mhurhangee/ep-ind-claims huggingface dataset:
A mask assembly for use in a system delivering a flow of a treatment gas to the airway of a pediatric patient, the mask assembly comprising: a mask body having an opening adapted to receive a treatment gas supply; and a flexible peripheral seal structure having a first side coupled to the mask body and an opposite second side including an opening adapted to receive the face of the pediatric patient such that the second side sealingly engages the perimeter of the pediatric patient's face, wherein the opening is defined by a height and a width, and wherein the ratio of the height to width of the opening is in the range of 0.83 to 0.87. a mask body having an opening adapted to receive a treatment gas supply; and a flexible peripheral seal structure having a first side coupled to the mask body and an opposite second side including an opening adapted to receive the face of the pediatric patient such that the second side sealingly engages the perimeter of the pediatric patient's face, wherein the opening is defined by a height and a width, and wherein the ratio of the height to width of the opening is in the range of 0.83 to 0.87.
An electronic striker for releasing a door or access panel, the electronic striker comprising: a housing defining an opening and a passageway extending from the opening for receiving a pawl on the door or access panel; a plunger that is coupled to the housing and is mounted for movement with respect to the opening; and a motor configured for moving the plunger between a withdrawn position, and a deployed position, in which the plunger is extended relative to the withdrawn position, wherein the plunger is configured to move the pawl upon moving the plunger from the withdrawn position to the deployed position, thereby releasing the door or access panel, a gear arrangement (38, 42, 44) that is configured to convert rotation of an output shaft of the motor to linear translation of the plunger between the withdrawn and deployed positions, wherein the gear arrangement (38, 42, 44) comprises a cam lifter gear having a cam surface, and the plunger comprises a cam follower that engages with the cam surface, wherein rotation of the cam surface causes translational movement of the cam follower, wherein the cam surface is a continuous surface that rises and falls in a direction that is parallel to an axis of rotation of the cam lifter gear. a housing defining an opening and a passageway extending from the opening for receiving a pawl on the door or access panel; a plunger that is coupled to the housing and is mounted for movement with respect to the opening; and a motor configured for moving the plunger between a withdrawn position, and a deployed position, in which the plunger is extended relative to the withdrawn position, wherein the plunger is configured to move the pawl upon moving the plunger from the withdrawn position to the deployed position, thereby releasing the door or access panel, a gear arrangement (38, 42, 44) that is configured to convert rotation of an output shaft of the motor to linear translation of the plunger between the withdrawn and deployed positions, wherein the gear arrangement (38, 42, 44) comprises a cam lifter gear having a cam surface, and the plunger comprises a cam follower that engages with the cam surface, wherein rotation of the cam surface causes translational movement of the cam follower, wherein the cam surface is a continuous surface that rises and falls in a direction that is parallel to an axis of rotation of the cam lifter gear.
A system comprising: a voltage converter (210, 410) configured to convert a voltage from a power source (205, 405) to a different voltage; a stack including a memory (220, 415) and a digital logic circuit (215, 420) wherein the memory is stacked on top of the digital logic circuit; and a level shifter coupled between the memory and digital logic circuit; wherein the memory is coupled between the voltage converter and the digital logic circuit, wherein leakage current from the memory is stored in a capacitance in the digital logic circuit, wherein the voltage converter is further coupled to a node between the memory and digital logic circuit, and wherein the voltage converter is configured to: monitor a voltage at the node wherein the node has a desired operating voltage value; and adjust the voltage at the node when the voltage at the node varies from the desired operating voltage value. a voltage converter (210, 410) configured to convert a voltage from a power source (205, 405) to a different voltage; a stack including a memory (220, 415) and a digital logic circuit (215, 420) wherein the memory is stacked on top of the digital logic circuit; and a level shifter coupled between the memory and digital logic circuit; wherein the memory is coupled between the voltage converter and the digital logic circuit, wherein leakage current from the memory is stored in a capacitance in the digital logic circuit, wherein the voltage converter is further coupled to a node between the memory and digital logic circuit, and wherein the voltage converter is configured to: monitor a voltage at the node wherein the node has a desired operating voltage value; and adjust the voltage at the node when the voltage at the node varies from the desired operating voltage value. monitor a voltage at the node wherein the node has a desired operating voltage value; and adjust the voltage at the node when the voltage at the node varies from the desired operating voltage value.
