mhurhangee/ep-ind-claims huggingface dataset:
A landing gear adjustable electric actuator system, comprising: an actuator output; a piston head; a piston rod coupled to the piston head, the piston rod being coupled to said actuator output; an end fitting encapsulating at least a portion of said piston head; a coupling element affixed to the end fitting, wherein the piston rod is coupled to the end fitting via the coupling element; a first limitation element protruding axially from a center position of a first inner side of the end fitting; wherein said piston head is guided a first distance in a first axial direction by said actuator output, said first distance being limited by the first limitation element; a first limitation retraction element positioned against the first inner side of the end fitting and a first side of the piston head; and a second limitation retraction element positioned against a second inner side of the end fitting and a second side of the piston head, wherein the first limitation retraction element is positioned facing a complementary direction relative to the second limitation retraction element in the axial direction; wherein a length of the electric actuator system is configured to change in response to attachment deflections while not reacting with appreciable loads from the actuator output due to a high backdriving load of the actuator output or a stiffness of a non-backdrivable actuator output. an actuator output; a piston head; a piston rod coupled to the piston head, the piston rod being coupled to said actuator output; an end fitting encapsulating at least a portion of said piston head; a coupling element affixed to the end fitting, wherein the piston rod is coupled to the end fitting via the coupling element; a first limitation element protruding axially from a center position of a first inner side of the end fitting; wherein said piston head is guided a first distance in a first axial direction by said actuator output, said first distance being limited by the first limitation element; a first limitation retraction element positioned against the first inner side of the end fitting and a first side of the piston head; and a second limitation retraction element positioned against a second inner side of the end fitting and a second side of the piston head, wherein the first limitation retraction element is positioned facing a complementary direction relative to the second limitation retraction element in the axial direction; wherein a length of the electric actuator system is configured to change in response to attachment deflections while not reacting with appreciable loads from the actuator output due to a high backdriving load of the actuator output or a stiffness of a non-backdrivable actuator output.
An applicator device, comprising: a photo-active formulation assembly including one or a plurality of dispenser portions and one or more photo-activatable formulation reservoirs containing a photo-activatable formulation, the photo-active formulation assembly being operable to dispense the photo-activatable formulation from the one or more photo-activatable formulation reservoirs onto one or more regions of a biological surface; and a photo-dose assembly operably coupled to the photo-active formulation assembly, the photo-dose assembly including at least one illuminator oriented to focus electromagnetic energy onto one or more focal regions of a biological surface, the focused electromagnetic energy is of a character and for a duration sufficient to photo-activate the photo-activatable formulation dispensed from the one or more photo-activatable formulation reservoirs; wherein the photo-dose assembly includes a light ring located substantially concentric with the photo-active formulation assembly, wherein the light ring is located such that electromagnetic energy emitted from the at least one illuminator of the photo-dose assembly passes through the light ring and is directed toward the one or more focal regions of a biological surface, characterized in that the light ring includes a lens, a diffuser, or a grating to focus the electromagnetic energy. a photo-active formulation assembly including one or a plurality of dispenser portions and one or more photo-activatable formulation reservoirs containing a photo-activatable formulation, the photo-active formulation assembly being operable to dispense the photo-activatable formulation from the one or more photo-activatable formulation reservoirs onto one or more regions of a biological surface; and a photo-dose assembly operably coupled to the photo-active formulation assembly, the photo-dose assembly including at least one illuminator oriented to focus electromagnetic energy onto one or more focal regions of a biological surface, the focused electromagnetic energy is of a character and for a duration sufficient to photo-activate the photo-activatable formulation dispensed from the one or more photo-activatable formulation reservoirs; wherein the photo-dose assembly includes a light ring located substantially concentric with the photo-active formulation assembly, wherein the light ring is located such that electromagnetic energy emitted from the at least one illuminator of the photo-dose assembly passes through the light ring and is directed toward the one or more focal regions of a biological surface, characterized in that the light ring includes a lens, a diffuser, or a grating to focus the electromagnetic energy.
