mhurhangee/ep-ind-claims huggingface dataset:
A computing device, comprising: a display; a sensor subsystem for detecting off-surface objects; memory having instructions stored on it which when run on a processor, causes the processor to perform the steps of: detecting an off-surface object using the sensor subsystem; determining a position and a shape of said detected off-surface object; matching the determined position with a set of reference zones and the determined shape with a set of reference poses to thereby determine a gesture state; detecting changes in the determined position and shape using the sensor subsystem; matching said changes in the determined position with transitions between said reference zones and matching said changes in determined shapes with transitions between said reference poses to thereby determine a transition between gesture states; and, instructing a user interface to provide feedback based on the determined transition between gesture states. a display; a sensor subsystem for detecting off-surface objects; memory having instructions stored on it which when run on a processor, causes the processor to perform the steps of: detecting an off-surface object using the sensor subsystem; determining a position and a shape of said detected off-surface object; matching the determined position with a set of reference zones and the determined shape with a set of reference poses to thereby determine a gesture state; detecting changes in the determined position and shape using the sensor subsystem; matching said changes in the determined position with transitions between said reference zones and matching said changes in determined shapes with transitions between said reference poses to thereby determine a transition between gesture states; and, instructing a user interface to provide feedback based on the determined transition between gesture states. detecting an off-surface object using the sensor subsystem; determining a position and a shape of said detected off-surface object; matching the determined position with a set of reference zones and the determined shape with a set of reference poses to thereby determine a gesture state; detecting changes in the determined position and shape using the sensor subsystem; matching said changes in the determined position with transitions between said reference zones and matching said changes in determined shapes with transitions between said reference poses to thereby determine a transition between gesture states; and, instructing a user interface to provide feedback based on the determined transition between gesture states.
Bicycle transport container, in particular bicycle transport box, for a bicycle frame which is preassembled such that the handlebar is connected to the fork stem, the container comprising an outer container and a frame retaining element which is arranged in the outer container and can be taken out of the outer container together with a bicycle frame that is carried by the frame retaining element, wherein a bottom side of the frame retaining element forms a base such that the frame retaining element stands autonomously, independently of the outer container, together with the bicycle frame carried by the frame retaining element, characterized in that a handlebar protector is arranged in the outer container, which handlebar protector comprises a lid element arranged above the handlebar. an outer container and a frame retaining element which is arranged in the outer container and can be taken out of the outer container together with a bicycle frame that is carried by the frame retaining element, wherein a bottom side of the frame retaining element forms a base such that the frame retaining element stands autonomously, independently of the outer container, together with the bicycle frame carried by the frame retaining element, characterized in that a handlebar protector is arranged in the outer container, which handlebar protector comprises a lid element arranged above the handlebar.
Method for installing a drain of a sanitary installation, comprising the following steps: - positioning a housing with a connection for a wastewater pipe (13, 14) on a substrate; - connecting a wastewater pipe (13, 14) to the connection and/or a water inlet or electrical connection; - connecting a drain set arranged in the housing to the connection; - pouring a screed and embedding the housing in the screed, wherein an upper frame of the housing projects upwardly from an upper edge of the screed; - separating the frame at a level of the upper edge of the screed and connecting the frame to a sealing collar. - positioning a housing with a connection for a wastewater pipe (13, 14) on a substrate; - connecting a wastewater pipe (13, 14) to the connection and/or a water inlet or electrical connection; - connecting a drain set arranged in the housing to the connection; - pouring a screed and embedding the housing in the screed, wherein an upper frame of the housing projects upwardly from an upper edge of the screed; - separating the frame at a level of the upper edge of the screed and connecting the frame to a sealing collar.
A system for removing an accessory from a tracheostomy tube comprising a ridge cam-action mechanism adapted to linearly separate the accessory and the tracheostomy tube in response to rotating said accessory and said tracheostomy tube relative to each other, characterized in that said cam-action mechanism is a two part assembly of complementary sinusoidal shaped ridges (66, 78) and said ridges (66, 78) are about a millimeter in height and said sinusoidal shapes have an amplitude of between 1 and 8 mm, and wherein the accessory and the tracheostomy tube each comprise one of the two assembly parts.
