mhurhangee/patent-ind-claim-en huggingface dataset:
A method to fabricate an apparatus , said apparatus comprising a substrate and a photonic device with at least a first waveguide having a light-conducting core bounded by at least one cladding layer , further comprising at least a second waveguide having a light-conducting core bounded by at least one cladding layer , wherein the first waveguide is aligned to couple with the second waveguide , wherein alignment of the first waveguide with the second waveguide with respect to at least one axis C coincides with at least one stop area of the photonic device resting on a stop surface of a corresponding support structure on the substrate , wherein the stop area is a stop in a recess from a surface of the photonic device , wherein the recess is formed by etching of the photonic device , and/or the support structure is formed by etching of the substrate , wherein the etching process is selective with respect to at least one interface between two materials in the photonic device and/or in the substrate , and characterized in that: a) the two materials in the photonic device are chosen from the materials of the core layer , a light emitting layer inside the core layer , an electrical cladding layer inside the core layer , and/or a cladding layer , that form part of the first waveguide of the photonic device , and during fabrication, respectively, of the core layer , light emitting layer inside the core layer , the electrical cladding layer inside the core layer , and/or a cladding layer , that forms part of the first waveguide of the photonic device , this layer is extended laterally to the location of the recess ; or b) the two materials in the substrate are chosen from the materials of the core layer , and/or a cladding layer , that form part of the second waveguide which in turn forms part of the substrate , and during fabrication, respectively, of the core layer , and/or a cladding layer , that forms part of the second waveguide , this layer is extended laterally to the location of the support structure . a) the two materials in the photonic device are chosen from the materials of the core layer , a light emitting layer inside the core layer , an electrical cladding layer inside the core layer , and/or a cladding layer , that form part of the first waveguide of the photonic device , and during fabrication, respectively, of the core layer , light emitting layer inside the core layer , the electrical cladding layer inside the core layer , and/or a cladding layer , that forms part of the first waveguide of the photonic device , this layer is extended laterally to the location of the recess ; or b) the two materials in the substrate are chosen from the materials of the core layer , and/or a cladding layer , that form part of the second waveguide which in turn forms part of the substrate , and during fabrication, respectively, of the core layer , and/or a cladding layer , that forms part of the second waveguide , this layer is extended laterally to the location of the support structure .
A computer system for assisting subchondral injection, the system comprising means for: obtaining a model of bone and soft tissue of a patient, the model including cortical bone structure and trabecular bone structure for a bone; identifying and delimiting at least one void in the trabecular bone structure of the bone from the model of bone and soft tissue; identifying an injection site in the cortical bone structure from the model of bone and soft tissue and modeling of the at least one void; calculating and outputting data for guiding at least in locating a drilling tool relative to the injection site and for drilling of the bone at the injection site to reach the void; tracking a registration tool identifying landmark points on the bone to reference the landmarks points to the model of the bone and soft tissue; and navigating the drilling tool toward the injection site using the reference between the landmarks points to the model of the bone and soft tissue; wherein outputting data includes outputting in the data a drilling stop based on : a calculated drilling depth. obtaining a model of bone and soft tissue of a patient, the model including cortical bone structure and trabecular bone structure for a bone; identifying and delimiting at least one void in the trabecular bone structure of the bone from the model of bone and soft tissue; identifying an injection site in the cortical bone structure from the model of bone and soft tissue and modeling of the at least one void; calculating and outputting data for guiding at least in locating a drilling tool relative to the injection site and for drilling of the bone at the injection site to reach the void; tracking a registration tool identifying landmark points on the bone to reference the landmarks points to the model of the bone and soft tissue; and navigating the drilling tool toward the injection site using the reference between the landmarks points to the model of the bone and soft tissue; wherein outputting data includes outputting in the data a drilling stop based on : a calculated drilling depth.
Magnet-based rotation angle measuring system for sensing a rotary movement of a machine shaft , comprising an exciter unit connected in a rotationally fixed manner to the machine shaft , a stationary sensor unit functionally cooperating with the stationary exciter unit , and a rotary encoder housing which is pot-shaped with a cylindrical peripheral wall and an end base and surrounds at least the sensor unit radially, the rotary encoder housing having an additional opening adapted to be closed by means of a separate cap such that an interior space enclosed by the rotary encoder housing is accessible from outside in the region of the sensor unit , for closing the opening , the cap can be releasably fastened to the rotary encoder housing by means of a locking device , characterized in that the cap comprises a fixing device for fixing a connection cable , the fixing device comprising an elastic clip or spring element for pre-tensioning the connecting cable against the peripheral wall .
