mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of geological imaging using an object store based on cloud storage, the method comprising the steps of: (a) hierarchically combining at least a plurality of prestack images from the object store to generate a hierarchically stacked image, wherein the hierarchically stacked image is generated by combining at least a plurality of stacked images comprising a stacked image, and wherein the stacked image is generated by combining at least the plurality of prestack images; (b) generating, based at least on the hierarchically stacked image, a quality measure of a prestack image of the plurality of prestack images; (c) further combining, based at least on the quality measure, the plurality of prestack images to generate an enhanced stacked image; (d) substituting the stacked image in the plurality of stacked images used to generate the hierarchically stacked image with the enhanced stacked image; (e) further combining, subsequent to performing step (d), the plurality of stacked images now including the enhanced stack image, to generate an enhanced hierarchically stacked image, wherein the enhanced stacked image and the enhanced hierarchically stacked image are generated using failure recovery metadata; (f) deleting at least a subset of the plurality of prestack images from the object store subsequent to performing steps (c) and (e); and (g) presenting the enhanced hierarchically stacked image. (a) hierarchically combining at least a plurality of prestack images from the object store to generate a hierarchically stacked image, wherein the hierarchically stacked image is generated by combining at least a plurality of stacked images comprising a stacked image, and wherein the stacked image is generated by combining at least the plurality of prestack images; (b) generating, based at least on the hierarchically stacked image, a quality measure of a prestack image of the plurality of prestack images; (c) further combining, based at least on the quality measure, the plurality of prestack images to generate an enhanced stacked image; (d) substituting the stacked image in the plurality of stacked images used to generate the hierarchically stacked image with the enhanced stacked image; (e) further combining, subsequent to performing step (d), the plurality of stacked images now including the enhanced stack image, to generate an enhanced hierarchically stacked image, wherein the enhanced stacked image and the enhanced hierarchically stacked image are generated using failure recovery metadata; (f) deleting at least a subset of the plurality of prestack images from the object store subsequent to performing steps (c) and (e); and (g) presenting the enhanced hierarchically stacked image.
A process to prepare polycarbamate comprising: adding urea to a polyol in the presence of at least one catalyst selected from the group consisting of: Ti ethoxide, Ti isopropoxide, Ti butoxide, Ti bis(triethanolamine) diisopropoxide, Ti acetylacetonate, Ti 2-ethylhexyloxide, tetrabutyl titanate, Ti butoxy isopropoxy, Ti tetrakis(diethylamino), Ti oxide bis(acetylacetonate), Ti cresylate, Ti oxyacetylacetonate, Ti bis(acetylacetonate)dichloride, Ti diisopropoxide bis(acetylacetonate), chlorotriisopropoxytitanium, Zirconium acetylacetonate, Zr hexafluoroacetyl acetonate, Zr 2-ethylhexanoate, Zr Tetrakis (2,2,6,6- tetramethyl- 3,5, heptanedionate), Zr n-butoxide, Zr 2-methyl-2-butoxide, Zirconium propoxide, Zr octoate, Zr tetrakis (diethylamino), Zr 2-methyl-2-butoxide, Zr diisopropoxide bis(2,2,6,6-tetramethyl-3,5-heptanedionate, Zr tetrakis(trifluoromethanesulfonate), ZrOCl 2, Zr 4, Zr carboxyethyl acrylate, Hf butoxide, Hf isopropoxide, Hf trifluoromethanesulfonate, Hf tert-butoxide, Hf tetrakis(diethylamino), Hf 1,1,1-trifluoro-2,4-pentanedionate, Hf trifluoroacetylacetonate, Hf acetylacetonate, Hf iso-propoxide monoisopropylate, Hf tetrakis(diethylamino), Hf bromide, Hf chloride, Hf oxide, Ge chloride, Ge bromide, Ge oxide, Ge sulfide, Ge isopropoxide, Ge butoxide, Ge ethoxide, tributylgermanium chloride and any combination thereof.
A method of treating a surface of a wearable device to resist sebum so as to improve wearability of the wearable device by preventing potential degradation due to prolonged sebum exposure, the method comprising: providing a body comprising an elastic material having a polymeric backbone, wherein a portion of the polymeric backbone is unsaturated, said material including one of: vulcanized polynorbornene, a styrene-butadiene polymer, or a styrenic-based thermoplastic elastomer, the body having an outer surface; and oxidizing at least one part of the outer surface to incorporate at least one functional group on the polymeric backbone, the functional group consisting of a hydroxyl diol, a carboxylic acid, a ketone, and/or an aldehyde. providing a body comprising an elastic material having a polymeric backbone, wherein a portion of the polymeric backbone is unsaturated, said material including one of: vulcanized polynorbornene, a styrene-butadiene polymer, or a styrenic-based thermoplastic elastomer, the body having an outer surface; and oxidizing at least one part of the outer surface to incorporate at least one functional group on the polymeric backbone, the functional group consisting of a hydroxyl diol, a carboxylic acid, a ketone, and/or an aldehyde.
