mhurhangee/ep-ind-claims huggingface dataset:
Packaging for an attachable unit for a smoking article comprising: a receptacle or receiver in which the attachable unit is receivable; a gripping mechanism (1006, 1203) to releasably hold the attachable unit within the receptacle or receiver when the attachable unit is received in the receptacle or receiver; a sleeve portion; and a tray slidable within the sleeve portion, wherein the tray comprises the gripping mechanism (1006, 1203) and the receptacle or receiver; wherein the tray comprises a plurality of side panels (1202, 1203), characterized in that at least one of said side panels is at least partially resiliently displaceable to provide a biasing force, in use, on an attachable unit when received in the receptacle or receiver. a receptacle or receiver in which the attachable unit is receivable; a gripping mechanism (1006, 1203) to releasably hold the attachable unit within the receptacle or receiver when the attachable unit is received in the receptacle or receiver; a sleeve portion; and a tray slidable within the sleeve portion, wherein the tray comprises the gripping mechanism (1006, 1203) and the receptacle or receiver;
An energy transfer system comprising an inner hub; an outer hub; a torque coupling (36, 42, 44) rotatably connecting the inner hub to the outer hub; a rim; an array of spokes connecting the outer hub to the rim; an actuator fixed to the inner hub and comprising a flange extending from the inner hub and having an array of apertures; an array of lever arms having a first end hingedly mounted to the outer hub, each lever arm comprising an abutment engaged with one of the apertures; and a spring captured between each lever arm and a respective one of the spokes; wherein a second end of each lever arm extends substantially radially between an adjacent pair of the spokes and is secured to the spring which is captured between the second end of the lever arm and one of the adjacent spokes.
A graphics multiprocessor comprising: an instruction cache configured to receive a stream of instructions; an instruction unit configured to dispatch instructions in the stream of instructions for execution; a general-purpose graphics processing compute block comprising a plurality of graphics processing cores, the graphics processing cores comprising a plurality of execution units configured to execute the instructions; a first shared memory communicatively coupled to the plurality of execution units, wherein the first shared memory is shared by the plurality of execution units; and a copy engine configured to: receive a signal from a scheduler indicating an initiation of a preemption process; stop an execution of an existing context on at least a first of the plurality of execution units; copy context state data from the existing context on the at least a first of the plurality of execution units to the first shared memory; generate a signal to indicate that a context preemption process is complete; and unload the context data from the first shared memory to an external memory. an instruction cache configured to receive a stream of instructions; an instruction unit configured to dispatch instructions in the stream of instructions for execution; a general-purpose graphics processing compute block comprising a plurality of graphics processing cores, the graphics processing cores comprising a plurality of execution units configured to execute the instructions; a first shared memory communicatively coupled to the plurality of execution units, wherein the first shared memory is shared by the plurality of execution units; and a copy engine configured to: receive a signal from a scheduler indicating an initiation of a preemption process; stop an execution of an existing context on at least a first of the plurality of execution units; copy context state data from the existing context on the at least a first of the plurality of execution units to the first shared memory; generate a signal to indicate that a context preemption process is complete; and unload the context data from the first shared memory to an external memory. receive a signal from a scheduler indicating an initiation of a preemption process; stop an execution of an existing context on at least a first of the plurality of execution units; copy context state data from the existing context on the at least a first of the plurality of execution units to the first shared memory; generate a signal to indicate that a context preemption process is complete; and unload the context data from the first shared memory to an external memory.
