mhurhangee/patent-ind-claim-en huggingface dataset:
An oligomeric compound for use in a method of treating, preventing, or ameliorating neurodegenerative diseases by modulating the splicing of Ataxin 3 (ATXN3) pre-mRNA, comprising a modified oligonucleotide consisting of 20, 21, or 22 linked nucleosides, wherein the oligonucleotide has a nucleobase sequence comprising at least 20 contiguous nucleobases of SEQ ID NO: 4 or 5, wherein each nucleoside of the modified oligonucleotide comprises a 2'-O-methoxyethyl group.
A method of hot-forming a steel blank into an article comprising the steps of: (c) forming a heated steel blank in a hot forming tool into an article and simultaneously quenching it from a temperature T2 to a temperature T3 in a time period t3, wherein the hot forming tool applies pressure on the steel blank, wherein T3 is in the range of 400-600 °C, and wherein T2 is above the chemistry specific Ar1 temperature, (d) cooling the article in the hot forming tool from temperature T3 to a temperature T4 in a time period t4, wherein the hot forming tool does not apply any pressure on the steel blank, (e) quenching the article in the hot forming tool from temperature T4 to a temperature T5 in a time period t5, wherein the hot forming tool applies pressure on the steel blank, wherein t3 is equal or less than 10 s, and wherein the quenching rate between temperature T2 and T3 is equal or more than 50 °C/s, wherein T4 is in the range of 200-400 °C, and wherein the time period t4 is in the range of 60-180 s, wherein the cooling rate between temperature T3 and T4 is in the range of 2-10 °C/s, wherein T5 is in the range of 20-200 °C, and the time period t5 is equal or less than 8 s, and wherein the steel the steel blank comprises, in weight %, wt%, following elements C: 0.05-0.50, Mn: 0.05-3.00, Si: ≤2.0, Al: ≤2.0, P: ≤0.17, S: ≤ 0.002, B: ≤0.01, N: ≤0.01, Nb: ≤0.1, Ti: ≤0.1, Cr: ≤1.0, and optionally one or more of the elements selected from V, Mo, Co, W, and other microalloy rare earth elements, REM, in a total amount of equal or less than 1.0 wt%, the remainder being Fe and unavoidable impurities. (c) forming a heated steel blank in a hot forming tool into an article and simultaneously quenching it from a temperature T2 to a temperature T3 in a time period t3, wherein the hot forming tool applies pressure on the steel blank, wherein T3 is in the range of 400-600 °C, and wherein T2 is above the chemistry specific Ar1 temperature, (d) cooling the article in the hot forming tool from temperature T3 to a temperature T4 in a time period t4, wherein the hot forming tool does not apply any pressure on the steel blank, (e) quenching the article in the hot forming tool from temperature T4 to a temperature T5 in a time period t5, wherein the hot forming tool applies pressure on the steel blank, wherein t3 is equal or less than 10 s, and wherein the quenching rate between temperature T2 and T3 is equal or more than 50 °C/s, wherein T4 is in the range of 200-400 °C, and wherein the time period t4 is in the range of 60-180 s, wherein the cooling rate between temperature T3 and T4 is in the range of 2-10 °C/s, wherein T5 is in the range of 20-200 °C, and the time period t5 is equal or less than 8 s, and wherein the steel the steel blank comprises, in weight %, wt%, following elements C: 0.05-0.50, Mn: 0.05-3.00, Si: ≤2.0, Al: ≤2.0, P: ≤0.17, S: ≤ 0.002, B: ≤0.01, N: ≤0.01, Nb: ≤0.1, Ti: ≤0.1, Cr: ≤1.0, and optionally one or more of the elements selected from V, Mo, Co, W, and other microalloy rare earth elements, REM, in a total amount of equal or less than 1.0 wt%, the remainder being Fe and unavoidable impurities.