A cold plasma device for treating skin, the cold plasma device comprising: a housing having an end face, a cold plasma generator adapted to generate cold plasma that produces reactive species for treating said skin, wherein the cold plasma generator is substantially evenly spaced from said skin during use, and a manipulator adapted to manipulate said skin to increase exposure of bacteria on said skin to said reactive species during use of the device, wherein said manipulator extends between the cold plasma generator and the said skin during use; and wherein the manipulator comprises a movable member (19, 21, 32, 36, 38) arranged to contact said skin during use of the cold plasma device. a housing having an end face, a cold plasma generator adapted to generate cold plasma that produces reactive species for treating said skin, wherein the cold plasma generator is substantially evenly spaced from said skin during use, and a manipulator adapted to manipulate said skin to increase exposure of bacteria on said skin to said reactive species during use of the device, wherein said manipulator extends between the cold plasma generator and the said skin during use; and wherein the manipulator comprises a movable member (19, 21, 32, 36, 38) arranged to contact said skin during use of the cold plasma device.
Baby carriage comprising two rear wheels and at least one front wheel, a chassis carried by said wheels (2, 3), a device carried in the chassis and intended to hold a passenger, as well as a folding stand which has a first elongate leg and a second elongate leg arranged in such a way that they have the extension thereof on each side of the front wheel when the stand is in the lowered supporting position, a first horizontal cross-bar that is connected in one end thereof to said first leg and in the other end thereof to said second leg, means for attachment of the stand in the chassis which means have a horizontal rotation axis and are arranged in one end of said first elongate leg and one end of said second elongate leg, respectively, and said first horizontal cross-bar being arranged at a distance from said horizontal rotation axis, characterized in that said first cross-bar is intended to abut against the front wheel when the stand is in the lowered supporting position.
A shunt for implantation in an orifice formed in an organ of a patient's body, comprising: an expandable frame comprising a central loop-shaped portion defining a central lumen, the central lumen defining a central axis, the frame further comprising a plurality of loop-shaped anchoring arms extending radially outward from the central portion, wherein the frame is configured to expand and contract between a compressed configuration for delivery through the patient's vasculature and an expanded configuration in which the arms extend radially outwardly from and are coplanar with the central portion, the anchoring arms being connected to the central portion at angularly spaced locations on the central portion that intersect a common plane perpendicular to the central axis, wherein the plurality of anchoring arms comprises a first set of anchoring arms (22a, 22b) configured to be positioned on one side of the orifice and a second set of anchoring arms (24a, 24b) configured to be positioned on the other side of the orifice. wherein the frame is configured to expand and contract between a compressed configuration for delivery through the patient's vasculature and an expanded configuration in which the arms extend radially outwardly from and are coplanar with the central portion, the anchoring arms being connected to the central portion at angularly spaced locations on the central portion that intersect a common plane perpendicular to the central axis, wherein the plurality of anchoring arms comprises a first set of anchoring arms (22a, 22b) configured to be positioned on one side of the orifice and a second set of anchoring arms (24a, 24b) configured to be positioned on the other side of the orifice.
An energy storage system, comprising: a battery rack including at least one battery cell and having a cooling channel for cooling the at least one battery cell; a coolant tank spaced apart from the battery rack by a predetermined distance and having a predetermined coolant; a pipe unit configured to connect the coolant tank and the battery rack and configured to circulate the coolant between the battery rack and the coolant tank; and a pump unit connected to the pipe unit, disposed between the coolant tank and the battery rack, and configured to adjust the supply of the coolant to the battery rack, wherein the energy storage system further comprises: a diverging valve connected to the pipe unit, a first heat exchanger disposed between the battery rack and the diverging valve; and a second heat exchanger spaced apart from the first heat exchanger by a predetermined distance and disposed between the diverging valve and the coolant tank, characterized in that the energy storage system is configured to perform additional cooling through the second heat exchanger by controlling the diverging valve according to the temperature of the coolant that has passed through the battery rack and the first heat exchanger. a battery rack including at least one battery cell and having a cooling channel for cooling the at least one battery cell; a coolant tank spaced apart from the battery rack by a predetermined distance and having a predetermined coolant; a pipe unit configured to connect the coolant tank and the battery rack and configured to circulate the coolant between the battery rack and the coolant tank; and a pump unit connected to the pipe unit, disposed between the coolant tank and the battery rack, and configured to adjust the supply of the coolant to the battery rack, wherein the energy storage system further comprises: a diverging valve connected to the pipe unit, a first heat exchanger disposed between the battery rack and the diverging valve; and a second heat exchanger spaced apart from the first heat exchanger by a predetermined distance and disposed between the diverging valve and the coolant tank, characterized in that the energy storage system is configured to perform additional cooling through the second heat exchanger by controlling the diverging valve according to the temperature of the coolant that has passed through the battery rack and the first heat exchanger. a diverging valve connected to the pipe unit, a first heat exchanger disposed between the battery rack and the diverging valve; and a second heat exchanger spaced apart from the first heat exchanger by a predetermined distance and disposed between the diverging valve and the coolant tank, characterized in that the energy storage system is configured to perform additional cooling through the second heat exchanger by controlling the diverging valve according to the temperature of the coolant that has passed through the battery rack and the first heat exchanger.
