mhurhangee/ep-ind-claims huggingface dataset:
Device for controlling a communication network having a plurality of terminals (21 - 28) for a data communication, comprising: a control unit configured to decouple a data plane and a control plane of the data communication and to pro-actively modify at least one characteristic of the communication network which is visible from the outside of the communication network during a communication session using the decoupled control plane, wherein the control unit is configured to modify a routing behavior of the communication network during the communication session using the decoupled control plane, wherein the communication session comprises a plurality of transactions of data, wherein the control unit is configured to modify the at least one characteristic of the communication network which is visible from the outside of the communication network after each one of the plurality of transactions. a control unit configured to decouple a data plane and a control plane of the data communication and to pro-actively modify at least one characteristic of the communication network which is visible from the outside of the communication network during a communication session using the decoupled control plane, wherein the control unit is configured to modify a routing behavior of the communication network during the communication session using the decoupled control plane, wherein the communication session comprises a plurality of transactions of data, wherein the control unit is configured to modify the at least one characteristic of the communication network which is visible from the outside of the communication network after each one of the plurality of transactions.
A method for allocating a flight corridor for use by an unmanned aerial vehicle, UAV, for traveling from a starting point to a destination point, wherein the UAV is connected to a cellular network and associated with a UAV-Application Server, UAV-AS, being responsible for an own geographical service area where the UAV is located, the UAV-AS maintaining a set of predetermined flight corridor segments in the geographical service area, the method being performed by the UAV-AS and comprising: • receiving a request for allocation of a flight corridor for use by the UAV, the request comprising a starting point and a destination point; • allocating a flight corridor allowing a seamless control of the UAV by the UAV-AS, the flight corridor comprising a concatenation of three-dimensional flight corridor segments and bridging the starting point and the destination point, wherein the allocation takes into account flight corridor segment candidates that comprise a seamless radio coverage and a load in the flight corridor segments for determination of the flight corridor, the load being related to a number of UAV located in the flight corridor segment candidates, and • sending a response comprising an identifier of the allocated flight corridor. • receiving a request for allocation of a flight corridor for use by the UAV, the request comprising a starting point and a destination point; • allocating a flight corridor allowing a seamless control of the UAV by the UAV-AS, the flight corridor comprising a concatenation of three-dimensional flight corridor segments and bridging the starting point and the destination point, wherein the allocation takes into account flight corridor segment candidates that comprise a seamless radio coverage and a load in the flight corridor segments for determination of the flight corridor, the load being related to a number of UAV located in the flight corridor segment candidates, and • sending a response comprising an identifier of the allocated flight corridor.
A component for a gas turbine engine, the component comprising: a monolithic body configured with an internal passage; the internal passage extending along a centerline within the monolithic body; the internal passage having a cross-sectional geometry perpendicular to the centerline; wherein the monolithic body includes an inner tubular section, an outer tubular section and a vane extending radially outward from the inner tubular section to the outer tubular section; and the internal passage is within the inner tubular section, the outer tubular section and the vane; characterized in that the cross-sectional geometry of at least a first portion of the internal passage has a teardrop shape and in that the cross-sectional geometry of a second portion of the internal passage has a shape that is different than the teardrop shape. a monolithic body configured with an internal passage; the internal passage extending along a centerline within the monolithic body; the internal passage having a cross-sectional geometry perpendicular to the centerline; wherein the monolithic body includes an inner tubular section, an outer tubular section and a vane extending radially outward from the inner tubular section to the outer tubular section; and the internal passage is within the inner tubular section, the outer tubular section and the vane; characterized in that the cross-sectional geometry of at least a first portion of the internal passage has a teardrop shape and in that the cross-sectional geometry of a second portion of the internal passage has a shape that is different than the teardrop shape.
A resin varnish comprising: a maleimide compound, an epoxy resin, a copolymer resin having a structural unit derived from an aromatic vinyl compound and a structural unit derived from a maleic anhydride, a silica treated with an aminosilane coupling agent, and an organic solvent. a maleimide compound, an epoxy resin, a copolymer resin having a structural unit derived from an aromatic vinyl compound and a structural unit derived from a maleic anhydride, a silica treated with an aminosilane coupling agent, and an organic solvent.
