mhurhangee/ep-ind-claims huggingface dataset:
Device for moving at least one door leaf of a transport vehicle allowing passengers to enter and exit, the vehicle comprising a frame relative to which the door leaf (3a, 3b) moves between respectively open and closed positions, said device comprising: - a fixed beam that is fixed to the frame and has an axis of elongation, - a moving beam having an axis of elongation that is substantially parallel to that of the fixed beam and connected to the door leaf that slides along the moving beam, which is connected to the fixed beam by sliding-plug rails (19a, 19b) that are fixed relative to the fixed beam and that support said moving beam, while allowing the moving beam to move transversely with respect to the axes of elongation of the fixed and moving beams, - a motor fixed to the moving beam, the motor extending along one of the sliding-plug rails, along an axis of rotation that is transverse to the axis of elongation of the fixed beam, coaxially bearing a drive cam and being arranged so as to drive the leaf in a movement parallel to the axis of elongation of the moving beam, - and a central roller which is connected to the moving beam, fixed to the leaf, and which circulates in a groove in the fixed beam during the movement of the leaf, characterised in that the motor is arranged, during the sliding-plug movement of the leaf, to also drive the drive cam, which is provided with a slot, in which a pin is engaged, said pin being fixed to the fixed beam, and a first portion of the slot of the drive cam has a propeller shape with a transverse axis relative to the axes of elongation of the fixed and moving beams, and which drive cam drives, by a conjugation means, an output cam positioned along the other rail, the output cam comprising a slot in which is engaged a second pin fixed to the fixed beam. - a fixed beam that is fixed to the frame and has an axis of elongation, - a moving beam having an axis of elongation that is substantially parallel to that of the fixed beam and connected to the door leaf that slides along the moving beam, which is connected to the fixed beam by sliding-plug rails (19a, 19b) that are fixed relative to the fixed beam and that support said moving beam, while allowing the moving beam to move transversely with respect to the axes of elongation of the fixed and moving beams, - a motor fixed to the moving beam, the motor extending along one of the sliding-plug rails, along an axis of rotation that is transverse to the axis of elongation of the fixed beam, coaxially bearing a drive cam and being arranged so as to drive the leaf in a movement parallel to the axis of elongation of the moving beam, - and a central roller which is connected to the moving beam, fixed to the leaf, and which circulates in a groove in the fixed beam during the movement of the leaf,
An integrated circuit block for a laser voltage probe test system, the integrated circuit block comprising: a sense node wherein the integrated circuit block is configured such that the sense node develops a low frequency electrical parameter when the integrated circuit block is powered, wherein said low frequency electrical parameter is constant or varies at a frequency below a predetermined frequency level of 10 kHz; and a converter circuit coupled to said sense node and including a laser probe area, wherein said converter circuit is configured to convert said low frequency electrical parameter into an alternating electrical parameter having a frequency at or above 10 kHz, wherein the laser probe area is configured to be energized by the alternating electrical parameter such that it creates an electric field which modulates an incident reflected laser beam focused on a point within said laser probe area for detection by the laser voltage probe test system. a sense node wherein the integrated circuit block is configured such that the sense node develops a low frequency electrical parameter when the integrated circuit block is powered, wherein said low frequency electrical parameter is constant or varies at a frequency below a predetermined frequency level of 10 kHz; and a converter circuit coupled to said sense node and including a laser probe area, wherein said converter circuit is configured to convert said low frequency electrical parameter into an alternating electrical parameter having a frequency at or above 10 kHz, wherein the laser probe area is configured to be energized by the alternating electrical parameter such that it creates an electric field which modulates an incident reflected laser beam focused on a point within said laser probe area for detection by the laser voltage probe test system.
An aggregate mount comprising a support mount, a support and a spring body made of a rubber-elastic material, the support mount having at least a first connecting surface, the support having at least a second connecting surface and the spring body having at least a third connecting surface and at least a fourth connecting surface, wherein the first connecting surface of the support mount is connected to the third connecting surface of the spring body and the second connecting surface of the support is connected to the fourth connecting surface of the spring body, wherein the support is connected to a housing, wherein the housing is of cup-shaped construction and encloses the support mount in a relatively vibratable manner at a distance, characterised in that the first connecting surface of the support mount and the third connecting surface of the spring body and/or the second connecting surface of the support and the fourth connecting surface of the spring body are liquid-cooled by a liquid cooling system, in that the support mount and/or the housing are of a double-walled design, the double walls (12, 13; 14, 15) delimiting a coolant chamber (18, 19) filled with a coolant (16, 17) through which the liquid cooling is formed, in that the supporting mount and/or the housing each have two coolant connections (20, 21; 22, 23), in that one of the coolant connections (20, 22) is designed as a coolant supply and one of the coolant connections (21, 23) is designed as a coolant drain, and in that the coolant connections (20, 21; 22, 23) lead into the coolant chamber (18, 19) of the support mount and/or the housing, and in that within the coolant chamber (18, 19) support ribs (24, 25) are arranged for reinforcing the coolant chamber (18, 19) and for guiding the coolant (16, 17).