A method for encoding video data, the method comprising: performing an inter mode check for a coding unit on a condition that inter slice coding is to be performed for the coding unit, wherein the inter mode check is performed based on one or more partition sizes; identifying a first best mode for encoding the coding unit; identifying a first set of quantized residual values of the first best mode; determining whether the first set of quantized residual values comprise a nonzero value and whether the first best mode is an intra-block copy (IntraBC) mode or a skip mode; based on a determination that the first set of quantized residual values comprise a nonzero value or that the first best mode is neither the IntraBC mode nor the skip mode: determining whether a width of the coding unit is less than or equal to 32; and performing a first block vector predictor based 2Nx2N IntraBC mode check for the coding unit on a condition that the width of the coding unit is less than or equal to 32; and based on a determination that the first set of quantized residual values comprises all zero values and that the first best mode is the IntraBC mode or the skip mode, skipping the first block vector predictor based 2Nx2N IntraBC mode check for the coding unit. performing an inter mode check for a coding unit on a condition that inter slice coding is to be performed for the coding unit, wherein the inter mode check is performed based on one or more partition sizes; identifying a first best mode for encoding the coding unit; identifying a first set of quantized residual values of the first best mode; determining whether the first set of quantized residual values comprise a nonzero value and whether the first best mode is an intra-block copy (IntraBC) mode or a skip mode; based on a determination that the first set of quantized residual values comprise a nonzero value or that the first best mode is neither the IntraBC mode nor the skip mode: determining whether a width of the coding unit is less than or equal to 32; and performing a first block vector predictor based 2Nx2N IntraBC mode check for the coding unit on a condition that the width of the coding unit is less than or equal to 32; and determining whether a width of the coding unit is less than or equal to 32; and performing a first block vector predictor based 2Nx2N IntraBC mode check for the coding unit on a condition that the width of the coding unit is less than or equal to 32; and based on a determination that the first set of quantized residual values comprises all zero values and that the first best mode is the IntraBC mode or the skip mode, skipping the first block vector predictor based 2Nx2N IntraBC mode check for the coding unit.
Structure for transporting goods, comprising at least one frame provided with walls, with a floor and with at least one door which define an enclosure for receiving goods, and said door being connected to the frame by connecting means which allow a sliding movement by the door between a low position constituting an open position in which an access opening extending from the floor of the structure is totally clear and a high position constituting a closed position in which the opening is blocked off, characterised in that the connecting means comprise at least two vertical beams between which the door moves under the action of at least one ram by following a trajectory which is defined by at least one guiding rail which extends along a vertical beam.
A cup seal held in a recessed portion and formed in a U-shape in cross section, comprising an annular base portion extending in the radial direction and through which a slide member penetrates so as to slide; an annular inner lip portion extending in the axial direction from an inner peripheral end of the base portion and through which the slide member penetrates so as to slide; and an annular outer lip portion extending in the axial direction from an outer peripheral end of the base portion and comes in detachable contact with the bottom wall of the recessed portion; wherein the inner lip portion has an inner peripheral surface which at least includes a first tapered inner peripheral surface (21b1) which extends in a manner that the inner diameter thereof gradually decreases forward in the axial direction from the inner peripheral end of the base portion; characterized in that a projection (21b4) protrudes in the axial direction at the tip portion (21b3) of the inner lip portion so as to determine the position in the axial direction when the tip portion (21b3) of the inner lip portion comes in contact with the opposing side wall of the recessed portion.
Clamping device (10, 10a, 10b, 10c, 10d) of a clamping unit for at least one cable, comprising a clamping member (16, 16a, 16b, 16c, 16d) with at least one receptacle for the at least one cable, wherein a cross section of the at least one receptacle is adjustable, and further comprising at least one adjustment element that is embodied in such a way so that it takes effect on the clamping member (16, 16a, 16b, 16c, 16d) so that the cross section of the at least one receptacle is adjusted, wherein the at least one adjustment element is embodied as a preloadable element; wherein a preload arrangement (46, 46', 46"; 46a, 46a', 46d, 46d', 46d") comprises a bolt and at least one corresponding nut; and wherein at least two preload arrangements (46a, 46a') or a plurality of preload arrangements (46, 46', 46", 46d, 46d', 46d") are arranged in parallel to one another; characterised in that the clamping member is embodied as a cylindrical tube or as a clamp sleeve.