A method for predicting a near future path for a vehicle , the method comprising: - collecting (S502) vehicle driving data indicative of at least the velocity and the yaw rate of the vehicle, - collecting (S506) sensor data indicative of the presence of objects in the vicinity of the vehicle, - collecting (S507) road data indicative of a roadway on the presently occupied road for the vehicle, - pre-processing (S508) the sensor data and the vehicle driving data to provide a set of object data comprising a time series of previous positions of the respective object relative the vehicle, a time series of the previous headings of the objects, a time series of previous velocities of each of the objects relative the vehicle, and object size data, - processing (S510) the object data, the vehicle driving data, and the road data in a deep neural network to predict the near future path for the vehicle based on the object data, the vehicle driving data, and the road data, and - based on the processing in the deep neural network, providing a predicted path output. - collecting (S502) vehicle driving data indicative of at least the velocity and the yaw rate of the vehicle, - collecting (S506) sensor data indicative of the presence of objects in the vicinity of the vehicle, - collecting (S507) road data indicative of a roadway on the presently occupied road for the vehicle, - pre-processing (S508) the sensor data and the vehicle driving data to provide a set of object data comprising a time series of previous positions of the respective object relative the vehicle, a time series of the previous headings of the objects, a time series of previous velocities of each of the objects relative the vehicle, and object size data, - processing (S510) the object data, the vehicle driving data, and the road data in a deep neural network to predict the near future path for the vehicle based on the object data, the vehicle driving data, and the road data, and - based on the processing in the deep neural network, providing a predicted path output.
A watch case comprising a rotating bezel , comprising: - an axis (A), - a first ring having a portion allow gripping, - a second ring , and - a connecting element for connecting the first and second rings, the connecting element being elastic and positioned between the first and second rings, the second ring comprising an element for retention on the rest of the watch case , particularly on a watch middle . - an axis (A), - a first ring having a portion allow gripping, - a second ring , and - a connecting element for connecting the first and second rings, the connecting element being elastic and positioned between the first and second rings, the second ring comprising an element for retention on the rest of the watch case , particularly on a watch middle .
Sensor arrangement having a sensor element (WSS) and at least two control devices (ECU1, ECU2) each having an evaluation and control unit and an energy source (VB1, VB2), wherein a first control device (ECU1) is designed so that a first evaluation and control unit is connected to a first energy source (VB1) and a second control device (ECU2) is designed so that a second evaluation and control unit is connected to a second energy source (VB2), wherein the first control device (ECU1) comprises a changeover apparatus designed so that a first connection (WSS1) of the sensor element (WSS) is connected to the first energy source (VB1) and/or to the second energy source (VB2), wherein a second connection (WSS2) of the sensor element (WSS) is connected to the second control device (ECU2), wherein a sensor current (I S ) flowing through the sensor element (WSS) is modulated during operation with information relating to a captured measurement variable, wherein the first evaluation and control unit is designed to evaluate the sensor current (I S ) captured between the connected energy source (VB1, VB2) and the sensor element (WSS) and the second evaluation and control unit is designed to evaluate the sensor current (I S ) captured between the sensor element (WSS) and earth, and wherein the changeover apparatus is designed to connect the first connection (WSS1) of the sensor element (WSS) to the other energy source (VB2, VB1) when the connected energy source (VB1, VB2) fails.
A communication method in dual connectivity, wherein the method comprises: receiving, by a master node, first packet data convergence protocol sequence number, PDCP SN length information from a secondary node, wherein the first PDCP SN length information indicates a first PDCP SN length of a first bearer terminated at the secondary node, the master node and the secondary node both connect to a terminal; and obtaining, by the master node, the first PDCP SN length indicated by the first PDCP SN length information. receiving, by a master node, first packet data convergence protocol sequence number, PDCP SN length information from a secondary node, wherein the first PDCP SN length information indicates a first PDCP SN length of a first bearer terminated at the secondary node, the master node and the secondary node both connect to a terminal; and obtaining, by the master node, the first PDCP SN length indicated by the first PDCP SN length information.