A vehicle display control device configured to control a vehicle display device for displaying an image at a display region (24A, 25A, 26A) so as to be superimposed on a portion of a view ahead of a vehicle, the vehicle display control device comprising: a preceding vehicle detection section configured to detect a preceding vehicle traveling at a vehicle front side relative to a host vehicle; and, further: a display control section configured to, in cases in which a preceding vehicle has been detected by the preceding vehicle detection section, cause an image that includes a plurality of inter-vehicle marker objects from a side of the host vehicle toward a side of the preceding vehicle to be displayed at the display region (24A, 25A, 26A), characterised in that the display control section is further configured to implement sequential emphasis display wherein the sequential emphasis display is emphasizing in sequence the plurality of inter-vehicle marker objects from the host vehicle side toward the preceding vehicle side.
A pressure sensor comprising: - a silicon die having a diaphragm and a frame surrounding the diaphragm, wherein the silicon die comprises a first silicon layer, a second silicon layer and a third silicon layer, wherein the first silicon layer and the second silicon layer are separated by a first etch stop layer and wherein the second silicon layer and the third silicon layer are separated by the second etch stop layer - wherein the diaphragm is defined by a cavity etched in the first silicon layer of the silicon die and defined by a sidewall that is orthogonal to the diaphragm; wherein the depth of the cavity is determined by the position of the first etch stop layer, - wherein the diaphragm further comprises a boss defined by one or more trenches etched in the diaphragm, and one or more beams connecting the boss to the frame and defined by spaces between the one or more trenches, wherein the trenches are formed in the third silicon layer and the depth of the trenches is determined by the depth of the second etch stop layer. - a silicon die having a diaphragm and a frame surrounding the diaphragm, wherein the silicon die comprises a first silicon layer, a second silicon layer and a third silicon layer, wherein the first silicon layer and the second silicon layer are separated by a first etch stop layer and wherein the second silicon layer and the third silicon layer are separated by the second etch stop layer - wherein the diaphragm is defined by a cavity etched in the first silicon layer of the silicon die and defined by a sidewall that is orthogonal to the diaphragm; wherein the depth of the cavity is determined by the position of the first etch stop layer, - wherein the diaphragm further comprises a boss defined by one or more trenches etched in the diaphragm, and one or more beams connecting the boss to the frame and defined by spaces between the one or more trenches, wherein the trenches are formed in the third silicon layer and the depth of the trenches is determined by the depth of the second etch stop layer.
Footwear for use during or after a pedicure comprising: a) a base and a cover forming a cavity to accommodate a foot; b) toe straps (15, 16) configured to secure individual toes to said base; c) a separator connected with said base and located between the big toe and second toe, configured to make physical contact with said cover when said cover is closed; characterized in that: d) said cover contains two cutouts located on opposite sides for securing said cover with a band; e) said base contains two holes located on opposite sides for the attachment of said band; and f) said band is configured to accommodate the foot. a) a base and a cover forming a cavity to accommodate a foot; b) toe straps (15, 16) configured to secure individual toes to said base; c) a separator connected with said base and located between the big toe and second toe, configured to make physical contact with said cover when said cover is closed; characterized in that: d) said cover contains two cutouts located on opposite sides for securing said cover with a band; e) said base contains two holes located on opposite sides for the attachment of said band; and f) said band is configured to accommodate the foot.