Method for operating an injection-moulding machine comprising the steps: a) in a current injection-moulding cycle, after an accepted-part reference injection-moulding cycle learned in a learning phase: detecting a compound pressure change k 1 with respect to an accepted-part reference compound pressure p masse,ref during at least a part of an injection phase of the current injection-moulding cycle by measuring a current compound pressure p masse,act and comparing the current compound pressure p masse,act with the accepted-part reference compound pressure p masse,ref, b) determining a target mould internal pressure curve p wkz,soll (t) for a holding-pressure phase of the current injection-moulding cycle, wherein for this purpose a mould internal pressure curve p wkz,ref (t) of the accepted-part reference injection-moulding cycle is adjusted at least depending on the compound pressure change k 1 detected in step a) and c) travelling the holding-pressure curve p masse,Hld,act (t) of the current injection-moulding cycle in such a manner that an actual mould internal pressure curve p wkz,act (t) of the current injection-moulding cycle runs at least more closely along the target mould internal pressure curve p wkz,soll (t) than a mould internal pressure curve p wkz,ref (t) that is unchanged with respect to the accepted-part reference cycle. a) in a current injection-moulding cycle, after an accepted-part reference injection-moulding cycle learned in a learning phase: detecting a compound pressure change k 1 with respect to an accepted-part reference compound pressure p masse,ref during at least a part of an injection phase of the current injection-moulding cycle by measuring a current compound pressure p masse,act and comparing the current compound pressure p masse,act with the accepted-part reference compound pressure p masse,ref, b) determining a target mould internal pressure curve p wkz,soll (t) for a holding-pressure phase of the current injection-moulding cycle, wherein for this purpose a mould internal pressure curve p wkz,ref (t) of the accepted-part reference injection-moulding cycle is adjusted at least depending on the compound pressure change k 1 detected in step a) and c) travelling the holding-pressure curve p masse,Hld,act (t) of the current injection-moulding cycle in such a manner that an actual mould internal pressure curve p wkz,act (t) of the current injection-moulding cycle runs at least more closely along the target mould internal pressure curve p wkz,soll (t) than a mould internal pressure curve p wkz,ref (t) that is unchanged with respect to the accepted-part reference cycle.
A method for controlling a first motor and a second motor of a common assembly, the method comprising: generating a plurality of commanded speeds of a first rotor of a first electric motor for a first time interval and a second time interval within a series of time intervals; detecting a plurality of observed speeds of the first rotor for the first time interval and the second time interval, each one of the observed speeds corresponding to a respective commanded speed; determining a first ratio based on a relationship between respective commanded speeds and corresponding observed speeds for the first time interval and the second time interval; incrementing a persistence counter for the first motor if the first ratio decreases or changes during the series of time intervals; estimating a first motor deceleration or first motor rate of change in first rotor speed of the first motor if the persistence counter exceeds a stall limit count; and adjusting a target rotor speed of a second motor based on the estimated first motor rate of change to track the first motor rate of change or the first rotor speed if the persistence counter exceeds the stall limit count, characterised in that the adjusting further comprises decreasing the target rotor speed and current of the second motor to be proportional to the first motor deceleration multiplied by an elapsed time, between the first time interval and the second time interval, plus a previous second rotor speed of the second motor. generating a plurality of commanded speeds of a first rotor of a first electric motor for a first time interval and a second time interval within a series of time intervals; detecting a plurality of observed speeds of the first rotor for the first time interval and the second time interval, each one of the observed speeds corresponding to a respective commanded speed; determining a first ratio based on a relationship between respective commanded speeds and corresponding observed speeds for the first time interval and the second time interval; incrementing a persistence counter for the first motor if the first ratio decreases or changes during the series of time intervals; estimating a first motor deceleration or first motor rate of change in first rotor speed of the first motor if the persistence counter exceeds a stall limit count; and adjusting a target rotor speed of a second motor based on the estimated first motor rate of change to track the first motor rate of change or the first rotor speed if the persistence counter exceeds the stall limit count, characterised in that the adjusting further comprises decreasing the target rotor speed and current of the second motor to be proportional to the first motor deceleration multiplied by an elapsed time, between the first time interval and the second time interval, plus a previous second rotor speed of the second motor.
