mhurhangee/patent-ind-claim-en huggingface dataset:
Method for electronically processing surroundings information of a motor vehicle , in which method the surroundings information is detected by at least one detection unit of the motor vehicle , wherein personal information included in the surroundings information is anonymised and/or deleted depending on whether the person to whom the personal information relates has made an electronic request, characterised in that the motor vehicle is provided with a perceivable identifier with which the motor vehicle is characterised as a motor vehicle detecting the surroundings using the detection unit , wherein the identifier is dynamically changed during the movement of the motor vehicle , such that an association is established between a point in time at which the motor vehicle is located at a specific location and the point in time at which the identifier has a time-specific identifier appearance as a result of its dynamic change, wherein it is determined depending on the association that a person was located at this point in time at the location of the motor vehicle when the person enters into communication with the evaluation unit using this specific identifier appearance of the identifier , this being determined in particular due to the fact that personal information relating to this person was detected, wherein the person can make contact with an electronic evaluation unit using a communication unit with this identifier so as to find out what possible actions there are in order to learn whether personal information relating to his/her person is included in the surroundings information.
A computer implemented method for preventing a server from being attacked, the method comprising: in response to receiving a page request sent by a browser, obtaining a page URL in the page request; randomly extracting a page script from a plurality of page scripts that exist in a predetermined script library and are corresponding to the page URL, wherein different script execution parameter acquisition logic is used in the plurality of page scripts ; sending the dynamically and randomly allocated page script to the browser, so that the browser executes the page script to obtain a script execution parameter; in response to receiving the page verification request sent by the browser, determining whether a page verification request is expired; in response to determining that the page verification request is expired, outputting error prompt information indicating page expiration; or in response to determining that the page verification request is unexpired, verifying whether the script execution parameter comprised in the page verification request is valid; and if the script execution parameter is invalid, rejecting the page request in response to receiving a page request sent by a browser, obtaining a page URL in the page request; randomly extracting a page script from a plurality of page scripts that exist in a predetermined script library and are corresponding to the page URL, wherein different script execution parameter acquisition logic is used in the plurality of page scripts ; sending the dynamically and randomly allocated page script to the browser, so that the browser executes the page script to obtain a script execution parameter; in response to receiving the page verification request sent by the browser, determining whether a page verification request is expired; in response to determining that the page verification request is expired, outputting error prompt information indicating page expiration; or in response to determining that the page verification request is unexpired, verifying whether the script execution parameter comprised in the page verification request is valid; and if the script execution parameter is invalid, rejecting the page request
A method comprising: (i) admixing a methylnicotinate of Formula (I): wherein R 3 is Cl, Br, or I, and R 4 is alkyl; with 1,3,5-triazine, and a base, under conditions sufficient to form a naphthyridinone of Formula (II): and (ii) admixing the naphthyridinone of Formula (II) with methoxyethanol, a base, and a copper (I) catalyst, under conditions sufficient to form 3-(2-methoxyethoxy)-1,6-naphthyridin-5 -one ("NAPH"): (i) admixing a methylnicotinate of Formula (I): wherein R 3 is Cl, Br, or I, and R 4 is alkyl; with 1,3,5-triazine, and a base, under conditions sufficient to form a naphthyridinone of Formula (II): and wherein R 3 is Cl, Br, or I, and R 4 is alkyl; with 1,3,5-triazine, and a base, under conditions sufficient to form a naphthyridinone of Formula (II): and (ii) admixing the naphthyridinone of Formula (II) with methoxyethanol, a base, and a copper (I) catalyst, under conditions sufficient to form 3-(2-methoxyethoxy)-1,6-naphthyridin-5 -one ("NAPH"):
A light scanning device comprising: a light source that emits emission light; a light receiving element that receives reflection light of the emission light reflected by an object positioned outside; an optical system that directs the emission light emitted from the light source to the outside and directs the reflection light to the light receiving element ; and a control unit that executes a process of reducing electric charges accumulated in the light receiving element by internal reflection light generated by emission of the emission light at a time point before the light receiving element receives the reflected light, wherein the control unit determines a timing to end the process according to a lower limit value of a distance to be measured by the light scanning device , characterized in that the light receiving element is connected to a ground point through a switch element , and the control unit puts the switch element in an OFF state while the light scanning device measures a distance, and, as the process, puts the switch element in an ON state. a light source that emits emission light; a light receiving element that receives reflection light of the emission light reflected by an object positioned outside; an optical system that directs the emission light emitted from the light source to the outside and directs the reflection light to the light receiving element ; and a control unit that executes a process of reducing electric charges accumulated in the light receiving element by internal reflection light generated by emission of the emission light at a time point before the light receiving element receives the reflected light, wherein the control unit determines a timing to end the process according to a lower limit value of a distance to be measured by the light scanning device , characterized in that the light receiving element is connected to a ground point through a switch element , and the control unit puts the switch element in an OFF state while the light scanning device measures a distance, and, as the process, puts the switch element in an ON state.
