mhurhangee/ep-ind-claims huggingface dataset:
A display device, comprising: a substrate including a first pixel region and a second pixel region having a smaller area than the first pixel region, wherein the second pixel region is directly connected to the first pixel region; a first pixel provided in the first pixel region and a second pixel provided in the second pixel region; a first line connected to the first pixel and a second line connected to the second pixel; and a dummy unit (DM1, DM2, DM3) overlapping the second line, and compensating for a difference in load values between the first and second lines, wherein the second pixel region is provided in a form of a protrusion protruding from the first pixel region, wherein the first line is longer than the second line, further comprising a data line (Dj) for providing the first pixel and the second pixel with a data signal, wherein the first line is a first scan line (S11-S1n) for providing a scan signal to the first pixel and the second line is a second scan line (S21-S2n) for providing the scan signal to the second pixel, wherein the dummy unit (DM1, DM2, DM3) overlaps the second scan line (S21-S2n), further comprising a power line for providing the first pixel and the second pixel with power, wherein the dummy unit (DM1, DM2, DM3) is connected to the power line, wherein the dummy unit (DM1, DM2, DM3) protrudes from the power line and the dummy unit (DM1, DM2, DM3) is integrally formed with the power line, and wherein the dummy unit (DM1, DM2, DM3) is provided in the second pixel. a substrate including a first pixel region and a second pixel region having a smaller area than the first pixel region, wherein the second pixel region is directly connected to the first pixel region; a first pixel provided in the first pixel region and a second pixel provided in the second pixel region; a first line connected to the first pixel and a second line connected to the second pixel; and a dummy unit (DM1, DM2, DM3) overlapping the second line, and compensating for a difference in load values between the first and second lines, wherein the second pixel region is provided in a form of a protrusion protruding from the first pixel region, wherein the first line is longer than the second line, further comprising a data line (Dj) for providing the first pixel and the second pixel with a data signal, wherein the first line is a first scan line (S11-S1n) for providing a scan signal to the first pixel and the second line is a second scan line (S21-S2n) for providing the scan signal to the second pixel, wherein the dummy unit (DM1, DM2, DM3) overlaps the second scan line (S21-S2n), further comprising a power line for providing the first pixel and the second pixel with power, wherein the dummy unit (DM1, DM2, DM3) is connected to the power line, wherein the dummy unit (DM1, DM2, DM3) protrudes from the power line and the dummy unit (DM1, DM2, DM3) is integrally formed with the power line, and wherein the dummy unit (DM1, DM2, DM3) is provided in the second pixel.
A vice including: a first body, which includes a first jaw; a second body, which includes a second jaw opposite the first jaw, wherein between the first jaw and the second jaw is formed a first clamping gap; and a linear actuator, which is arranged to move the second body in the operating direction of the linear actuator in relation to the first body such that the first clamping gap changes in the operating direction of the linear actuator; a third body, which is connected by an axis to the first body; the third body includes a third jaw, which is adapted to rotate around the axis; the first body includes a fourth jaw opposite the third jaw; wherein between the third jaw and the fourth jaw is formed a second clamping gap; characterized in that the second body includes a first sliding surface oblique in relation to the operating direction of the linear actuator; and the third body includes a second sliding surface, which is adapted to slide against the first sliding surface such that the movement of the linear actuator causes the rotation of the third body around the axis and the second clamping gap changes in a direction different from the operating direction of the linear actuator. a first body, which includes a first jaw; a second body, which includes a second jaw opposite the first jaw, wherein between the first jaw and the second jaw is formed a first clamping gap; and a linear actuator, which is arranged to move the second body in the operating direction of the linear actuator in relation to the first body such that the first clamping gap changes in the operating direction of the linear actuator; a third body, which is connected by an axis to the first body; the third body includes a third jaw, which is adapted to rotate around the axis; the first body includes a fourth jaw opposite the third jaw; wherein between the third jaw and the fourth jaw is formed a second clamping gap; characterized in that the second body includes a first sliding surface oblique in relation to the operating direction of the linear actuator; and the third body includes a second sliding surface, which is adapted to slide against the first sliding surface such that the movement of the linear actuator causes the rotation of the third body around the axis and the second clamping gap changes in a direction different from the operating direction of the linear actuator.
