mhurhangee/patent-ind-claim-en huggingface dataset:
Method for generating a binding between a C/C++ library (A) and a software environment of one or more high-level interpreted languages, in order to expose the functionalities of said C/C++ library to said interpreted language, comprising the following computer-implemented steps: - a step of processing a definition of the binding (C) between the C/C++ library (A) and a software environment of the one or more high-level interpreted languages, said definition having been previously written in high-level language and comprising a list of functions as well as the expected parameters thereof, and the returned values, so as to produce binding elements, this step comprising a distribution of the processing between: - functionalities of each of said high-level language(s) [B], - functionalities of the C++ language that are transparently supported by the binding and will be made accessible in the high-level language. - a step of gathering said binding elements towards each of said high-level language(s), so as to produce a C++ binding code (D), - a step of compiling said C++ code (D) and linking it to said C/C++ library (A). this method being implemented in a transformation of a 3D model from the C/C++ library (A) in order to be embeddable in a human-machine interface of a device, wherein a so-called business application is written in a high-level language (B) by importing a dynamic library (E) and accessing, through said dynamic library (E), the functionalities of said C/C++ library (A). - a step of processing a definition of the binding (C) between the C/C++ library (A) and a software environment of the one or more high-level interpreted languages, said definition having been previously written in high-level language and comprising a list of functions as well as the expected parameters thereof, and the returned values, so as to produce binding elements, this step comprising a distribution of the processing between: - functionalities of each of said high-level language(s) [B], - functionalities of the C++ language that are transparently supported by the binding and will be made accessible in the high-level language. - functionalities of each of said high-level language(s) [B], - functionalities of the C++ language that are transparently supported by the binding and will be made accessible in the high-level language. - a step of gathering said binding elements towards each of said high-level language(s), so as to produce a C++ binding code (D), - a step of compiling said C++ code (D) and linking it to said C/C++ library (A).
A catheter system comprising: a catheter having a distal end , a proximal end and a body connecting said distal and proximal ends; an auxiliary elongated element having a distal end , a proximal end and a body connecting said distal and proximal ends, wherein a first portion of said auxiliary elongated element is positioned inside said body of said catheter, and a second portion of said auxiliary elongated element is positioned outside said body of said catheter; an exit point located on said body of said catheter, wherein said first portion is proximal to said exit point and said second portion is distal to said exit point; and a balloon on a distal end of the catheter, wherein the auxiliary elongated element is located outside and alongside the balloon distal to the exit point; a crotch point , wherein at said crotch point said auxiliary elongated element is attached to said catheter, and wherein said crotch point is located on said second portion of said auxiliary elongated element; characterised in that the crotch point is located at a distal end of the auxiliary elongated element. a catheter having a distal end , a proximal end and a body connecting said distal and proximal ends; an auxiliary elongated element having a distal end , a proximal end and a body connecting said distal and proximal ends, wherein a first portion of said auxiliary elongated element is positioned inside said body of said catheter, and a second portion of said auxiliary elongated element is positioned outside said body of said catheter; an exit point located on said body of said catheter, wherein said first portion is proximal to said exit point and said second portion is distal to said exit point; and a balloon on a distal end of the catheter, wherein the auxiliary elongated element is located outside and alongside the balloon distal to the exit point; a crotch point , wherein at said crotch point said auxiliary elongated element is attached to said catheter, and wherein said crotch point is located on said second portion of said auxiliary elongated element; characterised in that the crotch point is located at a distal end of the auxiliary elongated element.
A method for leaching vanadium and tungsten contained in a waste denitrification catalyst by using a pressure leaching process, the method comprising the steps of: forming a mixture by mixing a waste denitrification catalyst with a sodium salt solution; and leaching 90% or more of vanadium and tungsten contained in the mixture by feeding the mixture into a sealed pressurized reactor, and then heating and stirring the mixture, wherein the waste denitrification catalyst includes vanadium (V) and tungsten (W) in oxide forms, wherein the concentration of the sodium salt solution is 2 to 3 M, wherein the heating temperature is 225°C to 250°C, and wherein the pressure of the pressurized reactor is 20 to 80 atm. forming a mixture by mixing a waste denitrification catalyst with a sodium salt solution; and leaching 90% or more of vanadium and tungsten contained in the mixture by feeding the mixture into a sealed pressurized reactor, and then heating and stirring the mixture, wherein the waste denitrification catalyst includes vanadium (V) and tungsten (W) in oxide forms, wherein the concentration of the sodium salt solution is 2 to 3 M, wherein the heating temperature is 225°C to 250°C, and wherein the pressure of the pressurized reactor is 20 to 80 atm.
