mhurhangee/ep-ind-claims huggingface dataset:
A first flexible wiring comprising: a first elongated flexible substrate; a first plurality of electrically conductive traces arranged in an array on a first side of the first elongated flexible substrate; and a first electromagnetic shielding layer on a second side of the first elongated flexible substrate, the second side being opposite the first side, wherein the first elongated flexible substrate comprises a fold region between a first electrically conductive trace and a second electrically conductive trace such that the first electromagnetic shielding layer provides electromagnetic shielding between the first electrically conductive trace and the second electrically conductive trace, and wherein the first flexible wiring further comprises an elongated groove (210, 212) in the fold region, and a length of the elongated groove runs parallel to a length of the first electrically conductive trace and a length of the second electrically conductive trace. a first plurality of electrically conductive traces arranged in an array on a first side of the first elongated flexible substrate; and a first electromagnetic shielding layer on a second side of the first elongated flexible substrate, the second side being opposite the first side, wherein the first elongated flexible substrate comprises a fold region between a first electrically conductive trace and a second electrically conductive trace such that the first electromagnetic shielding layer provides electromagnetic shielding between the first electrically conductive trace and the second electrically conductive trace, and wherein the first flexible wiring further comprises an elongated groove (210, 212) in the fold region, and a length of the elongated groove runs parallel to a length of the first electrically conductive trace and a length of the second electrically conductive trace.
A variant of a parent lipase, wherein said variant has at least 95% but less than 100% sequence identity with SEQ ID NO: 2; has lipase activity; remains unaltered at the positions corresponding to positions 231, 233 and 254 of SEQ ID NO: 2; comprises or constitutes the substitutions selected from the group consisting of: a. S83T G91A N92D F95Y E96L L97P K98Q; b. E87T G91A N92D N94D D96L K98Q; c. E87K G91A N92D N94D D96L K98Q; d. S83T I86P G91A N92D D96L L97P K98Q; e. S83T I86P G91A N92D D96L K98Q; f. N33K F51V S83T I86P G91T N92D N94D F95A E96L K98Q g. I86P E87T G91A N92D E96L L97P K98Q h. N33K F51V S83T R84H G91A N92D L93F F95A E96L K98E i. N33K F51V S83T I86P I90F G91L N92D L93F E96L L259F; wherein the lipase variant has increased Calcium-independency in comparison with the parent lipase shown as SEQ ID NO: 2. a. S83T G91A N92D F95Y E96L L97P K98Q; b. E87T G91A N92D N94D D96L K98Q; c. E87K G91A N92D N94D D96L K98Q; d. S83T I86P G91A N92D D96L L97P K98Q; e. S83T I86P G91A N92D D96L K98Q; f. N33K F51V S83T I86P G91T N92D N94D F95A E96L K98Q g. I86P E87T G91A N92D E96L L97P K98Q h. N33K F51V S83T R84H G91A N92D L93F F95A E96L K98E i. N33K F51V S83T I86P I90F G91L N92D L93F E96L L259F; wherein the lipase variant has increased Calcium-independency in comparison with the parent lipase shown as SEQ ID NO: 2.
A full depth ophthalmic surgical system for performing surgery on an eye of a subject, comprising: a femtosecond laser source configured to produce a femtosecond pulsed laser beam; an imaging assembly configured to emit an imaging beam; a scanning assembly including a Z scanner and an XY scanner, configured to scan a focal spot of the laser beam and the imaging beam within the eye in a depth direction and two transverse directions, respectively; an illumination light source configured to emit an illumination light; a video camera assembly; an objective lens assembly configured to focus the laser beam and the imaging beam, wherein the objective lens assembly includes four doublet lenses and a meniscus lens; a patient interface configured to be coupled to the objective lens assembly and to engage the eye, the patient interface including a lens having a predefined optical power, wherein the lens is a double-convex focusing lens; and optical components including at least one beam splitter, configured to direct the laser beam and the imaging beam output by the scanning assembly and the illumination light to the objective lens assembly, and to direct light emitted from within the eye, which has passed through the objective lens assembly, to the video camera assembly; wherein the scanning assembly, the objective lens assembly and the lens of the patient interface are configured to form a focal spot of the laser beam at any depth within a range of 15 mm to 24 mm in water beyond a distal surface of the lens of the patient interface. a femtosecond laser source configured to produce a femtosecond pulsed laser beam; an imaging assembly configured to emit an imaging beam; a scanning assembly including a Z scanner and an XY scanner, configured to scan a focal spot of the laser beam and the imaging beam within the eye in a depth direction and two transverse directions, respectively; an illumination light source configured to emit an illumination light; a video camera assembly; an objective lens assembly configured to focus the laser beam and the imaging beam, wherein the objective lens assembly includes four doublet lenses and a meniscus lens; a patient interface configured to be coupled to the objective lens assembly and to engage the eye, the patient interface including a lens having a predefined optical power, wherein the lens is a double-convex focusing lens; and optical components including at least one beam splitter, configured to direct the laser beam and the imaging beam output by the scanning assembly and the illumination light to the objective lens assembly, and to direct light emitted from within the eye, which has passed through the objective lens assembly, to the video camera assembly; wherein the scanning assembly, the objective lens assembly and the lens of the patient interface are configured to form a focal spot of the laser beam at any depth within a range of 15 mm to 24 mm in water beyond a distal surface of the lens of the patient interface.
