the transverse plane, wherein the light-transmissive enclosure has a first part and a second part separated from each other by the longitudinal plane, wherein the first part is shaped as a first parabolic segment having a first focal point that is located on the transverse plane and between the second part and the longitudinal plane, wherein the second part is shaped as a second parabolic segment having a second focal point that is located on the transverse plane and between the first part and the longitudinal plane, and wherein the light source is arranged between the first focal point and the second focal point. wherein the light-transmissive enclosure has an outer surface and an inner surface opposite to the outer surface, the inner surface at least in part forming a cavity, wherein the light-transmissive enclosure has an opening lying in a transverse plane, wherein the light source is arranged on the transverse plane, or on a side of the transverse plane opposite of the light-transmissive enclosure, and configured to emit light into the cavity, wherein the light-transmissive enclosure is arranged around a longitudinal axis, the longitudinal axis lying in a longitudinal plane that is perpendicular to the transverse plane, wherein the light-transmissive enclosure has a first part and a second part separated from each other by the longitudinal plane, wherein the first part is shaped as a first parabolic segment having a first focal point that is located on the transverse plane and between the second part and the longitudinal plane, wherein the second part is shaped as a second parabolic segment having a second focal point that is located on the transverse plane and between the first part and the longitudinal plane, and wherein the light source is arranged between the first focal point and the second focal point.
A method of manufacturing a spark plug which includes a tubular metallic shell extending in a direction of an axis; a tubular insulator provided inside the metallic shell; a rod-like center electrode provided inside the insulator; and a ground electrode whose base end portion is joined to a front end face of the metallic shell and which forms a gap between a distal end portion thereof and the center electrode, the method comprising: an assembling step of assembling together the metallic shell and a center electrode assembly including the insulator and the center electrode provided therein; and a joining step of joining the ground electrode to the front end face of the metallic shell after the assembling step, characterized in that the metallic shell is formed such that the distance between a plane perpendicular to the axis and the front end face as measured along the axis varies in a circumferential direction of the metallic shell such that the relative position of a distal end portion of the ground electrode in relation to a front end portion of the center electrode assembly along the axis can be adjusted to a predetermined relative position by joining the ground electrode to a predetermined region of front end face, wherein the front end face is inclined or has a plurality of steps; and in the joining step changing a region of the front end face of the metallic shell to which the ground electrode is to be joined to adjust the predetermined relative position and joining the ground electrode to the predetermined region of front end face. an assembling step of assembling together the metallic shell and a center electrode assembly including the insulator and the center electrode provided therein; and a joining step of joining the ground electrode to the front end face of the metallic shell after the assembling step,
A pharmaceutical composition comprising: (i) dextroamphetamine, or a pharmaceutically acceptable salt thereof; (ii) lisdexamfetamine, or a pharmaceutically acceptable salt thereof; or (iii) a combination thereof, optionally wherein the dextroamphetamine and lisdexamfetamine are present in a single composition in a ratio of 1:2 to 1:20, 1:5 to 1:20, or 1:8 to 1: 12, for use in reversing dexmedetomidine sedation or facilitating emergence from dexmedetomidine sedation in a subject. (i) dextroamphetamine, or a pharmaceutically acceptable salt thereof; (ii) lisdexamfetamine, or a pharmaceutically acceptable salt thereof; or (iii) a combination thereof, optionally wherein the dextroamphetamine and lisdexamfetamine are present in a single composition in a ratio of 1:2 to 1:20, 1:5 to 1:20, or 1:8 to 1: 12,
An aerial dispensing method, comprising: obtaining a wind velocity, the wind causing a drift to a substance dispensed from an unmanned aerial vehicle (101, 210, 301, 304, 411, 421, 431, 441, 451, 461, 471), UAV; controlling one or more components of the UAV (101, 210, 301, 304, 411, 421, 431, 441, 451, 461, 471) based on the obtained wind velocity to cause at least mitigation to the drift, wherein controlling the one or more components of the UAV (101, 210, 301, 304, 411, 421, 431, 441, 451, 461, 471) comprises controlling a UAV propulsion system to cause a movement of the UAV (101, 210, 301, 304, 411, 421, 431, 441, 451, 461, 471); and wherein the aerial dispensing method is characterized in that the movement at least partially counters the obtained wind velocity. obtaining a wind velocity, the wind causing a drift to a substance dispensed from an unmanned aerial vehicle (101, 210, 301, 304, 411, 421, 431, 441, 451, 461, 471), UAV; controlling one or more components of the UAV (101, 210, 301, 304, 411, 421, 431, 441, 451, 461, 471) based on the obtained wind velocity to cause at least mitigation to the drift, wherein controlling the one or more components of the UAV (101, 210, 301, 304, 411, 421, 431, 441, 451, 461, 471) comprises controlling a UAV propulsion system to cause a movement of the UAV (101, 210, 301, 304, 411, 421, 431, 441, 451, 461, 471); and wherein the aerial dispensing method is characterized in that the movement at least partially counters the obtained wind velocity.
