mhurhangee/patent-ind-claim-en huggingface dataset:
Operating method in a vehicle , in which first graphical data are displayed in a first region of a display surface in the interior of the vehicle , second graphical data are displayed in a second region of the display surface , wherein the first graphical data are associated with the second graphical data, a position of an actuation element in a detection space that is associated with the second region of the display surface is detected, and the position of the actuation element is associated with a first portion of the second graphical data, wherein the first portion of the second graphical data is preselected, characterized in that the preselection relates to a selection of a dataset within a set of datasets that are visualized by the second graphical data in the second region of the display surface , information is associated with the preselected dataset and first graphical data are generated for a preview in a display mode in the first region of the display surface depending on the preselected dataset, wherein the information associated with the preselected dataset is visualized as a preview in the first region of the display surface . first graphical data are displayed in a first region of a display surface in the interior of the vehicle , second graphical data are displayed in a second region of the display surface , wherein the first graphical data are associated with the second graphical data, a position of an actuation element in a detection space that is associated with the second region of the display surface is detected, and the position of the actuation element is associated with a first portion of the second graphical data, wherein the first portion of the second graphical data is preselected, characterized in that the preselection relates to a selection of a dataset within a set of datasets that are visualized by the second graphical data in the second region of the display surface , information is associated with the preselected dataset and first graphical data are generated for a preview in a display mode in the first region of the display surface depending on the preselected dataset, wherein the information associated with the preselected dataset is visualized as a preview in the first region of the display surface .
An apparatus for baking a secondary battery , comprising: a feeding device, a discharging device spaced from the feeding device in a horizontal direction, a baking device disposed between the feeding device and the discharging device, and a transferring device , wherein the baking device comprises two or more baking ovens fixedly arranged in a column in a direction from the feeding device to the discharging device, each baking oven comprising a housing and a cover for connecting hermetically with the housing , and wherein the transferring device is configured to put a secondary battery to be baked, which is conveyed by the feeding device, into each baking oven , and take the baked secondary battery out of each baking oven and convey it to the discharging device, characterised in that the baking apparatus further comprises a raising device for moving each cover to close each housing with each cover or move each cover away from each housing , said raising device being configured to reciprocally move in the direction from the feeding device to the discharging device. a feeding device, a discharging device spaced from the feeding device in a horizontal direction, a baking device disposed between the feeding device and the discharging device, and a transferring device , wherein the baking device comprises two or more baking ovens fixedly arranged in a column in a direction from the feeding device to the discharging device, each baking oven comprising a housing and a cover for connecting hermetically with the housing , and wherein the transferring device is configured to put a secondary battery to be baked, which is conveyed by the feeding device, into each baking oven , and take the baked secondary battery out of each baking oven and convey it to the discharging device, characterised in that the baking apparatus further comprises a raising device for moving each cover to close each housing with each cover or move each cover away from each housing , said raising device being configured to reciprocally move in the direction from the feeding device to the discharging device.
A portable restroom , comprising: a wall panel ; a roof disposed atop the wall panel ; and a base secured to the wall panel that defines a floor of the portable restroom , wherein the base comprises a planar upper surface portion with a perimeter side wall extending upward around a majority of a perimeter of the planar upper surface and defining a threshold portion where there is no perimeter side wall , characterized in that a top edge portion of the perimeter side wall extends outward from the perimeter of the planar upper surface to define a tongue portion , and in that the wall panel includes a groove defined into an inner side thereof and which is configured and located such that the tongue portion of the base engages the groove when the wall panel is arranged such that the wall panel is disposed along the exterior of the perimeter side wall . a wall panel ; a roof disposed atop the wall panel ; and a base secured to the wall panel that defines a floor of the portable restroom , wherein the base comprises a planar upper surface portion with a perimeter side wall extending upward around a majority of a perimeter of the planar upper surface and defining a threshold portion where there is no perimeter side wall , characterized in that a top edge portion of the perimeter side wall extends outward from the perimeter of the planar upper surface to define a tongue portion , and in that the wall panel includes a groove defined into an inner side thereof and which is configured and located such that the tongue portion of the base engages the groove when the wall panel is arranged such that the wall panel is disposed along the exterior of the perimeter side wall . wherein the base comprises a planar upper surface portion with a perimeter side wall extending upward around a majority of a perimeter of the planar upper surface and defining a threshold portion where there is no perimeter side wall , characterized in that a top edge portion of the perimeter side wall extends outward from the perimeter of the planar upper surface to define a tongue portion , and in that the wall panel includes a groove defined into an inner side thereof and which is configured and located such that the tongue portion of the base engages the groove when the wall panel is arranged such that the wall panel is disposed along the exterior of the perimeter side wall .