Central shutter for camera objectives, said central shutter having a ring-shaped leaf carrier surrounding the shutter aperture, on which leaf carrier at least two studs are disposed arranged in a circularly symmetrical manner in relation to each other, on which studs sickle-shaped shutter leaves are pivotably mounted, and having an electric motor drive pivoting the shutter leaves over the shutter aperture, characterized in that the drive a) includes a motorized rotatable winding ring which is realized as a flat ring disk and rests on the leaf carrier, b) a cam ring realized as a flat ring disk is rotatably mounted in the winding ring, sawtooth-shaped cams being provided on a ring surface thereof, wherein c) the winding ring and the cam ring are coupled to each other by means of at least one tension spring that can be tensioned in the direction of rotation of the winding ring and d) the pivoting movement of the shutter leaves can be controlled by coupling to the cam ring, wherein the shutter leaves are connected to a pre-biased spring-loaded pivot lever such that when the cam ring is rotated, said pivot lever pivots the shutter leaves into the open position by means of a front flank of a cam in opposition to the pre-biased spring-loading, and when a cam head is passed over, pivots the shutter leaves into the closed position by means of its pre-biased spring loading. a) includes a motorized rotatable winding ring which is realized as a flat ring disk and rests on the leaf carrier, b) a cam ring realized as a flat ring disk is rotatably mounted in the winding ring, sawtooth-shaped cams being provided on a ring surface thereof, wherein c) the winding ring and the cam ring are coupled to each other by means of at least one tension spring that can be tensioned in the direction of rotation of the winding ring and d) the pivoting movement of the shutter leaves can be controlled by coupling to the cam ring, wherein the shutter leaves are connected to a pre-biased spring-loaded pivot lever such that when the cam ring is rotated, said pivot lever pivots the shutter leaves into the open position by means of a front flank of a cam in opposition to the pre-biased spring-loading, and when a cam head is passed over, pivots the shutter leaves into the closed position by means of its pre-biased spring loading.
A method of encoding video data comprising: determining a quantization matrix that includes a plurality of values, the plurality of values comprising a first set of values and a second set of values, wherein the first set of values in the quantization matrix cover quantization matrix entries in the rectangle from position (0,0) to (last row, last_col), and wherein the second set of values in the quantization matrix cover the remaining quantization matrix entries outside the rectangle from position (0,0) to (last row, last_col), and wherein last_row is equal to last_col; downsampling the first set of values in the quantization matrix by a first downsampling factor to generate a first set of downsampled values, wherein the first downsampling factor is 1; downsampling the second set of values in the quantization matrix by a second downsampling factor to generate a second set of downsampled values; and generating a coded bitstream that includes the first set of downsampled values and the second set of downsampled values, characterized in that the second downsampling factor is higher than the first downsampling factor. determining a quantization matrix that includes a plurality of values, the plurality of values comprising a first set of values and a second set of values, wherein the first set of values in the quantization matrix cover quantization matrix entries in the rectangle from position (0,0) to (last row, last_col), and wherein the second set of values in the quantization matrix cover the remaining quantization matrix entries outside the rectangle from position (0,0) to (last row, last_col), and wherein last_row is equal to last_col; downsampling the first set of values in the quantization matrix by a first downsampling factor to generate a first set of downsampled values, wherein the first downsampling factor is 1; downsampling the second set of values in the quantization matrix by a second downsampling factor to generate a second set of downsampled values; and generating a coded bitstream that includes the first set of downsampled values and the second set of downsampled values, characterized in that the second downsampling factor is higher than the first downsampling factor.
