mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a light emitting semiconductor layer comprising a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer; a first electrode layer on the light emitting semiconductor layer; a second electrode layer supporting the light emitting semiconductor layer a first passivation layer formed at a lower edge and lateral side of the light emitting semiconductor layer; a metal layer in contact with a lower center portion of the second conductivity type semiconductor layer, and isolated from the lateral side of the light emitting semiconductor layer by the first passivation layer; and a second passivation layer formed at an edge and lateral side of the metal layer, wherein the first passivation layer comprises an inorganic layer, wherein the second passivation layer comprises an organic layer, wherein the second passivation layer is formed at an outer lateral side of the metal layer, wherein the second electrode layer comprises a support layer and a bonding metal layer in contact with the metal layer and the second passivation layer, and wherein the bonding metal layer is configured to cover the metal layer and the second passivation layer, characterised in that the second electrode layer surrounds the light emitting semiconductor layer, and in that the second passivation layer is surrounded by the second electrode layer. a light emitting semiconductor layer comprising a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer; a first electrode layer on the light emitting semiconductor layer; a second electrode layer supporting the light emitting semiconductor layer a first passivation layer formed at a lower edge and lateral side of the light emitting semiconductor layer; a metal layer in contact with a lower center portion of the second conductivity type semiconductor layer, and isolated from the lateral side of the light emitting semiconductor layer by the first passivation layer; and a second passivation layer formed at an edge and lateral side of the metal layer, wherein the first passivation layer comprises an inorganic layer, wherein the second passivation layer comprises an organic layer, wherein the second passivation layer is formed at an outer lateral side of the metal layer, wherein the second electrode layer comprises a support layer and a bonding metal layer in contact with the metal layer and the second passivation layer, and wherein the bonding metal layer is configured to cover the metal layer and the second passivation layer, characterised in that the second electrode layer surrounds the light emitting semiconductor layer, and in that the second passivation layer is surrounded by the second electrode layer.
A method of promoting the growth of at least one plant, which method comprises a) Providing a fertilizer composition comprising at least one zeolite, into the pores of which at least one basic L-amino acid has been adsorbed; b) Adding the fertilizer composition to a medium for plant growth in connection with plantation; and c) Providing for the release of nitrogen from the fertilizer composition during subsequent culture of the plant, wherein the zeolite(s) has a charge of at least 1%, such as at least 2% or at least 3% of nitrogen originating from said basic L-amino acid(s), calculated per total weight of charged zeolite. a) Providing a fertilizer composition comprising at least one zeolite, into the pores of which at least one basic L-amino acid has been adsorbed; b) Adding the fertilizer composition to a medium for plant growth in connection with plantation; and c) Providing for the release of nitrogen from the fertilizer composition during subsequent culture of the plant,
An aqueous dispersion comprising (a) an active agent which is a humic substance and (b) fumed silica, wherein: - the % by weight of the active agent with respect to the total weight of the dispersion is comprised from 20-50%; and - the weight ratio between the active agent and the fumed silica is comprised from 1.5:1 to 75:1, particularly from 1.5:1 to 60:1; and wherein the fumed silica is hydrophobic fumed silica. - the % by weight of the active agent with respect to the total weight of the dispersion is comprised from 20-50%; and - the weight ratio between the active agent and the fumed silica is comprised from 1.5:1 to 75:1, particularly from 1.5:1 to 60:1; and
A three-position disconnector switch, comprising: - an earthing contact; - a power out contact; - a power in contact; and - a piston; wherein the power out contact comprises a first part and a second part, and wherein the first part is connected to the second part by a leg portion; wherein in a first switch position an outer surface of a wall of the piston makes a direct electrical contact with the first part of the power out contact and makes a direct electrical contact with the power in contact; wherein in a second switch position the outer surface of the wall of the piston makes a direct electrical contact with the first part of the power out contact and makes a direct electrical contact with the second part of the power out contact; wherein in a third switch position the outer surface of wall of the piston makes a direct electrical contact with the second part of the power out contact and makes a direct electrical contact with the earthing contact; and wherein the piston is configured to move along an axis of the three-position disconnector switch to transition the three-position disconnector switch between the different switch positions. - an earthing contact; - a power out contact; - a power in contact; and - a piston; wherein the power out contact comprises a first part and a second part, and wherein the first part is connected to the second part by a leg portion; wherein in a first switch position an outer surface of a wall of the piston makes a direct electrical contact with the first part of the power out contact and makes a direct electrical contact with the power in contact; wherein in a second switch position the outer surface of the wall of the piston makes a direct electrical contact with the first part of the power out contact and makes a direct electrical contact with the second part of the power out contact; wherein in a third switch position the outer surface of wall of the piston makes a direct electrical contact with the second part of the power out contact and makes a direct electrical contact with the earthing contact; and wherein the piston is configured to move along an axis of the three-position disconnector switch to transition the three-position disconnector switch between the different switch positions.
