mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a display apparatus, the method comprising: forming a semiconductor layer to a sapphire substrate; forming a device-side electrode on the semiconductor layer; transferring the semiconductor layer to a relay substrate by adhering the relay substrate to a surface of the device-side electrode; removing the sapphire substrate from the semiconductor layer; forming a release layer comprising a resin material on a source substrate configured to transmit laser light of a predetermined wavelength; transferring the semiconductor layer formed on the relay substrate to the release layer; removing the relay substrate; forming a light-emitting device by dividing the semiconductor layer; forming a bump on the device-side electrode; forming an adhesive layer on the driving substrate on which a driver-side electrode is formed or on the light-emitting device comprising the device-side electrode and the bump; and emitting the laser light of the predetermined wavelength to the light-emitting device to separate the light-emitting device from the release layer and adhere the light-emitting device to a driving substrate; and wherein the bump consists of a metal layer which comprises at least one type of alloy from among a Sn-Ag-Cu alloy, a Sn-Bi alloy, a Sn-Bi-Ag alloy, and a Sn-Ag-Cu-Ni alloy, wherein a thickness of the metal layer is equal to or less than half of a length of a shortest side of the device-side electrode, and a thickness of the adhesive layer has a range of from 1 μm to 50 μm. forming a semiconductor layer to a sapphire substrate; forming a device-side electrode on the semiconductor layer; transferring the semiconductor layer to a relay substrate by adhering the relay substrate to a surface of the device-side electrode; removing the sapphire substrate from the semiconductor layer; forming a release layer comprising a resin material on a source substrate configured to transmit laser light of a predetermined wavelength; transferring the semiconductor layer formed on the relay substrate to the release layer; removing the relay substrate; forming a light-emitting device by dividing the semiconductor layer; forming a bump on the device-side electrode; forming an adhesive layer on the driving substrate on which a driver-side electrode is formed or on the light-emitting device comprising the device-side electrode and the bump; and emitting the laser light of the predetermined wavelength to the light-emitting device to separate the light-emitting device from the release layer and adhere the light-emitting device to a driving substrate; and wherein the bump consists of a metal layer which comprises at least one type of alloy from among a Sn-Ag-Cu alloy, a Sn-Bi alloy, a Sn-Bi-Ag alloy, and a Sn-Ag-Cu-Ni alloy, wherein a thickness of the metal layer is equal to or less than half of a length of a shortest side of the device-side electrode, and a thickness of the adhesive layer has a range of from 1 μm to 50 μm.
A biomedical device for analyzing an absorbance of an analyte in a sample of bodily fluid, comprising: an energization element including a first and second current collector, a cathode, an anode, and an electrolyte; a quantum-dot light emitter configured to emit photons of characteristic energies in a narrow wavelength band which pass through the sample, wherein the quantum-dot emitter is powered by the energization element; a photodetector configured to receive transmitted photons which are not absorbed by the sample, and an integrated circuit controller within the biomedical device wherein the integrated circuit controller is capable of directing a functionality of the quantum-dot emitter and photodetector, wherein the absorbance of the analyte in the sample of bodily fluid is analyzed based on the intensity of photons received by the photodetector. an energization element including a first and second current collector, a cathode, an anode, and an electrolyte; a quantum-dot light emitter configured to emit photons of characteristic energies in a narrow wavelength band which pass through the sample, wherein the quantum-dot emitter is powered by the energization element; a photodetector configured to receive transmitted photons which are not absorbed by the sample, and an integrated circuit controller within the biomedical device wherein the integrated circuit controller is capable of directing a functionality of the quantum-dot emitter and photodetector, wherein the absorbance of the analyte in the sample of bodily fluid is analyzed based on the intensity of photons received by the photodetector.
Clutch-coupling device for transmitting a torque between a drive element and a clutch, having a first shaft and a second shaft, which encloses the first shaft, wherein the two shafts (17, 15) are coupled to one another by means of a connection which is form-fitting in a circumferential direction, wherein at least one elastic element is provided to establish prestressing in the form-fitting connection, wherein the prestressing established is in an order of magnitude which prevents, or at least reduces, rattling and the corresponding development of noise under changes in load, but an amount of play provides for the compensation of small relative movements, characterized in that, on at least part of its circumference, at least one of the shafts (17, 15) has an axially divided-off, separate portion, which can be moved in relation to the rest of the shaft and also has part of the form-fitting connection and can be braced elastically in the axial and/or radial and/or azimuthal direction, and/or by a tumbling movement, in relation to the rest of the respective shaft (17, 15).