An auto-darkening welding helmet , comprising: a helmet casing ; an auto-darkening filter installed in the helmet casing and including a liquid crystal panel configured to be switched between a non-opaque state and an opaque state; and a lighting device installed in the helmet casing and comprising a cable configured to be connected to the auto-darkening filter in a manner that: when the liquid crystal panel is in the non-opaque state, the lighting device automatically emits light towards a front of the liquid crystal panel , and when the liquid crystal panel is in the opaque state, the lighting device does not automatically emit light; characterized in that the lighting device is releasably installed in the helmet casing above or laterally aside the auto-darkening filter . a helmet casing ; an auto-darkening filter installed in the helmet casing and including a liquid crystal panel configured to be switched between a non-opaque state and an opaque state; and a lighting device installed in the helmet casing and comprising a cable configured to be connected to the auto-darkening filter in a manner that: when the liquid crystal panel is in the non-opaque state, the lighting device automatically emits light towards a front of the liquid crystal panel , and when the liquid crystal panel is in the opaque state, the lighting device does not automatically emit light; characterized in that the lighting device is releasably installed in the helmet casing above or laterally aside the auto-darkening filter . when the liquid crystal panel is in the non-opaque state, the lighting device automatically emits light towards a front of the liquid crystal panel , and when the liquid crystal panel is in the opaque state, the lighting device does not automatically emit light; characterized in that the lighting device is releasably installed in the helmet casing above or laterally aside the auto-darkening filter .
An aspirator or pressurizer comprising: a pump driven by a piezoelectric element and having a suction portion and a discharge portion ; a detecting unit configured to detect a closed state of the suction portion or the discharge portion ; and a control unit configured to regulate an output voltage for the piezoelectric element characterized in that said detection of the closed state of the suction portion or the discharge portion by the detecting unit involves using an impedance of the piezoelectric element , wherein said control unit is configured to regulate the output voltage for the piezoelectric element in accordance with the closed state of the suction portion or the discharge portion as detected by the detecting unit by using the impedance of the piezoelectric element . a pump driven by a piezoelectric element and having a suction portion and a discharge portion ; a detecting unit configured to detect a closed state of the suction portion or the discharge portion ; and a control unit configured to regulate an output voltage for the piezoelectric element characterized in that said detection of the closed state of the suction portion or the discharge portion by the detecting unit involves using an impedance of the piezoelectric element , wherein said control unit is configured to regulate the output voltage for the piezoelectric element in accordance with the closed state of the suction portion or the discharge portion as detected by the detecting unit by using the impedance of the piezoelectric element .
A computer-implemented image processing method, comprising: obtaining a plurality of image blocks, wherein the plurality of image blocks are obtained by segmenting a to-be-analyzed pathological image; inputting the plurality of image blocks to a first analysis model to obtain a first analysis result, wherein the first analysis model classifies each of the plurality of image blocks based on a quantity or an area of suspicious lesion components, the first analysis result indicates that a type of each image block is a first type or a second type, the first type indicates that a quantity or an area of suspicious lesion components in the image block is greater than or equal to a preset threshold, and the second type indicates that the quantity or the area of the suspicious lesion components in the image block is less than the preset threshold; inputting at least one second-type image block in the first analysis result to a second analysis model to obtain a second analysis result, wherein the second analysis model analyzes a location of a suspicious lesion component of each input second-type image block; and obtaining a final analysis result of the pathological image based on the first analysis result and the second analysis result. obtaining a plurality of image blocks, wherein the plurality of image blocks are obtained by segmenting a to-be-analyzed pathological image; inputting the plurality of image blocks to a first analysis model to obtain a first analysis result, wherein the first analysis model classifies each of the plurality of image blocks based on a quantity or an area of suspicious lesion components, the first analysis result indicates that a type of each image block is a first type or a second type, the first type indicates that a quantity or an area of suspicious lesion components in the image block is greater than or equal to a preset threshold, and the second type indicates that the quantity or the area of the suspicious lesion components in the image block is less than the preset threshold; inputting at least one second-type image block in the first analysis result to a second analysis model to obtain a second analysis result, wherein the second analysis model analyzes a location of a suspicious lesion component of each input second-type image block; and obtaining a final analysis result of the pathological image based on the first analysis result and the second analysis result.
A container for storing personal care articles comprising: a lid structure and a container base , wherein the lid structure is attached to the container base , the lid structure having a top lid portion and a base lid portion , wherein the top lid portion is connected to the base lid portion by at least one hinge, the base lid portion including a unitary dispensing partition and a rigid port , wherein the rigid port is surrounding the unitary dispensing partition , the unitary dispensing partition having a dispensing aperture formed therethrough, the dispensing aperture comprises a continuous slit having at least two ends ; characterised in that the unitary dispensing partition forms an arc extending a first depth (D1) into an interior of the container in a z-direction, and in that the continuous slit extends a distance in an x-direction along the arc . a lid structure and a container base , wherein the lid structure is attached to the container base , the lid structure having a top lid portion and a base lid portion , wherein the top lid portion is connected to the base lid portion by at least one hinge, the base lid portion including a unitary dispensing partition and a rigid port , wherein the rigid port is surrounding the unitary dispensing partition , the unitary dispensing partition having a dispensing aperture formed therethrough, the dispensing aperture comprises a continuous slit having at least two ends ; characterised in that the unitary dispensing partition forms an arc extending a first depth (D1) into an interior of the container in a z-direction, and in that the continuous slit extends a distance in an x-direction along the arc .