A method for a storage system having a plurality of solid-state storage devices, wherein the solid state storage devices each include a plurality of erase blocks of differing sizes and the plurality of erase blocks of differing size are divided into portions of various sizes, the method comprising: determining a fragmentation stride as a largest common factor of the plurality of erase block sizes, the fragmentation stride defining a granularity on which fragmentation of the erase blocks of the solid-state storage devices occurs such that the various sizes of the portions are an integer multiple of the fragmentation stride; writing the fragmentation stride to one of the plurality of solid-state storage devices; allocating portions of the plurality of erase blocks for at least one process in the storage system, in accordance with the fragmentation stride; and writing boot up metadata at offsets that are integer multiples of the fragmentation stride, in the solid-state storage device; reading, at boot time, the fragmentation stride in the solid-state storage device, calculating the offsets based on the read fragmentation stride and accessing the boot up metadata at the calculated offsets. determining a fragmentation stride as a largest common factor of the plurality of erase block sizes, the fragmentation stride defining a granularity on which fragmentation of the erase blocks of the solid-state storage devices occurs such that the various sizes of the portions are an integer multiple of the fragmentation stride; writing the fragmentation stride to one of the plurality of solid-state storage devices; allocating portions of the plurality of erase blocks for at least one process in the storage system, in accordance with the fragmentation stride; and writing boot up metadata at offsets that are integer multiples of the fragmentation stride, in the solid-state storage device; reading, at boot time, the fragmentation stride in the solid-state storage device, calculating the offsets based on the read fragmentation stride and accessing the boot up metadata at the calculated offsets.
A method for adjusting a voltage of a supercapacitor, wherein the supercapacitor is used to perform power failure protection on a control chip that executes a service, wherein the control chip comprises a cache, wherein the method comprises: acquiring information that carries a system service volume, wherein the information that carries a system service volume is information about a traffic volume of a system interface between the control chip and a server board; configuring a size of an available capacity value of the cache according to the information; and adjusting a working voltage of the supercapacitor according to the configured size of the available capacity value of the cache, wherein, within a power failure protection time that can be supported by an adjusted working voltage of the supercapacitor, data in the cache whose available capacity value has been configured can be migrated into another non-volatile storage medium; wherein the configuring a size of an available capacity value of the cache according to the information comprises: when the traffic volume increases, configuring the available capacity value of the cache to be increased; and when the traffic volume decreases, configuring the available capacity value of the cache to be decreased. acquiring information that carries a system service volume, wherein the information that carries a system service volume is information about a traffic volume of a system interface between the control chip and a server board; configuring a size of an available capacity value of the cache according to the information; and adjusting a working voltage of the supercapacitor according to the configured size of the available capacity value of the cache, wherein, within a power failure protection time that can be supported by an adjusted working voltage of the supercapacitor, data in the cache whose available capacity value has been configured can be migrated into another non-volatile storage medium; wherein the configuring a size of an available capacity value of the cache according to the information comprises: when the traffic volume increases, configuring the available capacity value of the cache to be increased; and when the traffic volume decreases, configuring the available capacity value of the cache to be decreased.
An electric wire fence system comprising at least one electric wire attached to a support structure and an energizer unit to energize the electric wire, wherein said electric wire comprises twisted wires wherein: - a first wire is a non-insulated steel wire; - a second wire is a coated steel wire having a visibility-enhancing color; - the wires (12, 14) are longitudinally twisted together in an alternating manner; - at least the first wire is connected to the energizer unit; wherein the electric wire exhibits an alternation of twisted sections (S1, S2) of wires (12, 14), in opposite directions, two consecutive sections being separated by an intermediate point or an intermediate section where the wires run parallel. - a first wire is a non-insulated steel wire; - a second wire is a coated steel wire having a visibility-enhancing color; - the wires (12, 14) are longitudinally twisted together in an alternating manner; - at least the first wire is connected to the energizer unit; wherein the electric wire exhibits an alternation of twisted sections (S1, S2) of wires (12, 14), in opposite directions, two consecutive sections being separated by an intermediate point or an intermediate section where the wires run parallel.
A system, for delivery of an x-ray beam (1062, 1200, 1400) to an eye of a patient, comprising: at least one x-ray collimator (980, 979, 1215, 1405) configured to be placed within about 15 cm of a retina in use; and a laser configured to emit a laser beam (977, 1210, 1410, 1500) that is substantially aligned with a long axis of the collimator (980, 979, 1215, 1405) so that it provides an indication, on at least one of a surface of the eye and a device in contact with a surface of the eye, of a direction of an x-ray beam (1062, 1200, 1400) emitted through the collimator (980, 979, 1215, 1405). at least one x-ray collimator (980, 979, 1215, 1405) configured to be placed within about 15 cm of a retina in use; and a laser configured to emit a laser beam (977, 1210, 1410, 1500) that is substantially aligned with a long axis of the collimator (980, 979, 1215, 1405) so that it provides an indication, on at least one of a surface of the eye and a device in contact with a surface of the eye, of a direction of an x-ray beam (1062, 1200, 1400) emitted through the collimator (980, 979, 1215, 1405).