A method of carrying out super-resolution optical microscopy on a sample, comprising: providing an aplanatic solid immersion lens having a planar surface; locating the sample on or adjacent to the planar surface of the aplanatic solid immersion lens; locating the sample in a cryogenic environment; and imaging the sample through the aplanatic solid immersion lens using a super-resolution optical microscopy technique to provide a super-resolution image of the sample, wherein the cryogenic environment is at least one of: at a temperature of less than 200 Kelvin, at a temperature of less than 100 Kelvin; maintained using liquid nitrogen; and maintained using nitrogen vapour. providing an aplanatic solid immersion lens having a planar surface; locating the sample on or adjacent to the planar surface of the aplanatic solid immersion lens; locating the sample in a cryogenic environment; and imaging the sample through the aplanatic solid immersion lens using a super-resolution optical microscopy technique to provide a super-resolution image of the sample, wherein the cryogenic environment is at least one of: at a temperature of less than 200 Kelvin, at a temperature of less than 100 Kelvin; maintained using liquid nitrogen; and maintained using nitrogen vapour.
A catalyst for dehydrogenation of formic acid, comprising: a multinuclear metal complex represented by the following Formula, a tautomer or stereoisomer thereof, or a salt thereof, wherein M 1 and M 2 denote transition metals and may be the same as or different from each other and are each independently selected from the group consisting of iridium, rhodium, ruthenium, cobalt, osmium, nickel, iron, palladium and platinum; Q 1 to Q 6 each denote carbon; R 1 to R 6 each independently denote a hydrogen atom, an alkyl group, a phenyl group, a nitro group, a halogen group, a sulfonate group or sulfo group, a carboxylate group or carboxy group, an alkoxy group, an alkyl amino group, L 1 and L 2 each independently denote a cyclopentadienyl ligand or a benzene ligand, and may be unsubstituted or substituted by one or more substituents; wherein the substituents are selected from an alkyl group, an aromatic group, a hydroxy group, an ester group, an amide group, a halogen atom, an alkoxy group, an alkylthio group, an amino group, a carboxylate group, a nitro group or a sulfonate group, which may be same or different from each other; Y 1 and Y 2 each independently denote a water molecule, a hydrogen atom, a heavy hydrogen atom, an alkoxide ion, a hydroxide ion, a carbonate ion, a trifluoromethanesulfonate ion, a sulfate ion, a nitrate ion, a formate ion, or an acetate ion, or are absent; and m denotes a positive integer, 0, or a negative integer. M 1 and M 2 denote transition metals and may be the same as or different from each other and are each independently selected from the group consisting of iridium, rhodium, ruthenium, cobalt, osmium, nickel, iron, palladium and platinum; Q 1 to Q 6 each denote carbon; R 1 to R 6 each independently denote a hydrogen atom, an alkyl group, a phenyl group, a nitro group, a halogen group, a sulfonate group or sulfo group, a carboxylate group or carboxy group, an alkoxy group, an alkyl amino group, L 1 and L 2 each independently denote a cyclopentadienyl ligand or a benzene ligand, and may be unsubstituted or substituted by one or more substituents; wherein the substituents are selected from an alkyl group, an aromatic group, a hydroxy group, an ester group, an amide group, a halogen atom, an alkoxy group, an alkylthio group, an amino group, a carboxylate group, a nitro group or a sulfonate group, which may be same or different from each other; Y 1 and Y 2 each independently denote a water molecule, a hydrogen atom, a heavy hydrogen atom, an alkoxide ion, a hydroxide ion, a carbonate ion, a trifluoromethanesulfonate ion, a sulfate ion, a nitrate ion, a formate ion, or an acetate ion, or are absent; and m denotes a positive integer, 0, or a negative integer.
A compressor comprising a kit group, a lower casing provided under the kit group and at least one spring arranged between the lower casing and the kit group, at least one bracket provided between the lower casing and the spring, and between the kit group and the spring characterized by the bracket having a fixing hole provided at both ends thereof and a spring housing arranged between two fixing holes.
