mhurhangee/ep-ind-claims huggingface dataset:
A method of processing a carbon fiber preform comprising: exposing the carbon fiber preform comprising carbonized oxidized PAN fibers to a nanoparticle dispersion comprising a nanoparticle and a dispersion medium; impregnating the nanoparticle into the carbon fiber preform, whereby the carbon fiber preform is converted into a doped carbon fiber preform; drying the doped carbon fiber preform at a first temperature whereby the dispersion medium is at least one of substantially removed or completely removed from the doped carbon fiber preform, the method further comprising densifying the doped carbon fiber preform, and characterised by the densifying step comprising thermal gradient CVI, and the method further comprising: placing the carbon fiber preform in a vacuum chamber; placing the nanoparticle dispersion in the vacuum chamber; and drawing an at least partial vacuum within the vacuum chamber by a vacuum source for a first duration of time and at a first vacuum pressure wherein the first duration of time is 30 minutes. exposing the carbon fiber preform comprising carbonized oxidized PAN fibers to a nanoparticle dispersion comprising a nanoparticle and a dispersion medium; impregnating the nanoparticle into the carbon fiber preform, whereby the carbon fiber preform is converted into a doped carbon fiber preform; drying the doped carbon fiber preform at a first temperature whereby the dispersion medium is at least one of substantially removed or completely removed from the doped carbon fiber preform, the method further comprising densifying the doped carbon fiber preform, and characterised by the densifying step comprising thermal gradient CVI, and the method further comprising: placing the carbon fiber preform in a vacuum chamber; placing the nanoparticle dispersion in the vacuum chamber; and drawing an at least partial vacuum within the vacuum chamber by a vacuum source for a first duration of time and at a first vacuum pressure wherein the first duration of time is 30 minutes. placing the carbon fiber preform in a vacuum chamber; placing the nanoparticle dispersion in the vacuum chamber; and drawing an at least partial vacuum within the vacuum chamber by a vacuum source for a first duration of time and at a first vacuum pressure wherein the first duration of time is 30 minutes.
A method of operating a V2X application enabler, VAE, server in a wireless communication network, the method comprising: establishing a tele-operated application layer driving session between the VAE server and a V2X application enabler,VAE, client device,; updating the tele-operated application layer driving session between the VAE server and the VAE client device; and terminating the tele-operated application layer driving session between the VAE server and the VAE client device, wherein establishing the tele-operated application layer driving session comprises sending, by the VAE server and to the VAE client device, a tele-operated driving request, wherein the tele-operated driving request comprises tele-operated service information, wherein the tele-operated service information comprises an identifier of a user equipment, UE, involved in the service, wherein the tele-operated driving request comprises tele-operated service requirements, wherein the tele-operated service requirements comprise Quality of Service, QoS, requirements comprising minimum required bitrate and/or maximum tolerated latency. establishing a tele-operated application layer driving session between the VAE server and a V2X application enabler,VAE, client device,; updating the tele-operated application layer driving session between the VAE server and the VAE client device; and terminating the tele-operated application layer driving session between the VAE server and the VAE client device,
A vessel processing system for coating of a vessel, the system comprising: a first processing station configured for performing a first processing of an interior surface of the vessel; a second processing station (5502, 24, 26, 28, 30) spaced from the first processing station and configured for performing a second processing of the interior surface of the vessel; a vessel holder comprising a vessel port configured to receive and seat an opening of the vessel for processing the interior surface of the seated vessel via the vessel port at the first processing station and at the second processing station, wherein the vessel holder comprises a vacuum duct for withdrawing a gas from an interior space of the seated vessel and a gas inlet port for conveying a gas into the interior space of the vessel; anda conveyor arrangement (70, 72, 74) for transporting the vessel holder and the seated vessel after the first processing from the first processing station to the second processing station for the second processing of the interior surface of the seated vessel at the second processing station. a first processing station configured for performing a first processing of an interior surface of the vessel; a second processing station (5502, 24, 26, 28, 30) spaced from the first processing station and configured for performing a second processing of the interior surface of the vessel; a vessel holder comprising a vessel port configured to receive and seat an opening of the vessel for processing the interior surface of the seated vessel via the vessel port at the first processing station and at the second processing station, wherein the vessel holder comprises a vacuum duct for withdrawing a gas from an interior space of the seated vessel and a gas inlet port for conveying a gas into the interior space of the vessel; anda conveyor arrangement (70, 72, 74) for transporting the vessel holder and the seated vessel after the first processing from the first processing station to the second processing station for the second processing of the interior surface of the seated vessel at the second processing station.
