mhurhangee/ep-ind-claims huggingface dataset:
A monitoring system for a vehicle, comprising: a housing rotatable relative to said vehicle between a horizontal position and a vertical position; a mirror assembly coupled to the housing, wherein the mirror assembly includes a rearview mirror having a reflective field of view, and wherein the reflective field of view when the housing is in the horizontal position is different than the reflective field of view when the housing is in the vertical position; an imager disposed between the housing and the mirror assembly, wherein the imager captures image data within a field of view, wherein the field of view of the imager is the same when the housing is in the horizontal position and the vertical position, wherein the housing defines an arced aperture, wherein the imager is disposed within the arced aperture, and wherein a position of the imager within the arced aperture changes based on a position of the housing; a controller communicatively coupled to the imager, wherein the controller receives captured image data from the imager; and a display assembly communicatively coupled to the controller, wherein the controller converts the image data for display on the display assembly. a housing rotatable relative to said vehicle between a horizontal position and a vertical position; a mirror assembly coupled to the housing, wherein the mirror assembly includes a rearview mirror having a reflective field of view, and wherein the reflective field of view when the housing is in the horizontal position is different than the reflective field of view when the housing is in the vertical position; an imager disposed between the housing and the mirror assembly, wherein the imager captures image data within a field of view, wherein the field of view of the imager is the same when the housing is in the horizontal position and the vertical position, wherein the housing defines an arced aperture, wherein the imager is disposed within the arced aperture, and wherein a position of the imager within the arced aperture changes based on a position of the housing; a controller communicatively coupled to the imager, wherein the controller receives captured image data from the imager; and a display assembly communicatively coupled to the controller, wherein the controller converts the image data for display on the display assembly.
A picture-in-picture display control method for a mobile terminal that is capable of digital broadcast reception and supports a touch screen function, the method comprising: processing a received digital broadcast signal into channel signals of individual channels, displaying video data of a selected channel signal on a main screen occupying an entire display area, and displaying video data of another selected channel signal on a sub-screen in the main screen; checking whether a touch event occurs to at least one of the main screen and the sub-screen; displaying control icons (35, 37, 45, 47) on one of the touched main screen and the touched sub-screen when a touch event occurs to at least one of the main screen and the sub-screen; and controlling (S69, S73) digital broadcasts on channels associated with the main screen and sub-screen in response to occurrence of touch events to the control icons (35, 37, 45, 47). processing a received digital broadcast signal into channel signals of individual channels, displaying video data of a selected channel signal on a main screen occupying an entire display area, and displaying video data of another selected channel signal on a sub-screen in the main screen; checking whether a touch event occurs to at least one of the main screen and the sub-screen; displaying control icons (35, 37, 45, 47) on one of the touched main screen and the touched sub-screen when a touch event occurs to at least one of the main screen and the sub-screen; and controlling (S69, S73) digital broadcasts on channels associated with the main screen and sub-screen in response to occurrence of touch events to the control icons (35, 37, 45, 47).
A method, comprising: coupling an electrical cable, comprising multiple wires, to circuitry comprising a resistor bank by coupling first ends of the wires to respective first resistors, and second ends of the wires to respective second resistors,; applying an input voltage to the circuitry including the cable; measuring a gain of the circuitry including the cable; based on the measured gain, identifying one or more of the wires in the cable that are defective; and outputting an indication of the defective wires; wherein the resistor values in the resistor bank are chosen so that each expected defect in the electrical cable will translate to a different value of the measured gain. coupling an electrical cable, comprising multiple wires, to circuitry comprising a resistor bank by coupling first ends of the wires to respective first resistors, and second ends of the wires to respective second resistors,; applying an input voltage to the circuitry including the cable; measuring a gain of the circuitry including the cable; based on the measured gain, identifying one or more of the wires in the cable that are defective; and outputting an indication of the defective wires; wherein the resistor values in the resistor bank are chosen so that each expected defect in the electrical cable will translate to a different value of the measured gain.