An airfoil (200, 300), comprising: a leading edge and an opposing trailing edge; a pressure sidewall and an opposing suction sidewall, with a leading edge cavity defined between the pressure sidewall and the suction sidewall, the leading edge cavity having a first end at the leading edge and a second end defined at a rib extending from the pressure sidewall to the suction sidewall; and at least one pin structure (250, 350) defined in the leading edge cavity between the first end and the second end, characterized in that the at least one pin structure includes a main body, a first branch (262, 362) and a second branch (264, 364), the main body coupled to the second end and extending toward the first end, the first branch extending from the main body toward the first end and the second branch extends from the main body; wherein the main body extends along an axis, the first branch extends along a first axis and the second branch extends along a second axis, and each of the first axis and the second axis are different and intersect the axis of the main body. a leading edge and an opposing trailing edge; a pressure sidewall and an opposing suction sidewall, with a leading edge cavity defined between the pressure sidewall and the suction sidewall, the leading edge cavity having a first end at the leading edge and a second end defined at a rib extending from the pressure sidewall to the suction sidewall; and at least one pin structure (250, 350) defined in the leading edge cavity between the first end and the second end, characterized in that the at least one pin structure includes a main body, a first branch (262, 362) and a second branch (264, 364), the main body coupled to the second end and extending toward the first end, the first branch extending from the main body toward the first end and the second branch extends from the main body; wherein the main body extends along an axis, the first branch extends along a first axis and the second branch extends along a second axis, and each of the first axis and the second axis are different and intersect the axis of the main body.
Input element for electronic apparatuses having a contact face which can move in a translatory fashion and interacts with an actuator, wherein the actuator is embodied as an electrostatic parallel-plate actuator whose electrode plates (4, 5, 6) are held at a variable normal distance from one another, wherein the electrode plate which interacts with the contact face can be deflected counter to the force of a restoring element, characterized in that the electrostatic parallel plate actuator has at least three electrode plates (4, 5, 6) which are arranged one on top of the other, wherein the electrode plates (5, 6) are each held such that they can be deflected relative to the electrode plate (4, 5) lying directly underneath counter to the force of a restoring element, and in that a parallel guiding means is provided for the electrode plate which interacts with the contact face and is arranged above the at least two other electrode plates (4, 5), which forcibly brings about a parallel movement of the contact face.
A method implementing a content queuing system using one or more processors of a secondary device, the method comprising: generating and presenting a playlist on a playlist interface on a touchscreen of the secondary device, the playlist comprising a plurality of queued content items for continuous playback including a queued on-demand content item; receiving a selection, via the playlist interface on the touchscreen, of a content item to be added to a playlist being modified using the playlist interface; determining that addition of the selected content item causes a scheduled live content item to overlap with an on-demand content item on the playlist, where the schedule of live content is obtained from a schedule provider; creating at least two segments for the on-demand content item that overlaps with the scheduled live content item, a first segment of the at least two segments comprising a lesser duration than a full duration of the on-demand content item; positioning the scheduled live content item between the first segment and a second segment in the queue of the playlist, the first segment being scheduled to end at a start time of the scheduled live content item and the second segment being scheduled to begin at an ending time of the scheduled live content item; and electronically communicating instructions to cause display of content on the modified playlist on a screen of a primary device coupled to the secondary device. generating and presenting a playlist on a playlist interface on a touchscreen of the secondary device, the playlist comprising a plurality of queued content items for continuous playback including a queued on-demand content item; receiving a selection, via the playlist interface on the touchscreen, of a content item to be added to a playlist being modified using the playlist interface; determining that addition of the selected content item causes a scheduled live content item to overlap with an on-demand content item on the playlist, where the schedule of live content is obtained from a schedule provider; creating at least two segments for the on-demand content item that overlaps with the scheduled live content item, a first segment of the at least two segments comprising a lesser duration than a full duration of the on-demand content item; positioning the scheduled live content item between the first segment and a second segment in the queue of the playlist, the first segment being scheduled to end at a start time of the scheduled live content item and the second segment being scheduled to begin at an ending time of the scheduled live content item; and electronically communicating instructions to cause display of content on the modified playlist on a screen of a primary device coupled to the secondary device.
An internal-combustion fuel injection control device comprising: a fuel injection device capable of performing multi-stage injection of fuel accumulated in a common rail through an injector; a water temperature detection unit configured to detect a cooling water temperature of an engine; an exhaust temperature detection unit configured to detect an exhaust temperature of the engine; and a control device, wherein the control device executes a misfire avoiding mode in which the multi-stage injection is performed, when the cooling water temperature is not lower than a predetermined water temperature T after start of the engine, wherein the misfire avoiding mode is deactivated and a switch is made to the injection map including single-stage injection in a first set time after the exhaust temperature becomes not lower than a first set temperature, characterized in that the control device is connected with an atmospheric pressure sensor, stores an atmospheric pressure correction map, and corrects the first set time in accordance with an atmospheric pressure. a fuel injection device capable of performing multi-stage injection of fuel accumulated in a common rail through an injector; a water temperature detection unit configured to detect a cooling water temperature of an engine; an exhaust temperature detection unit configured to detect an exhaust temperature of the engine; and a control device, wherein the control device executes a misfire avoiding mode in which the multi-stage injection is performed, when the cooling water temperature is not lower than a predetermined water temperature T after start of the engine, wherein the misfire avoiding mode is deactivated and a switch is made to the injection map including single-stage injection in a first set time after the exhaust temperature becomes not lower than a first set temperature, characterized in that the control device is connected with an atmospheric pressure sensor, stores an atmospheric pressure correction map, and corrects the first set time in accordance with an atmospheric pressure.
