mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for operating an autonomous driving vehicle, the method comprising: operating in an on-lane mode, including determining lane configuration associated with a current lane (508, 608) based on lane marking, and planning a trajectory based on the lane configuration; and in response to a request for a U-turn, switching to an open-space mode, while operating in the open-space mode, performing a three-point turn to generate forward and reverse movements of the ADV to position the ADV within a threshold heading and a threshold distance relative to a target driving lane (508, 610), wherein the threshold heading is an angle (θ) between the ADV heading and the target driving lane (508, 610), and the threshold distance is a distance between the ADV and the target driving lane (508, 610), and determining whether the vehicle is within the threshold distance and also the relative heading to the target driving lane, and as soon as these conditions are fulfilled returning to the on-lane mode for the ADV to complete the U-turn, so that the ADV drives away from a dead-end along the target driving lane (508, 610). operating in an on-lane mode, including determining lane configuration associated with a current lane (508, 608) based on lane marking, and planning a trajectory based on the lane configuration; and determining lane configuration associated with a current lane (508, 608) based on lane marking, and planning a trajectory based on the lane configuration; and in response to a request for a U-turn, switching to an open-space mode, while operating in the open-space mode, performing a three-point turn to generate forward and reverse movements of the ADV to position the ADV within a threshold heading and a threshold distance relative to a target driving lane (508, 610), wherein the threshold heading is an angle (θ) between the ADV heading and the target driving lane (508, 610), and the threshold distance is a distance between the ADV and the target driving lane (508, 610), and determining whether the vehicle is within the threshold distance and also the relative heading to the target driving lane, and as soon as these conditions are fulfilled returning to the on-lane mode for the ADV to complete the U-turn, so that the ADV drives away from a dead-end along the target driving lane (508, 610). operating in the open-space mode, performing a three-point turn to generate forward and reverse movements of the ADV to position the ADV within a threshold heading and a threshold distance relative to a target driving lane (508, 610), wherein the threshold heading is an angle (θ) between the ADV heading and the target driving lane (508, 610), and the threshold distance is a distance between the ADV and the target driving lane (508, 610), and determining whether the vehicle is within the threshold distance and also the relative heading to the target driving lane, and as soon as these conditions are fulfilled returning to the on-lane mode for the ADV to complete the U-turn, so that the ADV drives away from a dead-end along the target driving lane (508, 610).
Composite particles comprising a photolabile antidandruff agent and an organic UV filter whose melting point is from 30°C to 105°C, characterized in that said composite particles comprise a cationic polymer having weight average molecular weight of 1000 Da to 10000000 Da.
A method for controlling a resonant device (102, 305): I) outputting an enable signal to enable an amplifier (101, 512), the amplifier in communication with the resonant device and configured to drive the resonant device; II) outputting a logic signal in a first logic state to a signal inverter, the logic signal configured to be toggled between two logic states; III) generating a device signal having a frequency approximate to the resonance frequency of the device, the device signal being configured to drive the resonant device at approximately the resonance frequency of the resonant device; IV) generating a device magnitude signal, the device magnitude signal configured to specify the magnitude at which to drive the resonant device;a the method being characterized in V) transmitting the device signal, as a substantially sinusoidal wave, and the device magnitude signal to the amplifier; VI) toggling the logic signal to a second logic state; and, VII) transmitting the logic signal in the second logic state to the signal inverter to invert the device signal to cause a braking force on the resonant device. I) outputting an enable signal to enable an amplifier (101, 512), the amplifier in communication with the resonant device and configured to drive the resonant device; II) outputting a logic signal in a first logic state to a signal inverter, the logic signal configured to be toggled between two logic states; III) generating a device signal having a frequency approximate to the resonance frequency of the device, the device signal being configured to drive the resonant device at approximately the resonance frequency of the resonant device; IV) generating a device magnitude signal, the device magnitude signal configured to specify the magnitude at which to drive the resonant device;a the method being characterized in V) transmitting the device signal, as a substantially sinusoidal wave, and the device magnitude signal to the amplifier; VI) toggling the logic signal to a second logic state; and, VII) transmitting the logic signal in the second logic state to the signal inverter to invert the device signal to cause a braking force on the resonant device.