A method of providing space division multiple access in a wireless network, comprising: transmitting plural beams (104, 106) within a cell segment; sending different information sets in the corresponding plural beams (104, 106), wherein one or more of the information sets are detectable by a mobile station depending upon a location of the mobile station in the cell segment; receiving an indication responsive to which of the different information sets is detected by the mobile station; receiving a sounding reference signal from the mobile station; determining the beam for which the mobile station transmitted the sounding reference signal; and performing beam selection from among the plural beams (104, 106) according to the received indication and the determined beam. transmitting plural beams (104, 106) within a cell segment; sending different information sets in the corresponding plural beams (104, 106), wherein one or more of the information sets are detectable by a mobile station depending upon a location of the mobile station in the cell segment; receiving an indication responsive to which of the different information sets is detected by the mobile station; receiving a sounding reference signal from the mobile station; determining the beam for which the mobile station transmitted the sounding reference signal; and performing beam selection from among the plural beams (104, 106) according to the received indication and the determined beam.
Method for operating at partial load a gas turbine which comprises a compressor for providing compressor air, a combustion chamber provided with a burner, and an expansion turbine, a bypass flow channel furthermore being provided, which is configured in order to deliver compressor air past the burner and to a hot gas flow generated in the combustion chamber during gas turbine operation, and the opening cross section of the bypass flow channel furthermore being adjustable by a setting means, which comprises the following steps: 1) operating the gas turbine at partial load; 2) adjusting the opening cross section of the bypass flow channel so that the variation rate of the opening cross section is selected in such a way that the relative combustion chamber pressure loss (ΔBDV) or a material temperature of the combustion chamber does not vary by more than 10% wherein the relative combustion chamber pressure loss (ΔBDV) is determined as the ratio of the combustion chamber differential pressure and the compressor final pressure, wherein the combustion chamber differential pressure by a difference of two static pressures, which are determined before the burner, or in the region of the burner, and within the combustion chamber, for instance at the end of the combustion zone, characterized in that a first method for operating the gas turbine at partial load with the following steps is carried out during a first time period: 3) operating the gas turbine at partial load; 4) adjusting the opening cross section of the bypass flow channel so that the variation rate of the opening cross section is selected in such a way that the primary zone temperature does not vary by more than 10%, wherein the primary zone temperature is an average temperature determined from the energy balance around the burner and flame, and in that a second method according to steps 1) and 2) is carried out during a second time period, in particular with the second time period directly following the first time period. 1) operating the gas turbine at partial load; 2) adjusting the opening cross section of the bypass flow channel so that the variation rate of the opening cross section is selected in such a way that the relative combustion chamber pressure loss (ΔBDV) or a material temperature of the combustion chamber does not vary by more than 10% wherein the relative combustion chamber pressure loss (ΔBDV) is determined as the ratio of the combustion chamber differential pressure and the compressor final pressure, wherein the combustion chamber differential pressure by a difference of two static pressures, which are determined before the burner, or in the region of the burner, and within the combustion chamber, for instance at the end of the combustion zone, 3) operating the gas turbine at partial load; 4) adjusting the opening cross section of the bypass flow channel so that the variation rate of the opening cross section is selected in such a way that the primary zone temperature does not vary by more than 10%, wherein the primary zone temperature is an average temperature determined from the energy balance around the burner and flame,
A recombinant protein having N-acetylglucosaminyltransferase activity, wherein the recombinant protein catalyzes the transfer of N-acetylglucosamine to a terminal Manα3 residue and catalyzes the transfer of N-acetylglucosamine to a terminal Manα6 residue of an acceptor glycan, and wherein the recombinant protein comprises a catalytic domain from at least two different enzymes.
Textile tool comprising a working section that is configured for acting on a thread and/or for guiding a thread, having a tool core consisting of a core material, having a wear protection layer applied on the tool core at least in the working section of the textile tool, and having an indicator layer that can be distinguished by color from the wear protection layer and that is provided between the tool core and the wear protection layer in at least one indicator zone in the working section, characterized in that the indicator layer can be distinguished by color from the tool core. having a tool core consisting of a core material, having a wear protection layer applied on the tool core at least in the working section of the textile tool, and having an indicator layer that can be distinguished by color from the wear protection layer and that is provided between the tool core and the wear protection layer in at least one indicator zone in the working section, characterized in that the indicator layer can be distinguished by color from the tool core.