Method for register correction in a flat-bed die-cutting and/or embossing machine comprising the steps of a) measuring the register of a respective printed and/or die-cut and/or embossed and/or creased image on a web-shaped substrate; b) determining a register deviation and a correction path (k) for compensating for the register deviation, wherein the register deviation is detected by means of an inspection system and the correction path (k) is determined by a machine control unit; c) transporting the web-shaped substrate into a flat-bed die-cutting and/or embossing unit; d) separating the web-shaped substrate by means of a cross-cutter and generating a sheet that is shortened or elongated by the correction value (k); e) ejecting the sheet wherein a sheet switch is actuated by the machine control unit; wherein the flat-bed die-cutting and/or embossing unit carries out a stroke between steps d) and e). a) measuring the register of a respective printed and/or die-cut and/or embossed and/or creased image on a web-shaped substrate; b) determining a register deviation and a correction path (k) for compensating for the register deviation, wherein the register deviation is detected by means of an inspection system and the correction path (k) is determined by a machine control unit; c) transporting the web-shaped substrate into a flat-bed die-cutting and/or embossing unit; d) separating the web-shaped substrate by means of a cross-cutter and generating a sheet that is shortened or elongated by the correction value (k); e) ejecting the sheet wherein a sheet switch is actuated by the machine control unit;
Catalyst comprising a support based on alumina or silica or silica-alumina, an active phase consisting of nickel, molybdenum and tungsten, and phosphorus, characterized in that: - the content of nickel, measured in the NiO form, is between 3% and 4% by weight, with respect to the total weight of the catalyst, - the content of molybdenum, measured in the MoO 3 form, is between 2% and 4% by weight, with respect to the total weight of the catalyst, - the content of tungsten, measured in the WO 3 form, is between 34% and 40% by weight, with respect to the total weight of the catalyst, - the content of phosphorus, measured in the P 2 O 5 form, is between 3% and 4% by weight, with respect to the total weight of the catalyst, - the WO 3 /MoO 3 molar ratio is between 5.3 and 12.4 mol/mol, - the NiO/(WO 3 + MoO 3) molar ratio is between 0.20 and 0.33 mol/mol, - the P 2 O 5 /(WO 3 + MoO 3) molar ratio is between 0.21 and 0.34 mol/mol. - the content of nickel, measured in the NiO form, is between 3% and 4% by weight, with respect to the total weight of the catalyst, - the content of molybdenum, measured in the MoO 3 form, is between 2% and 4% by weight, with respect to the total weight of the catalyst, - the content of tungsten, measured in the WO 3 form, is between 34% and 40% by weight, with respect to the total weight of the catalyst, - the content of phosphorus, measured in the P 2 O 5 form, is between 3% and 4% by weight, with respect to the total weight of the catalyst, - the WO 3 /MoO 3 molar ratio is between 5.3 and 12.4 mol/mol, - the NiO/(WO 3 + MoO 3) molar ratio is between 0.20 and 0.33 mol/mol, - the P 2 O 5 /(WO 3 + MoO 3) molar ratio is between 0.21 and 0.34 mol/mol.
An impact pad comprising an upper part and a middle part, the said upper part being configured as a single piece with a plurality of protrusions on the under side thereof facing the middle part, such that said protrusions are adapted to fit into grooves provided on the top surface of the middle part, wherein said impact pad further comprises a lower part, the bottom surface of the middle part being provided with said lower part, said lower part having a clamping arrangement for fastening the impact pad on the main support frame; and wherein the middle part is made of rubber; characterized in that the upper part is made of ultra high molecular weight polyethylene (UHMWPE); and in that the upper part, the middle part and the lower part are separately made parts assembled by push-fit action.
A lumbar support assembly installed at a seat back frame at the inside of a vehicle seat and configured to support the back region of an occupant, comprising: a suspension mat coupled to the seat back frame; a guide box coupled to the suspension mat; an actuator coupled to the guide box and including a spindle shaft disposed at one side thereof so as to be positioned within the guide box; a pair of spindle nuts screw-coupled to the spindle shaft and slidably moved in opposite directions to each other along with the rotation of the spindle shaft; a pair of cables coupled at one ends thereof to the seat back frame and coupled at the other ends thereof to the pair of spindle nuts; characterised in that the guide box is formed in a half-divided shape so as to be composed of upper and lower housings that are coupled to each other, wherein the upper and lower housings have a pair of guide grooves respectively formed on the opposed inner surfaces thereof so as to confront each other; and wherein the upper and lower housings further have a pair of guide protrusions longitudinally formed on the guide grooves, respectively formed on the opposed inner surfaces thereof. a suspension mat coupled to the seat back frame; a guide box coupled to the suspension mat; an actuator coupled to the guide box and including a spindle shaft disposed at one side thereof so as to be positioned within the guide box; a pair of spindle nuts screw-coupled to the spindle shaft and slidably moved in opposite directions to each other along with the rotation of the spindle shaft; a pair of cables coupled at one ends thereof to the seat back frame and coupled at the other ends thereof to the pair of spindle nuts; characterised in that the guide box is formed in a half-divided shape so as to be composed of upper and lower housings that are coupled to each other, wherein the upper and lower housings have a pair of guide grooves respectively formed on the opposed inner surfaces thereof so as to confront each other; and wherein the upper and lower housings further have a pair of guide protrusions longitudinally formed on the guide grooves, respectively formed on the opposed inner surfaces thereof.