A method of modifying a 3' terminal end of a nucleic acid with a substrate, the method comprising: forming a mixture comprising an A family polymerase, a substrate, a nucleic acid, and a reaction solution, wherein the A family polymerase is Polθ or an active fragment or variant thereof, and wherein the reaction solution comprises Mn 2+ ; incubating the mixture; and isolating a 3'-terminal end modified nucleic acid. forming a mixture comprising an A family polymerase, a substrate, a nucleic acid, and a reaction solution, wherein the A family polymerase is Polθ or an active fragment or variant thereof, and wherein the reaction solution comprises Mn 2+ ; incubating the mixture; and isolating a 3'-terminal end modified nucleic acid.
A computer-implemented method for generating a data record of a training dataset set configured to train a neural network for determination of the concentration of a particular target molecule in an NMR sample , comprising: obtaining an NMR spectrum associated with a known concentration (c1) of the target molecule, with the obtained NMR spectrum having a region of interest, wherein the region of interest is a region in the obtained NMR spectrum where the NMR spectrum exceeds a predefined noise threshold value; adjusting the obtained NMR spectrum by applying a random shift in the range from -0.2 ppm to +0.2 ppm to generate an adjusted NMR spectrum ; randomly determining a number of multiplets N reflecting the background of a resulting NMR spectrum wherein N is determined by multiplying a multiplet density with the width of the region of interest, with the multiplet density being randomly chosen from a predefined multiplet density range; repeating N times: generating a mathematical model of a multiplet; adjusting the generated mathematical model of the multiplet by applying a random shift in the range of the region of interest to obtain an adjusted mathematical model of the multiplet; adding the adjusted mathematical model to the region of interest of the adjusted NMR spectrum ; and storing information about the concentration of the target molecule together with the adjusted NMR spectrum after the last iteration as the resulting NMR spectrum as a new data record of the training dataset . obtaining an NMR spectrum associated with a known concentration (c1) of the target molecule, with the obtained NMR spectrum having a region of interest, wherein the region of interest is a region in the obtained NMR spectrum where the NMR spectrum exceeds a predefined noise threshold value; adjusting the obtained NMR spectrum by applying a random shift in the range from -0.2 ppm to +0.2 ppm to generate an adjusted NMR spectrum ; randomly determining a number of multiplets N reflecting the background of a resulting NMR spectrum wherein N is determined by multiplying a multiplet density with the width of the region of interest, with the multiplet density being randomly chosen from a predefined multiplet density range; repeating N times: generating a mathematical model of a multiplet; adjusting the generated mathematical model of the multiplet by applying a random shift in the range of the region of interest to obtain an adjusted mathematical model of the multiplet; adding the adjusted mathematical model to the region of interest of the adjusted NMR spectrum ; and generating a mathematical model of a multiplet; adjusting the generated mathematical model of the multiplet by applying a random shift in the range of the region of interest to obtain an adjusted mathematical model of the multiplet; adding the adjusted mathematical model to the region of interest of the adjusted NMR spectrum ; and storing information about the concentration of the target molecule together with the adjusted NMR spectrum after the last iteration as the resulting NMR spectrum as a new data record of the training dataset .
A method for communications, comprising: sending, by a serving access network device, a node addition request message to a target network device, wherein the node addition request message comprises identification information of a network slice that is serving a terminal device, the identification information of the network slice comprises a network slice type; receiving, by the serving access network device, an addition request acknowledgement message from the target network device; wherein the node addition request message further comprises a session level security information. sending, by a serving access network device, a node addition request message to a target network device, wherein the node addition request message comprises identification information of a network slice that is serving a terminal device, the identification information of the network slice comprises a network slice type; receiving, by the serving access network device, an addition request acknowledgement message from the target network device; wherein the node addition request message further comprises a session level security information.
Water-bound object comprising a boom that is movable via at least one actuator and comprising a control system for the boom , the free end of which boom is equipped with at least one sensor, the sensor being an ultrasonic sensor via which the distance to a landing point of an object can be determined, characterized in that a display device is provided which is designed to display the distance, the control system having at least one operating element for control of the boom by an operator , the control system having a controller which is configured to limit an adjustment speed with which the operator can move the boom depending on the distance from the free end of the boom to the landing point .