A use of an artificial forisome body for enzyme immobilisation or for purification of recombinant proteins, wherein the artificial forisome body comprises a fusion protein of at least one SEO-F-protein or an at least 50-amino acid comprising portion thereof, and at least one further protein or peptide, with the exception of forisome bodies that are composed exclusively or partly of a fluorescent fusion protein, wherein (a) the further protein or peptide has a mass of at most 30 kDa, and the forisome body does not comprise an unfused SEO-F-protein or a form of said protein having C-terminal deletions of up to 45 amino acids and/or N-terminal deletions of up to 13 amino acids, or b) the forisome body moreover comprises an unfused SEO-F-protein or a form of said protein having C-terminal deletions of up to 45 amino acids and/or N-terminal deletions of up to 13 amino acids, wherein the unfused SEO-F-protein is selected from proteins having the property of being capable of forming homomeric forisome bodies in the absence of further SEO-F-proteins, or (c) the further protein or peptide is a portion of a second SEO-F-protein being different from the first SEO-F-protein, with the proviso that one of the two SEO-F-proteins in its unfused form is capable of forming homomeric forisome bodies, and the fusion protein is comprised of an N-terminal SEO-F-protein-portion and a C-terminal SEO-F-protein-portion, wherein the portions represent a SEO-F-protein that is complete or C-terminally deleted by up to 50 amino acids and/or N-terminally deleted by up to 13 amino acids, with the proviso that optionally any number of the four cysteines located in the C-terminal portion between AS 600 and AS 670 of the native SEO-F-proteins, may be replaced by amino acids that are not capable of forming a S-S-bond. (a) the further protein or peptide has a mass of at most 30 kDa, and the forisome body does not comprise an unfused SEO-F-protein or a form of said protein having C-terminal deletions of up to 45 amino acids and/or N-terminal deletions of up to 13 amino acids, or b) the forisome body moreover comprises an unfused SEO-F-protein or a form of said protein having C-terminal deletions of up to 45 amino acids and/or N-terminal deletions of up to 13 amino acids, wherein the unfused SEO-F-protein is selected from proteins having the property of being capable of forming homomeric forisome bodies in the absence of further SEO-F-proteins, or (c) the further protein or peptide is a portion of a second SEO-F-protein being different from the first SEO-F-protein, with the proviso that one of the two SEO-F-proteins in its unfused form is capable of forming homomeric forisome bodies, and the fusion protein is comprised of an N-terminal SEO-F-protein-portion and a C-terminal SEO-F-protein-portion, wherein the portions represent a SEO-F-protein that is complete or C-terminally deleted by up to 50 amino acids and/or N-terminally deleted by up to 13 amino acids,
A method of operating an autonomous working vehicle within a predefined work region, the method comprising: defining, with an electronic controller associated with the working vehicle, a travelling containment zone that lies at least partially within the work region, wherein the work region bounds a first plurality of grid cells and the travelling containment zone bounds a lesser second plurality of grid cells; autonomously operating the working vehicle within the travelling containment zone; constraining a position of the working vehicle to be within the travelling containment zone; deciding, with the controller, a direction in which to advance a leading edge of the travelling containment zone; moving the travelling containment zone across the work region while the working vehicle operates within the travelling containment zone; detecting bifurcation of the leading edge into at least a first segment (452L-1) and a second segment (452L-2) upon contact of the leading edge with an exclusion zone contained within the work region; and replacing the leading edge with either the first segment or the second segment. defining, with an electronic controller associated with the working vehicle, a travelling containment zone that lies at least partially within the work region, wherein the work region bounds a first plurality of grid cells and the travelling containment zone bounds a lesser second plurality of grid cells; autonomously operating the working vehicle within the travelling containment zone; constraining a position of the working vehicle to be within the travelling containment zone; deciding, with the controller, a direction in which to advance a leading edge of the travelling containment zone; moving the travelling containment zone across the work region while the working vehicle operates within the travelling containment zone; detecting bifurcation of the leading edge into at least a first segment (452L-1) and a second segment (452L-2) upon contact of the leading edge with an exclusion zone contained within the work region; and replacing the leading edge with either the first segment or the second segment.
