mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal comprising: - a window (310, 410, 510, 610) comprising: -- flat portion at a front side of the mobile terminal; and -- a curved portion that curves from the front side towards a rear side of the mobile terminal and covers at least a portion of a lateral side of the mobile terminal; - a touch sensor (320, 420, 520, 620) disposed at a rear side of the window, and being curved to correspond to the curved portion of the window; - a display (330, 430, 530, 630) disposed at a rear side of the touch sensor, and being curved to correspond to the curved portion of the touch sensor; and - a rear case (380, 480, 580, 680) comprising: -- a cover portion; -- a sidewall portion protruding toward the front side of the mobile terminal; -- a bottom surface portion protruding toward the front side of the mobile terminal, the bottom surface portion protruding further towards the front side of the mobile terminal than the sidewall portion; and -- a curved surface portion curved to connect the sidewall portion and the bottom surface portion to each other, wherein the rear case is extended to be in contact with a lower end portion of the window. - a window (310, 410, 510, 610) comprising: -- flat portion at a front side of the mobile terminal; and -- a curved portion that curves from the front side towards a rear side of the mobile terminal and covers at least a portion of a lateral side of the mobile terminal; -- flat portion at a front side of the mobile terminal; and -- a curved portion that curves from the front side towards a rear side of the mobile terminal and covers at least a portion of a lateral side of the mobile terminal; - a touch sensor (320, 420, 520, 620) disposed at a rear side of the window, and being curved to correspond to the curved portion of the window; - a display (330, 430, 530, 630) disposed at a rear side of the touch sensor, and being curved to correspond to the curved portion of the touch sensor; and - a rear case (380, 480, 580, 680) comprising: -- a cover portion; -- a sidewall portion protruding toward the front side of the mobile terminal; -- a bottom surface portion protruding toward the front side of the mobile terminal, the bottom surface portion protruding further towards the front side of the mobile terminal than the sidewall portion; and -- a curved surface portion curved to connect the sidewall portion and the bottom surface portion to each other, wherein the rear case is extended to be in contact with a lower end portion of the window. -- a cover portion; -- a sidewall portion protruding toward the front side of the mobile terminal; -- a bottom surface portion protruding toward the front side of the mobile terminal, the bottom surface portion protruding further towards the front side of the mobile terminal than the sidewall portion; and -- a curved surface portion curved to connect the sidewall portion and the bottom surface portion to each other,
A method comprising: orchestrating, by a source coordinator device, one or more coordinated lightweight checkpoints for a source dataset across two or more source storage systems (2512, 2514) that each store a local portion (2532, 2534) of the source dataset, wherein each coordinated lightweight checkpoint represents a coordinated point in time for the source dataset and is orchestrated by coordinating a pause in input/output, I/O, operations on the source storage systems (2512, 2514) to generate consistent local lightweight checkpoints (2572, 2574); wherein each coordinated lightweight checkpoint that is orchestrated for the source dataset across the two or more source storage systems is associated to respective local lightweight checkpoints that the two or more source storage systems replicate to two or more target storage systems (2513, 2515); and determining, by a target coordinator device, across the two or more target storage systems (2513, 2515), that each target storage system has received a replicated local lightweight checkpoint (2573, 2575) corresponding to a same coordinated target checkpoint. orchestrating, by a source coordinator device, one or more coordinated lightweight checkpoints for a source dataset across two or more source storage systems (2512, 2514) that each store a local portion (2532, 2534) of the source dataset, wherein each coordinated lightweight checkpoint represents a coordinated point in time for the source dataset and is orchestrated by coordinating a pause in input/output, I/O, operations on the source storage systems (2512, 2514) to generate consistent local lightweight checkpoints (2572, 2574); wherein each coordinated lightweight checkpoint that is orchestrated for the source dataset across the two or more source storage systems is associated to respective local lightweight checkpoints that the two or more source storage systems replicate to two or more target storage systems (2513, 2515); and determining, by a target coordinator device, across the two or more target storage systems (2513, 2515), that each target storage system has received a replicated local lightweight checkpoint (2573, 2575) corresponding to a same coordinated target checkpoint.
Toothbrush produced using the AFT-process, having a handle part, a head part connected to the handle part and at least one carrier element connected to the head part, the top surface or the top surfaces of the at least one carrier element defining a front surface of the head part, and the at least one carrier element having a rear surface and a plurality of cutouts through which bristle filaments are guided and melted for fastening on the carrier element by way of their rear ends, the bristle melt covering at least partially the rear surface of the carrier element, characterized in that the at least one carrier element is a two-component carrier element, which has a plurality of sleeves connected to one another by webs and intended for accommodating bristle filaments, the sleeves and webs consisting of a hard material, and at least the interspaces between the sleeves and the webs being filled with a soft material.