A method for promoting plant growth comprising providing an artificial light source for a growing plant, wherein the light source comprises a red light with a peak wavelength of 680-695 nm and a light wave half-width lower than 35 nm, a blue light with a peak wavelength of 410-480 nm and a far-red light with a peak wavelength of 730-740 nm, and characterized in that the red light, blue light and far-red light are provided at the same time, whereby the far-red light has a light wave half-width lower than 35 nm, a photon number ratio of the red light to the blue light is (15-0.1):1 and a photon number ratio of the far-red light to the entire light source is lower than 50%.
A fully sealed pouch containing a drink , and provided with a straw within the pouch accessible to allow a user to draw drink from the pouch; the pouch defining a top portion , a bottom portion , and respective side edges interconnecting the top portion and the bottom portion, and a corner portion defined between the top portion and one said side edge , the corner portion being openable by a user to access the straw; the pouch forming a closed cavity containing said drink, the cavity being defined by said top portion , said bottom portion , and said side edges and by at least one wall defining a front face and a rear face for the cavity, the front and rear faces being connected together in said top portion, the front and rear faces being continuous with each other at, or being connected along, the other of said side edges , the front and rear faces being connected, optionally via a gusset , to provide said bottom portion, and said one side edge being formed by a first heat seal connecting the front and rear faces; and a second heat seal connecting the front and rear faces and extending in an incomplete fashion from the top portion to the bottom portion and being spaced inboard of the first heat seal, the second heat seal dividing the interior of the cavity into major and minor portions interconnected so that drink may flow between them, the minor portion lying between the first and second heat seals, and the straw being located within said minor portion; the pouch being characterised in that the corner portion is openable along a line of weakness formed in said pouch and extending parallel to the top portion and/or the bottom portion from the first heat seal to and ending at the second heat seal , which second heat seal serves as a termination for a tear along said line of weakness.
An absorption tower for a plant for production of nitric acid by the Ostwald method, comprising a multitude of sieve trays arranged one on top of another and each spaced apart from one another, an inlet for water in an upper region of the absorption tower, an inlet for gaseous nitrogen oxides in a lower region of the absorption tower , and a column bottom which is disposed in the lower end region of the absorption tower beneath the lowermost sieve tray and is divided by at least one dividing wall into at least two mutually separated regions , characterized in that at least one dividing wall is arranged with such a progression that it divides the column bottom into a first, radially inner region and at least a second, radially outer region .
A facade comprising a heat-insulating material arranged between a wall and at least one facade panel , wherein a metal construction connecting the wall to the facade panel is provided, which metal construction has a first layer of metal profiles and a second layer of metal profiles, wherein the second layer of metal profiles supports the facade panel , characterized in that the second layer of metal profiles is connected to the facade panel via at least two screws , each having a head portion and a shank portion , wherein the screws protrude through through-holes in the facade panel and are screwed into a metal profile of the second layer, wherein the through holes have a diameter which is larger than a diameter of the screws in the shank portion , and at least some facade panels of the facade are positioned at least partially one above the other, wherein an upper facade panel partially overlaps a lower facade panel at a lower end, wherein at least one screw which penetrates a facade panel partially overlaps another facade panel at a lower end has an undercut between the screw head and the thread, which undercut is formed without a thread and has a length which corresponds approximately to a thickness of two facade panels .
A topical composition comprising hydrolyzed algae extract, saccharide isomerate, and a dermatologically acceptable vehicle wherein the composition is capable of moisturizing at least one of skin and hair, wherein the saccharide isomerate comprises an exopolysaccharide synthesized by Vibrio alginolyticus, and the hydrolyzed algae extract comprises exopolysaccharides of Halymenia durvillei, wherein the composition comprises 0.001% to 1% w/w of hydrolyzed algae extract and 0.0001% to 0.1% w/w of saccharide isomerate.
