mhurhangee/ep-ind-claims huggingface dataset:
A method for fabricating out an electronic device with superconductor qubit(s) including at least one JoFET formed by the implementation of the steps of: - making, over at least one semiconductor layer (104, 138), at least one protective dielectric portion arranged over at least one first region of the semiconductor layer (104, 138); - implanting dopants in second regions of the semiconductor layer (104, 138), adjacent to the first region and such that the first region is arranged between the second regions; - depositing a protective dielectric layer covering at least the protective dielectric portion and the second regions; - exposing the protective dielectric layer to at least one laser pulse; - removing at least one portion of the protective dielectric layer covering the second regions; - removing the protective dielectric portion; - making at least one electrostatic control gate over the first region; and wherein the materials and the thicknesses of the protective dielectric portion and of the protective dielectric layer, as well as the duration and the power of said at least one laser pulse, are selected such that the superposition of the protective dielectric portion and of the protective dielectric layer over the first region prevents said at least one laser pulse from reaching the first region, and that the presence of the protective dielectric layer alone over the second regions enables said at least one laser pulse to reach the second regions and melt the semiconductor of the second regions which forms, after cooling, a recrystallised semiconductor material having superconductor material properties. - making, over at least one semiconductor layer (104, 138), at least one protective dielectric portion arranged over at least one first region of the semiconductor layer (104, 138); - implanting dopants in second regions of the semiconductor layer (104, 138), adjacent to the first region and such that the first region is arranged between the second regions; - depositing a protective dielectric layer covering at least the protective dielectric portion and the second regions; - exposing the protective dielectric layer to at least one laser pulse; - removing at least one portion of the protective dielectric layer covering the second regions; - removing the protective dielectric portion; - making at least one electrostatic control gate over the first region;
A method of manufacturing a front pane for a PV-module, comprising at least the steps of: (i) providing a transparent pane of a transparent material, the pane having at least a front side, wherein the front side comprises recesses with protrusions in between, wherein each recess has a bottom (ii) at least partially filling the recesses with a layer of a colorant, wherein an upper region of the protrusions remains uncoated and extends above the colorant, characterized in that the colorant has a lower refraction index than that of the transparent material (i) providing a transparent pane of a transparent material, the pane having at least a front side, wherein the front side comprises recesses with protrusions in between, wherein each recess has a bottom (ii) at least partially filling the recesses with a layer of a colorant, wherein an upper region of the protrusions remains uncoated and extends above the colorant,
A handover method in a wireless communication system having a subscriber station, at least one base station (11, 13), and a plurality of further stations each having base station functionality, the subscriber station exchanging data traffic and signalling by employing wireless links with the base station(11, 13) and further stations, said wireless links including a first link between the subscriber station and the base station and a second link provided by one or more of the further stations, the method comprising: employing said first link for control signalling between the subscriber station and the base station (11, 13); measuring a signal quality of each of a plurality of said wireless links; determining a need for a handover of data traffic of the subscriber station from a first further station to a second further station by comparing the signal quality of said second link with a predetermined threshold and/or with the signal quality of another said wireless link; and performing a handover for data traffic only of the subscriber station from said first further station to said second further station whilst maintaining said first link for control signalling. employing said first link for control signalling between the subscriber station and the base station (11, 13); measuring a signal quality of each of a plurality of said wireless links; determining a need for a handover of data traffic of the subscriber station from a first further station to a second further station by comparing the signal quality of said second link with a predetermined threshold and/or with the signal quality of another said wireless link; and performing a handover for data traffic only of the subscriber station from said first further station to said second further station whilst maintaining said first link for control signalling.
An optoelectronic device comprising: a semiconductor substrate having a surface; and light-emitting diodes supported by the surface and comprising wire-shaped, conical, or tapered semiconductor elements, each semiconductor element being mainly made of a III-V compound, and further an at least partially transparent dielectric layer covering the light-emitting diodes, the refractive index of the dielectric layer being in the range from 1.6 to 1.8, all the light-emitting diodes supported by the substrate being distributed over a portion of the surface and characterized in that the surface density of light-emitting diodes on the portion decreases away from the edges of said portion. a semiconductor substrate having a surface; and light-emitting diodes supported by the surface and comprising wire-shaped, conical, or tapered semiconductor elements, each semiconductor element being mainly made of a III-V compound, and further an at least partially transparent dielectric layer covering the light-emitting diodes, the refractive index of the dielectric layer being in the range from 1.6 to 1.8, all the light-emitting diodes supported by the substrate being distributed over a portion of the surface and characterized in that the surface density of light-emitting diodes on the portion decreases away from the edges of said portion.