An anchor for securing an elongate device to body tissue, the anchor comprising: an anchor body configured to receive the elongate device, wherein the anchor body has a single component construction and comprises: a base portion comprising a first lumen therethrough; an off-set portion comprising a second lumen therethrough; a strain relief nose cone configured to surround the elongate device; and at least one tissue engagement element configured to assist in attaching the anchor body to the body tissue, wherein the anchor body is configured to removably attach to the elongate device and to resist movement of the elongate device in relation to the anchor body via a tortuous path for receiving and engaging the elongate device, wherein the off-set portion creates the tortuous path by misalignment of the second lumen to the first lumen, and wherein a position of the elongate device is maintained with respect to the anchor body by the tortuous path through the first and second lumens (908 and 910). an anchor body configured to receive the elongate device, wherein the anchor body has a single component construction and comprises: a base portion comprising a first lumen therethrough; an off-set portion comprising a second lumen therethrough; a strain relief nose cone configured to surround the elongate device; and at least one tissue engagement element configured to assist in attaching the anchor body to the body tissue, a base portion comprising a first lumen therethrough; an off-set portion comprising a second lumen therethrough; a strain relief nose cone configured to surround the elongate device; and at least one tissue engagement element configured to assist in attaching the anchor body to the body tissue, wherein the anchor body is configured to removably attach to the elongate device and to resist movement of the elongate device in relation to the anchor body via a tortuous path for receiving and engaging the elongate device, wherein the off-set portion creates the tortuous path by misalignment of the second lumen to the first lumen, and wherein a position of the elongate device is maintained with respect to the anchor body by the tortuous path through the first and second lumens (908 and 910).
A rotorcraft blade assembly, comprising: a main body (102, 204); and a blade tip (104, 206) movable relative to the main body (102, 204) about an axis of a pin perpendicular relative to a chord plane spanning the main body (102, 204); wherein the blade tip is connected to the main body (102, 204) using the pin, which extends through a spar of the main body (102, 204). a main body (102, 204); and a blade tip (104, 206) movable relative to the main body (102, 204) about an axis of a pin perpendicular relative to a chord plane spanning the main body (102, 204); wherein the blade tip is connected to the main body (102, 204) using the pin, which extends through a spar of the main body (102, 204).
A method for operating non-volatile storage, comprising: programming data into a set of non-volatile storage elements; and reading the data from the set of non-volatile storage elements after the programming, wherein the reading of the data includes providing temperature compensation based on temperature information, the temperature information comprising a difference between a current temperature for the non-volatile storage and a temperature for the non-volatile storage at a time of programming the data, characterised in that the temperature compensation is further based on data state information for at least one neighbor non-volatile storage element. programming data into a set of non-volatile storage elements; and reading the data from the set of non-volatile storage elements after the programming, wherein the reading of the data includes providing temperature compensation based on temperature information, the temperature information comprising a difference between a current temperature for the non-volatile storage and a temperature for the non-volatile storage at a time of programming the data, characterised in that the temperature compensation is further based on data state information for at least one neighbor non-volatile storage element.
Use of a resin composition for preparing an abrasive tool, the resin composition comprising abrasive particles, fillers, and a resin binder cured from a composition containing a phthalonitrile compound, wherein the resin binder is formed by curing of the composition containing a phthalonitrile compound by a curing agent represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, M is a tetravalent radical derived from an aliphatic, alicyclic, or aromatic compound, each of X 1 and X 2 is independently an alkylene group, an alkylidene group, or a divalent radical derived from an aromatic compound, and n is a number in a range of 2 to 5. abrasive particles, fillers, and a resin binder cured from a composition containing a phthalonitrile compound, wherein the resin binder is formed by curing of the composition containing a phthalonitrile compound by a curing agent represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, M is a tetravalent radical derived from an aliphatic, alicyclic, or aromatic compound, each of X 1 and X 2 is independently an alkylene group, an alkylidene group, or a divalent radical derived from an aromatic compound, and n is a number in a range of 2 to 5.