A method for processing data packets received at a wireless communications device (104, 105) into a desired order, the method comprising: decoding a plurality of data packets received over a plurality of wireless transmission channels at the wireless communications device (104, 105), each data packet associated with a packet group; collecting complete and incomplete packet groups (502, 504, 506, 508) received over each wireless transmission channel in a buffer arrangement; identifying sequence gaps in the plurality of data packets; inserting later received data packets (510, 512) into the proper sequence gap within the associated incomplete packet groups (502, 504, 506, 508) maintained in the buffer arrangement to complete the incomplete packet groups (502, 504, 506, 508) and minimize sequence gaps in the data packets; and sending complete and completed packet groups (502, 504, 506, 508) and later received data packets (510, 512) not sequenced from the buffer arrangement to a resequencer after a predetermined amount of time has lapsed. decoding a plurality of data packets received over a plurality of wireless transmission channels at the wireless communications device (104, 105), each data packet associated with a packet group; collecting complete and incomplete packet groups (502, 504, 506, 508) received over each wireless transmission channel in a buffer arrangement; identifying sequence gaps in the plurality of data packets; inserting later received data packets (510, 512) into the proper sequence gap within the associated incomplete packet groups (502, 504, 506, 508) maintained in the buffer arrangement to complete the incomplete packet groups (502, 504, 506, 508) and minimize sequence gaps in the data packets; and sending complete and completed packet groups (502, 504, 506, 508) and later received data packets (510, 512) not sequenced from the buffer arrangement to a resequencer after a predetermined amount of time has lapsed.
A method of decoding video data comprising: receiving a coded slice, the coded slice being an encoded form of a slice of a picture in the video data, the slice including a first sub-slice and a second sub-slice, the coded slice comprising a first coded sub-slice and a second coded sub-slice that correspond to the first sub-slice and the second sub-slice respectively, wherein the first and second coded sub-slices are encoded such that the first and second sub-slices can be parsed independently of each other and can be reconstructed independently of each other; parsing the first and second sub-slices in parallel, wherein parsing the first and second sub-slices comprises using position signaling data to extract the first and second coded sub-slices from the coded slice, wherein the position signaling data indicates byte sizes of the first and second coded sub-slices, wherein the position signaling data is interleaved into the slice data between coded sub-slices; and reconstructing the first and second sub-slices by entropy decoding the first and second sub-slices in parallel. receiving a coded slice, the coded slice being an encoded form of a slice of a picture in the video data, the slice including a first sub-slice and a second sub-slice, the coded slice comprising a first coded sub-slice and a second coded sub-slice that correspond to the first sub-slice and the second sub-slice respectively, wherein the first and second coded sub-slices are encoded such that the first and second sub-slices can be parsed independently of each other and can be reconstructed independently of each other; parsing the first and second sub-slices in parallel, wherein parsing the first and second sub-slices comprises using position signaling data to extract the first and second coded sub-slices from the coded slice, wherein the position signaling data indicates byte sizes of the first and second coded sub-slices, wherein the position signaling data is interleaved into the slice data between coded sub-slices; and reconstructing the first and second sub-slices by entropy decoding the first and second sub-slices in parallel.
A communication control device comprising: a communication status grasping unit configured to grasp a communication status of wireless communication of image information between an image shooting device and a surgical site image information acquiring unit on the basis of an operating room image showing a situation of an operating room, the image shooting device capturing an image of a surgical site of a patient, the surgical site image information acquiring unit acquiring information on a surgical site image captured by the image shooting device for display control of the surgical site image; and a communication method deciding unit configured to decide a communication method between the image shooting device and the surgical site image information acquiring unit on the basis of the grasped communication status; wherein the communication status grasping unit grasps stability of communication in communication paths between the image shooting device and the surgical site image information acquiring unit as the communication status, and the communication method deciding unit selects, as the communication method, a communication path that allows for more stable communication from the communication paths. a communication status grasping unit configured to grasp a communication status of wireless communication of image information between an image shooting device and a surgical site image information acquiring unit on the basis of an operating room image showing a situation of an operating room, the image shooting device capturing an image of a surgical site of a patient, the surgical site image information acquiring unit acquiring information on a surgical site image captured by the image shooting device for display control of the surgical site image; and a communication method deciding unit configured to decide a communication method between the image shooting device and the surgical site image information acquiring unit on the basis of the grasped communication status; wherein the communication status grasping unit grasps stability of communication in communication paths between the image shooting device and the surgical site image information acquiring unit as the communication status, and the communication method deciding unit selects, as the communication method, a communication path that allows for more stable communication from the communication paths.