Method for predicting the usability of a relay or a contactor, in which method a current flowing through the relay or the contactor and/or a voltage present at the relay or the contactor is measured repeatedly (11, 12) and the measured values are transmitted to a monitoring unit, characterized in that a measurement of the current flowing through the relay or the contactor and/or the voltage present at the relay or the contactor takes place during a switching operation of the relay or the contactor and in that the monitoring unit calculates or estimates a temperature rise of the relay or of the contactor on the basis of the measured values and a temperature model which draws a relationship between a current pulse and the temperature rise, associated therewith, of the relay or of the contactor, and, on the basis of said temperature rise, said monitoring unit makes a prediction on the usability of the relay or the contactor.
Antenna device for emitting electromagnetic waves, with a waveguide which comprises two plates of electrically conductive material arranged parallel to each other between which a dielectric material is arranged, and with an infeed device with which electromagnetic waves can be coupled into the waveguide, which waves are then propagated along the waveguide and are emitted at an edge of the waveguide spaced from the infeed device, wherein the dielectric material can be influenced with a control device of the antenna device such that at least one first region having a first permittivity and at least one second region having a second permittivity is formed, wherein the first permittivity is higher than the second permittivity and wherein the antenna device is arranged such that the waves are propagated almost exclusively through the at least one first region and are emitted in this preferred direction of propagation.
A method of initiating a regenerative converter including a line bridge and a machine bridge, which are interconnected via a DC intermediate circuit (8A, 8B), and wherein the converter includes line current filtering inductors arranged in series between line bridge AC output terminals (2A, 2B, 2C) and mains, and wherein the line bridge comprises controllable solid state switches (5A, 5B) arranged as legs, wherein each one of the legs comprises a high-side solid state switch and a low-side solid state switch connected in series between a high-voltage and a low-voltage busbars of the DC intermediate circuit, characterized in that the legs comprise diodes connected in anti-parallel with each one of the controllable solid state switches (5A, 5B), and the method comprises: - charging, through the line current filtering inductors and the line bridge, while the machine bridge remains inactive in an initiation mode of the converter, the DC intermediate circuit (8A, 8B) to a target voltage higher than peak value of the mains voltage, the mains voltage being a voltage between two phases of the mains, by switching: one or simultaneously more of the low-side solid state switches with a preselected pulse pattern or with a switching pattern defined by using a control loop for a subset of switches operating during the initiation of the converter, while each one of the high-side solid state switches remain inactive, or one or simultaneously more of the high-side switches with a preselected pulse pattern or with a switching pattern defined by using a control loop for a subset of switches operating during the initiation of the converter, while each one of the low-side solid state switches remain inactive. - charging, through the line current filtering inductors and the line bridge, while the machine bridge remains inactive in an initiation mode of the converter, the DC intermediate circuit (8A, 8B) to a target voltage higher than peak value of the mains voltage, the mains voltage being a voltage between two phases of the mains, by switching: one or simultaneously more of the low-side solid state switches with a preselected pulse pattern or with a switching pattern defined by using a control loop for a subset of switches operating during the initiation of the converter, while each one of the high-side solid state switches remain inactive, or one or simultaneously more of the high-side switches with a preselected pulse pattern or with a switching pattern defined by using a control loop for a subset of switches operating during the initiation of the converter, while each one of the low-side solid state switches remain inactive.