A sealing element for sealing a housing opening in a housing, wherein the sealing element has at least one passage opening for the leading through of an electrical line into the housing, the sealing element is formed by a first part element and a second part element, wherein the first part element is at least partly covered by the second part element, wherein the first part element and the second part element have a different hardness, wherein the first part element has a greater hardness than the second part element, characterized in that both part elements (14, 16) are composed of silicone, with the first part element and the second part element being non-releasably connected to one another.
Method for the production of a semi-finished product or component, in which a hardenable coating (6, 17) with fiber-reinforced plastic is applied to a metal support, particularly a sheet metal, and the coated metal support is formed, particularly deep-drawn or bent, in a further step, to produce a semi-finished product or component, characterized in that the metal support is coated at most in certain regions, and is only subjected to forming once its coating (6, 17) has hardened to form at least a block-resistant surface, wherein the coated metal support is formed in such a manner that its plastic changes in shape, which follow forming radii, form essentially, preferably exclusively, in its coating-free regions.
A surgical device, comprising: a tube; a cutting blade movable between a first position in which said cutting blade is concealed inside said tube and a second position in which said cutting blade is exposed through a sidewall of said tube; and a clutch assembly mounted to said tube and configured to move said cutting blade between said first position and said second position in response to rotational movement of a portion of said clutch assembly; characterized in further comprising a deflection pin configured to deflect said cutting blade radially outward to said second position. a tube; a cutting blade movable between a first position in which said cutting blade is concealed inside said tube and a second position in which said cutting blade is exposed through a sidewall of said tube; and a clutch assembly mounted to said tube and configured to move said cutting blade between said first position and said second position in response to rotational movement of a portion of said clutch assembly; characterized in further comprising a deflection pin configured to deflect said cutting blade radially outward to said second position.
A force sensor, comprising: a first surface and a second surface facing each other in a first direction (Z1, Z2); a first protrusion protruded from the first surface toward the second surface; a first electrode on the first protrusion; a first force sensing layer on the first electrode; a second protrusion protruded from the second surface toward the first surface; and a second electrode on the second protrusion, wherein the first protrusion and the second protrusion are not overlapped with each other or are partially overlapped with each other, wherein a center of the first protrusion is spaced apart from a center of the second protrusion in a second direction (X1, X2) perpendicular to the first direction, the force sensor further comprising: a first opening on the first surface, wherein the first electrode and the first force sensing layer are not disposed in the first opening; a second opening on the second surface, wherein the second electrode is not disposed in the second opening, wherein the center of the second protrusion overlaps with the first opening, and the center of the first protrusion overlaps with the second opening; and wherein the first protrusion is spaced apart from the second surface and the second protrusion is spaced apart from the first surface when the force sensor is not pressed. a first surface and a second surface facing each other in a first direction (Z1, Z2); a first protrusion protruded from the first surface toward the second surface; a first electrode on the first protrusion; a first force sensing layer on the first electrode; a second protrusion protruded from the second surface toward the first surface; and a second electrode on the second protrusion, wherein the first protrusion and the second protrusion are not overlapped with each other or are partially overlapped with each other, wherein a center of the first protrusion is spaced apart from a center of the second protrusion in a second direction (X1, X2) perpendicular to the first direction, the force sensor further comprising: a first opening on the first surface, wherein the first electrode and the first force sensing layer are not disposed in the first opening; a second opening on the second surface, wherein the second electrode is not disposed in the second opening, wherein the center of the second protrusion overlaps with the first opening, and the center of the first protrusion overlaps with the second opening; and wherein the first protrusion is spaced apart from the second surface and the second protrusion is spaced apart from the first surface when the force sensor is not pressed. a first opening on the first surface, wherein the first electrode and the first force sensing layer are not disposed in the first opening; a second opening on the second surface, wherein the second electrode is not disposed in the second opening, wherein the center of the second protrusion overlaps with the first opening, and the center of the first protrusion overlaps with the second opening; and wherein the first protrusion is spaced apart from the second surface and the second protrusion is spaced apart from the first surface when the force sensor is not pressed.
