mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor structure, comprising: a quantum dot structure having an outermost surface; and a regular crystalline semiconductor coating disposed on and completely surrounding the outermost surface of the quantum dot structure, and having a brick-like appearance, i.e. having squared-off ends, wherein the crystalline semiconductor coating comprises a first sub-layer comprising a blended CdZnS layer directly grown from a CdS material of the quantum dot structure, and comprises a second sub-layer comprising essentially pure ZnS. a quantum dot structure having an outermost surface; and a regular crystalline semiconductor coating disposed on and completely surrounding the outermost surface of the quantum dot structure, and having a brick-like appearance, i.e. having squared-off ends, wherein the crystalline semiconductor coating comprises a first sub-layer comprising a blended CdZnS layer directly grown from a CdS material of the quantum dot structure, and comprises a second sub-layer comprising essentially pure ZnS.
A self-assembly apparatus of a semiconductor light emitting device, the self-assembly apparatus comprising: a fluid chamber provided with a space for accommodating a plurality of semiconductor light emitting devices (150, 1050) each having a magnetic body; a transfer unit that is configured to transfer a substrate to an assembly position; a magnet disposed to be spaced apart from the fluid chamber so as to apply a magnetic force to the semiconductor light emitting devices (150, 1050); a position controller (164, 300) connected to the magnet, and configured to control a position of the magnet; and a power supply unit that is configured to induce the formation of an electric field on the substrate such that the semiconductor light emitting devices (150, 1050) are seated at preset positions on the substrate in a process of moving due to a positional change of the magnet, wherein the position controller (164, 300) is configured to transfer a rotation axis in one direction while rotating the magnet about the rotation axis. a fluid chamber provided with a space for accommodating a plurality of semiconductor light emitting devices (150, 1050) each having a magnetic body; a transfer unit that is configured to transfer a substrate to an assembly position; a magnet disposed to be spaced apart from the fluid chamber so as to apply a magnetic force to the semiconductor light emitting devices (150, 1050); a position controller (164, 300) connected to the magnet, and configured to control a position of the magnet; and a power supply unit that is configured to induce the formation of an electric field on the substrate such that the semiconductor light emitting devices (150, 1050) are seated at preset positions on the substrate in a process of moving due to a positional change of the magnet, wherein the position controller (164, 300) is configured to transfer a rotation axis in one direction while rotating the magnet about the rotation axis.
A compound of formula characterized in that, at a concentration of 100 μM, it has hepatocyte viability higher than 60 %, and in that - R 3 is a group: where: n is higher than 1 and R 4 is selected from the group comprising the groups H, OH, COOR, NRR', NHCOOR", NHM, R and R' being selected from among H, an alkyl group and benzyl group, R" being a group selected from among an alkyl group and benzyl group, and M being a fluorescent group; - R 1 is selected from the group comprising the groups H, alkyl, benzyl,- m-CH=CH-Φ, where m equals 1 or higher, R 5 is selected from the group comprising H, OH, COOR, OCOOR, (CH 2) p R 9, O(CH 2) p R 9, OCO(CH 2) p R 9 where p equals 1 or higher, R 9 being selected from the group comprising the groups H, OH, COOR, NRR', NHCOOR", NHM, R and R' being selected from among H, an alkyl group and benzyl group, R" being a group selected from among an alkyl group and benzyl group, and M being a fluorescent group, - R 2 is selected among the group comprising the groups hydrogen, amino, methoxy, ethoxy, nitro, phenyl, di-alkyl, hydroxyl, when R 1 is selected from among the alkyl or benzyl groups, - R 2 is