A compound having the formula: or or a salt or ester of or; wherein: X is 18 F, or 19 F; Y and Z are independently selected from a C 1 -C 6 alkyl, C 1 -C 6 alkoxyl, halogen, 18 F, 19 F, or H; and n is 1, 2, or 3. Y and Z are independently selected from a C 1 -C 6 alkyl, C 1 -C 6 alkoxyl, halogen, 18 F, 19 F, or H; and n is 1, 2, or 3.
A data-transmission system, which includes - measurement means equipped with memories for creating and collecting measurement data, - an output device (14, 14') for showing machine-readable code containing the measurement data created using the said measurement means, - a power supply for the output device (14, 14') and the measurement means, - server arrangement for processing and/or storing the measurement data, - one or several reader devices (13.1, 13.2) for reading the code from the output device (14, 14'), and arranged for data-transmission with the server arrangement, and which output device (14, 14') and measurement means with memories are to be arranged at monitoring objects (20.1, 20.2), one or more of which are to be arranged in the system, characterized in that - the output device (14, 14') has a passive state, in which it is arranged to be zero-power, - the output device (14, 14') is to be arranged to show in the said zero-power passive state code readable using the reader device (13.1, 13.2). - measurement means equipped with memories for creating and collecting measurement data, - an output device (14, 14') for showing machine-readable code containing the measurement data created using the said measurement means, - a power supply for the output device (14, 14') and the measurement means, - server arrangement for processing and/or storing the measurement data, - one or several reader devices (13.1, 13.2) for reading the code from the output device (14, 14'), and arranged for data-transmission with the server arrangement, and which output device (14, 14') and measurement means with memories are to be arranged at monitoring objects (20.1, 20.2), one or more of which are to be arranged in the system, characterized in that - the output device (14, 14') has a passive state, in which it is arranged to be zero-power, - the output device (14, 14') is to be arranged to show in the said zero-power passive state code readable using the reader device (13.1, 13.2).
A rotary valve assembly comprising: (a) a leak-free enclosure containing a worm gear having a first end and a second end and a pinion gear having a first side and a second side, wherein the worm gear engages with the pinion gear such that when the worm gear rotates, the pinion gear rotates as well; (b) an adapter plate that is situated between a rotary valve body and the enclosure and that secures the rotary valve body to the enclosure; and (c) a magnetic actuator assembly (11, 12, 13, 14, 15); wherein the enclosure is situated between the magnetic actuator assembly (11, 12, 13, 14, 15) and the rotary valve body; and wherein a shaft extends through the center of the pinion gear and causes a valve (28, 39, 40) within the rotary valve body to open and close based on rotation of the shaft; wherein the magnetic actuator assembly (11, 12, 13, 14, 15) comprises: (a) a driver support that contains a plurality of outer magnets; (b) a driver base that holds the driver support; and (c) a follower support that contains a plurality of inner magnets; wherein the enclosure comprises a portion of the enclosure that is situated inside of the driver support between the plurality of inner magnets and the plurality of outer magnets; wherein the driver base is not physically affixed to the enclosure; wherein the driver base is fixedly attached to an actuator wheel such that the driver base rotates when the actuator wheel rotates; wherein the driver support is fixedly attached to the driver base such that the driver support rotates when the driver base rotates; and wherein when the driver support rotates, a magnetic coupling between the plurality of inner magnets and the plurality of outer magnets causes the follower support to rotate; further comprising a magnet retainer that is secured to the enclosure and that prevents the driver base from being pulled off of the enclosure wherein the enclosure protrudes through a hole in the driver base, and wherein the hole has an inside diameter; wherein the magnet retainer has a outside diameter that is greater than the inside diameter of the hole in the driver base through which the enclosure protrudes; and wherein the magnet retainer is situated over an end of the enclosure that protrudes through the hole in the driver base and secured to the enclosure with screws or bolts. (a) a leak-free enclosure containing a worm gear having a first end and a second end and a pinion gear having a first side and a second side, wherein the worm gear engages with the pinion gear such that when the worm gear rotates, the pinion gear rotates as well; (b) an adapter plate that is situated between a rotary valve body and the enclosure and that secures the rotary valve body to the enclosure; and (c) a magnetic actuator assembly (11, 12, 13, 14, 15); (a) a driver support that contains a plurality of outer magnets; (b) a driver base that holds the driver support; and (c) a follower support that contains a plurality of inner magnets;
