mhurhangee/ep-ind-claims huggingface dataset:
MOSFET (106, 134) on SOI device, comprising: - an upper region comprising at least one first MOSFET type semiconductor device formed in a first semiconductor layer stacked on a first dielectric layer, a first portion of a first metallic layer and a first portion of a second semi-conductor layer, and with a gate dielectric and a gate material on the first semiconductor layer, - a lower region comprising at least one second MOSFET type semi-conductor device formed in a second portion of the second semi-conductor layer, a gate of the second semi-conductor device being formed by at least a second portion of the first metallic layer, and with a gate dielectric arranged between the gate and the second portion of the second semiconductor layer, the second semi-conductor layer being arranged on a second dielectric layer stacked on a second metallic layer. - an upper region comprising at least one first MOSFET type semiconductor device formed in a first semiconductor layer stacked on a first dielectric layer, a first portion of a first metallic layer and a first portion of a second semi-conductor layer, and with a gate dielectric and a gate material on the first semiconductor layer, - a lower region comprising at least one second MOSFET type semi-conductor device formed in a second portion of the second semi-conductor layer, a gate of the second semi-conductor device being formed by at least a second portion of the first metallic layer, and with a gate dielectric arranged between the gate and the second portion of the second semiconductor layer,
A double-stranded oligonucleotide, wherein the oligonucleotide is at least 10 nucleomonomers in length and is less than 25 nucleomonomers in length; wherein at least one nucleomonomer of the oligonucleotide is a modified nucleomonomer; wherein said molecule has no overhanging single-stranded sequence at either end of the molecule or wherein the first nucleic acid molecule is longer than the second nucleic acid molecule hybridizing thereto leaving a portion of the molecule single-stranded; and wherein the modified nucleomonomer include replacement of one or more of the hydroxyl groups with a halogen, a heteroatom, an aliphatic group, or the functionalization of the hydroxyl group as an ether, an amine, or a thiol.
An aircraft position control system comprising: a relative position acquisition unit configured to acquire a relative position (Xhgf, Yhgf) between an aircraft and a target landing point; a relative velocity acquisition unit configured to acquire relative velocity (ΔVx, ΔVy) between the aircraft and the target landing point; and a control unit configured to control the aircraft to head toward the target landing point, based on at least the relative position (Xhgf, Yhgf) and the relative velocity (ΔVx, ΔVy), wherein the relative velocity acquisition unit calculates the relative velocity (ΔVx, ΔVy) by adding a value (ΔV2x, ΔV2y) acquired by applying, to a differential value (ΔV1x, ΔV1y) of the relative position (Xhgf, Yhgf), a low-pass filter that attenuates frequencies equal to or higher than a cutoff frequency (1/τ2) being predetermined, and a value (ΔV3x, ΔV3y) acquired by applying, to the velocity of the aircraft, a high-pass filter that attenuates frequencies below the cutoff frequency (1/τ2). a relative position acquisition unit configured to acquire a relative position (Xhgf, Yhgf) between an aircraft and a target landing point; a relative velocity acquisition unit configured to acquire relative velocity (ΔVx, ΔVy) between the aircraft and the target landing point; and a control unit configured to control the aircraft to head toward the target landing point, based on at least the relative position (Xhgf, Yhgf) and the relative velocity (ΔVx, ΔVy), wherein the relative velocity acquisition unit calculates the relative velocity (ΔVx, ΔVy) by adding a value (ΔV2x, ΔV2y) acquired by applying, to a differential value (ΔV1x, ΔV1y) of the relative position (Xhgf, Yhgf), a low-pass filter that attenuates frequencies equal to or higher than a cutoff frequency (1/τ2) being predetermined, and a value (ΔV3x, ΔV3y) acquired by applying, to the velocity of the aircraft, a high-pass filter that attenuates frequencies below the cutoff frequency (1/τ2).