A computer-implemented method in a user device, comprising: storing a plurality of credentials policies at the user device; merging the credentials policies by the user device to generate a merged credentials policy; receiving an instruction from a trusted service that is external to the user device, subsequent to storing and merging the plurality of credentials policies, to initiate a device credentials change; and generating, at the user device, a new device credentials to allow a user of the user device to access the user device based at least on the merged credentials policy. storing a plurality of credentials policies at the user device; merging the credentials policies by the user device to generate a merged credentials policy; receiving an instruction from a trusted service that is external to the user device, subsequent to storing and merging the plurality of credentials policies, to initiate a device credentials change; and generating, at the user device, a new device credentials to allow a user of the user device to access the user device based at least on the merged credentials policy.
A method for mitigating unintended operation of in-vehicle controls comprising: receiving data or signals from one or more sensors that track vehicle direction and/or dynamic state at a processor; analyzing the received data or signals at the processor to determine when one or more criteria are met; determining that an identified state of the vehicle is occurring responsive to the analysis of the processor determining that the one or more criteria are met; and modifying, under instruction from the processor, responses to one or more vehicle controls when the identified state of the vehicle is determined to be occurring, characterized in that modifying responses to one or more vehicle controls comprises requiring a longer time duration of operation of the one or more vehicle controls to activate one or more corresponding functions. receiving data or signals from one or more sensors that track vehicle direction and/or dynamic state at a processor; analyzing the received data or signals at the processor to determine when one or more criteria are met; determining that an identified state of the vehicle is occurring responsive to the analysis of the processor determining that the one or more criteria are met; and modifying, under instruction from the processor, responses to one or more vehicle controls when the identified state of the vehicle is determined to be occurring, characterized in that modifying responses to one or more vehicle controls comprises requiring a longer time duration of operation of the one or more vehicle controls to activate one or more corresponding functions.
An assembly for a turbine engine, the assembly comprising: a combustor wall (76, 78) including a shell, a heat shield and an annular body engaged with the shell and the heat shield; the annular body extending through the combustor wall (76, 78) and at least partially defining a quench aperture along a centerline through the combustor wall (76, 78), and a cooling aperture in fluid communication with the quench aperture; wherein at least a portion of the cooling aperture extends radially outward from the quench aperture relative to the centerline; wherein the annular body extends vertically to an exterior surface and laterally to an inner surface that at least partially defines the quench aperture, and the cooling aperture extends through the body between the exterior surface and the inner surface; characterised in that: the body includes a shelf surface; and the inner surface and the shelf surface define a peripheral inner channel in the body. a combustor wall (76, 78) including a shell, a heat shield and an annular body engaged with the shell and the heat shield; the annular body extending through the combustor wall (76, 78) and at least partially defining a quench aperture along a centerline through the combustor wall (76, 78), and a cooling aperture in fluid communication with the quench aperture; wherein at least a portion of the cooling aperture extends radially outward from the quench aperture relative to the centerline; wherein the annular body extends vertically to an exterior surface and laterally to an inner surface that at least partially defines the quench aperture, and the cooling aperture extends through the body between the exterior surface and the inner surface; characterised in that: the body includes a shelf surface; and the inner surface and the shelf surface define a peripheral inner channel in the body. the body includes a shelf surface; and the inner surface and the shelf surface define a peripheral inner channel in the body.
A power electronic converter, for use in high voltage direct current power transmission and reactive power compensation, comprising at least one converter limb (22a, 22b, 22c) including first and second terminals (24, 26) being connectable to a DC network and a third terminal, the or each converter limb (22a, 22b, 22c) defining first and second limb portions (34, 36) connected in series between the third terminal and a respective one of the first and second terminals (24, 26), each limb portion (34, 36) including a chain-link converter, each chain-link converter including a plurality of modules connected in series, each module including at least one primary switching element connected to at least one energy storage device, the converter being configured to control the or each converter limb (22a, 22b, 22c) to simultaneously switch both limb portions (34, 36) into circuit to selectively define a circulation path carrying an AC circulation current for presentation to the DC network to minimise DC ripple in a DC voltage presented to the DC network.