An epitaxial wafer comprising: a growth substrate ; a mask pattern disposed on the growth substrate comprising a plurality of masking regions masking the growth substrate and a plurality of opening regions exposing the growth substrate ; and an epitaxial layer covering the mask pattern and comprising a plurality of first voids each disposed on and within the perimeter of a corresponding masking region ; wherein the epitaxial layer comprises a 3D epitaxial layer grown under 3D growth conditions and a 2D epitaxial layer grown under 2D growth conditions disposed on the 3D epitaxial layer so as to form the plurality of first voids ; wherein an epitaxial gallium nitride-based layer is disposed between the mask pattern and the growth substrate , the gallium nitride-based layer comprising a plurality of second voids each disposed below a corresponding opening region of the mask pattern and extending under adjacent masking regions to connect the adjacent masking regions to each other; wherein the epitaxial gallium nitride-based layer has been epitaxially grown on the growth substrate and the epitaxial layer has been epitaxially grown on the gallium nitride-based layer starting from the opening regions . a growth substrate ; a mask pattern disposed on the growth substrate comprising a plurality of masking regions masking the growth substrate and a plurality of opening regions exposing the growth substrate ; and an epitaxial layer covering the mask pattern and comprising a plurality of first voids each disposed on and within the perimeter of a corresponding masking region ; wherein the epitaxial layer comprises a 3D epitaxial layer grown under 3D growth conditions and a 2D epitaxial layer grown under 2D growth conditions disposed on the 3D epitaxial layer so as to form the plurality of first voids ; wherein an epitaxial gallium nitride-based layer is disposed between the mask pattern and the growth substrate , the gallium nitride-based layer comprising a plurality of second voids each disposed below a corresponding opening region of the mask pattern and extending under adjacent masking regions to connect the adjacent masking regions to each other; wherein the epitaxial gallium nitride-based layer has been epitaxially grown on the growth substrate and the epitaxial layer has been epitaxially grown on the gallium nitride-based layer starting from the opening regions .
Manhole cover plate comprising a lifting element , which lifting element comprises a bore and a sealing element which is borne in said bore , which sealing element comprises a widened section on the upper side of the cover plate , wherein the upper end of the sealing element comprises an eye , and wherein the lower end of the sealing element comprises a safeguard , said safeguard having a higher diameter than the bore , wherein the sealing element comprises a magnetically sensitive material and in that the sealing element is suitable to be linearly displaced by means of a magnet; characterized in that the top surface of the lifting element is not impaired by uneven structures, such as grooves and/or indentations, and in that the top surface of the sealing element is smooth.
An electric plug connector, comprising an electrical contact including an electrically insulating contact holder , which holds the electrical contact , an electrically conducting part , which is assembled with the contact holder by way of a relative movement with respect to the contact holder in a plug-in direction of the plug connector , and an electrically conducting connector , which connects the electrical contact to the electrically conducting part of the plug connector in an electrically conducting manner, characterized in that the electrically conducting part comprises a contact surface extending transversely to the plug-in direction of the plug connector , which contact surface is in contact with the electrically conducting connector during assembly of the electric plug connector due to the relative movement of the electrically conducting part with respect to the contact holder .