A nozzle vane for a variable geometry turbocharger, wherein the nozzle vane has an airfoil including a leading edge , trailing edge , a pressure surface , and a suction surface at least in a center position in a blade height direction, wherein the airfoil satisfies 0≤W max /L<0.03, where W max is a maximum value of a distance from a line segment (LS) connecting the trailing edge and a fixed point (P1) on the pressure surface at a 40% chord position from the trailing edge toward the leading edge to a given point (P2) on the pressure surface between the trailing edge and the fixed point (P1), and L is a length of the line segment (LS), and wherein, in the airfoil , camber line (CaL) at an equal distance from the pressure surface and the suction surface is linear at least in a range from the trailing edge to a 40% chord position from the trailing edge toward the leading edge , the camber line (CaL) includes a portion curved toward the pressure surface with respect to a chord line (ChL) connecting the leading edge and the trailing edge between the leading edge and the trailing edge in a range from 40 to 100% chord positions, and the camber line (CaL) does not intersect the chord line (ChL). wherein the nozzle vane has an airfoil including a leading edge , trailing edge , a pressure surface , and a suction surface at least in a center position in a blade height direction, wherein the airfoil satisfies 0≤W max /L<0.03, where W max is a maximum value of a distance from a line segment (LS) connecting the trailing edge and a fixed point (P1) on the pressure surface at a 40% chord position from the trailing edge toward the leading edge to a given point (P2) on the pressure surface between the trailing edge and the fixed point (P1), and L is a length of the line segment (LS), and wherein, in the airfoil , camber line (CaL) at an equal distance from the pressure surface and the suction surface is linear at least in a range from the trailing edge to a 40% chord position from the trailing edge toward the leading edge , the camber line (CaL) includes a portion curved toward the pressure surface with respect to a chord line (ChL) connecting the leading edge and the trailing edge between the leading edge and the trailing edge in a range from 40 to 100% chord positions, and the camber line (CaL) does not intersect the chord line (ChL).
A data manager and interface logic of a power management system , comprising: a plurality of interface ports including at least one network interface port , the data manager and interface logic operative to: obtain digital and analog data, via said plurality of interface ports , from a plurality of digital and analog device types , wherein said data includes device operating parameters and alert condition notifications related to device faults or potential device failure; write and email a report conforming to a plurality of configurable report settings in response to occurrence of a device alert condition or a specified reporting interval; obtain updates to said device operating parameters from a remote device over said at least one network interface port ; and provide said updates to corresponding devices over said plurality of interface ports . obtain digital and analog data, via said plurality of interface ports , from a plurality of digital and analog device types , wherein said data includes device operating parameters and alert condition notifications related to device faults or potential device failure; write and email a report conforming to a plurality of configurable report settings in response to occurrence of a device alert condition or a specified reporting interval; obtain updates to said device operating parameters from a remote device over said at least one network interface port ; and provide said updates to corresponding devices over said plurality of interface ports .