A method for filling a container with a pourable product by means of a modulating valve provided with a shutter movable through a plurality of positions; the method comprising the steps of: - getting a first current value of a first quantity indicative of the position of said shutter; - getting a second current value of a second quantity indicative of a pressure of said pourable product; - controlling the position of said shutter based on a third current value indicative of an actual flow rate of said pourable product flowing through said valve; the method further comprising the steps of: - providing a first relation (R1; T1) between values of said second quantity and respective values of a reference flow rate of said pourable product flowing through said valve when said shutter is at a given reference position; - providing a second relation (R2; T2) between values of said first quantity and respective values of a parameter, being defined by a ratio between said actual flow rate and said reference flow rate and being invariant with respect to pressure variations; - determining a fourth current value of said parameter through said second relation (R2; T2) according to said first current value; - determining a fifth current value of said reference flow rate through said first relation (R1; T1) according to said second current value; and - computing said third current value from said fourth current value and said fifth current value. - getting a first current value of a first quantity indicative of the position of said shutter; - getting a second current value of a second quantity indicative of a pressure of said pourable product; - controlling the position of said shutter based on a third current value indicative of an actual flow rate of said pourable product flowing through said valve; - providing a first relation (R1; T1) between values of said second quantity and respective values of a reference flow rate of said pourable product flowing through said valve when said shutter is at a given reference position; - providing a second relation (R2; T2) between values of said first quantity and respective values of a parameter, being defined by a ratio between said actual flow rate and said reference flow rate and being invariant with respect to pressure variations; - determining a fourth current value of said parameter through said second relation (R2; T2) according to said first current value; - determining a fifth current value of said reference flow rate through said first relation (R1; T1) according to said second current value; and - computing said third current value from said fourth current value and said fifth current value.
Method for verifying the adjustment of a leg prosthesis which has a prosthetic knee joint, which pivotably interconnects an upper connection, for fixing the leg prosthesis on a wearer of the prosthesis, and a lower leg shaft, to which a prosthetic foot is fastened, the upper connection being displaceable in relation to a joint axis of the prosthetic knee joint, characterized in that a knee moment (M K) and an axial force (F AX) are measured by means of sensors (10, 11, 37) when a prosthesis is being used and are used to calculate a resultant force vector (F R) and in that the normal distance (λ) relative to the joint axis and the position of the resultant force vector in relation to the joint axis is calculated and it is verified whether and to what extent the resultant force vector (F R) lies in front of or behind the joint axis in the sagittal plane.
A vehicle or other movable device comprising data processor means configured to: determine zoom tiles on a grid and determine at least one zoom tile that has at least one obstacle on a path of travel to be followed by the vehicle or other moveable device, divide the determined at least one zoom tile into smaller zoom tiles and determine at least one of the smaller zoom tiles with at least one obstacle, repeat the dividing until a predefined smallest zoom tile size is reached, determine an initial path past the at least one obstacle within at least one zoom tile of the predefined smallest zoom tile size, between a first point (An) and a second point (Bn) using a path finding algorithm, wherein the initial path comprises at least two turn points between the first point and the second point, determine whether a straight line between two of the points and bypassing at least one of the turn points intersects the obstacle, and determine a straightened path of travel, within the at least one zoom tile of the predefined smallest zoom tile size, in response to determination that the straight line between two of the points and bypassing the at least one of the turn points does not intersect the obstacle by removing the at least one bypassed turn point from the initial path. determine zoom tiles on a grid and determine at least one zoom tile that has at least one obstacle on a path of travel to be followed by the vehicle or other moveable device, divide the determined at least one zoom tile into smaller zoom tiles and determine at least one of the smaller zoom tiles with at least one obstacle, repeat the dividing until a predefined smallest zoom tile size is reached, determine an initial path past the at least one obstacle within at least one zoom tile of the predefined smallest zoom tile size, between a first point (An) and a second point (Bn) using a path finding algorithm, wherein the initial path comprises at least two turn points between the first point and the second point, determine whether a straight line between two of the points and bypassing at least one of the turn points intersects the obstacle, and determine a straightened path of travel, within the at least one zoom tile of the predefined smallest zoom tile size, in response to determination that the straight line between two of the points and bypassing the at least one of the turn points does not intersect the obstacle by removing the at least one bypassed turn point from the initial path.