Flame monitoring and rating device for a combustion device, having a sensor, which senses the optical flame radiation and the pulsation thereof, and an evaluation circuit, connected downstream of said sensor, that establishes whether the radiation received by the sensor corresponds to that of a burning flame, and, in the event of a negative result, produces a shut-down signal for the fuel supply, wherein the sensor is connected to the evaluation circuit via three channels as input channels for the evaluation circuit, and the evaluation circuit is designed to simultaneously evaluate the flame frequency, the amplitude of the flame signal and the average radiation pressure, wherein a composition signal can be produced by the evaluation circuit by taking account of the three channels for flame monitoring, and the flame can be rated on the basis of the signals from the three channels, characterized in that directly downstream of the sensor a resistor is provided that isolates a first channel for determining the radiation pressure from a second channel for separate determination of the flame frequency that contains a bandpass filter and an operational amplifier, and for separate determination of the amplitude a third channel downstream of the operational amplifier is separated from this second channel.
A pharmaceutical composition comprising (i) a pharmaceutically active agent selected from the group consisting of nicotine, alprazolam, zolmitriptan, ketorolac, dihydroergotamine, fentanyl, sildenafil, vardenafil, desloratidine and ondasetron, (ii) a resin comprising a benzoin gum, (iii) a volatile solvent, and optionally (iv) water, for use in a method for rapid transbuccal delivery of the active agent into the bloodstream, wherein the composition is for buccal administration to a subject in need thereof.
A dental assembly configured to be coupled to a dental implant, comprising: a prosthesis including a base and a plurality of artificial teeth and defining a gingival side and an occlusal side; at least one connecting element coupled to the prosthesis and configured to facilitate coupling of the dental assembly to a patient's oral cavity; wherein the at least one connecting element comprises a cylinder with a body having a first end, a second end, and a passageway extending between the first and second ends, the connecting element further comprising an opening through a sidewall of the cylinder that is open to the passageway, the first end is buried within the prosthesis and the second end is open to the gingival side of the prosthesis and is substantially flush with or recessed below a base surface on the gingival side, the dental assembly further comprising: a fixation screw in the passageway that is movable to couple the dental assembly to the implant, wherein the fixation screw is encased within the dental assembly such that the screw cannot be separated therefrom. a prosthesis including a base and a plurality of artificial teeth and defining a gingival side and an occlusal side; at least one connecting element coupled to the prosthesis and configured to facilitate coupling of the dental assembly to a patient's oral cavity; wherein the at least one connecting element comprises a cylinder with a body having a first end, a second end, and a passageway extending between the first and second ends, the connecting element further comprising an opening through a sidewall of the cylinder that is open to the passageway, the first end is buried within the prosthesis and the second end is open to the gingival side of the prosthesis and is substantially flush with or recessed below a base surface on the gingival side, the dental assembly further comprising: a fixation screw in the passageway that is movable to couple the dental assembly to the implant, wherein the fixation screw is encased within the dental assembly such that the screw cannot be separated therefrom. a fixation screw in the passageway that is movable to couple the dental assembly to the implant, wherein the fixation screw is encased within the dental assembly such that the screw cannot be separated therefrom.
A package comprising a refillable container for storing a content containing a surfactant, a plug attached to a mouth/neck part of the refillable container, and an outer bag for encasing the entire refillable container with a space around the periphery of the refillable container; and the package can be displayed with the refillable container standing unaided; wherein the refillable container is formed including a bottom part having a standing arrangement part, the mouth/neck part for pouring out the content, and a body part between the bottom part and the mouth/neck part, and a decoration is appended to the outer bag; the outer bag encases the entire periphery of the refillable container with a space around the periphery of the refillable container which houses the refillable container in the outer bag in a state allowing some slack without being squeezed by the outer bag; characterized in that the refillable container is a synthetic-resin stretch blow molded refillable container, and the wall thickness of the body part of the refillable container is 50 to 150 μm so that when the body part is inverted such that the mouth/neck part is disposed at the bottom, the body part is flexible enough to allow the liquid detergent filled and stored in the interior to be poured out to a certain extent while the body part itself is shrunk-deformed without air being displaced through the pour hole. the refillable container is formed including a bottom part having a standing arrangement part, the mouth/neck part for pouring out the content, and a body part between the bottom part and the mouth/neck part, and a decoration is appended to the outer bag; the outer bag encases the entire periphery of the refillable container with a space around the periphery of the refillable container which houses the refillable container in the outer bag in a state allowing some slack without being squeezed by the outer bag; characterized in that the refillable container is a synthetic-resin stretch blow molded refillable container, and the wall thickness of the body part of the refillable container is 50 to 150 μm so that when the body part is inverted such that the mouth/neck part is disposed at the bottom, the body part is flexible enough to allow the liquid detergent filled and stored in the interior to be poured out to a certain extent while the body part itself is shrunk-deformed without air being displaced through the pour hole.