A method for an initial setup procedure for a wireless data communication between an analyte sensor system a mobile device , the mobile device being configured with an operating system and a custom application, and being capable of wirelessly receiving analyte values from the analyte sensor system , the method comprising the mobile device : storing, in a memory of the mobile device, identification information associated with a transceiver of the analyte sensor system , the identification information entered by a user of the mobile device via the custom application; causing the custom application to enter a background mode, and, while the custom application is in the background mode: causing a radio unit of the mobile device to search for advertisement signals; receiving an advertisement signal from the transceiver ; authenticating the transceiver based on the identification information; prompting the user to bring the custom application to a foreground mode from the background mode, and while the custom application is in the foreground mode: causing the custom application to request a confirmation from the user that a data connection with the transceiver is desired; receiving the confirmation from the user; and completing the data connection with the transceiver . storing, in a memory of the mobile device, identification information associated with a transceiver of the analyte sensor system , the identification information entered by a user of the mobile device via the custom application; causing the custom application to enter a background mode, and, while the custom application is in the background mode: causing a radio unit of the mobile device to search for advertisement signals; receiving an advertisement signal from the transceiver ; authenticating the transceiver based on the identification information; prompting the user to bring the custom application to a foreground mode from the background mode, and causing a radio unit of the mobile device to search for advertisement signals; receiving an advertisement signal from the transceiver ; authenticating the transceiver based on the identification information; prompting the user to bring the custom application to a foreground mode from the background mode, and while the custom application is in the foreground mode: causing the custom application to request a confirmation from the user that a data connection with the transceiver is desired; receiving the confirmation from the user; and completing the data connection with the transceiver . causing the custom application to request a confirmation from the user that a data connection with the transceiver is desired; receiving the confirmation from the user; and completing the data connection with the transceiver .
An aerosol-forming article comprising, in axial flow arrangement, an aerosol-forming substrate , an upstream filter element , a spacer element and a terminal filter element , wherein the article further comprises a flow restrictor element upstream of the terminal filter element and downstream of the aerosol-forming substrate , wherein the flow restrictor element comprises a disc or rod having at least one axial perforation or channel ; wherein the upstream filter element is a hollow bore filter element having a bore diameter which is greater than the diameter of the at least one axial perforation or channel of the flow restrictor ; and characterised in that the terminal filter element is a hollow bore filter element. wherein the upstream filter element is a hollow bore filter element having a bore diameter which is greater than the diameter of the at least one axial perforation or channel of the flow restrictor ; and characterised in that the terminal filter element is a hollow bore filter element.
An interactive television system (1a-1c) comprising a backend server (2,2a-2c) of a content provider communicatively connected via a first communication network to a client system (4,4a-4c) comprising a display device , wherein the backend server (2,2a-2c) is configured to generate a graphical user interface and transmit the graphical user interface to the client system (4,4a-4c) via the first communication network for display on the display device , wherein a first user input in response to the graphical user interface is receivable in the backend server (2,2a-2c), and wherein the backend server (2,2a-2c) is configured to generate an updated graphical user interface in response to the first user input and transmit the updated graphical user interface to the client system (4,4a-4c) via the first communication network for display on the display device , characterized in that the backend server (2,2a-2c) is configured to transmit first instruction data to the client system (4,4a-4c) and the client system (4,4a-4c) is configured to, in response to the first instruction data , change a display mode of the display device to a first display mode for displaying the graphical user interface or updated graphical user interface , wherein the first display mode is an input lag optimized display mode, wherein the backend server (2,2a-2c) is configured to transmit the first instruction data to the client system (4,4a-4c) via a second communication network , the second communication network being different from the first communication network .
A customizable laboratory instrument comprising: a housing defining an interior space for receipt of test materials therein, the housing comprising at least one exterior surface that has an indented backing surface with a raised boundary surface at at least a portion of its perimeter, and a sidewall , the backing surface being offset from the boundary surface a distance substantially equal to a depth of the sidewall ; characterized by : a panel having an edge adapted to be received by the sidewall such that a space is defined between the panel and backing surface wherein the space has received therein a decorative object that has a perimeter within the perimeter of the sidewall and wherein the sidewall slopes outwardly from the boundary surface to the backing surface such that sidewall intersects the backing surface at an acute angle thereby forming a wedge-shaped channel about the perimeter of the backing surface for receipt of the panel . a housing defining an interior space for receipt of test materials therein, the housing comprising at least one exterior surface that has an indented backing surface with a raised boundary surface at at least a portion of its perimeter, and a sidewall , the backing surface being offset from the boundary surface a distance substantially equal to a depth of the sidewall ; characterized by : a panel having an edge adapted to be received by the sidewall such that a space is defined between the panel and backing surface wherein the space has received therein a decorative object that has a perimeter within the perimeter of the sidewall and wherein the sidewall slopes outwardly from the boundary surface to the backing surface such that sidewall intersects the backing surface at an acute angle thereby forming a wedge-shaped channel about the perimeter of the backing surface for receipt of the panel .