A broadcast information sending method, comprising: sending, by a network device on a physical broadcast channel PBCH, PBCH information to user equipment UE, and sending, by the network device, the PBCH information in a specific radio frame in each period T of the PBCH, wherein the PBCH information only comprises information about a system frame number SFN, and the period T is greater than one radio frame, wherein a sum of a quantity N SFN of bits comprised in the information about the SFN and a quantity N T of bits that is corresponding to each period T of the PBCH is less than or equal to a total quantity K of bits required by the system frame number. sending, by a network device on a physical broadcast channel PBCH, PBCH information to user equipment UE, and sending, by the network device, the PBCH information in a specific radio frame in each period T of the PBCH, wherein the PBCH information only comprises information about a system frame number SFN, and the period T is greater than one radio frame, wherein a sum of a quantity N SFN of bits comprised in the information about the SFN and a quantity N T of bits that is corresponding to each period T of the PBCH is less than or equal to a total quantity K of bits required by the system frame number.
An image display control device comprising: an image data receiving section that is configured to repeatedly receive image data; a to-be-displayed-image generating section that is configured to generate a to-be-displayed image on a basis of the image data; a substitute image generating section that is, on a basis of first image data that is the image data received at a first timing, configured to generate a substitute image that is an image different from the to-be-displayed image generated on a basis of the first image data and that corresponds to second image data that is the image data planned to be received at a second timing that comes after the first timing; and a display control section that is configured to cause either one of the to-be-displayed image generated on a basis of the second image data and the substitute image generated on a basis of the first image data to be displayed according to success or failure of the reception of the second image data, wherein the substitute image generating section is configured to start the generation of the substitute image corresponding to the second image data based on the first image data before the success or failure of the reception of the second image data is confirmed. an image data receiving section that is configured to repeatedly receive image data; a to-be-displayed-image generating section that is configured to generate a to-be-displayed image on a basis of the image data; a substitute image generating section that is, on a basis of first image data that is the image data received at a first timing, configured to generate a substitute image that is an image different from the to-be-displayed image generated on a basis of the first image data and that corresponds to second image data that is the image data planned to be received at a second timing that comes after the first timing; and a display control section that is configured to cause either one of the to-be-displayed image generated on a basis of the second image data and the substitute image generated on a basis of the first image data to be displayed according to success or failure of the reception of the second image data, wherein the substitute image generating section is configured to start the generation of the substitute image corresponding to the second image data based on the first image data before the success or failure of the reception of the second image data is confirmed.
A security system comprising: a sensor configured to detect a distance to an object along a direction in an area by the sensor scanning the area by emitting energy in the direction and detecting reflection of that energy back to the sensor to measure the distance to the object along the certain direction, wherein the object is one of a door, window, or locker; an alarm panel in communication with the sensor; at least one of the sensor and the alarm panel configured to determine a state of the object in response to the distance to the object along the direction; wherein at least one of the sensor and the alarm panel stores provisioning data for each object in the area; and the provisioning data includes an object identifier, a distance to the object, a direction to the object and state data for the object. a sensor configured to detect a distance to an object along a direction in an area by the sensor scanning the area by emitting energy in the direction and detecting reflection of that energy back to the sensor to measure the distance to the object along the certain direction, wherein the object is one of a door, window, or locker; an alarm panel in communication with the sensor; at least one of the sensor and the alarm panel configured to determine a state of the object in response to the distance to the object along the direction; wherein at least one of the sensor and the alarm panel stores provisioning data for each object in the area; and the provisioning data includes an object identifier, a distance to the object, a direction to the object and state data for the object.
A pharmaceutical composition comprising an siRNA represented by the nucleotide sequence of SEQ ID NO: 1 for use in a method of treating or preventing macular degeneration.