selected among the group comprising the groups hydrogen, halo, amino, methoxy, ethoxy, nitro, phenyl, di-alkyl, di-halo, trifluoromethyl, hydroxyl when R 1 is selected from among the group comprising hydrogen, -(CH 2) m -CH=CH-Φ and - R 3 is a group: where: n is higher than 1 and R 4 is selected from the group comprising the groups H, OH, COOR, NRR', NHCOOR", NHM, R and R' being selected from among H, an alkyl group and benzyl group, R" being a group selected from among an alkyl group and benzyl group, and M being a fluorescent group; - R 1 is selected from the group comprising the groups H, alkyl, benzyl,- m-CH=CH-Φ, where m equals 1 or higher, R 5 is selected from the group comprising H, OH, COOR, OCOOR, (CH 2) p R 9, O(CH 2) p R 9, OCO(CH 2) p R 9 where p equals 1 or higher, R 9 being selected from the group comprising the groups H, OH, COOR, NRR', NHCOOR", NHM, R and R' being selected from among H, an alkyl group and benzyl group, R" being a group selected from among an alkyl group and benzyl group, and M being a fluorescent group, - R 2 is selected among the group comprising the groups hydrogen, amino, methoxy, ethoxy, nitro, phenyl, di-alkyl, hydroxyl, when R 1 is selected from among the alkyl or benzyl groups, - R 2 is selected among the group comprising the groups hydrogen, halo, amino, methoxy, ethoxy, nitro, phenyl, di-alkyl, di-halo, trifluoromethyl, hydroxyl when R 1 is selected from among the group comprising hydrogen, -(CH 2) m -CH=CH-Φ and
A display device comprising: a display panel configured to display an image; a plurality of Light Emitting Diodes (LEDs) configured to generate light to supply light to the display panel; a light guide panel configured to guide light to the display panel; and a micro-lens film configured to concentrate and diffuse light emitted from the light guide panel, the micro-lens film including a base film, a lens unit formed at an upper surface of the base film, and a back-coating film formed at a lower surface of the base film, wherein the lens unit includes unit block groups (160a, 160b, 160c) randomly arranged at the upper surface of the base film, each unit block group (160a, 160b, 160c) containing randomly arranged fixed-shape lenses having different sizes, and micro-beads randomly formed on surfaces of the fixed-shape lenses, wherein additional micro-beads are formed between the fixed-shape lenses, and wherein the fixed-shape lenses are semispherical fixed-shape lenses, a ratio of height to diameter of which is set to 1:2. a display panel configured to display an image; a plurality of Light Emitting Diodes (LEDs) configured to generate light to supply light to the display panel; a light guide panel configured to guide light to the display panel; and a micro-lens film configured to concentrate and diffuse light emitted from the light guide panel, the micro-lens film including a base film, a lens unit formed at an upper surface of the base film, and a back-coating film formed at a lower surface of the base film, wherein the lens unit includes unit block groups (160a, 160b, 160c) randomly arranged at the upper surface of the base film, each unit block group (160a, 160b, 160c) containing randomly arranged fixed-shape lenses having different sizes, and micro-beads randomly formed on surfaces of the fixed-shape lenses, wherein additional micro-beads are formed between the fixed-shape lenses, and wherein the fixed-shape lenses are semispherical fixed-shape lenses, a ratio of height to diameter of which is set to 1:2.
A low application temperature hot melt adhesive that is applied at or below 149°C (300°F) and wherein the bonded adhesive heat resistance and the adhesive application temperature are separated by 56°C (100°F) or less and wherein the adhesive application temperature means the temperature, to nearest 13.9 °C (25 °F) increment, that the adhesive viscosity falls between 800 to 1500 mPas (cps), wherein the low application temperature hot melt adhesive comprises at least one ethylene polymer and at least one tackifying resin selected from the group consisting of natural rosin, modified rosin, synthetic hydrocarbon resin and/or alkyl phenolic tackifier.