A method for dropping solid waste into a waste bin in an automated analyzer having a transport mechanism for transporting said solid waste to said waste bin, said transport mechanism comprising a sliding mechanism with a slider, said slider being configured to push the solid waste into the waste bin, said sliding mechanism further comprising at its end a ramp, wherein said ramp is extendable over and into the waste bin, wherein said method comprises the steps of placing a solid waste into a parking position associated with said transport mechanism, wherein said parking position is located on the side of the slider which is proximal to the waste bin and between the slider and an opening of the transport mechanism on the side where the waste bin is located allowing the solid waste to be pushed to the ramp, to move through the opening and to glide over the ramp into the waste bin, said opening of the transport mechanism being in proximity to the waste bin, wherein said method is charaterized by the step of pushing said solid waste towards the waste bin along the extendable ramp with said slider until said solid waste glides on the extendable ramp into the waste bin, and wherein said ramp is at least partly flexible. wherein said method comprises the steps of placing a solid waste into a parking position associated with said transport mechanism, wherein said parking position is located on the side of the slider which is proximal to the waste bin and between the slider and an opening of the transport mechanism on the side where the waste bin is located allowing the solid waste to be pushed to the ramp, to move through the opening and to glide over the ramp into the waste bin, said opening of the transport mechanism being in proximity to the waste bin, wherein said method is charaterized by the step of pushing said solid waste towards the waste bin along the extendable ramp with said slider until said solid waste glides on the extendable ramp into the waste bin, and wherein said ramp is at least partly flexible.
A volatile liquid dispensing system comprising a refill unit, the refill unit having a fragrance reservoir and a collection device enclosed therein, the collection device positioned adjacent to the fragrance reservoir for collecting and emanating pumped volatile liquid from the fragrance reservoir into an atmosphere, the fragrance reservoir being adapted to deliver the volatile liquid to the collection device through a predefined discharging mode, wherein the discharging mode is one of gas and gravity, the collection device is positioned adjacent to the fragrance reservoir thereby maintaining a predefined gap therebetween, the refill unit having a refill cover, the refill cover having the fragrance reservoir and the collection device enclosed therein, characterized in that, the collection device enclosed in the refill cover thereby maintaining a predefined gap therebetween allowing evaporation of the volatile liquid from all sides of the collection device, and wherein the predefined gap between the collection device and the refill cover is minimum of 2mm, the predefined gap between the collection device and the fragrance reservoir is minimum of 5mm, to allow unhindered air flow, and wherein the geometric arrangement of fragrance reservoir and the collection device allows air flow to all sides of the collection device to take part in the evaporation of the liquid thus ensuring maximum volatile liquid to be delivered to the surroundings. the fragrance reservoir being adapted to deliver the volatile liquid to the collection device through a predefined discharging mode, wherein the discharging mode is one of gas and gravity, the collection device is positioned adjacent to the fragrance reservoir thereby maintaining a predefined gap therebetween, the refill unit having a refill cover, the refill cover having the fragrance reservoir and the collection device enclosed therein, characterized in that, the collection device enclosed in the refill cover thereby maintaining a predefined gap therebetween allowing evaporation of the volatile liquid from all sides of the collection device, and wherein the predefined gap between the collection device and the refill cover is minimum of 2mm, the predefined gap between the collection device and the fragrance reservoir is minimum of 5mm, to allow unhindered air flow, and wherein the geometric arrangement of fragrance reservoir and the collection device allows air flow to all sides of the collection device to take part in the evaporation of the liquid thus ensuring maximum volatile liquid to be delivered to the surroundings.
A method comprising: depositing a slurry on a surface of an infiltrated ceramic matrix composite, wherein the slurry comprises a carrier material, a binder, a plasticizer, and solid particles, wherein the solid particles comprise a plurality of fine ceramic particles defining a fine particle average size less than about5 micrometers, drying the slurry to form an article having an outer surface layer comprising the solid particles on the infiltrated CMC; machining at least a portion of the outer surface layer of the article; and infiltrating the article with a molten infiltrant to form a composite article, wherein the machining of the surface layer is prior to melt infiltration, characterised in that the slurry comprises about 0.1 percent by weight (wt.%) to about 12 wt.% of the plasticizer. depositing a slurry on a surface of an infiltrated ceramic matrix composite, wherein the slurry comprises a carrier material, a binder, a plasticizer, and solid particles, wherein the solid particles comprise a plurality of fine ceramic particles defining a fine particle average size less than about5 micrometers, drying the slurry to form an article having an outer surface layer comprising the solid particles on the infiltrated CMC; machining at least a portion of the outer surface layer of the article; and infiltrating the article with a molten infiltrant to form a composite article, wherein the machining of the surface layer is prior to melt infiltration, characterised in that the slurry comprises about 0.1 percent by weight (wt.%) to about 12 wt.% of the plasticizer.