A method for generating current-voltage characteristic information during a user test for a non-volatile memory bitcell, the method comprising: selecting a reference current value from a calibration table, wherein the calibration table comprises a plurality of reference current values and a corresponding plurality of digital register settings, wherein the calibration table is generated during a production test; generating a selected reference current (Iref) by applying the digital register setting corresponding to the selected reference current value to a digitally trim-able reference current generator circuit; comparing the selected reference current (Iref) to a drain current generated by the non-volatile memory bitcell while a plurality of sweeping gate voltages (Vg) is sequentially applied to the non-volatile memory bitcell until a transitioning gate voltage (Vgl, Vg5 Vg10) is identified, the transitioning gate voltage (Vgl, Vg5 Vg10) being the voltage, when applied to the bitcell's control gate, at which the selected non-volatile memory bitcell changes its state from non-conducting to conducting, or vice versa; repeating the identification of the transitioning gate voltage (Vgl, Vg5 Vg10) with at least one further selected reference current value to generate the current-voltage characteristic information; and storing the identified transitioning gate voltages (Vgl, Vg5 Vg10) and the corresponding selected reference currents (Iref) as current-voltage characteristic information for the non-volatile memory bitcell. selecting a reference current value from a calibration table, wherein the calibration table comprises a plurality of reference current values and a corresponding plurality of digital register settings, wherein the calibration table is generated during a production test; generating a selected reference current (Iref) by applying the digital register setting corresponding to the selected reference current value to a digitally trim-able reference current generator circuit; comparing the selected reference current (Iref) to a drain current generated by the non-volatile memory bitcell while a plurality of sweeping gate voltages (Vg) is sequentially applied to the non-volatile memory bitcell until a transitioning gate voltage (Vgl, Vg5 Vg10) is identified, the transitioning gate voltage (Vgl, Vg5 Vg10) being the voltage, when applied to the bitcell's control gate, at which the selected non-volatile memory bitcell changes its state from non-conducting to conducting, or vice versa; repeating the identification of the transitioning gate voltage (Vgl, Vg5 Vg10) with at least one further selected reference current value to generate the current-voltage characteristic information; and storing the identified transitioning gate voltages (Vgl, Vg5 Vg10) and the corresponding selected reference currents (Iref) as current-voltage characteristic information for the non-volatile memory bitcell.
A system for producing an image of a retina, comprising: - an illumination unit comprising at least two light sources (27A, 27B, 27C) having different illumination wavelengths and being capable of directing light from the light sources (27A, 27B, 27C) towards the retina, which illumination unit is adapted to produce individually modulated light signals from the at least two light sources (27A, 27B, 27C) towards the retina simultaneously, - a detector unit comprising a two-dimensional detector panel for collecting light reflected from the retina, which detector unit is adapted to distinguish between the individually modulated light signals reflected from the retina for distinguishing between said illumination wavelengths, - a processing unit adapted to produce one or more images of the retina based on the light collected by the detector unit, and - at least one lock-in amplifier configured to use a signal obtained from the detector panel as input signal and input signals of the at least two light sources (27A, 27B, 27C) as reference signals for distinguishing between the individually modulated light signals reflected from the retina, characterized in that the lock-in amplifier is configured to use an integration time of 2 ms or less, in particular 1 ms or less. - an illumination unit comprising at least two light sources (27A, 27B, 27C) having different illumination wavelengths and being capable of directing light from the light sources (27A, 27B, 27C) towards the retina, which illumination unit is adapted to produce individually modulated light signals from the at least two light sources (27A, 27B, 27C) towards the retina simultaneously, - a detector unit comprising a two-dimensional detector panel for collecting light reflected from the retina, which detector unit is adapted to distinguish between the individually modulated light signals reflected from the retina for distinguishing between said illumination wavelengths, - a processing unit adapted to produce one or more images of the retina based on the light collected by the detector unit, and - at least one lock-in amplifier configured to use a signal obtained from the detector panel as input signal and input signals of the at least two light sources (27A, 27B, 27C) as reference signals for distinguishing between the individually modulated light signals reflected from the retina,
A method for decoding of coded delta transform coefficients, the method being used for transcoding, comprising: deriving a predicted residual block from a decoded and downsized reconstruction of a high quality, HQ, video bitstream and a prediction obtained from information encoded as a side information, SI; transforming the predicted residual block using a forward transform, thereby producing a plurality of original estimated coefficients, OECs, the plurality of OECs comprising a first OEC; quantizing the plurality of OECs, thereby producing a plurality of quantized estimated transform coefficients, ETCs comprising a first ETC corresponding to the first OEC; selecting a category for a block position based on the value the first OEC located in the same position; decoding a first coded delta transform coefficient, DTC corresponding to the first OEC, thereby producing a first decoded DTC, wherein the decoding comprises using the selected category to decode the first coded DTC, wherein the decoding comprises using a scanning pattern which first processes all coded DTCs which belong to one particular category, followed by processing of all coded DTCs which belong to different particular categories, and computing a first original transform coefficient, corresponding to a low quality, LQ, video, by adding the first decoded DTC to the first ETC. deriving a predicted residual block from a decoded and downsized reconstruction of a high quality, HQ, video bitstream and a prediction obtained from information encoded as a side information, SI; transforming the predicted residual block using a forward transform, thereby producing a plurality of original estimated coefficients, OECs, the plurality of OECs comprising a first OEC; quantizing the plurality of OECs, thereby producing a plurality of quantized estimated transform coefficients, ETCs comprising a first ETC corresponding to the first OEC; selecting a category for a block position based on the value the first OEC located in the same position; decoding a first coded delta transform coefficient, DTC corresponding to the first OEC, thereby producing a first decoded DTC, wherein the decoding comprises using the selected category to decode the first coded DTC, wherein the decoding comprises using a scanning pattern which first processes all coded DTCs which belong to one particular category, followed by processing of all coded DTCs which belong to different particular categories, and computing a first original transform coefficient, corresponding to a low quality, LQ, video, by adding the first decoded DTC to the first ETC.