Blind with orientable slats, comprising: - an apron formed by a series of orientable slats, - a shaft for winding the apron, - a traction system (12, 14, 102) for pulling the slats of the apron as a function of a rotation of the shaft, and - at least one ladder for adjusting the orientation of the slats, the ladder comprising a first strand and a second strand arranged to be wound around the apron, the two strands being connected together by ties between which the slats are arranged, the traction system comprising the second strand of each ladder, so that all the slats of the apron are pulled simultaneously when the shaft rotates, characterised in that the traction system comprises, for each ladder, at least one ring which is secured in rotation with the winding shaft and which is connected to the second strand of the ladder, and in that the blind comprises, for each ladder, a sleeve for winding the first strand, the sleeve being mounted to rotate freely about the shaft. - an apron formed by a series of orientable slats, - a shaft for winding the apron, - a traction system (12, 14, 102) for pulling the slats of the apron as a function of a rotation of the shaft, and - at least one ladder for adjusting the orientation of the slats, the ladder comprising a first strand and a second strand arranged to be wound around the apron, the two strands being connected together by ties between which the slats are arranged, the traction system comprising the second strand of each ladder, so that all the slats of the apron are pulled simultaneously when the shaft rotates,
A method for preparing an ethyl vanillin or vanillin friable shell-core microcapsule composition comprising: (a) mixing ethyl vanillin or vanillin with preformed friable shell-core microcapsules; and (b) aging the mixture of step (a), thereby preparing an ethyl vanillin or vanillin friable shell-core microcapsule composition, wherein the preformed friable shell-core microcapsules comprise urea-formaldehyde, melamine-formaldehyde, phenol-formaldehyde, or amido-aldehyde. (a) mixing ethyl vanillin or vanillin with preformed friable shell-core microcapsules; and (b) aging the mixture of step (a), thereby preparing an ethyl vanillin or vanillin friable shell-core microcapsule composition,
An actuator set comprising: a plurality of actuators (M2-M7), each actuator having a first and a second terminal, each second terminal being rotatable about an output axis of the respective actuator, wherein the second terminal of each actuator is adapted to engage a transmission element (Cb) and wherein the output axes of the plurality of actuators are substantially parallel to one another; for each of the actuators (M2-M7), a transmission element (Cb) that is looped around the second terminal, forming two tension segments; wherein each transmission element (Cb) comprises: a pair of low friction circular surfaces (P1, P2), along each of which passes one of the two tension segments, the pair of circular surfaces being centered about an axis that is substantially perpendicular to the output axis of the respective actuator; and a turnaround located along the path of the transmission element (Cb) between the points at which it engages each low friction circular surface of the pair, such that tension is maintained on the transmission element (Cb); the circular surfaces (P1, P2) having graduated sizes, and the bottoms of all circular surfaces lying along a line. a plurality of actuators (M2-M7), each actuator having a first and a second terminal, each second terminal being rotatable about an output axis of the respective actuator, wherein the second terminal of each actuator is adapted to engage a transmission element (Cb) and wherein the output axes of the plurality of actuators are substantially parallel to one another; for each of the actuators (M2-M7), a transmission element (Cb) that is looped around the second terminal, forming two tension segments; wherein each transmission element (Cb) comprises: a pair of low friction circular surfaces (P1, P2), along each of which passes one of the two tension segments, the pair of circular surfaces being centered about an axis that is substantially perpendicular to the output axis of the respective actuator; and a turnaround located along the path of the transmission element (Cb) between the points at which it engages each low friction circular surface of the pair, such that tension is maintained on the transmission element (Cb); the circular surfaces (P1, P2) having graduated sizes, and the bottoms of all circular surfaces lying along a line. a pair of low friction circular surfaces (P1, P2), along each of which passes one of the two tension segments, the pair of circular surfaces being centered about an axis that is substantially perpendicular to the output axis of the respective actuator; and a turnaround located along the path of the transmission element (Cb) between the points at which it engages each low friction circular surface of the pair, such that tension is maintained on the transmission element (Cb); the circular surfaces (P1, P2) having graduated sizes, and the bottoms of all circular surfaces lying along a line.