A control rod for inserting into an associated guide tube of a nuclear reactor fuel assembly, comprising: a first section including an active material for inserting into the guide tube and controlling a fission rate in a nuclear reactor core, the first section having a first outside diameter; an upper end section above the first section, wherein the upper end section is configured to be positioned above the guide tube during normal operation of the nuclear reactor fuel assembly and to enter the guide tube only during a SCRAM operation, wherein the upper end section includes: a second section configured to attach to a head assembly; and a dampening section (129, 130) located between the first section and the second section, wherein the dampening section has a second diameter larger than the first diameter such that the dampening section reduces a separation distance between an outside surface of the control rod and an inside surface of the guide tube to decelerate the control rod when entering a top end of the guide tube; and a spring positioned inside the dampening section (129, 130) between the first section and the second section. a first section including an active material for inserting into the guide tube and controlling a fission rate in a nuclear reactor core, the first section having a first outside diameter; an upper end section above the first section, wherein the upper end section is configured to be positioned above the guide tube during normal operation of the nuclear reactor fuel assembly and to enter the guide tube only during a SCRAM operation, wherein the upper end section includes: a second section configured to attach to a head assembly; and a dampening section (129, 130) located between the first section and the second section, wherein the dampening section has a second diameter larger than the first diameter such that the dampening section reduces a separation distance between an outside surface of the control rod and an inside surface of the guide tube to decelerate the control rod when entering a top end of the guide tube; and a spring positioned inside the dampening section (129, 130) between the first section and the second section.
A method for a first communication device, comprising: being configured as network scheduling mode and configured with a plurality of resource pools by a base station for a cell; receiving a grant from the base station, wherein the grant indicates a resource; and using the resource to perform a transmission on a device-to-device, in the following also referred to as D2D, interface, wherein the grant further includes a resource pool index, and the resource is associated with a resource pool of the plurality of resource pools through the resource pool index in the grant. being configured as network scheduling mode and configured with a plurality of resource pools by a base station for a cell; receiving a grant from the base station, wherein the grant indicates a resource; and using the resource to perform a transmission on a device-to-device, in the following also referred to as D2D, interface, wherein the grant further includes a resource pool index, and the resource is associated with a resource pool of the plurality of resource pools through the resource pool index in the grant.
A water-based ink for ink-jet printing on a low-liquid absorbing printing medium, comprising a pigment, a polymer dispersant, a water-soluble organic solvent and water, in which: the water-soluble organic solvent comprises at least one organic solvent selected from the group consisting of an alkanediol having not less than 4 and not more than 6 carbon atoms which comprises a hydroxy group at both terminal ends thereof, dipropylene glycol and 2-pyrrolidone in an amount of not less than 90% by mass and not more than 98% by mass, on the basis of the whole water-soluble organic solvent.
An x-ray source comprising: a metallic housing comprising a tubular insulating structure disposed therein; a folded high-voltage multiplier comprising a flexible printed circuit board disposed within the tubular insulating structure; a filament transformer coupled to the high-voltage multiplier, wherein the filament transformer comprises an outer coil disposed over an outer surface of the tubular insulating structure, and an inner coil disposed about an inner surface of the tubular insulating structure; an x-ray tube for producing the x-rays coupled to the filament transformer; and a control circuit electrically coupled to the high-voltage multiplier and the filament transformer to independently control high voltage and beam current of the x-ray tube. a metallic housing comprising a tubular insulating structure disposed therein; a folded high-voltage multiplier comprising a flexible printed circuit board disposed within the tubular insulating structure; a filament transformer coupled to the high-voltage multiplier, wherein the filament transformer comprises an outer coil disposed over an outer surface of the tubular insulating structure, and an inner coil disposed about an inner surface of the tubular insulating structure; an x-ray tube for producing the x-rays coupled to the filament transformer; and a control circuit electrically coupled to the high-voltage multiplier and the filament transformer to independently control high voltage and beam current of the x-ray tube.
A groove-type dynamic pressure gas radial bearing, comprises a bearing outer sleeve and a bearing inner sleeve, the outer circumferential face and the two end faces of the bearing inner sleeve are respectively provided with regular groove-type pattern (21,22,23), characterised in that the groove-type pattern in one end face is in mirror symmetry with the groove-type pattern in the other end face, and the axial contour lines of the groove-type patterns in the outer circumferential face (211,212,213) and the radial contour lines of the groove-type patterns in the left and right end faces (221,222,223,231,232,233) are in one-to-one correspondence and are connected with each other.