A video signal decoding method, for decoding additional information in a video signal, the video signal comprising a plurality of scan lines corresponding to a video image, the method comprising: detecting a target scan line in the video signal, a signal of the target scan line comprising a run-in code, identification information and the additional information; determining a first working interval according to a synchronization signal corresponding to the target scan line; detecting the run-in code in the first working interval; determining a second working interval and a third working interval according to a time point at which the run-in code is detected; in the second working interval, adjusting a sampling clock according to the run-in code; generating sampled data according to the sampling clock and the signal of the target scan line; in the third working interval, detecting the identification information according to the sampled data to generate a detection result of the identification information; and decoding the additional information according to the sampled data and the detection result of the identification information. detecting a target scan line in the video signal, a signal of the target scan line comprising a run-in code, identification information and the additional information; determining a first working interval according to a synchronization signal corresponding to the target scan line; detecting the run-in code in the first working interval; determining a second working interval and a third working interval according to a time point at which the run-in code is detected; in the second working interval, adjusting a sampling clock according to the run-in code; generating sampled data according to the sampling clock and the signal of the target scan line; in the third working interval, detecting the identification information according to the sampled data to generate a detection result of the identification information; and decoding the additional information according to the sampled data and the detection result of the identification information.
A battery pack for a device, comprising: a battery pack housing; at least one externally accessible manually actuatable battery pack release member held by the battery pack housing, the battery pack release member having an actuation stroke distance from a home position to a fully deployed position; a latch held by the battery pack housing in communication with or integral to the battery pack release member that releaseably locks the battery pack housing to a device; and a tactile feedback mechanism that is held by the battery pack housing and is in communication with the battery pack release member or defines an externally accessible part of the battery pack release member, characterized in that the tactile feedback mechanism is configured to generate a sudden tactile feedback at a defined trigger point of the battery pack release member that is between the home and fully deployed position that abruptly reduces or increases an application force required by a user to manually actuate the at least one release member thereby indicating to the user the latch is in a prescribed position to allow the battery pack to now be easily removed from the device. a battery pack housing; at least one externally accessible manually actuatable battery pack release member held by the battery pack housing, the battery pack release member having an actuation stroke distance from a home position to a fully deployed position; a latch held by the battery pack housing in communication with or integral to the battery pack release member that releaseably locks the battery pack housing to a device; and a tactile feedback mechanism that is held by the battery pack housing and is in communication with the battery pack release member or defines an externally accessible part of the battery pack release member, characterized in that the tactile feedback mechanism is configured to generate a sudden tactile feedback at a defined trigger point of the battery pack release member that is between the home and fully deployed position that abruptly reduces or increases an application force required by a user to manually actuate the at least one release member thereby indicating to the user the latch is in a prescribed position to allow the battery pack to now be easily removed from the device.
A microporous membrane comprising a polymeric substrate said substrate carrying a coating comprising metallic silver adhering to a surface of the substrate and a metallic copper coating overlaying the metallic silver.
A touch control display device, comprising a substrate, and a plurality of organic light-emitting diodes arranged on the substrate, each of which includes a first electrode, an organic light-emitting layer and a second electrode stacked in sequence, the first electrodes being arranged close to the substrate, wherein, the first electrodes in all of the organic light-emitting diodes are arranged to be separated from each other; the touch control layer comprises a plurality of second conductive units arranged in parallel in a second direction, a plurality of first conductive units and the second conductive units are configured to be insulated from each other and to form a cross network, characterized in that the touch control display device further comprises a first encapsulation layer, a touch control layer and a second encapsulation layer stacked in sequence upon the organic light-emitting diodes, wherein the second electrodes in each row of the organic light-emitting diodes are connected in series in the same layer in a first direction so as to form the plurality of first conductive units. a substrate, and a plurality of organic light-emitting diodes arranged on the substrate, each of which includes a first electrode, an organic light-emitting layer and a second electrode stacked in sequence, the first electrodes being arranged close to the substrate, wherein, the first electrodes in all of the organic light-emitting diodes are arranged to be separated from each other; the touch control layer comprises a plurality of second conductive units arranged in parallel in a second direction, a plurality of first conductive units and the second conductive units are configured to be insulated from each other and to form a cross network, characterized in that the touch control display device further comprises a first encapsulation layer, a touch control layer and a second encapsulation layer stacked in sequence upon the organic light-emitting diodes, wherein the second electrodes in each row of the organic light-emitting diodes are connected in series in the same layer in a first direction so as to form the plurality of first conductive units.