A method of estimating power expended by a user while wearing a sensor platform comprising an inertial measurement unit and a memory, the memory storing (i) multi-axis motion data, (ii) orientation data, and (iii) a mass of the user, the multi-axis motion data representing motion measured by the IMU in a first reference frame fixed with respect to the sensor platform and the orientation data representing an orientation of the sensor platform in a second reference frame fixed with respect to Earth, the method comprising: receiving, by a processor, the multi-axis motion data and the orientation data from the sensor platform; translating, by the processor, the multi-axis motion data from the first reference frame to the second reference frame based on the orientation data to yield translated multi-axis motion data; decomposing, by the processor, the translated multi-axis motion data into horizontal motion components, including a speed of the user and a change in speed of the user, and vertical motion components, including a change in height; estimating, by the processor, vertical power expended by the user by dividing a product of (i) a first scaling factor, (ii) the mass of the user, (iii) acceleration due to gravity, and (iv) the change in height by a change in time; and estimating, by the processor, horizontal power expended by the user by dividing a product of (i) a second scaling factor, (ii) the mass of the user, (iii) the speed of the user, and (iv) the change in speed of the user by the change in time. receiving, by a processor, the multi-axis motion data and the orientation data from the sensor platform; translating, by the processor, the multi-axis motion data from the first reference frame to the second reference frame based on the orientation data to yield translated multi-axis motion data; decomposing, by the processor, the translated multi-axis motion data into horizontal motion components, including a speed of the user and a change in speed of the user, and vertical motion components, including a change in height; estimating, by the processor, vertical power expended by the user by dividing a product of (i) a first scaling factor, (ii) the mass of the user, (iii) acceleration due to gravity, and (iv) the change in height by a change in time; and estimating, by the processor, horizontal power expended by the user by dividing a product of (i) a second scaling factor, (ii) the mass of the user, (iii) the speed of the user, and (iv) the change in speed of the user by the change in time.
A forward assembly for a combustor of a gas turbine engine, the forward assembly comprising: a bulkhead support shell; a swirler mounted to said bulkhead support shell through a snap-fit interface; and a cowl mounted to said bulkhead support shell; characterised in that: said cowl includes a circumferentially distributed hood port to extend into contact with said swirler to apply an axial load to said swirler. a bulkhead support shell; a swirler mounted to said bulkhead support shell through a snap-fit interface; and a cowl mounted to said bulkhead support shell; characterised in that: said cowl includes a circumferentially distributed hood port to extend into contact with said swirler to apply an axial load to said swirler.
Modular automatic washing brush device comprising a set of flexible support means fixable to a respective roller covering at least partially the cylindrical surface thereof, and comprising a plurality of band means each provided with fringes and with a median transversal portion assigned to be fixed to the support means; the flexible support means comprises a flexible sheet means and comprises a plurality of housing means each delimited by a pair of walls projecting from a face of the sheet means and extending along the entire longitudinal dimension, with respect to the axis of the corresponding roller, of the support means in an operative condition of the device in which the support means is fixed to the respective roller; a plurality of such housing means of the support means houses the median transversal portions of a plurality of band means where the median transversal portions are fixed to the bottom of the respective housing means; said device being characterized in that the walls are waved with generating lines perpendicular to the sheet means of the respective support means; the mutual distance between two adjacent walls is almost constant and corresponds to the width of the interposed housing means.
A valve construction comprising a frame, the frame comprising a plurality of closing canal systems arranged to work as a valve for pressurized medium, said canal systems comprising tube inlets and outlets, valve houses, which include valve stems and shut-off parts, the frame further comprising a channel disposed in the space between the valve houses in the valve frame, whereby the valve construction further comprises a control lever to close and open said canal systems and one or more electric or pneumatic operating switches fitted in connection with the control lever, whereby either to the one or more electric operating switches connected to the control lever a cable is led to run inside a tube of the control lever or to the one or more pneumatic operating switches a piping system is fitted to run inside the tube of the control lever, whereby the cable or the piping system is fitted to run further into the valve frame and through the valve frame, the valve construction further comprising a rocker joint part, which is furnished with a hole and which transmits the opening and closing motion to the valve stems of the valve houses by pressing downwards respective rollers and wherein the cable or the piping system passes through the hole of the rocker joint part and the channel in the valve frame, wherein the necessary tube inlets and outlets and a cable outlet are on the same bottom side of the valve frame.