A method for operating a network, wherein an ALTO, Application-Layer Traffic Optimization, process is performed within an ALTO server with regard to at least one application or resource consumer, wherein traffic information with respect to said at least one application or resource consumer will be provided and used within said ALTO process, characterized in that the traffic information is comprising a current traffic localization degree with respect to said at least one application or resource consumer, wherein the traffic information will be obtained from a sending or feedback process to the ALTO process or ALTO server by at least said resource consumer or application.
Airbag with a front side and a rear side connected thereto made from an airbag material, which encloses a volume that is filled with unfolding gas upon activation of a gas generator or a pressure gas source, and with at least one retaining strap, which is connected on the front side of the airbag at a first attachment point and on the rear side of the airbag at a second attachment point, wherein at least one attachment point (31, 32) has an attachment seam (51, 51', 52, 52') with opposing sections to attach the retaining strap to the airbag material and at least one relief slit is introduced between the sections of the attachment seam (51, 51', 52, 52') at the attachment point (31, 32), characterised by that the orientation of the at least one relief slit is oriented perpendicular to the tensile direction of the retaining strap.
A method, by a Policy and Charging Rules Function, PCRF, of a mobile communications network, to control a signalling of congestion information of mobile entities at a plurality of Radio Access Network Congestion Awareness Functions, RCAFs, which monitor which mobile entities are affected by congestion in a radio access network of the mobile communications network, the method comprising the steps of: - receiving, from one of the RCAFs, an indication that one of the mobile entities is affected by congestion, - storing said one RCAF from which the indication is received as the current RCAF for said one mobile entity, - receiving, from another RCAF, an indication that said one mobile entity is affected by congestion, and indicating to the current RCAF to release a context for said one mobile entity. - receiving, from one of the RCAFs, an indication that one of the mobile entities is affected by congestion, - storing said one RCAF from which the indication is received as the current RCAF for said one mobile entity, - receiving, from another RCAF, an indication that said one mobile entity is affected by congestion, and indicating to the current RCAF to release a context for said one mobile entity.
A system for intercoupling an ophthalmologic interventional system to an eye of a patient, comprising: a. a hollow reservoir housing defining an interior volume and having a proximal end located on a top portion of the hollow reservoir housing, and a distal end located on a bottom portion of the hollow reservoir housing, wherein the top portion of the hollow reservoir housing and the bottom portion of the hollow reservoir housing are removably coupled to one another, wherein the distal end comprises an eye interface surface configured to be removably and sealably coupled to the eye of the patient, and wherein the proximal end is configured to be removably coupled to an interventional system in a manner that allows for open access to the interior volume for transporting liquids or gases in or out of the interior volume; and b. an optical element fixedly coupled to the hollow reservoir housing and occupying a portion of the interior volume; wherein the interior volume of the bottom portion of the reservoir housing is configured to accommodate a liquid layer positioned, via one or more loads that include gravitational loads, between the optical element and the eye; wherein the optical element comprises a proximal surface and a distal surface, the distal surface arranged to be interfaced with the liquid layer within the bottom portion of the reservoir housing. a. a hollow reservoir housing defining an interior volume and having a proximal end located on a top portion of the hollow reservoir housing, and a distal end located on a bottom portion of the hollow reservoir housing, wherein the top portion of the hollow reservoir housing and the bottom portion of the hollow reservoir housing are removably coupled to one another, wherein the distal end comprises an eye interface surface configured to be removably and sealably coupled to the eye of the patient, and wherein the proximal end is configured to be removably coupled to an interventional system in a manner that allows for open access to the interior volume for transporting liquids or gases in or out of the interior volume; and b. an optical element fixedly coupled to the hollow reservoir housing and occupying a portion of the interior volume; wherein the interior volume of the bottom portion of the reservoir housing is configured to accommodate a liquid layer positioned, via one or more loads that include gravitational loads, between the optical element and the eye; wherein the optical element comprises a proximal surface and a distal surface, the distal surface arranged to be interfaced with the liquid layer within the bottom portion of the reservoir housing.