A feeding device for feeding stacks of standing flat-folded cartons to a receiving station, comprising a conveyor track having a flat bearing plane adapted to support the stacks, where the conveyor track comprises at least two rows of teeth where each row of teeth comprises a plurality of spaced apart teeth adapted to support the stacks of flat-folded cartons , where the teeth can be positioned in either an erected position or in a folded position, and where the feeding device comprises a guide track arranged along the bearing plane and adapted to hold the teeth in the selected position, wherein the guide track ends at an end region of the conveyor track , such that the teeth are unsupported at the end region , wherein the feeding device comprises a slide rail in a return path, where the slide rail is adapted to set all teeth in the folded position, wherein the feeding device further comprises an erecting member in the return path adapted to set all teeth in the erected position, characterized i n that the feeding device comprises a switch adapted to switch selected teeth from the erected position to the folded position.
A protection cup for a hearing protection device, comprising: an outer surface ; an inner surface on an opposite side from the outer surface ; and a plurality of fractal elements disposed on the inner surface , wherein the plurality of fractal elements comprises: a plurality of first fractal elements protruding from the inner surface of the protection cup ; a plurality of second fractal elements protruding from the inner surface of the protection cup , wherein the plurality of first fractal elements and the plurality of second fractal elements form a plurality of regions on the inner surface ; and a plurality of additional fractal elements disposed within at least one of the plurality of regions on the inner surface , wherein each of the plurality of additional fractal elements is an H-shaped fractal element. an outer surface ; an inner surface on an opposite side from the outer surface ; and a plurality of fractal elements disposed on the inner surface , wherein the plurality of fractal elements comprises: a plurality of first fractal elements protruding from the inner surface of the protection cup ; a plurality of second fractal elements protruding from the inner surface of the protection cup , wherein the plurality of first fractal elements and the plurality of second fractal elements form a plurality of regions on the inner surface ; and a plurality of additional fractal elements disposed within at least one of the plurality of regions on the inner surface , wherein each of the plurality of additional fractal elements is an H-shaped fractal element. a plurality of first fractal elements protruding from the inner surface of the protection cup ; a plurality of second fractal elements protruding from the inner surface of the protection cup , wherein the plurality of first fractal elements and the plurality of second fractal elements form a plurality of regions on the inner surface ; and a plurality of additional fractal elements disposed within at least one of the plurality of regions on the inner surface , wherein each of the plurality of additional fractal elements is an H-shaped fractal element.
Method for producing a secondary miniature battery with a capacity < 1000 mAh, having the following features: a. the battery comprises a metal casing composed of two metallic casing parts (101; 102), b. the metal casing has a prismatic construction, and c. disposed between the two metallic casing parts (101; 102) in a sealing region is an all-round seal which isolates the casing parts (101; 102) electrically from one another, where d. to form the seal , a hot-melt adhesive is melted, and the hot-melt adhesive is subjected to a cooling operation in which it cools to form a cohesive bond to the casing parts (101; 102), and e. to melt the hot-melt adhesive, the metal casing is heated inductively, characterized in that f. to form the seal , the hot-melt adhesive in a first step is contacted with an area of one of the two casing parts that borders the sealing region after the end of the method, is melted and is subjected to a cooling operation in which it cools to form a cohesive bond to the casing part; g. in a second step, the casing is assembled from the casing part with the cooled hot-melt adhesive and the other of the two casing parts; h. in a third step, the hot-melt adhesive is melted a second time and subjected to a cooling operation, this time to form a cohesive bond to the other of the two casing parts. a. the battery comprises a metal casing composed of two metallic casing parts (101; 102), b. the metal casing has a prismatic construction, and c. disposed between the two metallic casing parts (101; 102) in a sealing region is an all-round seal which isolates the casing parts (101; 102) electrically from one another, where d. to form the seal , a hot-melt adhesive is melted, and the hot-melt adhesive is subjected to a cooling operation in which it cools to form a cohesive bond to the casing parts (101; 102), and e. to melt the hot-melt adhesive, the metal casing is heated inductively, characterized in that f. to form the seal , the hot-melt adhesive in a first step is contacted with an area of one of the two casing parts that borders the sealing region after the end of the method, is melted and is subjected to a cooling operation in which it cools to form a cohesive bond to the casing part; g. in a second step, the casing is assembled from the casing part with the cooled hot-melt adhesive and the other of the two casing parts; h. in a third step, the hot-melt adhesive is melted a second time and subjected to a cooling operation, this time to form a cohesive bond to the other of the two casing parts.