A method for mechanically sizing polysilicon, consisting of Fragments of the size classes break size 0 0,1 to 5 mm, or break size 1 3 to 15 mm, or break size 2 10 to 40 mm, or break size 3 20 to 60 mm, or break size 4 45 to 120 mm, or break size 5 100 to 250 mm, whereby the size class of Polysilicon fragments as longest distance between two points on the surface of a silicon fragment (=max. length), with a screening system, wherein the polysilicon is fed onto a screen plate comprising a feed area for polysilicon, a profiled area with peaks and troughs , an area with slots , wherein the slots adjoin the troughs , and a removal area , wherein the slots increase in size in the direction of the removal area , wherein the screen plate is vibrated such that the polysilicon performs a movement in the direction of the removal area , wherein finely divided polysilicon collects in the depressions of the screen plate and falls through the slots of the screen plate and is thereby separated from the charged polysilicon, wherein the screen plate is inclined at an angle of 5 to 20° with respect to the horizontal., wherein the peaks of the profiled area also continue into the area with slots , so that the entire screen plate is profiled, the screen plate however having slots instead of depressions at its rear end in the conveying direction, wherein the depth and angle of the depressions of the profiled area and the size of the slits are such that either finely divided silicon, which can be separated by means of a square mesh screen having a size of 8 mm x 8 mm separated from the polysilicon of break sizes 3 to 5 or finely divided silicon, which can be separated by means of a square mesh screen with a size of 1 mm x 1 mm, is separated from the feed polysilicon of break sizes 0 to 2.
A system comprising: a first multi-function probe (MFP) comprising a first plurality of pressure sensing ports for sensing pressure of an oncoming airflow about an aircraft exterior, the first MFP having a first electronics channel and a second electronics channel ; a first static pressure sensor configured to sense static pressure of the oncoming airflow about the aircraft exterior and electrically coupled with the first electronics channel of the first MFP to form a first air data system providing first aircraft air data parameter outputs; a second MFP comprising a second plurality of pressure sensing ports for sensing the pressure of the oncoming airflow about the aircraft exterior, the second MFP having a first electronics channel and a second electronics channel ; and a second static pressure sensor configured to sense the static pressure of the oncoming airflow about the aircraft exterior and electrically coupled with the first electronics channel of the second MFP to form a second air data system providing second aircraft air data parameter outputs; wherein the second electronics channel of the first MFP is electrically coupled with the second electronics channel of the second MFP to form a third air data system providing third aircraft air data parameter outputs. a first multi-function probe (MFP) comprising a first plurality of pressure sensing ports for sensing pressure of an oncoming airflow about an aircraft exterior, the first MFP having a first electronics channel and a second electronics channel ; a first static pressure sensor configured to sense static pressure of the oncoming airflow about the aircraft exterior and electrically coupled with the first electronics channel of the first MFP to form a first air data system providing first aircraft air data parameter outputs; a second MFP comprising a second plurality of pressure sensing ports for sensing the pressure of the oncoming airflow about the aircraft exterior, the second MFP having a first electronics channel and a second electronics channel ; and a second static pressure sensor configured to sense the static pressure of the oncoming airflow about the aircraft exterior and electrically coupled with the first electronics channel of the second MFP to form a second air data system providing second aircraft air data parameter outputs; wherein the second electronics channel of the first MFP is electrically coupled with the second electronics channel of the second MFP to form a third air data system providing third aircraft air data parameter outputs.
A method for transferring uplink data by a mobility management entity, MME, in a cellular communication system, the method comprising: receiving the uplink data from a user equipment, UE, the uplink data including an indicator indicating whether the uplink data is non-internet protocol, IP, data; and if the indicator indicates that the uplink data is the non-IP data, transmitting the uplink data to a service capability exposure function, SCEF, . receiving the uplink data from a user equipment, UE, the uplink data including an indicator indicating whether the uplink data is non-internet protocol, IP, data; and if the indicator indicates that the uplink data is the non-IP data, transmitting the uplink data to a service capability exposure function, SCEF, .
A method of encoding a sequence of video frames captured at a fixed temporal frame rate by a camera mounted to a moving object , the moving object being a person or a vehicle, comprising: receiving (S02) input indicating an amount of movement of the camera , receiving (S04) input regarding a predetermined spatial distance (D), calculating, based on the input indicating an amount of movement of the camera , a spatial distance (d 1 , d 2 , d 3 , d 4 , d 5 ) that the camera has travelled since it last captured a video frame that was intra-coded, and selecting (S06) between intra-coding and inter-coding of the video frames of the sequence based on a comparison between the calculated spatial distance (d 1 , d 2 , d 3 , d 4 , d 5 ) and the predetermined spatial distance (D), wherein a current video frame is selected to be intra-coded if the calculated distance (d 1 , d 2 , d 3 , d 4 , d 5 ) is closer than a threshold value (T) to the predetermined spatial distance (D), and wherein the current video frame is selected to be inter-coded if the calculated distance (d 1 , d 2 , d 3 , d 4 , d 5 ) is further than the threshold value (T) from the predetermined spatial distance (D). receiving (S02) input indicating an amount of movement of the camera , receiving (S04) input regarding a predetermined spatial distance (D), calculating, based on the input indicating an amount of movement of the camera , a spatial distance (d 1 , d 2 , d 3 , d 4 , d 5 ) that the camera has travelled since it last captured a video frame that was intra-coded, and selecting (S06) between intra-coding and inter-coding of the video frames of the sequence based on a comparison between the calculated spatial distance (d 1 , d 2 , d 3 , d 4 , d 5 ) and the predetermined spatial distance (D), wherein a current video frame is selected to be intra-coded if the calculated distance (d 1 , d 2 , d 3 , d 4 , d 5 ) is closer than a threshold value (T) to the predetermined spatial distance (D), and wherein the current video frame is selected to be inter-coded if the calculated distance (d 1 , d 2 , d 3 , d 4 , d 5 ) is further than the threshold value (T) from the predetermined spatial distance (D).