A dispensing device comprising: a first container having a sidewall that defines a reservoir, the first container having an upper opening to the reservoir at a top of the first container; a first liquid in the reservoir, wherein the first liquid comprises a dermatological agent; and a porous applicator in the reservoir, wherein the porous applicator comprises an injection-molded polyethylene body having open-celled pores, wherein the open-celled pores extend from a bottom of the porous applicator to a top surface of the porous applicator, wherein the open-celled pores comprise varying pore sizes throughout the porous applicator, wherein the open-celled pores are filled with the first liquid such that the pores deliver the first liquid to the top surface of the porous applicator by capillary action without externally-applied pressure, wherein the porous applicator substantially fills the reservoir and the upper opening at the top of the first container such that the first liquid is prevented from free-flowing out of the reservoir. a first container having a sidewall that defines a reservoir, the first container having an upper opening to the reservoir at a top of the first container; a first liquid in the reservoir, wherein the first liquid comprises a dermatological agent; and a porous applicator in the reservoir, wherein the porous applicator comprises an injection-molded polyethylene body having open-celled pores, wherein the open-celled pores extend from a bottom of the porous applicator to a top surface of the porous applicator, wherein the open-celled pores comprise varying pore sizes throughout the porous applicator, wherein the open-celled pores are filled with the first liquid such that the pores deliver the first liquid to the top surface of the porous applicator by capillary action without externally-applied pressure, wherein the porous applicator substantially fills the reservoir and the upper opening at the top of the first container such that the first liquid is prevented from free-flowing out of the reservoir.
A hybrid metal smartcard (SC, 300) comprising: a metal card body (MCB, 302, 502), featuring a slit (S, 330, 530) so that the metal card body functions as a coupling frame (CF, 320), the slit extending from an outer edge of the metal card body to an inner position thereof so that the slit overlaps at least a portion of a module antenna of a transponder chip module (TCM, 310) when disposed in the smartcard; one or more recesses (342, 344) in a front and/or a rear face of the smartcard; and a non-conductive filler material filling the one or more recesses (304, 540). a metal card body (MCB, 302, 502), featuring a slit (S, 330, 530) so that the metal card body functions as a coupling frame (CF, 320), the slit extending from an outer edge of the metal card body to an inner position thereof so that the slit overlaps at least a portion of a module antenna of a transponder chip module (TCM, 310) when disposed in the smartcard; one or more recesses (342, 344) in a front and/or a rear face of the smartcard; and a non-conductive filler material filling the one or more recesses (304, 540).
A surgical snare (10, 100, 200, 300, 600, 1000), comprising: a steerable deflection portion (12, 112, 312, 412, 512, 612, 912) wherein said steerable deflection portion has a steerable distal tip (16, 116, 202, 616, 916), the steerable deflection portion is in a straight configuration in a natural state, the steerable deflection portion comprises a deflection wire (129, 229, 629) and a core wire (28, 128, 228, 328, 528a, 528b, 628) disposed within said steerable distal tip, and wherein said deflection wire is configured to restrict compression of said steerable deflection portion at said steerable distal tip and to instead cause said steerable deflection portion to bend in response to a force applied to said core wire; an interface linked to said steerable deflection portion, wherein said interface provides for selective manipulation of said steerable distal tip from the natural state to a bent state; a snare loop (14, 114, 214, 614, 714, 814, 914, 1014, 1014) disposed proximate said steerable distal tip of said steerable deflection portion, said snare loop having a length, wherein said snare loop is configured to move as said steerable distal tip of said steerable deflection portion is selectively deflected, and wherein said snare loop maintains said length as said steerable distal tip is selectively deflected; and wherein the snare loop comprises a snare wire (115, 117, 415, 515, 817, 815, 715, 717) at least one end of the snare wire extending proximally of the steerable deflection portion. a steerable deflection portion (12, 112, 312, 412, 512, 612, 912) wherein said steerable deflection portion has a steerable distal tip (16, 116, 202, 616, 916), the steerable deflection portion is in a straight configuration in a natural state, the steerable deflection portion comprises a deflection wire (129, 229, 629) and a core wire (28, 128, 228, 328, 528a, 528b, 628) disposed within said steerable distal tip, and wherein said deflection wire is configured to restrict compression of said steerable deflection portion at said steerable distal tip and to instead cause said steerable deflection portion to bend in response to a force applied to said core wire; an interface linked to said steerable deflection portion, wherein said interface provides for selective manipulation of said steerable distal tip from the natural state to a bent state; a snare loop (14, 114, 214, 614, 714, 814, 914, 1014, 1014) disposed proximate said steerable distal tip of said steerable deflection portion, said snare loop having a length, wherein said snare loop is configured to move as said steerable distal tip of said steerable deflection portion is selectively deflected, and wherein said snare loop maintains said length as said steerable distal tip is selectively deflected; and wherein the snare loop comprises a snare wire (115, 117, 415, 515, 817, 815, 715, 717) at least one end of the snare wire extending proximally of the steerable deflection portion.