A bottle conveyor for a filling machine, comprising multiple pairs of bottle-gripping members, each pair of bottle-gripping members being capable of opening and closing, with multiple bottle-gripping openings that can be opened or closed, the bottle conveyor further comprising a circulating chain conveyor mechanism, wherein a pair of bottle-gripping members is mounted, via an open-close modular mechanism, to a convey chain of the circulating chain conveyor mechanism, to perform opening and closing actions on the circulating chain conveyor mechanism; a mechanism configured to open the bottle-gripping members is provided respectively at a bottle entrance location and a bottle exit location of the bottle conveyor, the mechanism configured to open the bottle-gripping members cooperates with an external force import mechanism to provide an external force; characterized in that: the open-close modular mechanism is provided with a rotary support capable of being opened as a V-shape, a synchronization mechanism configured to define the opened V-shape, an elastic mechanism configured to provide a bottle-gripping force to the bottle-gripping member and a self-restoring force for the opened V-shape, the external force being a driving force for the opened V-shape.
A jar comprising an external body jar and an internal body jar which are formed separately and assembled together and together provide an increased thickness sidewall, each of the body jars (20, 25) is formed from PET and each of the body jars (20, 25) has a maximum wall thickness of less than 5mm, wherein the jar further comprises an inner cup which is removable and which is formed from polypropylene.
A monitoring device comprising: a position identifying unit configured to identify a location of a monitored person in a horizontal direction of a monitored area and a maximum height of the monitored person in a vertical direction of said monitored area on the basis of top-down image data acquired by a first image sensor provided above the monitored area and capturing an image of the monitored area, and on the basis of lateral image data acquired by a second image sensor provided along a side of the monitored area and capturing an image of the monitored area, said top-down image data and lateral image data being made up of pixels in an X direction and a Y direction, the maximum height being a maximum Y coordinate of a pixel out of pixels in the lateral image data which are labeled to be in a region where the monitored person is present, while remaining pixels in the lateral image data are labeled to be in a region where the monitored person is not present; and an event determining unit configured to assess a fall-related event for the monitored person on the basis of the location in the horizontal direction and the maximum height in the vertical direction. a position identifying unit configured to identify a location of a monitored person in a horizontal direction of a monitored area and a maximum height of the monitored person in a vertical direction of said monitored area on the basis of top-down image data acquired by a first image sensor provided above the monitored area and capturing an image of the monitored area, and on the basis of lateral image data acquired by a second image sensor provided along a side of the monitored area and capturing an image of the monitored area, said top-down image data and lateral image data being made up of pixels in an X direction and a Y direction, the maximum height being a maximum Y coordinate of a pixel out of pixels in the lateral image data which are labeled to be in a region where the monitored person is present, while remaining pixels in the lateral image data are labeled to be in a region where the monitored person is not present; and an event determining unit configured to assess a fall-related event for the monitored person on the basis of the location in the horizontal direction and the maximum height in the vertical direction.
A vehicle control system mounted on a vehicle, the system being configured to; detect an object (3, 6) external to the vehicle, determine a two-dimensional speed distribution area around the object extending at least in a lateral area of the object (3, 6) in a travelling direction of the vehicle as well as in a rearward area and/or a forward area of the object (3, 6), and defining a distribution of an allowable upper limit (V lim) of a relative speed of the vehicle with respect to the object (3, 6) in the travelling direction of the vehicle, wherein the allowable upper limit (V lim) is defined at respective points in the speed distribution area according to the distance from the object (3, 6), and execute an avoidance control for restricting the relative speed of the vehicle with respect to the object (3, 6) so that the relative speed does not exceed the allowable upper limit (V lim) in the speed distribution area. detect an object (3, 6) external to the vehicle, determine a two-dimensional speed distribution area around the object extending at least in a lateral area of the object (3, 6) in a travelling direction of the vehicle as well as in a rearward area and/or a forward area of the object (3, 6), and defining a distribution of an allowable upper limit (V lim) of a relative speed of the vehicle with respect to the object (3, 6) in the travelling direction of the vehicle, wherein the allowable upper limit (V lim) is defined at respective points in the speed distribution area according to the distance from the object (3, 6), and execute an avoidance control for restricting the relative speed of the vehicle with respect to the object (3, 6) so that the relative speed does not exceed the allowable upper limit (V lim) in the speed distribution area.