Protective covering for a gas container equipped with a valve unit, comprising: - a covering body forming a protective shell delimiting an internal volume designed to receive all or part of the valve unit, and - a coupling device that pivots between a plurality of angular positions comprising a rest position, in which the coupling device is entirely retracted, and a coupling position, in which the coupling device is extended, - at least one stop arranged between the coupling device and the covering body, said coupling device coming into contact with said stop when it is in the rest position, characterized in that said coupling device is kept by said stop at a distance of at least around 1 mm from the external surface of the covering body, said at least one stop being arranged at the base of the covering body so as to stop the travel of the coupling device in the rest position, and so as to be slightly raised from the surface of the covering body and to be able to be grasped easily by the user. - a covering body forming a protective shell delimiting an internal volume designed to receive all or part of the valve unit, and - a coupling device that pivots between a plurality of angular positions comprising a rest position, in which the coupling device is entirely retracted, and a coupling position, in which the coupling device is extended, - at least one stop arranged between the coupling device and the covering body, said coupling device coming into contact with said stop when it is in the rest position, characterized in that said coupling device is kept by said stop at a distance of at least around 1 mm from the external surface of the covering body, said at least one stop being arranged at the base of the covering body so as to stop the travel of the coupling device in the rest position, and so as to be slightly raised from the surface of the covering body and to be able to be grasped easily by the user.
A system configured to compensate for a chromatic dispersion in at least one portion of an image of a sample, the image being acquired by spectral-domain optical coherence tomography, SD-OCT, arrangement or an optical frequency domain interferometry, OFDI, arrangement, the system comprising: a processing arrangement configured to obtain dispersion related phase information from a dispersion broadened peak of Fourier-transformed spectral data of an object with a distinct reflection acquired by the SD-OCT arrangement or the OFDI arrangement, wherein the processing arrangement is programmed to compensate for the dispersion (220, 420) in the at least one portion of the image of the sample by controlling a phase of at least one spectral component of the acquired SD-OCT or OFDI interference signal of the sample by multiplying a dispersed cross-spectral density function with a phase term that is determined based on the dispersion related phase information obtained from the object. a processing arrangement configured to obtain dispersion related phase information from a dispersion broadened peak of Fourier-transformed spectral data of an object with a distinct reflection acquired by the SD-OCT arrangement or the OFDI arrangement, wherein the processing arrangement is programmed to compensate for the dispersion (220, 420) in the at least one portion of the image of the sample by controlling a phase of at least one spectral component of the acquired SD-OCT or OFDI interference signal of the sample by multiplying a dispersed cross-spectral density function with a phase term that is determined based on the dispersion related phase information obtained from the object.
A method to test a photometric device usable for a light absorbance application, the method comprising: i) obtaining an initial absorbance unit reading representative of light emitted from the light source, and an initial absorbance unit reading representative of light emitted from the light source after at least some of the emitted light has passed through an optical gap of the photometric device; ii) changing a signal supplied to a light source of the photometric device, the supplied signal being usable to activate the light source to emit light; iii) obtaining a first signal representative of the light emitted from the light source and obtaining a second signal representative of the light emitted from the light source after at least some of the emitted light has passed through an optical gap of the photometric device, and determining new absorbance unit values based on either or both of the obtained signals; and iv) determining whether the photometric device is operating properly based on a comparison between: a) an obtained value, associated with either one or both of the first and second signals, and b) at least one reference value, wherein the determining can be performed independently of whether any of the emitted light is absorbed as it passes through the optical gap; and wherein steps ii) to iv) are automatically performed in situ while a portion of the photometric device containing the optical gap is immersed in a liquid having cells growing therein and wherein the results of steps ii) to iv) are logged by a control system, wherein the determining includes comparing an absorbance unit value change associated with the first signal and an absorbance unit value change associated with the second signal with each other, and determining that the photometric device is operating properly if the compared absorbance unit value changes are consistent with one another and consistent with an expected absorbance unit value change. i) obtaining an initial absorbance unit reading representative of light emitted from the light source, and an initial absorbance unit reading representative of light emitted from the light source after at least some of the emitted light has passed through an optical gap of the photometric device; ii) changing a signal supplied to a light source of the photometric device, the supplied signal being usable to activate the light source to emit light; iii) obtaining a first signal representative of the light emitted from the light source and obtaining a second signal representative of the light emitted from the light source after at least some of the emitted light has passed through an optical gap of the photometric device, and determining new absorbance unit values based on either or both of the obtained signals; and iv) determining whether the photometric device is operating properly based on a comparison between: a) an obtained value, associated with either one or both of the first and second signals, and b) at least one reference value, wherein the determining can be performed independently of whether any of the emitted light is absorbed as it passes through the optical gap;