An image forming apparatus comprising: a head including a plurality of nozzles which discharge a liquid with respect to a medium; a scan portion scanning the head in a main scanning direction; and a transport portion transporting the medium in a sub scanning direction intersecting the main scanning direction, the apparatus is configured such that: in the sub scanning direction, when an area in a range of a nozzle at an end portion of the head to a nozzle at a predetermined distance is set as a predetermined area, the medium is transported repeatedly by the same certain amount by using the transport portion, and an image is formed on the medium by discharging the liquid from the head, which is scanned across the medium by the scan portion, the number of times of scanning for forming a dot array which is formed by using the nozzles included in the predetermined area is more than the number of times of the scanning for forming a dot array which does not use the nozzles in the predetermined area, and the number of times of the scanning for forming the dot array by using the nozzles included in the predetermined area is at least three times. a head including a plurality of nozzles which discharge a liquid with respect to a medium; a scan portion scanning the head in a main scanning direction; and a transport portion transporting the medium in a sub scanning direction intersecting the main scanning direction, the apparatus is configured such that: in the sub scanning direction, when an area in a range of a nozzle at an end portion of the head to a nozzle at a predetermined distance is set as a predetermined area, the medium is transported repeatedly by the same certain amount by using the transport portion, and an image is formed on the medium by discharging the liquid from the head, which is scanned across the medium by the scan portion, the number of times of scanning for forming a dot array which is formed by using the nozzles included in the predetermined area is more than the number of times of the scanning for forming a dot array which does not use the nozzles in the predetermined area, and the number of times of the scanning for forming the dot array by using the nozzles included in the predetermined area is at least three times.
A molded reaction cell, comprising two pairs (110, 120; 130, 140) of flat plates facing each other, wherein a first pair (110,120) of the two pairs (110,120;130,140) comprises a first flat plate and a second flat plate, corner portions (150, 160, 170, 180) connecting the flat plates, and a bottom portion, wherein the following relationships are satisfied: a 1 > b 1, a 1 > b 2, a 2 > b 3, and a 2 > b 4, wherein a1 and a2 respectively represent thicknesses of the first pair (110, 120) of flat plates and b1 and b2 respectively represent maximum thicknesses of the corner portions (150, 160) connecting to the opposite ends of the first flat plate having the thickness a1, and b3 and b4 respectively represent maximum thicknesses of the corner portions (170, 180) connecting to the opposite ends of the second flat plate having the thickness a2, characterized in that the plates of the first pair (110, 120) of flat plates each have steps on the outer surface at the connecting portions of each flat plate towards the respective corner portions.
A construction panel for assembling with other of such panels for selectively mounting in lap siding and flush siding on a wall, comprising a front portion comprising a front surface and a back surface, a top portion on one side of said front portion, said top portion comprising a first arm and a second arm, and a bottom portion on the other side of said front portion, said bottom portion comprising a third arm and a fourth arm; wherein said first arm extending on said back surface and comprising a first assembly position and a first arm front surface substantially parallel to said front surface; said second arm extending on said first arm and comprising a second assembly position; said third arm extending on said back surface and comprising a positioning surface for interacting selectively on said first assembly position or said second assembly position in respectively lap mounting and flush mounting; said fourth arm comprising a fourth arm front surface aligned with said front surface; characterized in that said fourth arm further comprises an extension surface opposite to said fourth arm front surface configured to make in use contact with said front surface of another construction panel in lap mounting or with said first arm front surface of another construction panel in flush mounting, wherein said second assembly position comprises an inclined surface for receiving said positioning surface of another construction panel, wherein said inclined surface of said second assembly position is substantially parallel to said positioning surface, and wherein said first assembly position comprises an inclined surface for receiving said positioning surface of another construction panel, wherein said inclined surface of said first assembly position is substantially parallel to said positioning surface.