An oral chewable tablet comprising a population of particles and one or more cannabinoids, the population of particles comprising non-directly compressible (non-DC) sugar alcohol particles and directly compressible (DC) sugar alcohol particles, wherein the oral chewable tablet comprises said non-DC sugar alcohol particles in an amount of at least 10% by weight of the oral chewable tablet.
Thread-forming screw for screwing into ductile materials, specifically sheet metal, having a screw head which has a screw-driving configuration , a screw shank which extends from the screw head to a front screw end , and having a screw thread which is configured as a sheet-metal thread, wherein a front forming portion of the screw shank has a cross section that decreases in the direction of the front screw end , wherein the screw thread reaches up to the front screw end , wherein at least one rib (10; 32) which cuts the screw thread is configured in the forming portion , and wherein the rib (10; 32) runs so as to be steeper than the screw thread .
An earth fault detection apparatus to be connected with a non-grounded battery and for calculating an insulation resistance of a system including the battery , the earth fault detection apparatus comprising: a capacitor (C1) configured to be operated as a flying capacitor; a switch group (S1-S4) configured to switch between a first measurement path, a second measurement path, and a third measurement path, the first measurement path including the battery and the capacitor (C1), the second measurement path including the battery , a negative-side insulation resistance that is an insulation resistance between a negative-side line of the battery and ground, and the capacitor (C1), the third measurement path including the battery , a positive-side insulation resistance that is an insulation resistance between a positive-side line of the battery and the ground, and the capacitor (C1); and a control unit configured to calculate a reference value based on each charging voltage of the capacitor (C1) in each of the first to third measurement paths, and configured to calculate the insulation resistance with reference to a predetermined conversion map , characterised in that the conversion map includes a conversion map corresponding to a capacitance of the capacitor (C1), and the control unit is configured to estimate the capacitance of the capacitor (C1), and refers to the conversion map corresponding to the capacitance of the capacitor (C1) that has been estimated. a capacitor (C1) configured to be operated as a flying capacitor; a switch group (S1-S4) configured to switch between a first measurement path, a second measurement path, and a third measurement path, the first measurement path including the battery and the capacitor (C1), the second measurement path including the battery , a negative-side insulation resistance that is an insulation resistance between a negative-side line of the battery and ground, and the capacitor (C1), the third measurement path including the battery , a positive-side insulation resistance that is an insulation resistance between a positive-side line of the battery and the ground, and the capacitor (C1); and a control unit configured to calculate a reference value based on each charging voltage of the capacitor (C1) in each of the first to third measurement paths, and configured to calculate the insulation resistance with reference to a predetermined conversion map , characterised in that the conversion map includes a conversion map corresponding to a capacitance of the capacitor (C1), and the control unit is configured to estimate the capacitance of the capacitor (C1), and refers to the conversion map corresponding to the capacitance of the capacitor (C1) that has been estimated.
A diagnosis assistance system for diagnosing the operating state of at least one industrial rotary machine (M1, M2, M3) formed by an industrial motor-and-fan unit comprising a motor and a fanwheel driven in rotation by said motor, or by an industrial motor-and-pump unit including a pump wheel, said diagnosis assistance system comprising a base support and reception means for receiving signals (S1, S2, S3), the reception means being secured to the base support , the reception means for receiving signals (S1, S2, S3) being designed to receive signals (S1, S2, S3) representative of raw values of at least one operating parameter of said at least one rotary machine (M1, M2, M3), the raw values being picked up within said at least one rotary machine (M1, M2, M3), the system also comprising interpretation means for interpreting the operating state and designed to act automatically to interpret the received raw values and to generate a diagnosis (Dc) about the operating state of said at least one rotary machine (M1, M2, M3) as a function of said raw values , characterized in that the base support comprises a housing, the means for receiving signals (S1, S2, S3) being placed inside said housing, the diagnosis assistance system including an interface device enabling a user to access the diagnosis (Dc), the interface device having a local screen designed to display an interactive interface , the local screen being arranged on said housing or inside said housing, said interactive interface enabling the user to access distinct diagnosis levels (D1, D2), comprising at least: - a first diagnosis level (D1) in which the user can access the diagnosis and read the operating state directly; and - a second diagnosis level (D2) in which the user can access the raw values . - a first diagnosis level (D1) in which the user can access the diagnosis and read the operating state directly; and - a second diagnosis level (D2) in which the user can access the raw values .