Auxiliary device for calibrating an optical measuring arrangement that can be mounted on a manipulator, wherein the auxiliary device comprises a fastening region for fixing the auxiliary device with respect to the optical measuring arrangement, and comprises a sensor target that is arranged in such a manner on the auxiliary device that when the auxiliary device is in the assembled state said sensor target lies with the optical measuring arrangement in a measuring space of the optical sensor, wherein the auxiliary device is provided with reference marks.
A dose setting device for an injection device comprising an actuating or adjusting element for adjusting and dispensing a dose from an injection device, an advance element for producing an advance movement for dispensing a dose, a coupling with which the actuating or adjusting element and the advance element can be coupled for delivery of the dose adjusted with the actuating or adjusting element in such a way that a rotary movement or dispensing movement of the actuating or adjusting element is transmitted directly to the advance element, a restricting element for restricting the overall dose which can be adjusted at a maximum in an injection device, wherein the actuating or adjusting element is so coupled to the restricting element that the restricting element moves in a movement of the actuating or adjusting element from a starting position within the dose setting device in a direction towards a restriction or an abutment for blocking the movement of the restricting element in order thereby to block the movement of the actuating or adjusting element in an adjusting direction and the restricting element is so coupled to the adjusting element that the restricting element moves back into the starting position relative to the dose setting device upon delivery of the adjusted dose, a reverse rotation-preventing means for the advance element to permit rotation of the advance element in one direction and to block it in the opposite direction, and wherein a threaded rod serves as the advance element and the dose setting device further includes a further thread guide for the threaded rod, so that an axial movement of the actuating or adjusting element is greater than an axial movement of the advance element or is stepped up or stepped down, characterised in that the reverse rotation-preventing means is axially non-displaceably coupled to the restricting element so that the restricting element entrains the reverse rotation-preventing means in a movement in the axial direction and a relative rotation between the restricting element and the reverse rotation-preventing means is possible so that clicking noises are produced in that relative rotation.
A computer implemented method for operating on a target function to provide computer code instructions configured to implement automatic adjoint differentiation of the target function, the method comprising: determining, based on the target function, a linearized computational map, LCM, of the target function wherein each node of the LCM comprises an elementary operation; defining an active data type; for each node of the LCM forming computer code instructions by providing overloaded operators for the elementary operations wherein the output of the overloaded operators enacted on an active data type variable comprises computer code instructions configured to: (i) compute intermediate data associated with a forward function of an automatic adjoint differentiation algorithm; and, (ii) increment, according to the automatic adjoint differentiation algorithm, adjoint variables of the preceding connected nodes of the each node in dependence on intermediate data; wherein forming computer code instructions for both step (i) and step (ii) for each node is performed prior to performing said steps for a subsequent node of the LCM so that the computer code instructions are produced as a stream one node at a time with the instructions for the forward and reverse functions of the automatic adjoint algorithm created in parallel. determining, based on the target function, a linearized computational map, LCM, of the target function wherein each node of the LCM comprises an elementary operation; defining an active data type; for each node of the LCM forming computer code instructions by providing overloaded operators for the elementary operations wherein the output of the overloaded operators enacted on an active data type variable comprises computer code instructions configured to: (i) compute intermediate data associated with a forward function of an automatic adjoint differentiation algorithm; and, (ii) increment, according to the automatic adjoint differentiation algorithm, adjoint variables of the preceding connected nodes of the each node in dependence on intermediate data; (i) compute intermediate data associated with a forward function of an automatic adjoint differentiation algorithm; and, (ii) increment, according to the automatic adjoint differentiation algorithm, adjoint variables of the preceding connected nodes of the each node in dependence on intermediate data; wherein forming computer code instructions for both step (i) and step (ii) for each node is performed prior to performing said steps for a subsequent node of the LCM so that the computer code instructions are produced as a stream one node at a time with the instructions for the forward and reverse functions of the automatic adjoint algorithm created in parallel.