A method for continuously manufacturing a complex acoustic multi-element panel for an acoustic attenuation structure comprising a complex acoustic multi-element panel extending following a horizontal direction (D H) and a vertical direction (D V) and comprised along the vertical direction (D V) between a porous acoustic skin and a reflective acoustic skin, said complex acoustic multi-element panel comprising a plurality of complex acoustic elements each having a shape gradually narrowing between a base and a top and a plurality of partitions surrounding each complex acoustic element so as to form a plurality of acoustic cells, said partitions extending following the vertical direction from the base of the complex acoustic elements, characterized in that the manufacturing method comprises: - a supply of a thermoplastic resin film at the entry of a stamping system comprising at least one pair of complementary cylinders, - a heating of said thermoplastic resin film upstream of the entry of the stamping system, and - a passage of said thermoplastic resin film between said at least one pair of complementary cylinders, said pair of complementary cylinders comprising a male cylinder with teeth radially protruding from the cylinder and a female cylinder with cavities on its radial surface, the cavities of the female cylinder being of shapes complementary to the shapes of the teeth of the male cylinder, and - a separation of the stamped film at the exit of the stamping system using a separator disposed at the exit of the stamping system between the stamped film and the female cylinder. - a supply of a thermoplastic resin film at the entry of a stamping system comprising at least one pair of complementary cylinders, - a heating of said thermoplastic resin film upstream of the entry of the stamping system, and - a passage of said thermoplastic resin film between said at least one pair of complementary cylinders, said pair of complementary cylinders comprising a male cylinder with teeth radially protruding from the cylinder and a female cylinder with cavities on its radial surface, the cavities of the female cylinder being of shapes complementary to the shapes of the teeth of the male cylinder, and - a separation of the stamped film at the exit of the stamping system using a separator disposed at the exit of the stamping system between the stamped film and the female cylinder.
Electric fuse, comprising: an electro-pyrotechnic igniter, a disconnection element able to be moved by way of the electro-pyrotechnic igniter, and a current line having a disconnection section, wherein the movable disconnection element is arranged with respect to the electro-pyrotechnic igniter and the disconnection section of the current line in such a way that the movable disconnection element is able to be set in motion after the electro-pyrotechnic igniter has been tripped and thereby is able to sever the current line in the disconnection section, at least one inductive coupling means arranged on the current line or a high-voltage line, and a control circuit for controlling an ignition current provided to trip the electro-pyrotechnic igniter, wherein the control circuit comprises at least one semiconductor switch for switching the provided ignition current, and a diode, characterized in that the control circuit comprises at least one capacitor connected to an actuation input of the semiconductor switch, and in that the diode is connected on one side to the at least one inductive coupling means and on the other side to the capacitor and an actuation input of the semiconductor switch. an electro-pyrotechnic igniter, a disconnection element able to be moved by way of the electro-pyrotechnic igniter, and a current line having a disconnection section, wherein the movable disconnection element is arranged with respect to the electro-pyrotechnic igniter and the disconnection section of the current line in such a way that the movable disconnection element is able to be set in motion after the electro-pyrotechnic igniter has been tripped and thereby is able to sever the current line in the disconnection section, at least one inductive coupling means arranged on the current line or a high-voltage line, and a control circuit for controlling an ignition current provided to trip the electro-pyrotechnic igniter, wherein the control circuit comprises at least one semiconductor switch for switching the provided ignition current, and a diode, characterized in that the control circuit comprises at least one capacitor connected to an actuation input of the semiconductor switch, and in that the diode is connected on one side to the at least one inductive coupling means and on the other side to the capacitor and an actuation input of the semiconductor switch.
A method of forming a curved vehicle display comprising: providing a glass substrate having a first major surface and a second major surface opposite the first major surface; positioning the glass substrate on a deformable surface of a platform with the first major surface facing the deformable surface; providing an adhesive to the second major surface of the glass substrate attaching a display panel to the glass substrate via the adhesive on the second major surface, forming a laminate structure comprising the glass substrate, the adhesive, and the display panel; cold bending the laminate structure by applying a curved surface of a die to the display-panel-side of the laminate structure, forming a curved laminate structure, the curved surface of the die comprising a first radius of curvature, wherein the deformable surface of the platform deforms to accommodate the cold bending of the laminate structure, wherein cold bending implies bending at a temperature below the strain point of the glass substrate; and applying a pre-curved backlight unit and a pre-curved frame to the display panel of the curved laminate structure. providing a glass substrate having a first major surface and a second major surface opposite the first major surface; positioning the glass substrate on a deformable surface of a platform with the first major surface facing the deformable surface; providing an adhesive to the second major surface of the glass substrate attaching a display panel to the glass substrate via the adhesive on the second major surface, forming a laminate structure comprising the glass substrate, the adhesive, and the display panel; cold bending the laminate structure by applying a curved surface of a die to the display-panel-side of the laminate structure, forming a curved laminate structure, the curved surface of the die comprising a first radius of curvature, wherein the deformable surface of the platform deforms to accommodate the cold bending of the laminate structure, wherein cold bending implies bending at a temperature below the strain point of the glass substrate; and applying a pre-curved backlight unit and a pre-curved frame to the display panel of the curved laminate structure.