An automatic and autonomous feeding device comprising a feed kitchen having a plurality of storage places for different feed varieties (31-1; 31-2; 31-3) and a feed fetching device for fetching feed from the feed kitchen and delivering the feed at a feed delivery site, and a control system for repeatedly executing a feed composing cycle comprising: - receipt or generation of a feed order and - controlling of the feed fetching device to fetch one or more feed varieties from the feed kitchen according to the feed order in order to compose a feed mixture at the feed delivery site, wherein the feed order comprises a list of desired feed varieties and respective quantities to be brought together at the feed delivery site in order to form the feed mixture, and comprising feed determining means configured to determine quantity information of at least one, and preferably each, feed variety fetched for the feed order, characterized in that the control device further contains fall-back information, previously entered by a user, for at least one feed variety, which fall-back information specifies what action the feeding device should perform, during and/or after execution of a feed composing cycle, if the feed determining means determine that that quantity of this at least one feed variety which is desired in the feed order is greater than the quantity available according to the quantity information, wherein the control system is programmed such that, for the at least one feed variety, the following fall-back information is available for the user for input into the control device: a) stopping composing the feed mixture and generation of an alarm signal to the user; b) continuing composing the feed mixture, therein replacing the feed variety by at least one alternative feed variety to be entered by the user, as well as generation of either b1) an alarm signal to the user, or b2) a report message callable by the user; c) continuing composing the feed mixture, therein omitting the feed variety from the feed order, and generation of a report message callable by the user, or in particular an alarm signal to the user. - receipt or generation of a feed order and - controlling of the feed fetching device to fetch one or more feed varieties from the feed kitchen according to the feed order in order to compose a feed mixture at the feed delivery site, a) stopping composing the feed mixture and generation of an alarm signal to the user; b) continuing composing the feed mixture, therein replacing the feed variety by at least one alternative feed variety to be entered by the user, as well as generation of either b1) an alarm signal to the user, or b2) a report message callable by the user; c) continuing composing the feed mixture, therein omitting the feed variety from the feed order, and generation of a report message callable by the user, or in particular an alarm signal to the user.
Hand-held locating appliance having at least one locating apparatus, which is provided for the purpose of locating an AC voltage in a workpiece, and having a calibration transmitter, which is provided for the purpose of transmitting at least one calibration signal (18, 20) for the AC voltage, characterized in that the calibration transmitter has at least one transmitting antenna (30, 32), which is provided for the purpose of transmitting the calibration signal at least substantially into a holding region of the hand-held locating appliance.
A disposable container comprising a seal and a disposable seal housing integral with the disposable container, wherein the disposable seal housing comprises at least one static seal face and at least one rotating seal face, and being removably affixed to an impeller shaft that extends through the seal housing; wherein a closed system for suitable for sterilization is provided.
A rotor for a gas turbine engine, the rotor comprising: an annular body configured to rotate in a circumferential direction (ω) about an axis extending through a center of the annular body, the annular body comprising: an outer diameter surface; and an inner diameter surface; a plurality of holes extending through the annular body, in use, from an inlet on the inner diameter surface to an outlet on the outer diameter surface, each of the holes comprising: an elongate profile in the circumferential direction (ω); and leading edge and trailing edge side walls (62A,62B;64A,64B) extending between the outer diameter surface and the inner diameter surface, the side walls being slanted in the circumferential direction (ω); and characterised in that: the leading edge and trailing side walls (62A,62B) are angled from the inlet to the outlet into the direction of rotation between fifteen degrees and seventy-five degrees with respect to a radial direction. an annular body configured to rotate in a circumferential direction (ω) about an axis extending through a center of the annular body, the annular body comprising: an outer diameter surface; and an inner diameter surface; an outer diameter surface; and an inner diameter surface; a plurality of holes extending through the annular body, in use, from an inlet on the inner diameter surface to an outlet on the outer diameter surface, each of the holes comprising: an elongate profile in the circumferential direction (ω); and leading edge and trailing edge side walls (62A,62B;64A,64B) extending between the outer diameter surface and the inner diameter surface, the side walls being slanted in the circumferential direction (ω); and an elongate profile in the circumferential direction (ω); and leading edge and trailing edge side walls (62A,62B;64A,64B) extending between the outer diameter surface and the inner diameter surface, the side walls being slanted in the circumferential direction (ω); and characterised in that: the leading edge and trailing side walls (62A,62B) are angled from the inlet to the outlet into the direction of rotation between fifteen degrees and seventy-five degrees with respect to a radial direction. the leading edge and trailing side walls (62A,62B) are angled from the inlet to the outlet into the direction of rotation between fifteen degrees and seventy-five degrees with respect to a radial direction.