Process for manufacturing a jointing assembly for medium or high voltage electrical cables, comprising in sequence: - forming a tubular element made from a semi-conductive material; - cutting out of said tubular element a first cylindrical element having a first length and a second cylindrical element (22a, 22b) having a second length; - machining an end portion (23a, 23b) of said first cylindrical element and an end portion (24a, 24b) of said second cylindrical element (22a, 22b) to provide them with an at least partially rounded profile; - arranging said first cylindrical element at a radially inner surface of an elastomeric sleeve made from a dielectric material and extending about a longitudinal axis (X-X); - arranging said second cylindrical element (22a, 22b) at a free end portion (20, 20b) of said elastomeric sleeve with at least an end portion of said second cylindrical element (22a, 22b) being arranged at a radially inner surface of said elastomeric sleeve, said second cylindrical element (22a, 22b) being spaced apart from said first cylindrical element, with the rounded end portion (24a, 24b) of said second cylindrical element (22a, 22b) facing the rounded end portion (23a, 23b) of said first cylindrical element; - elastically expanding said elastomeric sleeve, said first cylindrical element and said second cylindrical element (22a, 22b) by inserting at least one removable support element in a radially inner position with respect to said elastomeric sleeve. - forming a tubular element made from a semi-conductive material; - cutting out of said tubular element a first cylindrical element having a first length and a second cylindrical element (22a, 22b) having a second length; - machining an end portion (23a, 23b) of said first cylindrical element and an end portion (24a, 24b) of said second cylindrical element (22a, 22b) to provide them with an at least partially rounded profile; - arranging said first cylindrical element at a radially inner surface of an elastomeric sleeve made from a dielectric material and extending about a longitudinal axis (X-X); - arranging said second cylindrical element (22a, 22b) at a free end portion (20, 20b) of said elastomeric sleeve with at least an end portion of said second cylindrical element (22a, 22b) being arranged at a radially inner surface of said elastomeric sleeve, said second cylindrical element (22a, 22b) being spaced apart from said first cylindrical element, with the rounded end portion (24a, 24b) of said second cylindrical element (22a, 22b) facing the rounded end portion (23a, 23b) of said first cylindrical element; - elastically expanding said elastomeric sleeve, said first cylindrical element and said second cylindrical element (22a, 22b) by inserting at least one removable support element in a radially inner position with respect to said elastomeric sleeve.
A display stand for suspending a display, the display stand being operable to change an orientation of the display between a horizontally supported state and a vertically supported state without detaching and attaching the display, the display stand comprising: a stand unit having a plurality of posts (31A, 31B) and a mounting mechanism; and a mounting bracket suitable to be mounted on a back surface of the display, wherein the mounting bracket includes three fixing members as first second, and third fixing members (21, 22, 23) each extending from the back surface of the mounting bracket, wherein the mounting mechanism includes a mounting plate, the mounting plate forming at least a part of a transverse plate that connects between the plurality of posts (31A, 31B), the mounting plate including a straight rail part having a straight slot and a bent rail part having a bent slot, the bent slot being bent at a substantially right angle, and wherein of the three fixing members fixed to the mounting bracket, the first fixing member engages with the straight rail part and is linearly movable when the display rotates, and the second fixing member and the third fixing member each engage with the bent rail part and are movable along straight portions of the bent rail part when the display rotates. a stand unit having a plurality of posts (31A, 31B) and a mounting mechanism; and a mounting bracket suitable to be mounted on a back surface of the display, wherein the mounting bracket includes three fixing members as first second, and third fixing members (21, 22, 23) each extending from the back surface of the mounting bracket, wherein the mounting mechanism includes a mounting plate, the mounting plate forming at least a part of a transverse plate that connects between the plurality of posts (31A, 31B), the mounting plate including a straight rail part having a straight slot and a bent rail part having a bent slot, the bent slot being bent at a substantially right angle, and wherein of the three fixing members fixed to the mounting bracket, the first fixing member engages with the straight rail part and is linearly movable when the display rotates, and the second fixing member and the third fixing member each engage with the bent rail part and are movable along straight portions of the bent rail part when the display rotates.