A height-adjustable support for a vehicle, in particular a semi-trailer, having an outer support pipe, which can be mounted on the vehicle in a fixed manner, an inner support pipe which is displaceably supported in the outer support pipe and which can be deployed out of the outer support pipe and retracted into the outer support pipe by means of a drive spindle, a gear unit which is arranged in the outer support pipe and a drive unit for driving the gear unit for moving the inner support pipe relative to the outer support pipe, wherein the drive unit has a motor which is arranged outside the cross section of the outer support pipe and a transmission unit, and wherein a rotation axis which is defined by the motor shaft of the motor extends outside the outer support pipe and the transmission unit is configured to transmit a torque from the motor shaft to the gear unit which is arranged in the outer support pipe, characterized in that the transmission unit has a housing and a drive pinion which protrudes out of the housing and which engages in the gear unit which is arranged in the outer support pipe.
A computer-implemented method for an X-ray imaging system, the method comprising: causing a graphical representation of a movable support couch of the X-ray imaging system to be displayed, wherein the graphical representation includes one or more reference markers (610, 611, 612, 613) that each correspond to a respective physical feature of the movable support couch; receiving a first user input that includes a first position indicator that corresponds to a first boundary of an X-ray imaging region; and generating an X-ray image of the X-ray imaging region, wherein a first edge of the X-ray image corresponds to the first boundary. causing a graphical representation of a movable support couch of the X-ray imaging system to be displayed, wherein the graphical representation includes one or more reference markers (610, 611, 612, 613) that each correspond to a respective physical feature of the movable support couch; receiving a first user input that includes a first position indicator that corresponds to a first boundary of an X-ray imaging region; and generating an X-ray image of the X-ray imaging region, wherein a first edge of the X-ray image corresponds to the first boundary.
A method for classifying a voltage fault condition of a battery for a vehicle, the battery comprising a plurality of cells, the method comprises: - detecting a cell voltage of one of the cells; - determining if the cell has a voltage fault condition based on the cell voltage being outside a predetermined voltage range; - classifying a severity of the voltage fault condition based on the cell voltage; - performing at least one diagnostic test routine, based on the severity of the voltage fault condition, to provide a cause for the voltage fault condition; - selecting and adapting a battery operation condition, based on the severity of the voltage fault condition and the cause, such that the battery is enabled to continue to operate the vehicle, characterized in that the step of classifying the severity of the voltage fault condition further comprises classifying the voltage fault condition to be of low severity, medium severity, high severity or breakdown severity and that the method further comprises increasing the severity of the voltage fault condition if a voltage fault condition has occurred previously for the cell. - detecting a cell voltage of one of the cells; - determining if the cell has a voltage fault condition based on the cell voltage being outside a predetermined voltage range; - classifying a severity of the voltage fault condition based on the cell voltage; - performing at least one diagnostic test routine, based on the severity of the voltage fault condition, to provide a cause for the voltage fault condition; - selecting and adapting a battery operation condition, based on the severity of the voltage fault condition and the cause, such that the battery is enabled to continue to operate the vehicle, characterized in that
An intelligent road lamp, comprising a lamp base, wherein the lamp base comprises: a lamp base housing body, provided with a mounting space inside, wherein the mounting space has an open end facing downward; a plurality of access interfaces having spacing from each other disposed in the mounting space, wherein the access interfaces provide electrical and/or signal access; and at least one illumination module and at least one functional circuit module, disposed in the mounting space of the lamp base housing body, wherein the illumination module and the functional circuit module perform electrical and/or signal connection through the access interfaces; characterized in that the functional circuit module is integrated in at least one illumination module; and wherein the functional circuit module comprises at least one of a pico base station module, a wireless antenna module, a camera, a sensor, or a radio frequency reading module. a lamp base housing body, provided with a mounting space inside, wherein the mounting space has an open end facing downward; a plurality of access interfaces having spacing from each other disposed in the mounting space, wherein the access interfaces provide electrical and/or signal access; and at least one illumination module and at least one functional circuit module, disposed in the mounting space of the lamp base housing body, wherein the illumination module and the functional circuit module perform electrical and/or signal connection through the access interfaces; characterized in that the functional circuit module is integrated in at least one illumination module; and wherein the functional circuit module comprises at least one of a pico base station module, a wireless antenna module, a camera, a sensor, or a radio frequency reading module.