A camera module , comprising: a lens barrel configured to be movable in an optical-axis direction; a holder (600-3) disposed under the lens barrel , the holder (600-3) comprising a seating portion recessed from an upper surface thereof; a filter disposed on a bottom surface of the seating portion of the holder (600-3); and an image sensor disposed under the filter , wherein the seating portion comprises an inner side surface facing a side surface of the filter , wherein the inner side surface of the seating portion comprises a first surface and a second surface positioned under the first surface , wherein a spacing distance (D2) from the first surface to the side surface of the filter is greater than a spacing distance (D11) from the second surface to the side surface of the filter , and wherein a thickness of the filter is greater than the spacing distance (D1) from the second surface to the side surface of the filter characterized in that the camera module further comprises a blocking member disposed on an upper surface of the filter , a spacing distance (D3) from the first surface to the side surface of the blocking member is gradually increased in a direction from a lower surface of the holder (600-3) toward an upper surface of the holder (600-3). a lens barrel configured to be movable in an optical-axis direction; a holder (600-3) disposed under the lens barrel , the holder (600-3) comprising a seating portion recessed from an upper surface thereof; a filter disposed on a bottom surface of the seating portion of the holder (600-3); and an image sensor disposed under the filter , wherein the seating portion comprises an inner side surface facing a side surface of the filter , wherein the inner side surface of the seating portion comprises a first surface and a second surface positioned under the first surface , wherein a spacing distance (D2) from the first surface to the side surface of the filter is greater than a spacing distance (D11) from the second surface to the side surface of the filter , and wherein a thickness of the filter is greater than the spacing distance (D1) from the second surface to the side surface of the filter characterized in that the camera module further comprises a blocking member disposed on an upper surface of the filter , a spacing distance (D3) from the first surface to the side surface of the blocking member is gradually increased in a direction from a lower surface of the holder (600-3) toward an upper surface of the holder (600-3).
An adhesive composition for oil bleeding silicone rubber comprising a solution in which uncrosslinked silicone rubber dissolved beforehand in an organic solvent is added to an alcohol-based organic solvent solution adding 5 to 20 parts by weight of an organometallic compound, 2 to 10 parts by weight of water, and 0 to 5 parts by weight of 3-aminopropyltrialkoxysilane, based on 100 parts by weight of vinyltrialkoxysilane, at a ratio of 0.1 to 5 wt.%, based on the total solid matters of vinyltrialkoxysilane and the organometallic compound.
A method for manufacturing a 3D item by means of 3D printing, wherein the method comprises the step of: - depositing, during a printing stage, a 3D printable material to provide 3D printed material , wherein the 3D printable material comprises a core-shell filament , the core-shell filament comprising a core and a shell , the core comprising a core material having one or more of a core glass temperature Tg1 and a core melting temperature Tm1, and the shell comprising a shell material having one or more of a shell glass temperature Tg2 and a shell melting temperature Tm2, wherein one or more of the shell glass temperature Tg2 and the shell melting temperature Tm2 is lower than one or more of the core glass temperature Tg1 and the core melting temperature Tm1, and characterized in that the method further comprises the step of: - heating, during a finishing stage, the 3D printed material to a temperature equal to or higher than one or more of the shell glass temperature Tg2 and the shell melting temperature Tm2, and lower than one or more of the core glass temperature Tg1 and the core melting temperature Tm1. - depositing, during a printing stage, a 3D printable material to provide 3D printed material , wherein the 3D printable material comprises a core-shell filament , the core-shell filament comprising a core and a shell , the core comprising a core material having one or more of a core glass temperature Tg1 and a core melting temperature Tm1, and the shell comprising a shell material having one or more of a shell glass temperature Tg2 and a shell melting temperature Tm2, wherein one or more of the shell glass temperature Tg2 and the shell melting temperature Tm2 is lower than one or more of the core glass temperature Tg1 and the core melting temperature Tm1, and - heating, during a finishing stage, the 3D printed material to a temperature equal to or higher than one or more of the shell glass temperature Tg2 and the shell melting temperature Tm2, and lower than one or more of the core glass temperature Tg1 and the core melting temperature Tm1.