A compound for use in optical imaging having the formula: wherein Cat + is a cation; X and Y are each independently O, S, Se, or (CH 3 ) 2 C; one of R 8 and R 13 is (CH 2 ) r R 18 and the other is (CH 2 ) r R 25 , wherein r is an integer from 1 to 50; R 18 is a maleimidyl; and R 25 is a functional group that does not directly react with a carboxyl, hydroxyl, amino, or a thiol group, and is selected from hydroxyl, thioacetyl, and sulfonato; R 11 is sulfonato; R 12 is H or sulfonato; R 16 is sulfonato; and R 17 is hydrogen or sulfonato. wherein Cat + is a cation; X and Y are each independently O, S, Se, or (CH 3 ) 2 C; one of R 8 and R 13 is (CH 2 ) r R 18 and the other is (CH 2 ) r R 25 , wherein r is an integer from 1 to 50; R 18 is a maleimidyl; and R 25 is a functional group that does not directly react with a carboxyl, hydroxyl, amino, or a thiol group, and is selected from hydroxyl, thioacetyl, and sulfonato; R 11 is sulfonato; R 12 is H or sulfonato; R 16 is sulfonato; and R 17 is hydrogen or sulfonato. r is an integer from 1 to 50; R 18 is a maleimidyl; and R 25 is a functional group that does not directly react with a carboxyl, hydroxyl, amino, or a thiol group, and is selected from hydroxyl, thioacetyl, and sulfonato; R 11 is sulfonato; R 12 is H or sulfonato; R 16 is sulfonato; and R 17 is hydrogen or sulfonato.
Method for controlling the operation of a hydraulic brake system of a vehicle and, in particular, a vehicle, an electric bicycle, ebike, pedelec or the like which can be driven by muscle power and/or, in particular additionally, by motor power, in which method: - a check is carried out as to whether an emptying condition for emptying an accumulator of the brake system is met, and - if the emptying condition is met: - first of all, a controllable inlet valve in a primary circuit of the brake system is set to a partially closed state via a predetermined duty cycle, in particular of 10%, and/or for a predetermined time period, and - an outlet valve of the accumulator is then opened for a predetermined time period, contiguously or at intervals, - with the result that brake fluid is emptied from the accumulator via the outlet valve , the primary circuit and the inlet valve into a reservoir of a master cylinder of the primary circuit . - a check is carried out as to whether an emptying condition for emptying an accumulator of the brake system is met, and - if the emptying condition is met: - first of all, a controllable inlet valve in a primary circuit of the brake system is set to a partially closed state via a predetermined duty cycle, in particular of 10%, and/or for a predetermined time period, and - an outlet valve of the accumulator is then opened for a predetermined time period, contiguously or at intervals, - with the result that brake fluid is emptied from the accumulator via the outlet valve , the primary circuit and the inlet valve into a reservoir of a master cylinder of the primary circuit . - first of all, a controllable inlet valve in a primary circuit of the brake system is set to a partially closed state via a predetermined duty cycle, in particular of 10%, and/or for a predetermined time period, and - an outlet valve of the accumulator is then opened for a predetermined time period, contiguously or at intervals, - with the result that brake fluid is emptied from the accumulator via the outlet valve , the primary circuit and the inlet valve into a reservoir of a master cylinder of the primary circuit .
A coating film comprising: a metal oxide; a polymer particle; and an alkoxysilane wherein the metal oxide is a colloidal silica and the coating film has a ten-point average roughness, determined in accordance with JIS B 0601 , of 5 nm or more and 300 nm or less. a metal oxide; a polymer particle; and an alkoxysilane wherein the metal oxide is a colloidal silica and the coating film has a ten-point average roughness, determined in accordance with JIS B 0601 , of 5 nm or more and 300 nm or less.
A method, performed by an electronic device, of reading a barcode, the method comprising: obtaining an image by capturing an image of the barcode; determining a plurality of lines that cover a part of the barcode from the image; characterized by , obtaining information about a distortion level of the barcode in a region adjacent to each of the plurality of lines; determining at least one line for reading the barcode from among the plurality of lines, based on the obtained information; and reading the barcode based on the determined at least one line. obtaining an image by capturing an image of the barcode; determining a plurality of lines that cover a part of the barcode from the image; characterized by , obtaining information about a distortion level of the barcode in a region adjacent to each of the plurality of lines; determining at least one line for reading the barcode from among the plurality of lines, based on the obtained information; and reading the barcode based on the determined at least one line.