A control system for performing preventative maintenance on an auger in a tire filling mixing machine, comprising: (a) a control system for mixing a polyurethane isocyanate and a catalyst in a first mixer to form a virgin polyurethane; (b) a control system for grinding core bits in a grinder, the grinder having an auger and a motor; (c) a control system for mixing the virgin polyurethane and the ground core bits in a second mixer thereby forming a mixed flatproofing material; (d) a control system for injecting the mixed flatproofing material into a tire; and (e) a control system for measuring vibration of the auger; characterized by (f) a vibration measuring system for comparing the measured vibration of the auger to a predefined maximum vibration; and (g) a warning system to alert an operator to remove the auger from the grinder if the measured vibration exceeds the pre-defined maximum vibration for a predefined period of time. (a) a control system for mixing a polyurethane isocyanate and a catalyst in a first mixer to form a virgin polyurethane; (b) a control system for grinding core bits in a grinder, the grinder having an auger and a motor; (c) a control system for mixing the virgin polyurethane and the ground core bits in a second mixer thereby forming a mixed flatproofing material; (d) a control system for injecting the mixed flatproofing material into a tire; and (e) a control system for measuring vibration of the auger; characterized by (f) a vibration measuring system for comparing the measured vibration of the auger to a predefined maximum vibration; and (g) a warning system to alert an operator to remove the auger from the grinder if the measured vibration exceeds the pre-defined maximum vibration for a predefined period of time.
A solvent-less, curable composition comprising a hybrid copolymer having a meth(acrylic copolymer) backbone, wherein the meth(acrylic copolymer) is prepared with at least two acrylic monomers, and wherein at least one of the two acrylic monomers contains a hydroxyl functional group; and a plurality of a monomer or an oligomer grafted onto the meth(acrylic copolymer) backbone, wherein the monomer or the oligomer comprises an -O- or -NH- functional group; and wherein the meth(acrylic copolymer) backbone comprises a (meth)acrylic monomer that contains a photoinitiator group, in an amount less than 10 wt%, based on the sum of the hybrid copolymer mixture.
An apparatus comprising: a decoder for decoding a block in an enhancement layer of a picture by applying a weighting parameter to an enhancement layer reference picture, wherein said decoder evaluates a syntax in a slice header for a slice in the enhancement layer to determine whether to apply the same weighting parameter to the enhancement layer reference picture as that applied to a lower layer reference picture used for encoding a block in a lower layer of the picture, wherein the block in the enhancement layer corresponds to the block in the lower layer, and the enhancement layer reference picture corresponds to the lower layer reference picture, or whether to apply a different weighting parameter. a decoder for decoding a block in an enhancement layer of a picture by applying a weighting parameter to an enhancement layer reference picture, wherein said decoder evaluates a syntax in a slice header for a slice in the enhancement layer to determine whether to apply the same weighting parameter to the enhancement layer reference picture as that applied to a lower layer reference picture used for encoding a block in a lower layer of the picture, wherein the block in the enhancement layer corresponds to the block in the lower layer, and the enhancement layer reference picture corresponds to the lower layer reference picture, or whether to apply a different weighting parameter.
A microparticle composition suitable for molecular imaging, the composition comprising microparticles, wherein the microparticles comprise: a core microparticle structure having a central area and a shell, and wherein the core microparticle structure comprises: (i) a phosphatidylcholine lipid; (ii) a phosphatidylethanolamine lipid comprising at least one maleimide moiety; and (iii) an alkoxylated fatty acid, and wherein the molar ratio of (i) to (iii) satisfies the following ranges: (i) 70 to 80; (ii) 5 to 15; and (iii) 10 to 20. (i) a phosphatidylcholine lipid; (ii) a phosphatidylethanolamine lipid comprising at least one maleimide moiety; and (iii) an alkoxylated fatty acid, and (i) 70 to 80; (ii) 5 to 15; and (iii) 10 to 20.
An apparatus for supporting X-ray imaging, comprising: an input interface for receiving a request to perform an X-ray exposure with an X-ray source of an X-ray imager to image an object; a compliance checker configured to check said request against an imaging safety protocol for said object to produce a safety compliance result, wherein the checking by the compliance checker is based on information that identifies the object, wherein the imaging safety protocol prescribes a maximum number of allowable X-ray exposures per unit time for the identified object; and a safety enforcer configured to issue, based on the safety compliance result, i) an alert signal and/or ii) a control signal to initiate a safety action that at least affects an impact of the requested X-ray exposure on the object. an input interface for receiving a request to perform an X-ray exposure with an X-ray source of an X-ray imager to image an object; a compliance checker configured to check said request against an imaging safety protocol for said object to produce a safety compliance result, wherein the checking by the compliance checker is based on information that identifies the object, wherein the imaging safety protocol prescribes a maximum number of allowable X-ray exposures per unit time for the identified object; and a safety enforcer configured to issue, based on the safety compliance result, i) an alert signal and/or ii) a control signal to initiate a safety action that at least affects an impact of the requested X-ray exposure on the object.