Method for determining a highly accurate position of a vehicle , comprising the following steps: - recording surroundings data values that represent surroundings of the vehicle , the surroundings comprising multiple surroundings features , wherein the multiple surroundings features have at least two mutually independent, regular structures and wherein the surroundings data values comprise at least the two mutually independent, regular structures; - performing a comparison of the surroundings data values against a map, wherein a relationship between the at least two mutually independent, regular structures is determined, the comparison being made on the basis of the relationship; - determining the highly accurate position of the vehicle on the basis of the comparison; and - providing a signal from the highly accurate position, the highly accurate position having a maximum fuzziness of 10 centimetres. - recording surroundings data values that represent surroundings of the vehicle , the surroundings comprising multiple surroundings features , wherein the multiple surroundings features have at least two mutually independent, regular structures and wherein the surroundings data values comprise at least the two mutually independent, regular structures; - performing a comparison of the surroundings data values against a map, wherein a relationship between the at least two mutually independent, regular structures is determined, the comparison being made on the basis of the relationship; - determining the highly accurate position of the vehicle on the basis of the comparison; and - providing a signal from the highly accurate position, the highly accurate position having a maximum fuzziness of 10 centimetres.
A method for generating a control signal to a conveyor system , the conveyor system configured to serve at least a plurality of robots , characterized in that the method comprising: generating, by a data center , a service call for a first robot to a control entity of the conveyor system and providing information relating to the service call to the first robot by providing a task to the first robot , receiving , in a control entity of the conveyor system , the service call for the first robot from the data center , the service call is associated with a priority of the first robot , the priority of the first robot being dependent on the task defined for the first robot , determining , by the control entity of the conveyor system , the priority of the first robot , the priority of the first robot is associated with the service call, and generating , by the control entity of the conveyor system , a control signal to serve the received service call for the first robot in accordance with the determined priority of the first robot . generating, by a data center , a service call for a first robot to a control entity of the conveyor system and providing information relating to the service call to the first robot by providing a task to the first robot , receiving , in a control entity of the conveyor system , the service call for the first robot from the data center , the service call is associated with a priority of the first robot , the priority of the first robot being dependent on the task defined for the first robot , determining , by the control entity of the conveyor system , the priority of the first robot , the priority of the first robot is associated with the service call, and generating , by the control entity of the conveyor system , a control signal to serve the received service call for the first robot in accordance with the determined priority of the first robot .
A refrigerator comprising: a main body forming an exterior appearance of the refrigerator, and the main body including a storage chamber therein and a hinge shaft installed therein; a door pivotably hinged to the main body with respect to the hinge shaft in a manner that the storage chamber is opened or closed; a door opening and closing device configured to open or close the door; a door opening and closing sensing portion configured to detect whether the door is in an open position or in a closed position; and a controller configured to control the door opening and closing device, wherein the door opening and closing device includes: a motor configured to generate a rotational force; a first gear configured to rotate by interacting with the motor; and a second gear configured to transfer the rotational force generated by the motor to the hinge shaft, characterized in that the controller stores a first motor control value of the motor needed to open the door, and when the door is in the closed position, the controller operates the motor at a second motor control value that does not open the door, and such that the door opening and closing device moves to an open-ready position, wherein the second motor control value is less than the first motor control value. a main body forming an exterior appearance of the refrigerator, and the main body including a storage chamber therein and a hinge shaft installed therein; a door pivotably hinged to the main body with respect to the hinge shaft in a manner that the storage chamber is opened or closed; a door opening and closing device configured to open or close the door; a door opening and closing sensing portion configured to detect whether the door is in an open position or in a closed position; and a controller configured to control the door opening and closing device, wherein the door opening and closing device includes: a motor configured to generate a rotational force; a first gear configured to rotate by interacting with the motor; and a second gear configured to transfer the rotational force generated by the motor to the hinge shaft, characterized in that the controller stores a first motor control value of the motor needed to open the door, and when the door is in the closed position, the controller operates the motor at a second motor control value that does not open the door, and such that the door opening and closing device moves to an open-ready position, wherein the second motor control value is less than the first motor control value. a motor configured to generate a rotational force; a first gear configured to rotate by interacting with the motor; and a second gear configured to transfer the rotational force generated by the motor to the hinge shaft, characterized in that the controller stores a first motor control value of the motor needed to open the door, and when the door is in the closed position, the controller operates the motor at a second motor control value that does not open the door, and such that the door opening and closing device moves to an open-ready position, wherein the second motor control value is less than the first motor control value.