Accumulator battery system, comprising: - first and second electrochemical accumulator stages (41, 42) connected in series; - a first control device supplied with power by way of the potentials across the terminals of at least one accumulator of the first stage, configured to measure the potential difference across the terminals of said first stage, comprising a first output interface and a first input interface; - a second control device supplied with power by way of the potentials across the terminals of at least one accumulator of the second stage, configured to measure the potential difference across the terminals of said second stage, comprising a second output interface, the second control device being configured to apply, to said second output interface, a digital sequence coding the potential difference measured by the second control device; - a communication circuit configured such that the second output interface communicates via it with said first input interface; characterized in that it furthermore comprises: - a first power supply circuit including a commanded switch configured selectively to apply or to cut off the power supply of said first control device, a command interface for commanding the switch being connected to a node of the communication circuit such that maintaining at least one logic level on said second output interface involves applying said power supply to said first control device; - at least one command circuit configured to selectively command the cutting off of the power supply of said first control device. - first and second electrochemical accumulator stages (41, 42) connected in series; - a first control device supplied with power by way of the potentials across the terminals of at least one accumulator of the first stage, configured to measure the potential difference across the terminals of said first stage, comprising a first output interface and a first input interface; - a second control device supplied with power by way of the potentials across the terminals of at least one accumulator of the second stage, configured to measure the potential difference across the terminals of said second stage, comprising a second output interface, the second control device being configured to apply, to said second output interface, a digital sequence coding the potential difference measured by the second control device; - a communication circuit configured such that the second output interface communicates via it with said first input interface; - a first power supply circuit including a commanded switch configured selectively to apply or to cut off the power supply of said first control device, a command interface for commanding the switch being connected to a node of the communication circuit such that maintaining at least one logic level on said second output interface involves applying said power supply to said first control device; - at least one command circuit configured to selectively command the cutting off of the power supply of said first control device.
Method for producing a weakened material portion in a component, comprising the following steps: • providing a component having at least one thin-walled portion, • deep drawing an embossed portion of the thin-walled portion from a component plane of the thin-walled portion by means of a punch in a deep drawing direction perpendicular to the component plane of the thin-walled portion, • reshaping the component in such a way that the deep-drawn embossed portion is moved back into the component plane of the thin-walled portion, characterized in that the reshaping of the component is carried out in such a way that a weakened material portion having substantially the cross-sectional shape of the punch is produced in the component, and in that the punch has a cross-section with alternating projections and recesses distributed over the periphery when viewed in the deep drawing direction. • providing a component having at least one thin-walled portion, • deep drawing an embossed portion of the thin-walled portion from a component plane of the thin-walled portion by means of a punch in a deep drawing direction perpendicular to the component plane of the thin-walled portion, • reshaping the component in such a way that the deep-drawn embossed portion is moved back into the component plane of the thin-walled portion, the reshaping of the component is carried out in such a way that a weakened material portion having substantially the cross-sectional shape of the punch is produced in the component, and in that the punch has a cross-section with alternating projections and recesses distributed over the periphery when viewed in the deep drawing direction.
A process for the preparation of a glycol ether ester, the process comprising contacting in a reaction zone a mono- or di-carboxylic acid and/or acid anhydride with a glycol ether of Formula I: where R 1 is a C 1 -C 8 alkyl group, phenyl, or benzyl, R 2 is H, methyl or ethyl, and n = 1 to 4, in the presence of a catalytic amount of phosphoric acid under reaction conditions sufficient to produce a reaction product mixture comprising a glycol ether ester product and water, wherein the water is at least partially vaporized in the reaction zone and is passed to a separation zone where the water is substantially removed from the process, and wherein the process is operated under conditions of temperature and pressure such that essentially no glycol ether leaves the separation zone, other than as a component of an azeotrope wherein the temperature at the top of the separation zone is at most the boiling point of the azeotrope, and wherein the azeotrope is formed by water and the glycol ether.
Pneumatic vehicle tire, at least having: - a tread comprising an outer tread cap with a profiled tread and an inner tread base, - a carcass, - a bead region with a bead core, - an inner layer and - sidewalls, characterized in that the material thickness (d', d") of the tread base decreases continuously from the centre of the tread toward each of the side walls such that the tread base has, viewed in the section transverse to the running direction of the pneumatic vehicle tire, a continuously radially outwardly arched form. - a tread comprising an outer tread cap with a profiled tread and an inner tread base, - a carcass, - a bead region with a bead core, - an inner layer and - sidewalls, characterized in that the material thickness (d', d") of the tread base decreases continuously from the centre of the tread toward each of the side walls such that the tread base has, viewed in the section transverse to the running direction of the pneumatic vehicle tire, a continuously radially outwardly arched form.