Hydrophobic modified peptide of the formula [X - P - Y - R o]A p wherein P is a peptide having the amino acid sequence NPLGFXaaP, wherein Xaa is an arbitrary amino acid; X is an amino acid sequence comprising NX 1 SX 2 X 3, having a length of m= 5, 6, 7 or 8 amino acids, wherein X 1, X 2 and X 3 is an arbitrary amino acid and wherein one or more of the amino acids carry one or more group for hydrophobic modification selected from acylation, preferably with carboxylic acids, fatty acids, C 8 to C 22 fatty acids, amino acids with lipophilic side chains, and addition of hydrophobic moieties selected from cholesterol, derivatives of cholesterol, phospholipids, glycolipids, glycerol esters, steroids, ceramids, isoprene derivatives, adamantane, farnesol, aliphatic groups, polyaromatic compounds; Y is an amino sequence having a length of n amino acids, wherein n is at least 1; m + n ≥ 11; R is a C-terminal modification of said hydrophobic modified peptide, which is preferably a moiety that protects from degradation selected from amide, D-amino acid, modified amino acid, cyclic amino acid, albumin, natural and synthetic polymer, such as PEG, glycane, wherein o is 0 or at least 1; A is an anchor group, preferably selected from ester, ether, disulfide, amide, thiol, thioester, wherein p is 0 or at least 1; wherein one or more label is/are coupled to one or more amino acid(s) of X, preferably via a linker or spacer, and wherein the label is selected from a fluorescent dye, a fluorescence emitting isotope, a radioisotope and a contrast agent. P is a peptide having the amino acid sequence NPLGFXaaP, wherein Xaa is an arbitrary amino acid; X is an amino acid sequence comprising NX 1 SX 2 X 3, having a length of m= 5, 6, 7 or 8 amino acids, wherein X 1, X 2 and X 3 is an arbitrary amino acid and wherein one or more of the amino acids carry one or more group for hydrophobic modification selected from acylation, preferably with carboxylic acids, fatty acids, C 8 to C 22 fatty acids, amino acids with lipophilic side chains, and addition of hydrophobic moieties selected from cholesterol, derivatives of cholesterol, phospholipids, glycolipids, glycerol esters, steroids, ceramids, isoprene derivatives, adamantane, farnesol, aliphatic groups, polyaromatic compounds; Y is an amino sequence having a length of n amino acids, wherein n is at least 1; m + n ≥ 11; R is a C-terminal modification of said hydrophobic modified peptide, which is preferably a moiety that protects from degradation selected from amide, D-amino acid, modified amino acid, cyclic amino acid, albumin, natural and synthetic polymer, such as PEG, glycane, wherein o is 0 or at least 1; A is an anchor group, preferably selected from ester, ether, disulfide, amide, thiol, thioester, wherein p is 0 or at least 1; wherein one or more label is/are coupled to one or more amino acid(s) of X, preferably via a linker or spacer, and wherein the label is selected from a fluorescent dye, a fluorescence emitting isotope, a radioisotope and a contrast agent.
A chiller-less cooling method for cooling a detector comprising a detector housing, the detector housing comprising: a detector tray to which the detector is attached; a lift frame on which a driving mechanism is installed to lift up/down the detector housing; a connecting arm connecting the detector tray and the lift frame; and a cover shielding the detector and the components thereof from other external objects; the cooling method comprising: using a heat pipe to connect the detector tray and the lift frame so as to reduce a thermal resistance between the detector tray and the lift frame and transfer heat from the detector; using an external heat sink connected with the heat pipe so as to reduce a thermal resistance between the lift frame and an ambient environment; and embedding a device, having a suitably high heat transfer coefficient, into the detector tray so as to collect heat leading to the heat pipe, obtain a substantially uniform temperature distribution, and reduce a thermal resistance of the detector tray. using a heat pipe to connect the detector tray and the lift frame so as to reduce a thermal resistance between the detector tray and the lift frame and transfer heat from the detector; using an external heat sink connected with the heat pipe so as to reduce a thermal resistance between the lift frame and an ambient environment; and embedding a device, having a suitably high heat transfer coefficient, into the detector tray so as to collect heat leading to the heat pipe, obtain a substantially uniform temperature distribution, and reduce a thermal resistance of the detector tray.