A feed nozzle assembly comprising: a steam inlet; at least one primary mixing chamber to receive a liquid hydrocarbon and a diluent to produce a primary mixture; a secondary mixing chamber flow connected to the primary mixing chamber to receive the primary mixture; characterized in that the secondary mixing chamber extends to a tertiary mixing chamber; and the steam inlet comprises - a perforated plate disposed in the secondary mixing chamber to receive steam, wherein the perforated plate further comprises one or more first orifices and one or more second orifices, the one or more first orifices and the one or more second orifices dividing the steam into first streams of steam and second streams of steam, the one or more first orifices injecting the first streams of steam into the secondary mixing chamber for mixing with the primary mixture; and - a cylindrical member coupled to the one or more second orifices, the cylindrical member receiving the second streams of steam from the one or more second orifices and injecting the second streams of steam into the tertiary mixing chamber. a steam inlet; at least one primary mixing chamber to receive a liquid hydrocarbon and a diluent to produce a primary mixture; a secondary mixing chamber flow connected to the primary mixing chamber to receive the primary mixture; characterized in that the secondary mixing chamber extends to a tertiary mixing chamber; and the steam inlet comprises - a perforated plate disposed in the secondary mixing chamber to receive steam, wherein the perforated plate further comprises one or more first orifices and one or more second orifices, the one or more first orifices and the one or more second orifices dividing the steam into first streams of steam and second streams of steam, the one or more first orifices injecting the first streams of steam into the secondary mixing chamber for mixing with the primary mixture; and - a cylindrical member coupled to the one or more second orifices, the cylindrical member receiving the second streams of steam from the one or more second orifices and injecting the second streams of steam into the tertiary mixing chamber. - a perforated plate disposed in the secondary mixing chamber to receive steam, wherein the perforated plate further comprises one or more first orifices and one or more second orifices, the one or more first orifices and the one or more second orifices dividing the steam into first streams of steam and second streams of steam, the one or more first orifices injecting the first streams of steam into the secondary mixing chamber for mixing with the primary mixture; and - a cylindrical member coupled to the one or more second orifices, the cylindrical member receiving the second streams of steam from the one or more second orifices and injecting the second streams of steam into the tertiary mixing chamber.
A composite honeycomb comprising a plurality of contiguous cells each of substantially hexagonal cross-section, - each cell comprising a lower part and an upper part, said lower part comprising three lower cell walls, namely a lower horizontal cell wall and two lower inclined cell walls, and said upper part comprising three upper cell walls, namely an upper horizontal cell wall and two upper inclined cell walls, wherein - each of said cell walls (51,52,61,62) are substantially of the same thickness, characterized - in that each lower part comprises fiber-reinforced material including a plurality of structural fibers arranged to provide a continuity of fiber-reinforced material between said lower horizontal cell wall and said two lower inclined cell walls of said lower part - and in that each upper part comprises fiber-reinforced material including a plurality of structural fibers arranged to provide a continuity of fiber-reinforced material between said upper horizontal cell wall and said two upper inclined cell walls of said upper part, - so that stress and strain applied to said composite honeycomb can be transmitted from said horizontal cell walls (51,61) to respective inclined cell walls (52,62). - each cell comprising a lower part and an upper part, said lower part comprising three lower cell walls, namely a lower horizontal cell wall and two lower inclined cell walls, and said upper part comprising three upper cell walls, namely an upper horizontal cell wall and two upper inclined cell walls, wherein - each of said cell walls (51,52,61,62) are substantially of the same thickness, characterized - in that each lower part comprises fiber-reinforced material including a plurality of structural fibers arranged to provide a continuity of fiber-reinforced material between said lower horizontal cell wall and said two lower inclined cell walls of said lower part - and in that each upper part comprises fiber-reinforced material including a plurality of structural fibers arranged to provide a continuity of fiber-reinforced material between said upper horizontal cell wall and said two upper inclined cell walls of said upper part, - so that stress and strain applied to said composite honeycomb can be transmitted from said horizontal cell walls (51,61) to respective inclined cell walls (52,62).
Mobile device, comprising: a positioning unit with a receiver, wherein said positioning unit is adapted to determine a new position of said device, a movement sensor, wherein said movement sensor is adapted to detect a movement of said device, characterised in that when said positioning unit is requested to determine the new position, said positioning unit is adapted to use the last position as new position, if no movement of said device has been detected by said sensor since the last position was determined, and that said positioning unit is adapted to determine a new position, if a movement of said device has been detected by said sensor since the last position was determined. a positioning unit with a receiver, wherein said positioning unit is adapted to determine a new position of said device, a movement sensor, wherein said movement sensor is adapted to detect a movement of said device, characterised in that when said positioning unit is requested to determine the new position, said positioning unit is adapted to use the last position as new position, if no movement of said device has been detected by said sensor since the last position was determined, and that said positioning unit is adapted to determine a new position, if a movement of said device has been detected by said sensor since the last position was determined.