Thermo-forming packaging machine comprising a product feeder, wherein said product feeder is arranged in part parallel to a loading stretch of said thermo-forming packaging machine, and comprising a side panel on the inner side of which a chain guide for a film clamp chain is attached, characterized in that said side panel being disposed along said loading stretch is formed such that said side panel is also part of said product feeder.
Process for recovering hydrocarbon compounds co-absorbed in the absorption of acid gases from industrial gases, for example natural gas, by physical absorption media, characterized in that • first the pressure of the laden absorption medium withdrawn from the absorption device is increased, • then the laden absorption medium is applied to the top of a stripping column which comprises a bottom boiler and may comprise one or more side boilers and is operated at a slightly higher pressure than the absorption column, • in this stripping column an equilibrium is established such that the acid gas concentration in the absorption medium increases towards the bottom and the concentration of the hydrocarbons decreases towards the bottom, • a heated absorption medium poor in hydrocarbons and rich in acid gas components is withdrawn at the bottom and supplied to an acid gas desorption apparatus, • a recycle gas rich in hydrocarbons and poor in acid gas components is withdrawn at the top of the stripping column and • the recycle gas is cooled in a recycle gas cooler to approximately the temperature of the input gas passed into the absorption device and either conducted directly into the absorption apparatus or admixed with the input gas. • first the pressure of the laden absorption medium withdrawn from the absorption device is increased, • then the laden absorption medium is applied to the top of a stripping column which comprises a bottom boiler and may comprise one or more side boilers and is operated at a slightly higher pressure than the absorption column, • in this stripping column an equilibrium is established such that the acid gas concentration in the absorption medium increases towards the bottom and the concentration of the hydrocarbons decreases towards the bottom, • a heated absorption medium poor in hydrocarbons and rich in acid gas components is withdrawn at the bottom and supplied to an acid gas desorption apparatus, • a recycle gas rich in hydrocarbons and poor in acid gas components is withdrawn at the top of the stripping column and • the recycle gas is cooled in a recycle gas cooler to approximately the temperature of the input gas passed into the absorption device and either conducted directly into the absorption apparatus or admixed with the input gas.
A method, performed by a network node in a wireless communication system, said wireless communication system providing carrier aggregation, CA, for a user equipment, UE, said UE being located in and connected to a primary cell, PCell, the method comprising: - transmitting, to the UE, initial configuration data that comprises information regarding at least one secondary cell, SCell, one of which is a current SCell to which the UE is to be connected, and at least one event triggering condition that defines radio signal measurement conditions for use by the UE when switching connection between the current SCell and a subsequent SCell, and repeating the steps of: - obtaining monitoring data associated with the UE, said monitoring data comprising spatial information regarding movement of the UE in relation to the at least one SCell, - calculating, based on the monitoring data, at least one prediction of at least one subsequent predicted SCell into which the UE will enter, - transmitting, to the UE, information that specifies said at least one predicted subsequent SCell, - providing, to the at least one subsequent predicted SCell, preparation information that comprises information for the at least one subsequent predicted SCell that it is to operate as a SCell in relation to the UE. - transmitting, to the UE, initial configuration data that comprises information regarding at least one secondary cell, SCell, one of which is a current SCell to which the UE is to be connected, and at least one event triggering condition that defines radio signal measurement conditions for use by the UE when switching connection between the current SCell and a subsequent SCell, and repeating the steps of: - obtaining monitoring data associated with the UE, said monitoring data comprising spatial information regarding movement of the UE in relation to the at least one SCell, - calculating, based on the monitoring data, at least one prediction of at least one subsequent predicted SCell into which the UE will enter, - transmitting, to the UE, information that specifies said at least one predicted subsequent SCell, - providing, to the at least one subsequent predicted SCell, preparation information that comprises information for the at least one subsequent predicted SCell that it is to operate as a SCell in relation to the UE. - obtaining monitoring data associated with the UE, said monitoring data comprising spatial information regarding movement of the UE in relation to the at least one SCell, - calculating, based on the monitoring data, at least one prediction of at least one subsequent predicted SCell into which the UE will enter, - transmitting, to the UE, information that specifies said at least one predicted subsequent SCell, - providing, to the at least one subsequent predicted SCell, preparation information that comprises information for the at least one subsequent predicted SCell that it is to operate as a SCell in relation to the UE.