A thermal insulation composition, wherein the thermal insulation composition comprises a composite of an aerogel material and an organic resin, and the composite mass ratio of the aerogel material to the organic resin is 5wt%:95wt% to 50wt%:50wt%; the porosity of the aerogel material is greater than 95%, the pore size of the aerogel material is less than or equal to 100 nm, and the particle size of each particle of the aerogel material is 5 nm to 20 nm, said particle size being measured according to a method disclosed in the description; the pores of the aerogel material are filled with the organic resin; characterized in that the organic resin is any one or two of polypropylene carbonate and polypropylene carbonate modified with a functional group. the porosity of the aerogel material is greater than 95%, the pore size of the aerogel material is less than or equal to 100 nm, and the particle size of each particle of the aerogel material is 5 nm to 20 nm, said particle size being measured according to a method disclosed in the description; the pores of the aerogel material are filled with the organic resin; characterized in that the organic resin is any one or two of polypropylene carbonate and polypropylene carbonate modified with a functional group.
A hot-rolled steel sheet (S) cut in unsteady portions at a longitudinal head end and a longitudinal tail end in cutting after rough rolling, having a width of 1,200 mm to 2,300 mm, a thickness of 13 mm to 25.4 mm, and at least an API standard X65-grade strength, and to be used in a state of being unwound after having been wound around a coil (C), wherein at least a longitudinal end corresponding to start of unwinding includes a portion at a widthwise center recessed inwards in a longitudinal direction with respect to two widthwise ends, projection sizes of the two widthwise ends with respect to the recessed portion at the widthwise center are 20 mm to 295 mm, and a sum of widths of projecting portions at the two widthwise ends is 1/4 to 1/2 of the width of the sheet.
The use of a Fischer-Tropsch derived working fluid with a kinematic viscosity at 100°C of at most 5 mm 2 /second in a thermal management system for a lithium-ion battery in order to provide improved control of a thermal runaway event.
A method, performed by a computing system of an unmanned aerial vehicle, for ensuring that the unmanned aerial vehicle complies with specified export control requirements throughout the operation of the unmanned aerial vehicle, the method comprising: storing an indication of an initial specification of the unmanned aerial vehicle, the initial specification of the unmanned aerial vehicle specifying initial configuration information and an identification for each of a plurality of tamper-resistant trusted components of the unmanned aerial vehicle, wherein the initial configuration of the unmanned aerial vehicle is in compliance with the specified export control requirements and wherein at least one of the trusted components is configured to ensure that the range of the unmanned aerial vehicle does not exceed a predetermined distance; determining the distance of the unmanned aerial vehicle from a launch location; if the determination is that the unmanned aerial vehicle is at least a predetermined distance from the launch location, in response to determining that the unmanned aerial vehicle is at least the predetermined distance from the launch location, modifying the operation of the unmanned aerial vehicle by modifying the path of the unmanned aerial vehicle. storing an indication of an initial specification of the unmanned aerial vehicle, the initial specification of the unmanned aerial vehicle specifying initial configuration information and an identification for each of a plurality of tamper-resistant trusted components of the unmanned aerial vehicle, wherein the initial configuration of the unmanned aerial vehicle is in compliance with the specified export control requirements and wherein at least one of the trusted components is configured to ensure that the range of the unmanned aerial vehicle does not exceed a predetermined distance; determining the distance of the unmanned aerial vehicle from a launch location; if the determination is that the unmanned aerial vehicle is at least a predetermined distance from the launch location, in response to determining that the unmanned aerial vehicle is at least the predetermined distance from the launch location, modifying the operation of the unmanned aerial vehicle by modifying the path of the unmanned aerial vehicle.