A build plate assembly for a three-dimensional printer comprising: a lighting panel having individually addressable pixels configured to selectively emit light and/or transmit light from illumination below the pixels to a top surface of the lighting panel; a rigid, optically transparent, gas-impermeable planar base having an upper surface and a lower surface that is affixed to the top surface of the lighting panel; a flexible, optically transparent, gas-permeable sheet having upper and lower surfaces, the upper surface comprising a build surface for forming a three-dimensional object, the sheet lower surface positioned opposite the base, wherein the build plate assembly is configured to permit gas flow to the build surface, and wherein the lighting panel is a grey scale lighting panel; wherein the base upper surface and/or the sheet lower surface have a surface topology forming a channel layer that increases gas flow to the gas permeable sheet; the build plate assembly further comprising an adhesive layer between the gas-permeable sheet and the base; wherein the adhesive layer comprises a poly(dimethylsiloxane), PDMS, film. a lighting panel having individually addressable pixels configured to selectively emit light and/or transmit light from illumination below the pixels to a top surface of the lighting panel; a rigid, optically transparent, gas-impermeable planar base having an upper surface and a lower surface that is affixed to the top surface of the lighting panel; a flexible, optically transparent, gas-permeable sheet having upper and lower surfaces, the upper surface comprising a build surface for forming a three-dimensional object, the sheet lower surface positioned opposite the base, wherein the build plate assembly is configured to permit gas flow to the build surface, and wherein the lighting panel is a grey scale lighting panel; wherein the base upper surface and/or the sheet lower surface have a surface topology forming a channel layer that increases gas flow to the gas permeable sheet; the build plate assembly further comprising an adhesive layer between the gas-permeable sheet and the base; wherein the adhesive layer comprises a poly(dimethylsiloxane), PDMS, film.
An electronic cigarette atomizer employing an ultrasonic atomizing unit comprising an outer tube which is provided with a mouthpiece at its upper end and an opening at its lower end; a liquid storage cup, a porous supporting sheet, a cigarette liquid permeation sheet, an ultrasonic atomizing unit, an atomizing seat, and a power connector are provided in the outer tube consecutively from top to bottom; the liquid storage cup is closed at its upper end and opened at its lower end; the cigarette liquid permeation sheet is closely adhered to a lower surface of the porous supporting sheet; the atomizing seat is a tubular body with a vapor outlet provided at its side wall; characterized in that an inside of the atomizing seat is provided with the ultrasonic atomizing unit, which includes a liquid guiding stick, an atomizing sheet, and an ultrasonic oscillating sheet; the liquid guiding stick connects with the cigarette liquid permeation sheet and the atomizing sheet; a cigarette liquid in the atomizing sheet can be ultrasonically atomized by the ultrasonic oscillating sheet; an upper-end surface of the atomizing seat presses a compression sheet tightly against the porous supporting sheet; a lower end of the atomizing seat is connected to the power connector; the power connector is sheathed in a lower end of the outer tube and rests against an inner wall of the outer tube.
A load balancing arm for a medical device support system, comprising: a proximal hub including a main bearing element defining a main pivot axis; an adjustable bearing element defining an adjustable pivot axis, wherein the adjustable pivot axis is adjustable relative to the main pivot axis; a support arm having a proximal end and a distal end, wherein the distal end is configured to support a medical device load and the proximal end is pivotably mounted to the main bearing element for pivotable movement about the main pivot axis; a spring extending within a cavity of the support arm and having a proximal end and a distal end, wherein the proximal end of the spring is coupled to the proximal end of the support arm, and wherein the spring is mounted to exert a biasing force between the main pivot axis of the proximal hub and the distal end of the spring; and, at least one link (124, 126) having a proximal end pivotably mounted to the adjustable bearing element for pivotable movement about the adjustable pivot axis, and a distal end pivotably mounted to the distal end of the spring such that the biasing force exerted by the spring is transmitted through the link (124, 126) to the adjustable bearing element thereby to generate a moment about the main pivot axis of the proximal hub that counters a moment generated by the medical device load at the distal end of the support arm. a proximal hub including a main bearing element defining a main pivot axis; an adjustable bearing element defining an adjustable pivot axis, wherein the adjustable pivot axis is adjustable relative to the main pivot axis; a support arm having a proximal end and a distal end, wherein the distal end is configured to support a medical device load and the proximal end is pivotably mounted to the main bearing element for pivotable movement about the main pivot axis; a spring extending within a cavity of the support arm and having a proximal end and a distal end, wherein the proximal end of the spring is coupled to the proximal end of the support arm, and wherein the spring is mounted to exert a biasing force between the main pivot axis of the proximal hub and the distal end of the spring; and, at least one link (124, 126) having a proximal end pivotably mounted to the adjustable bearing element for pivotable movement about the adjustable pivot axis, and a distal end pivotably mounted to the distal end of the spring such that the biasing force exerted by the spring is transmitted through the link (124, 126) to the adjustable bearing element thereby to generate a moment about the main pivot axis of the proximal hub that counters a moment generated by the medical device load at the distal end of the support arm.