An air bag module, comprising: an inflator and an air bag; an air bag case for housing said air bag and attaching said inflator, which supplies a gas to said housed air bag; a fabric housing for holding said air bag when said air bag is housed in said air bag case is provided, wherein said air bag case is constituted by an engagement member having an opening for inserting said fabric housing and a hook provided on two opposing sides of said opening for engaging said air bag case to an instrument panel, and a lower surface plate member, characterized in that said fabric housing is formed as a bottomed box having an open ceiling and having a connecting hole that communicates with said inflator in a floor surface thereof, using a fabric having a strength that is equal to or greater than a strength of a cushion used as said air bag, and in that the lower surface plate member is fastened to said engagement member via a bridge member, wherein said bridge member is formed integrally with the engagement member and/or the lower surface plate. an inflator and an air bag; an air bag case for housing said air bag and attaching said inflator, which supplies a gas to said housed air bag; a fabric housing for holding said air bag when said air bag is housed in said air bag case is provided, wherein said air bag case is constituted by an engagement member having an opening for inserting said fabric housing and a hook provided on two opposing sides of said opening for engaging said air bag case to an instrument panel, and a lower surface plate member, characterized in that said fabric housing is formed as a bottomed box having an open ceiling and having a connecting hole that communicates with said inflator in a floor surface thereof, using a fabric having a strength that is equal to or greater than a strength of a cushion used as said air bag, and in that the lower surface plate member is fastened to said engagement member via a bridge member, wherein said bridge member is formed integrally with the engagement member and/or the lower surface plate.
A valve, comprising: a support structure, and at least one leaflet being supported on the support structure and movable between open and closed positions, each leaflet including a composite material comprising at least one porous polyethylene membrane and an elastomer, the at least one porous polyethylene membrane comprising fibers that define space therebetween, the space between the fibers defining pores, the elastomer being disposed in substantially all of the pores, wherein a diameter of a majority of the fibers is less than 1 μm and/or the pore size is less than 5 μm. a support structure, and at least one leaflet being supported on the support structure and movable between open and closed positions, each leaflet including a composite material comprising at least one porous polyethylene membrane and an elastomer, the at least one porous polyethylene membrane comprising fibers that define space therebetween, the space between the fibers defining pores, the elastomer being disposed in substantially all of the pores, wherein a diameter of a majority of the fibers is less than 1 μm and/or the pore size is less than 5 μm.
A wireless local area network, WLAN, transmitter configured to: select one of a plurality of 802.11 wireless communication modes of operation indicating a frequency band, a particular one of a plurality of channel bandwidths and a maximum bit rate for the selected one of the plurality of channel bandwidths, based on a mode selection signal, and determine the mode selection signal based on WLAN operational conditions, which include protocol diversity of wireless communication devices affiliated with a corresponding WLAN, target capabilities, and WLAN transmitter capabilities, the WLAN transmitter further comprising: a plurality of radio frequency, RF, transmitters (68, 70, 82), wherein, based on the mode selection signal, a number of the plurality of RF transmitters are enabled and produce a corresponding number of RF signals; the WLAN transmitter comprising a baseband module operably coupled to: select one of a plurality of encoding modes based on the mode selection signal; encode data in accordance with the one of the plurality of encoding modes to produce encoded data; determine a number of transmit streams based on the mode selection signal; and convert the encoded data into streams of symbols in accordance with the number of transmit streams wherein the number of RF signals communicate a corresponding number of parallel transmit streams. select one of a plurality of 802.11 wireless communication modes of operation indicating a frequency band, a particular one of a plurality of channel bandwidths and a maximum bit rate for the selected one of the plurality of channel bandwidths, based on a mode selection signal, and determine the mode selection signal based on WLAN operational conditions, which include protocol diversity of wireless communication devices affiliated with a corresponding WLAN, target capabilities, and WLAN transmitter capabilities, the WLAN transmitter further comprising: a plurality of radio frequency, RF, transmitters (68, 70, 82), wherein, based on the mode selection signal, a number of the plurality of RF transmitters are enabled and produce a corresponding number of RF signals; the WLAN transmitter comprising a baseband module operably coupled to: select one of a plurality of encoding modes based on the mode selection signal; encode data in accordance with the one of the plurality of encoding modes to produce encoded data; determine a number of transmit streams based on the mode selection signal; and convert the encoded data into streams of symbols in accordance with the number of transmit streams wherein the number of RF signals communicate a corresponding number of parallel transmit streams. select one of a plurality of encoding modes based on the mode selection signal; encode data in accordance with the one of the plurality of encoding modes to produce encoded data; determine a number of transmit streams based on the mode selection signal; and convert the encoded data into streams of symbols in accordance with the number of transmit streams wherein the number of RF signals communicate a corresponding number of parallel transmit streams.