A method for producing a trim strip which, in the extent direction thereof, has a length which is at least twice as large as the width thereof perpendicularly to the extent direction, having an extension portion and at least at one end a portion which is turned over with respect to the extent direction about an angle (α) in the range from 60-120° with a sharp edge comprising the following steps of: i) presenting a plate with a material thickness (Mat) and with a prepared contour for the formation of the portion; ii) turning over the prepared contour in a bending operation, wherein the plate in the region of the future extension portion at least in the end region is clamped between a die and a holding-down member and the prepared contour is bent over by means of the displacement of a stamp to form a turned-over portion with a peripheral edge; iii) forming a sharp edge of the turned-over portion, characterized in that in step iii) at least in the end region of the extension portion a counter-mold is clamped between a first clamping face of a die for the edge formation operation and a second clamping face, wherein the inner face of the turned-over portion is in abutment with a planar or curved side face of the counter-mold, wherein a corresponding side face of the die for the edge formation operation protrudes further in the extent direction substantially by the material thickness (Mat) than the side face of the counter-mold, and wherein the first clamping face of the die is continued in the overhanging region by the material thickness in the extent direction, with a sharp edge being formed with respect to the side face, and wherein a stamp for the edge formation operation is guided with a side face (33, 37) which is stepped substantially by the material thickness (Mat) and which faces the die and counter-mold in such a manner along the side faces (52, 35) of the counter-mold and die that the step in the side face (33, 37) of the stamp engages on the peripheral edge and displaces the material of the turned-over portion at least partially in the edge region with a sharp edge being formed. i) presenting a plate with a material thickness (Mat) and with a prepared contour for the formation of the portion; ii) turning over the prepared contour in a bending operation, wherein the plate in the region of the future extension portion at least in the end region is clamped between a die and a holding-down member and the prepared contour is bent over by means of the displacement of a stamp to form a turned-over portion with a peripheral edge; iii) forming a sharp edge of the turned-over portion,
Shaft, in particular control and rinsing shaft for waste water comprising at least one pipe (2, 3) closed by means of a bottom and having a central longitudinal axis and an internal diameter d4, and comprising two connectors for waste water pipes (12, 13) arranged diametrically opposite to each other in relation to the central longitudinal axis, wherein a flow channel is arranged between the connectors, the flow channel interconnecting the latter, characterised in that the flow channel consists of a rigid but flexible board that is configured essentially elliptically with a long symmetry axis having a length d20 and with a short symmetry axis intersecting the latter perpendicularly and having a length d21, and that is bent upwards about the short symmetry axis in such a way that it abuts, with its peripheral edge, substantially against the inside of the pipe of the shaft, wherein the length d21 corresponds approximately to the diameter d4, and wherein crests are formed at the respective intersection between the long symmetry axis and the peripheral edge.
An apparatus, which is a base station, or is comprised in a base station, the apparatus comprising: means for determining types of radio access technologies supported by the apparatus, wherein the apparatus supports at least two types of radio access technologies; means for providing inputs to machine learning models, wherein the machine learning models comprise a corresponding machine learning model to each type of radio access technology, and for each type of radio access technology parameters associated with that type of radio access technology are provided as an input to the corresponding machine learning model; and means for obtaining, for each type of the radio access technologies, a power consumption estimate provided by the corresponding machine learning model. means for determining types of radio access technologies supported by the apparatus, wherein the apparatus supports at least two types of radio access technologies; means for providing inputs to machine learning models, wherein the machine learning models comprise a corresponding machine learning model to each type of radio access technology, and for each type of radio access technology parameters associated with that type of radio access technology are provided as an input to the corresponding machine learning model; and means for obtaining, for each type of the radio access technologies, a power consumption estimate provided by the corresponding machine learning model.
A method for preparing a tetrafluoro-1,2-epoxypropane comprising reacting a 2-bromo-tetrafluoropropan-3-ol with an alkaline or alkaline earth metal hydroxide solution wherein the 2-bromo-tetrafluoropropan-3-ol is selected from the group consisting of 2-bromo-1,1,1,2-tetrafluoropropan-3-ol and 2-bromo-1,1,1,3-tetrafluoropropan-3-ol, and wherein the 2-bromo-1,1,1,2-tetrafluoropropan-3-ol or 2-bromo-1,1,1,3-tetrafluoropropan-3-ol is prepared in a process which comprises reacting 3-acetoxy-2-bromo-1,1,1,2-tetrafluoropropane or 3-acetoxy-2-bromo-1,1,1,3-tetrafluoropropane with sulphuric acid in an aqueous solution.