A composition comprising a substituted ethylene diamine compound wherein the substituted ethylene diamine compound is selected from or or wherein the substituted ethylene diamine compound is selected from or wherein the substituted ethylene diamine compound is selected from, or salts thereof.
A method of mobile media presentation, said method comprising: receiving, from a wireless network service, streaming content with a portable electronic device, said content received by said portable electronic device being a low resolution version of said content; selectively interfacing said portable electronic device with a docking station, wherein said docking station is connected to at least one host device; responsive to said portable electronic device being selectively interfaced with said docking station, requesting, by said portable electronic device, a high resolution version of the content, and automatically switching a playback of said content between said portable electronic device and said at least one host device, and receiving the high resolution content with said portable electronic device, and streaming the high resolution content to the host device through the docking station; and responsive to said portable electronic device being selectively interfaced with said at least one host device, ceasing a playback of said content by said portable electronic device; wherein said playback of said content on said at least one host device supersedes any other content being played back by said at least one host device. receiving, from a wireless network service, streaming content with a portable electronic device, said content received by said portable electronic device being a low resolution version of said content; selectively interfacing said portable electronic device with a docking station, wherein said docking station is connected to at least one host device; responsive to said portable electronic device being selectively interfaced with said docking station, requesting, by said portable electronic device, a high resolution version of the content, and automatically switching a playback of said content between said portable electronic device and said at least one host device, and receiving the high resolution content with said portable electronic device, and streaming the high resolution content to the host device through the docking station; and responsive to said portable electronic device being selectively interfaced with said at least one host device, ceasing a playback of said content by said portable electronic device; wherein said playback of said content on said at least one host device supersedes any other content being played back by said at least one host device.
A computer implemented method for generating data representative of a volume occupied by a set of rays of light passing through a pupil of an optical system, said volume occupied by said set of rays of light being called a pixel beam, the method comprising: - acquiring data representative of said pixel beam in an object space of a first optical system, said pixel beam being occupied by a set of rays of light passing through a pupil of said first optical system and an image conjugate, in said object space of said first optical system, of at least one pixel of a sensor associated with said first optical system; - obtaining an intersection, in said object space of said first optical system, of said pixel beam with a plane; - determining an image conjugate of said intersection through a second optical system; and - generating data representative of said pixel beam from said image conjugate of said intersection. - acquiring data representative of said pixel beam in an object space of a first optical system, said pixel beam being occupied by a set of rays of light passing through a pupil of said first optical system and an image conjugate, in said object space of said first optical system, of at least one pixel of a sensor associated with said first optical system; - obtaining an intersection, in said object space of said first optical system, of said pixel beam with a plane; - determining an image conjugate of said intersection through a second optical system; and - generating data representative of said pixel beam from said image conjugate of said intersection.
A safety device for a vehicle having an optical sensor arranged thereon for locating objects within a detection region, at least one safety field lying within the detection region being predetermined in the optical sensor, a switching signal being generated by the optical sensor when an object is detected in the safety field by means of the optical sensor, characterised in that the optical sensor has an optical sensor which is arranged thereon and is arranged in the optical sensor for locating objects within a detection region, in that the direction of travel and/or speed of the vehicle can be determined as measured variables by locating stationary objects by means of the optical sensor at predefined points in time, and in that a safety field, within which the object is detected, is selected from a plurality of stored safety fields in the optical sensor as a function of these measured variables, or a validity check of a safety field and/or setting value of the vehicle read into the safety field by a controller is carried out in the optical sensor.
A turret winding head with a closed housing having a first and a second spindle (4, 6) disposed in a turret base plate, wherein the turret base plate is formed as part of the housing and the spindles (4, 6) are disposed outside of the housing, and having a first drive (25, 26, 28) for the first spindle and a second drive for the second spindle, wherein the drives are disposed inside the housing, and the first and the second drive are each provided with a fan wheel, characterized in that an intake duct is provided on the intake side of the fan wheel of the first and second drive, respectively, through which a suction of air by the fan wheel from outside of the housing is provided.
A pneumatic tire (1; 1A; 1B) comprising a carcass extending between bead cores of bead portions via a tread portion and sidewall portions, and a belt layer arranged on an outer side in a tire radial direction of the carcass and inside the tread portion, wherein a porous noise damper is arranged on an inner cavity surface of the tread portion, characterized in that the glass transition temperature of the noise damper is in a range of from -55 degrees Celsius to -45 degrees Celsius and not equal to -50 degrees Celsius.