A catalyst for preparing phosgene, characterized in that said catalyst is an alkali metal salt-modified activated carbon coating/foamed silicon carbide structural catalyst, and the activated carbon coating has the thickness of 0.1∼800μm.
An apparatus for in-situ delayering of a sample for fault isolation and defect localization, comprising: an optical observation device having an optical axis and being configured to produce a beam along the optical axis onto the sample; a vacuum chamber; a motion stage located with the vacuum chamber for supporting a sample for surface delayering, the motion stage being movable relative to the optical axis; and an actuator; wherein a probe tip is mounted on the actuator in the vacuum chamber in a position to engage the sample at a selected angle relative to a surface of the sample, the probe tip includes a cutting edge capable of peeling away one layer of material at a time from the surface of the sample in a direction perpendicular to the cutting edge of the probe tip and reveal an underlying layer to locate a defect beneath the surface of the sample for analysis. an optical observation device having an optical axis and being configured to produce a beam along the optical axis onto the sample; a vacuum chamber; a motion stage located with the vacuum chamber for supporting a sample for surface delayering, the motion stage being movable relative to the optical axis; and an actuator; wherein a probe tip is mounted on the actuator in the vacuum chamber in a position to engage the sample at a selected angle relative to a surface of the sample, the probe tip includes a cutting edge capable of peeling away one layer of material at a time from the surface of the sample in a direction perpendicular to the cutting edge of the probe tip and reveal an underlying layer to locate a defect beneath the surface of the sample for analysis.
An implantable medical device comprising: a polymer substrate including a surface portion extending into the polymer substrate from a surface of the substrate; and at least one nanofiber including: a first portion interpenetrated with the surface portion of the substrate, and mechanically fixed to the substrate; and a second portion projecting from the surface, wherein the at least one nanofiber includes at least one of a fluoropolymer or a polyurethane, the implantable medical device further including a cross-linked poly(ethylene glycol) coating mechanically linked to the second portion of the at least one nanofiber. a polymer substrate including a surface portion extending into the polymer substrate from a surface of the substrate; and at least one nanofiber including: a first portion interpenetrated with the surface portion of the substrate, and mechanically fixed to the substrate; and a second portion projecting from the surface, wherein the at least one nanofiber includes at least one of a fluoropolymer or a polyurethane, the implantable medical device further including a cross-linked poly(ethylene glycol) coating mechanically linked to the second portion of the at least one nanofiber. a first portion interpenetrated with the surface portion of the substrate, and mechanically fixed to the substrate; and a second portion projecting from the surface, wherein the at least one nanofiber includes at least one of a fluoropolymer or a polyurethane, the implantable medical device further including a cross-linked poly(ethylene glycol) coating mechanically linked to the second portion of the at least one nanofiber.
A light source with laser pumping, comprising: a gas filled chamber; a laser for generating a laser beam; an optical element for focusing the laser beam so as to create a region of radiating plasma in the chamber on the axis of the focused laser beam; and an optical system for collecting plasma radiation and forming a plasma radiation beam, characterised in that the light source is so adapted that the focused laser beam is directed into the region of radiating plasma) from a bottom upwards, i.e. from a bottom wall of the chamber to an opposite top wall of the chamber, and the region of radiating plasma is positioned at a distance from the top wall of the chamber, which is less than a distance from the region of radiating plasma to the bottom wall of the chamber.
A GNSS-based control system for irrigation equipment including a boom assembly with a main boom section, an extension boom section and boom drives (14, 14a) mounted on said main and extension boom sections respectively, said irrigation equipment having a center-pivot configuration, said main boom section having a proximate end pivotally connected to a central water source and a distal end, said extension boom section having a proximate end hingedly connected to said main boom section distal end, wherein the control system includes: a first GNSS antenna mounted on the boom assembly and being located at said hinged connection of said main boom section distal end and said extension boom section proximate end; a GNSS receiver mounted on the boom assembly and connected to the first GNSS antenna; a second GNSS antenna mounted on the extension boom section in spaced relation outwardly from said first GNSS antenna and connected to the receiver; a controller including a processor connected to and receiving input signals from said receiver, said processor being adapted for: computing position solutions for said antennas using the GNSS ranging signals received by said receiver, and determining a heading of the extension boom section from the GNSS-defined positions of said first GNSS antenna and said second GNSS antenna; and said controller being adapted for controlling said extension boom section drive using said determined heading. a first GNSS antenna mounted on the boom assembly and being located at said hinged connection of said main boom section distal end and said extension boom section proximate end; a GNSS receiver mounted on the boom assembly and connected to the first GNSS antenna; a second GNSS antenna mounted on the extension boom section in spaced relation outwardly from said first GNSS antenna and connected to the receiver; a controller including a processor connected to and receiving input signals from said receiver, said processor being adapted for: computing position solutions for said antennas using the GNSS ranging signals received by said receiver, and determining a heading of the extension boom section from the GNSS-defined positions of said first GNSS antenna and said second GNSS antenna; and computing position solutions for said antennas using the GNSS ranging signals received by said receiver, and determining a heading of the extension boom section from the GNSS-defined positions of said first GNSS antenna and said second GNSS antenna; and said controller being adapted for controlling said extension boom section drive using said determined heading.