A method of processing an optical fiber comprising the steps of: drawing the fiber at a drawing rate of at least 30 m/sec; cooling the fiber at a first cooling rate; cooling the fiber in a gas at an average cooling rate less than 5000 °C/s, such that said cooling reduces the temperature of the fiber from an entering temperature in the range between 1500 °C and 1700 °C to another temperature in the range between 1200 °C and 1400 °C; characterized in that the gas is at a temperature between 800 °C and 1500 °C; and the thermal conductivity κ of the gas being not greater than 1.5×10 -4 cal.cm -1.s -1.K -1 for at least one temperature within a range of 800 °C to 1500 °C at 1 atm pressure absolute, and the first cooling rate is greater than 5000 °C/s, said cooling at said first cooling rate reducing said fiber temperature from a first temperature T 1 to a second temperature T 2, such that T 2 < T 1, said first temperature T 1 being in the range from 1800 °C to 2100 °C and said second temperature T 2, being in the range from 1600 °C to 1800 °C; and wherein said entrance temperature ≤ T 2.. drawing the fiber at a drawing rate of at least 30 m/sec; cooling the fiber at a first cooling rate; cooling the fiber in a gas at an average cooling rate less than 5000 °C/s, such that said cooling reduces the temperature of the fiber from an entering temperature in the range between 1500 °C and 1700 °C to another temperature in the range between 1200 °C and 1400 °C; characterized in that the gas is at a temperature between 800 °C and 1500 °C; and the thermal conductivity κ of the gas being not greater than 1.5×10 -4 cal.cm -1.s -1.K -1 for at least one temperature within a range of 800 °C to 1500 °C at 1 atm pressure absolute, and the first cooling rate is greater than 5000 °C/s, said cooling at said first cooling rate reducing said fiber temperature from a first temperature T 1 to a second temperature T 2, such that T 2 < T 1, said first temperature T 1 being in the range from 1800 °C to 2100 °C and said second temperature T 2, being in the range from 1600 °C to 1800 °C; and wherein said entrance temperature ≤ T 2..
A flow field component for a fuel cell comprising first and second layers each having at least one of a flow channel and a flow channel connection formation, the channel and formation being connected to provide a flow path traversing said first and second layers; characterised in that a flow channel communicates at one end with the end of a subsequent flow channel via a flow channel connection formation, wherein the first layer comprises flow channels and the second layer comprises flow channel connection formations, the flow field component further comprising a third layer comprising flow channels, in which the second layer is provided between the first and third layers.
An electrically conductive paper structure having electrodes formed from an electrically conducting ink, wherein the ink is substantially absorbed into the electrically conductive paper structure so that there is no substantial increase in the thickness of the paper wherein the increase in the thickness of the paper due to the presence of the ink is less than 50 urn, a substantial part of the ink being located within the paper is greater than 50 % of the ink, and the electrodes are embedded within the paper structure to a depth of 10 urn to 80 μm. the increase in the thickness of the paper due to the presence of the ink is less than 50 urn, a substantial part of the ink being located within the paper is greater than 50 % of the ink, and the electrodes are embedded within the paper structure to a depth of 10 urn to 80 μm.
A rotary button system for use in a domestic apparatus, comprising: - a ferromagnetic plate; - a rotary button removably mountable at a predefined first distance (dm) from said ferromagnetic plate on a first side of said plate, and rotatable about a virtual rotation axis substantially perpendicular to said plate, and comprising a permanent magnet magnetised in a direction (X, Y) substantially perpendicular to said rotation axis; - a magnetic sensor device mounted at a predefined second distance (ds) from said ferromagnetic plate on a second side of said plate opposite the first side; - and wherein the magnetic sensor device comprises at least one magnetic sensor for measuring at least one magnetic field component (By) and is configured for determining an angular position (α) of the rotary button based on said at least one magnetic field component (By), and/or wherein the magnetic sensor device comprises at least two magnetic sensors, and is configured for determining at least one magnetic field gradient (dBx/dx), and is configured for determining an angular position (α) of the rotary button based on said at least one magnetic field gradient. - a ferromagnetic plate; - a rotary button removably mountable at a predefined first distance (dm) from said ferromagnetic plate on a first side of said plate, and rotatable about a virtual rotation axis substantially perpendicular to said plate, and comprising a permanent magnet magnetised in a direction (X, Y) substantially perpendicular to said rotation axis; - a magnetic sensor device mounted at a predefined second distance (ds) from said ferromagnetic plate on a second side of said plate opposite the first side; - and wherein the magnetic sensor device comprises at least one magnetic sensor for measuring at least one magnetic field component (By) and is configured for determining an angular position (α) of the rotary button based on said at least one magnetic field component (By), and/or wherein the magnetic sensor device comprises at least two magnetic sensors, and is configured for determining at least one magnetic field gradient (dBx/dx), and is configured for determining an angular position (α) of the rotary button based on said at least one magnetic field gradient.
A crystalline form C of LNT, characterized in that it displays X-ray powder diffraction reflections, based on a measurement using CuKα radiation, at 20.22, 9.36, 19.80, 20.47 and 4.67 ± 0.2 2Θ angles, wherein the crystalline LNT polymorph contains less than 10 w/w% of impurity.