Method for determining the length of a tailback of motor vehicles at a set of traffic lights and a waiting time due to the tailback, comprising the steps of: - receiving movement data from motor vehicles by means of a data reception unit, - ascertaining stopping processes of motor vehicles in front of a set of traffic lights from the movement data by means of a data processing unit, - ascertaining the spatial and temporal distribution of the stopping processes of the motor vehicles by means of the data processing unit, characterized in that the method moreover comprises: - ascertaining the maximum length of the tailback of motor vehicles and the time of said tailback by means of the data processing unit, - making a forecast for the build-up and/or clearance of the tailback of the motor vehicles and a waiting time before passage through the tailback by means of the data processing unit, wherein the making of a forecast requires no infrastructure connection, wherein the ascertainment of the spatial and temporal distribution of the stopping processes comprises an evaluation of information about the set of traffic lights, wherein the information about the set of traffic lights is ascertained from the movement data of motor vehicles. - receiving movement data from motor vehicles by means of a data reception unit, - ascertaining stopping processes of motor vehicles in front of a set of traffic lights from the movement data by means of a data processing unit, - ascertaining the spatial and temporal distribution of the stopping processes of the motor vehicles by means of the data processing unit, - ascertaining the maximum length of the tailback of motor vehicles and the time of said tailback by means of the data processing unit, - making a forecast for the build-up and/or clearance of the tailback of the motor vehicles and a waiting time before passage through the tailback by means of the data processing unit, wherein the making of a forecast requires no infrastructure connection, wherein the ascertainment of the spatial and temporal distribution of the stopping processes comprises an evaluation of information about the set of traffic lights, wherein the information about the set of traffic lights is ascertained from the movement data of motor vehicles. wherein the making of a forecast requires no infrastructure connection, wherein the ascertainment of the spatial and temporal distribution of the stopping processes comprises an evaluation of information about the set of traffic lights, wherein the information about the set of traffic lights is ascertained from the movement data of motor vehicles.
An endoprosthesis, comprising: an expandable tubular framework having a first end, a second end, and a lumen extending therethrough, the expandable tubular framework including a plurality of strut rows and a plurality of connectors extending across interstices between adjacent strut rows and interconnecting adjacent strut rows; the expandable tubular framework being expandable from a compressed state to an expanded state; wherein the plurality of strut rows have an outer diameter in the expanded state; wherein the connectors extend radially outward beyond the outer diameter of the plurality of strut rows in the expanded state; and wherein the connectors are configured to engage a wall of a body lumen in the expanded state to inhibit migration of the endoprosthesis subsequent implanting the endoprosthesis in the body lumen; and a polymeric cover covering the strut rows and spanning the interstices between adjacent strut rows; wherein a space between the connectors and the strut rows to which the connectors are interconnected with is devoid of the polymeric cover to permit tissue ingrowth around the connectors. an expandable tubular framework having a first end, a second end, and a lumen extending therethrough, the expandable tubular framework including a plurality of strut rows and a plurality of connectors extending across interstices between adjacent strut rows and interconnecting adjacent strut rows; the expandable tubular framework being expandable from a compressed state to an expanded state; wherein the plurality of strut rows have an outer diameter in the expanded state; wherein the connectors extend radially outward beyond the outer diameter of the plurality of strut rows in the expanded state; and wherein the connectors are configured to engage a wall of a body lumen in the expanded state to inhibit migration of the endoprosthesis subsequent implanting the endoprosthesis in the body lumen; and a polymeric cover covering the strut rows and spanning the interstices between adjacent strut rows; wherein a space between the connectors and the strut rows to which the connectors are interconnected with is devoid of the polymeric cover to permit tissue ingrowth around the connectors.