An inserter for an intrauterine system, comprising - a handle (1, 11), - an insertion tube having a longitudinal direction and connected to the handle, - a plunger arranged inside the insertion tube, and - a force sensor (6, 9) arranged between the insertion tube and the handle, the insertion tube being partially arranged inside the force sensor in such a manner that when force is exerted on the insertion tube along its longitudinal direction, the insertion tube is arranged to move with respect to the force sensor, characterised in that - the insertion tube comprises a first part and a second part, - the second part is connected with the handle (1, 11), - the force sensor (6, 9) is arranged between the first part and the second part, and - the first part is partially arranged inside the force sensor and the second part is attached to the force sensor or wherein - the second part is partially arranged inside the force sensor and the first part is attached to the force sensor. - a handle (1, 11), - an insertion tube having a longitudinal direction and connected to the handle, - a plunger arranged inside the insertion tube, and - a force sensor (6, 9) arranged between the insertion tube and the handle, the insertion tube being partially arranged inside the force sensor in such a manner that when force is exerted on the insertion tube along its longitudinal direction, the insertion tube is arranged to move with respect to the force sensor, - the insertion tube comprises a first part and a second part, - the second part is connected with the handle (1, 11), - the force sensor (6, 9) is arranged between the first part and the second part, and - the first part is partially arranged inside the force sensor and the second part is attached to the force sensor or wherein - the second part is partially arranged inside the force sensor and the first part is attached to the force sensor.
Method for operating an automation system, wherein the automation system has a communication network, wherein the communication network has a multiplicity of nodes (1, 3-10, 12-16, 18-21, 24-27, 32-36, 41, 44, 51), wherein a first node (33, 41) is connected to a second node (34, 44) using data technology, wherein the first node (33, 41) activates and/or deactivates the second node (34, 44), characterized in that a main line has a first secondary line and a second secondary line (28, 29, 30), in that nodes (12, 18, 24, 32) in the main line and in secondary lines (13-16, 19-21, 25-27, 33-36) are arranged in an order corresponding to a start-up order, and in that the first node (33, 41) supplies communication electronics of the second node (34, 44) with electrical energy.
A system for treating an aneurysm, said system comprising: a first double-walled filling structure having an outer wall and an inner wall, wherein the filling structure is adapted to be filled with a hardenable fluid filling medium so that the outer wall conforms to an inside surface of the aneurysm and the inner wall forms a generally tubular lumen to permit blood flow therethrough, and wherein the inner wall comprises a blood contacting layer and a reinforcing sleeve surrounding the blood contacting layer of the inner wall, the reinforcing sleeve being a separate sleeve disposed over the generally tubular lumen defined by the inner wall and being adapted to prevent circumferential creep or elastic expansion of the lumen after deployment. a first double-walled filling structure having an outer wall and an inner wall, wherein the filling structure is adapted to be filled with a hardenable fluid filling medium so that the outer wall conforms to an inside surface of the aneurysm and the inner wall forms a generally tubular lumen to permit blood flow therethrough, and wherein the inner wall comprises a blood contacting layer and a reinforcing sleeve surrounding the blood contacting layer of the inner wall, the reinforcing sleeve being a separate sleeve disposed over the generally tubular lumen defined by the inner wall and being adapted to prevent circumferential creep or elastic expansion of the lumen after deployment.