An implant, comprising: a body comprising a bone contact surface and an articulation surface ; and an expandable stem extending longitudinally from the bone contact surface , the expandable stem comprising a plurality of flanges (108a-108d), wherein the plurality of flanges (108a-108d) are expandable from a first diameter to a second diameter, wherein the second diameter is greater than the first diameter, and wherein the plurality of flanges (108a-108d) are configured to be expanded by driving an expansion device between the plurality of flanges (108a-108d) to expand the plurality of flanges (108a-108d) to the second diameter, said implant being characterized in that each of the plurality of flanges (108a-108d) defines a partial threading sized and configured to mate with the expansion device, wherein the expandable stem is adapted to be inserted through a first side of a channel formed in a bone and the expansion device is adapted to be inserted through a second side of the channel. a body comprising a bone contact surface and an articulation surface ; and an expandable stem extending longitudinally from the bone contact surface , the expandable stem comprising a plurality of flanges (108a-108d), wherein the plurality of flanges (108a-108d) are expandable from a first diameter to a second diameter, wherein the second diameter is greater than the first diameter, and
A plastic card processing system , comprising: a card hopper that is configured to contain plastic cards to be printed on; a plastic card printing mechanism that is configured to receive plastic cards fed from the card hopper and that is configured to simultaneously have a plurality of the plastic cards therein, the plastic card printing mechanism includes: at least one drop-on-demand print station that is configured to perform a drop-on-demand printing operation on a surface (A, B) of the plastic cards ; a return card travel path that is configured to return a plastic card to a location upstream of the at least one drop-on-demand print station after the plastic card has been printed on by the at least one drop-on-demand print station , to be fed again through the at least one drop-on-demand print station ; characterized in that the plastic card printing mechanism is configured such that a first one of the plastic cards has an A side and a B side and the A side thereof faces up, and a second one of the plastic cards in sequence in the plastic card printing mechanism with the first one of the plastic cards has an A side and a B side and the B side thereof faces up. a card hopper that is configured to contain plastic cards to be printed on; a plastic card printing mechanism that is configured to receive plastic cards fed from the card hopper and that is configured to simultaneously have a plurality of the plastic cards therein, the plastic card printing mechanism includes: at least one drop-on-demand print station that is configured to perform a drop-on-demand printing operation on a surface (A, B) of the plastic cards ; a return card travel path that is configured to return a plastic card to a location upstream of the at least one drop-on-demand print station after the plastic card has been printed on by the at least one drop-on-demand print station , to be fed again through the at least one drop-on-demand print station ; characterized in that the plastic card printing mechanism is configured such that a first one of the plastic cards has an A side and a B side and the A side thereof faces up, and a second one of the plastic cards in sequence in the plastic card printing mechanism with the first one of the plastic cards has an A side and a B side and the B side thereof faces up. at least one drop-on-demand print station that is configured to perform a drop-on-demand printing operation on a surface (A, B) of the plastic cards ; a return card travel path that is configured to return a plastic card to a location upstream of the at least one drop-on-demand print station after the plastic card has been printed on by the at least one drop-on-demand print station , to be fed again through the at least one drop-on-demand print station ; characterized in that the plastic card printing mechanism is configured such that a first one of the plastic cards has an A side and a B side and the A side thereof faces up, and a second one of the plastic cards in sequence in the plastic card printing mechanism with the first one of the plastic cards has an A side and a B side and the B side thereof faces up.
An aqueous pretreatment formulation comprising - at least one metal salt, - a polymeric mixture of polymers, copolymers, or both, - an ammonium salt, - an epichlorohydrin-modified polyamide, and optionally at least one polycarbodiimide, wherein the formulation is free of a dye or a pigment, an organic acid, an organic base, an organic starch, a starch salt, an isocyanate-based material, borates and borate salts. - at least one metal salt, - a polymeric mixture of polymers, copolymers, or both, - an ammonium salt, - an epichlorohydrin-modified polyamide, and optionally at least one polycarbodiimide, wherein the formulation is free of a dye or a pigment, an organic acid, an organic base, an organic starch, a starch salt, an isocyanate-based material, borates and borate salts.