A method for the preparation of hepatocyte-like cells comprising: i) differentiating human pluripotent stem (hPS) cells into cells of the definitive endoderm; ii) differentiating the cells of the definitive endoderm obtained in step i) into hepatoblasts; and iii) differentiating the hepatoblasts obtained in step ii) into hepatocyte-like cells; wherein a GSK-3 inhibitor is added to the growth medium in step iii), wherein the GSK-3 inhibitor is selected from the group consisting of BIO (2'Z,3'£)-6-Bromoindirubin-3'-oxime (GSK3 Inhibitor IX); BIO-Acetoxime (2'Z,3'E)-6-Bromoindirubin-3'-acetoxime (GSK3 Inhibitor X); (5-Methyl-IH-pyrazol-3-yl)-(2-phenylquinazolin-4-yl)amine (GSK3-Inhibitor XIII); Pyridocarbazole-cyclopenadienylruthenium complex (GSK3 Inhibitor XV); TDZD-8 4-Benzyl-2-methyl-I,2,4-thiadiazolidine-3,5-dione (GSK3beta Inhibitor I); 2-Thio(3-iodobenzyl)-5-(I-pyridyl)-[I,3,4]-oxadiazole (GSK3beta Inhibitor II); OTDZT 2,4-Dibenzyl-5-oxothiadiazolidine-3-thione (GSK3beta Inhibitor III); alpha-4-Dibromoacetophenone (GSK3beta Inhibitor VII); AR-AO 14418 N-(4-Methoxybenzyl)-N'-(5-nitro-1,3-thiazol-2-yl)urea (GSK-3beta Inhibitor VIII); 3-(1-(3-Hydroxypropyl)-1H-pyrrolo[2,3-b]pyridin-3-yl]-4-pyrazin-2-yl-pyrrole-2,5-dione (GSK-3beta Inhibitor XI); TWSI 19 pyrrolopyrimidine compound (GSK3beta Inhibitor XII); L803 H-KEAPPAPPQSpP-NH2 or its Myristoylated form (GSK3beta Inhibitor XIII); and 2-Chloro-I-(4,5-dibromo-thiophen-2-yl)-ethanone (GSK3beta Inhibitor VI); Aminopyrimidine CHIR99021; Kenpaullone (9-Bromo-7,12-dihydro-indolo[3,2-d] benzazepin-6 -one, SB216763 3-(2,4-Dichlorophenyl)-4-(1-methyl-1H-indol-3-yl)-1H-pyrrole-2,5-dione and Indirubin-3'-monoxime; wherein the concentration of the GSK-3 inhibitor is from 0.01μM to 10μM; and wherein the hepatocyte-like cells are cells expressing mature hepatic markers Albumin, CYP3A4, UGT2B7 and OATP-2. i) differentiating human pluripotent stem (hPS) cells into cells of the definitive endoderm; ii) differentiating the cells of the definitive endoderm obtained in step i) into hepatoblasts; and iii) differentiating the hepatoblasts obtained in step ii) into hepatocyte-like cells; wherein a GSK-3 inhibitor is added to the growth medium in step iii), wherein the hepatocyte-like cells are cells expressing mature hepatic markers Albumin, CYP3A4, UGT2B7 and OATP-2.