An antithrombotic surface treating agent comprising a first monomer of formula and a second monomer having a basic functional group copolymerizable with said first monomer, which is at least one monomer selected from the group consisting of monomers of formulae,, and, as monomer components of a copolymer, wherein the molar ratio of the first monomer to the second monomer is 85/15 to 99/1, and wherein the copolymer has a number based mean molecular weight of 5,000 to 500,000; wherein R 1 is an alkylene group having 1 to 4 carbon atoms, R 2 is an alkyl group having 1 to 4 carbon atoms, and R 3 represents hydrogen or a methyl group wherein (R 4)s independently represent hydrogen or an alkyl group having 1 to 4 carbon atoms, (R 5)s independently represent hydrogen or methyl group, n is an integer of 1 to 4, and (X -)s independently represent an anion derived from halogen, sulfonic acid or sulfuric acid, wherein the monomer of formula is 2-methoxyethyl (meth)acrylate.
A method for manufacturing a disposable absorbent articles, comprising the steps of: conveying a first belt web comprising a first nonwoven layer and a first pre- strained elastic element along a machine direction; conveying a second belt web comprising a second nonwoven layer and a second pre-strained elastic element along a machine direction; conveying a fastening web comprising a first fastening tab member and a first fastening element along the machine direction; directly or refastenably joining the fastening web to one or both of the belt webs; joining the first and second belt webs to a chassis comprising a core; folding the article over a longitudinal axis, such that the first belt web generally overlaps the second belt web; forming a permanent side seam between the first fastening tab member and a second fastening tab member; refastenably fastening the first fastening tab member to at least one of the first and second belt webs; and cutting through the permanent side seam to form multiple absorbent articles, wherein the fastening web is disposed between the first and second belt webs. conveying a first belt web comprising a first nonwoven layer and a first pre- strained elastic element along a machine direction; conveying a second belt web comprising a second nonwoven layer and a second pre-strained elastic element along a machine direction; conveying a fastening web comprising a first fastening tab member and a first fastening element along the machine direction; directly or refastenably joining the fastening web to one or both of the belt webs; joining the first and second belt webs to a chassis comprising a core; folding the article over a longitudinal axis, such that the first belt web generally overlaps the second belt web; forming a permanent side seam between the first fastening tab member and a second fastening tab member; refastenably fastening the first fastening tab member to at least one of the first and second belt webs; and cutting through the permanent side seam to form multiple absorbent articles,
A mobile terminal comprising: a touch screen configured to display screen information related to an application, wherein the screen information is general information for which security is not set; and a controller configured to: receive a preset touch for scrolling the screen information while the screen information is displayed; and in response to the preset touch, move the screen information on the touch screen along a touch direction of the preset touch so as to sequentially display additional screen information on the touch screen; characterized in that the controller is further configured to: display guide information on the touch screen for performing an authentication process to view secured information related to the application when displayable general information for which security is not set no longer exists in the touch direction in response to the preset touch; and display the secured information on the touch screen when the authentication process is successfully completed based on input user authentication information subsequent to displaying the guide information. a touch screen configured to display screen information related to an application, wherein the screen information is general information for which security is not set; and a controller configured to: receive a preset touch for scrolling the screen information while the screen information is displayed; and in response to the preset touch, move the screen information on the touch screen along a touch direction of the preset touch so as to sequentially display additional screen information on the touch screen; receive a preset touch for scrolling the screen information while the screen information is displayed; and in response to the preset touch, move the screen information on the touch screen along a touch direction of the preset touch so as to sequentially display additional screen information on the touch screen; characterized in that the controller is further configured to: display guide information on the touch screen for performing an authentication process to view secured information related to the application when displayable general information for which security is not set no longer exists in the touch direction in response to the preset touch; and display the secured information on the touch screen when the authentication process is successfully completed based on input user authentication information subsequent to displaying the guide information. display guide information on the touch screen for performing an authentication process to view secured information related to the application when displayable general information for which security is not set no longer exists in the touch direction in response to the preset touch; and display the secured information on the touch screen when the authentication process is successfully completed based on input user authentication information subsequent to displaying the guide information.