A steering column device comprising: a fixed bracket which includes a first plate fixed to a vehicle body-side member; a movable jacket which rotatably supports a steering shaft having a steering member connected to one end of the steering shaft; a movable bracket which supports the movable jacket so as to move in a column movement direction along with the movable jacket at the time of a secondary collision and includes a second plate facing the first plate; and a suspension mechanism (T1, T2) which includes a suspension shaft connecting the first plate and the second plate, thereby suspending the movable jacket through the movable bracket, and is configured to move in the column movement direction along with the second plate at the time of the secondary collision; characterised in that a resin pin (61, 61A, 61 B, 61C) which is inserted into a first hole (66, 66A, 66B, 66C) provided in the first plate and a second hole provided in the second plate, thereby connecting the first plate and the second plate, and is configured to be broken at the time of the secondary collision so as to separate the second plate from a predetermined position of the first plate, wherein each of the first hole (66, 66A, 66B, 66C), the second hole and the resin pin (61, 61 A, 61 B, 61C) is provided more than one, wherein all of the resin pin (61, 61 A, 61 B, 61C) has a predetermined amount of play in a direction orthogonal to the column movement direction with respect to the first hole (66, 66A, 66B, 66C) corresponding thereto. a fixed bracket which includes a first plate fixed to a vehicle body-side member; a movable jacket which rotatably supports a steering shaft having a steering member connected to one end of the steering shaft; a movable bracket which supports the movable jacket so as to move in a column movement direction along with the movable jacket at the time of a secondary collision and includes a second plate facing the first plate; and a suspension mechanism (T1, T2) which includes a suspension shaft connecting the first plate and the second plate, thereby suspending the movable jacket through the movable bracket, and is configured to move in the column movement direction along with the second plate at the time of the secondary collision; characterised in that
A liquid ejection device, comprising: a first metal layer over a substrate; a dielectric layer over the first metal layer; an orifice through the dielectric layer to the first metal layer; a second metal layer over the dielectric layer and partially filling the orifice to form a via to electrically connect the two metal layers (120, 150), the via having a depth-to-width ratio of at least 0.4; characterized in that the liquid ejection device is also comprising a passivation stack, having at least one layer, covering the second metal layer including all interior surfaces of the via, the passivation stack including an ALD-deposited layer formed by atomic layer deposition. a first metal layer over a substrate; a dielectric layer over the first metal layer; an orifice through the dielectric layer to the first metal layer; a second metal layer over the dielectric layer and partially filling the orifice to form a via to electrically connect the two metal layers (120, 150), the via having a depth-to-width ratio of at least 0.4; characterized in that the liquid ejection device is also comprising a passivation stack, having at least one layer, covering the second metal layer including all interior surfaces of the via, the passivation stack including an ALD-deposited layer formed by atomic layer deposition.
A waste heat recovery unit comprising: a steam separator to which main steam generated by recovering heat from exhaust gas exhausted from an internal combustion engine is guided; a steam turbine that is driven by the main steam guided from the steam separator; a regulating valve that regulates flow rate of the main steam flowing from the steam separator to the steam turbine; a steam dump valve that is connected to the steam separator; an output unit that outputs a first pressure that is the pressure of the main steam in the steam separator; and a control unit that controls the steam dump valve so that the steam dump valve is opened when the pressure of the main steam output by the output unit is greater than or equal to a set pressure, and the steam dump valve is closed when the pressure of the main steam output by the output unit is less than the set pressure, characterized in that the control unit is configured to control a degree of opening of the regulating valve so that a fluctuation per unit time in the pressure of the main steam is less than or equal to a predetermined pressure, and the control unit is configured to set the set pressure to a value greater than or equal to the first pressure and less than or equal to a second pressure obtained by adding a constant pressure to the first pressure, the set pressure varying according to the first pressure. a steam separator to which main steam generated by recovering heat from exhaust gas exhausted from an internal combustion engine is guided; a steam turbine that is driven by the main steam guided from the steam separator; a regulating valve that regulates flow rate of the main steam flowing from the steam separator to the steam turbine; a steam dump valve that is connected to the steam separator; an output unit that outputs a first pressure that is the pressure of the main steam in the steam separator; and a control unit that controls the steam dump valve so that the steam dump valve is opened when the pressure of the main steam output by the output unit is greater than or equal to a set pressure, and the steam dump valve is closed when the pressure of the main steam output by the output unit is less than the set pressure, characterized in that the control unit is configured to control a degree of opening of the regulating valve so that a fluctuation per unit time in the pressure of the main steam is less than or equal to a predetermined pressure, and the control unit is configured to set the set pressure to a value greater than or equal to the first pressure and less than or equal to a second pressure obtained by adding a constant pressure to the first pressure, the set pressure varying according to the first pressure.