A method for preparing a bio-based polycarbonate ester, comprising the steps of: converting a compound of Formula 2 into an intermediate reactant having a functional group that is readily detached and then subjecting the intermediate reactant to a nucleophilic reaction with phenol to yield a compound of Formula 3; and subjecting the compound of Formula 3 prepared in step, a compound of Formula 4, and 1,4:3,6-dianhydrohexitol to a polycarbonate melt polycondensation reaction to yield the bio-based polycarbonate ester comprising a repeating unit of Formula 1: wherein R is methyl or hydrogen, R 1 and R 2 are each independently a substituted or unsubstituted C 1- C 18 aliphatic group, or a substituted or unsubstituted C 1 -C 18 aromatic group, and x is a real number of 0 < x < 1. converting a compound of Formula 2 into an intermediate reactant having a functional group that is readily detached and then subjecting the intermediate reactant to a nucleophilic reaction with phenol to yield a compound of Formula 3; and subjecting the compound of Formula 3 prepared in step, a compound of Formula 4, and 1,4:3,6-dianhydrohexitol to a polycarbonate melt polycondensation reaction to yield the bio-based polycarbonate ester comprising a repeating unit of Formula 1: wherein R is methyl or hydrogen, R 1 and R 2 are each independently a substituted or unsubstituted C 1- C 18 aliphatic group, or a substituted or unsubstituted C 1 -C 18 aromatic group, and x is a real number of 0 < x < 1. R is methyl or hydrogen, R 1 and R 2 are each independently a substituted or unsubstituted C 1- C 18 aliphatic group, or a substituted or unsubstituted C 1 -C 18 aromatic group, and x is a real number of 0 < x < 1.
A laser projection unit, comprising: a housing comprising a first sub-housing having a top face and a second sub-housing having a side face, the second sub-housing being coupled to the top face; a diffraction element mounted on the second sub-housing; a cover attached to the diffraction element, and the cover and the first sub-housing being located on two sides of the diffraction element opposite each other; and a substrate, the first sub-housing further comprising a bottom face opposite the top face and a side wall coupling the top face and the bottom face, wherein the bottom face is carried on the substrate, wherein the second sub-housing comprises a first side wall and a second side wall arranged opposite each other, the first side wall and the second side wall defines a mounting space therebetween, and the diffraction element is arranged in the mounting space and exposed from the first notch, characterized in that the side face and the top face cooperatively forming a stepped face and defining a first notch; the laser projection unit comprises a coupling member and a circuit layer, the circuit layer is arranged on a surface of the diffraction element attached to the cover, and the coupling member electrically couples the substrate and the circuit layer; and the coupling member is located in the side wall of the first sub-housing and the first side wall or the second side wall of the second sub-housing. a housing comprising a first sub-housing having a top face and a second sub-housing having a side face, the second sub-housing being coupled to the top face; a diffraction element mounted on the second sub-housing; a cover attached to the diffraction element, and the cover and the first sub-housing being located on two sides of the diffraction element opposite each other; and a substrate, the first sub-housing further comprising a bottom face opposite the top face and a side wall coupling the top face and the bottom face, wherein the bottom face is carried on the substrate, wherein the second sub-housing comprises a first side wall and a second side wall arranged opposite each other, the first side wall and the second side wall defines a mounting space therebetween, and the diffraction element is arranged in the mounting space and exposed from the first notch, characterized in that the side face and the top face cooperatively forming a stepped face and defining a first notch; the laser projection unit comprises a coupling member and a circuit layer, the circuit layer is arranged on a surface of the diffraction element attached to the cover, and the coupling member electrically couples the substrate and the circuit layer; and the coupling member is located in the side wall of the first sub-housing and the first side wall or the second side wall of the second sub-housing.