An intraocular lens for implanting in a human eye, comprising: a) a lens optic having opposite anterior and posterior optic surfaces (34a, 34b) and an optical axis extending from said anterior surface to said posterior surface; b) a posterior concave region blending smoothly with and located radially outwardly of said posterior optic surface; c) an anterior concave region blending smoothly with and located radially outwardly of said anterior optic surface, where the radius of said anterior concave region is substantially equal to the radius of said posterior concave region and wherein said anterior and posterior concave regions (46, 42) are located opposite each other; d) an outer-most peripheral edge surface located radially outwardly of said anterior and posterior concave regions (46, 42), said outer-most peripheral edge surface lying substantially parallel to said optical axis; and e) a posteriorly extending sharp edge defined by an angle "A" and extending 360° around said posterior optic surface and defined by first and second surfaces (40a, 40b), said angle "A" having an apex axis which extends substantially parallel to said optical axis, said first surface blending smoothly into said posterior concave region, and said second surface intersecting the outer-most peripheral edge surface and together therewith forming an obtuse angle "B"; wherein said sharp edge presses against the posterior capsular bag and operates to inhibit posterior capsule opacification. a) a lens optic having opposite anterior and posterior optic surfaces (34a, 34b) and an optical axis extending from said anterior surface to said posterior surface; b) a posterior concave region blending smoothly with and located radially outwardly of said posterior optic surface; c) an anterior concave region blending smoothly with and located radially outwardly of said anterior optic surface, where the radius of said anterior concave region is substantially equal to the radius of said posterior concave region and wherein said anterior and posterior concave regions (46, 42) are located opposite each other; d) an outer-most peripheral edge surface located radially outwardly of said anterior and posterior concave regions (46, 42), said outer-most peripheral edge surface lying substantially parallel to said optical axis; and e) a posteriorly extending sharp edge defined by an angle "A" and extending 360° around said posterior optic surface and defined by first and second surfaces (40a, 40b), said angle "A" having an apex axis which extends substantially parallel to said optical axis, said first surface blending smoothly into said posterior concave region, and said second surface intersecting the outer-most peripheral edge surface and together therewith forming an obtuse angle "B"; wherein said sharp edge presses against the posterior capsular bag and operates to inhibit posterior capsule opacification.
A method of estimating a coupling factor of a rotor of an induction motor when the induction motor is stalled, comprising: applying voltage pulses through two phase paths of the motor for a plurality of electrical cycles over a predetermined stabilization period; measuring stator voltage and stator current in response to the applied voltage pulses for each of the plurality of electrical cycles; calculating a first flux using the measured stator voltage and stator current based upon stator equations; calculating a second flux using the measured stator current based upon rotor equations; and estimating the coupling factor through the predetermined stabilization period by using the first and second fluxes, wherein the estimating the coupling factor comprises adjusting the coupling factor to minimize a difference between the first and second fluxes, wherein the coupling factor is adjusted as a parameter in the rotor equations while using the stator equations as a reference model. applying voltage pulses through two phase paths of the motor for a plurality of electrical cycles over a predetermined stabilization period; measuring stator voltage and stator current in response to the applied voltage pulses for each of the plurality of electrical cycles; calculating a first flux using the measured stator voltage and stator current based upon stator equations; calculating a second flux using the measured stator current based upon rotor equations; and estimating the coupling factor through the predetermined stabilization period by using the first and second fluxes, wherein the estimating the coupling factor comprises adjusting the coupling factor to minimize a difference between the first and second fluxes, wherein the coupling factor is adjusted as a parameter in the rotor equations while using the stator equations as a reference model.
A hybrid inflator comprising a compressed gas chamber and an igniting unit, wherein the compressed gas chamber is closed by a first igniter-side bursting membrane and a second bursting membrane, wherein a first, rapidly burning-off pyrotechnic agent and a second pyrotechnic agent burning off slowly in comparison to the first pyrotechnic agent are located in the hybrid inflator, characterized in that the second bursting membrane can be directly opened by positive pressure which can be generated in the compressed gas chamber and the first pyrotechnic agent is separated from the second pyrotechnic agent in such a manner that the positive pressure in the compressed gas chamber for opening the second bursting membrane can be generated by the first pyrotechnic agent.
A truck chassis comprising an upper part defining an interface to a cab (3,103), wherein an external structure of the upper chassis part has an upper demarcation line extending partly around a space for a wheel arch between a rear position on top of the wheel arch space and a forwards position in front of the wheel arch space, which forwards position is at a lower position in a height direction of the chassis than the rear position, wherein the chassis comprises two means (22,23) for suspension of the cab at a rear portion thereof and that each of the suspension means (22,23) is positioned in the vicinity of an external lateral side wall (24,25) of the chassis, wherein the truck chassis comprises a means (27,28) for shielding sound from the engine to the environment and that the sound shielding means (27,28) is positioned on the external structure of the upper chassis part defining the upper demarcation line, characterized in that each of the suspension means (22,23) is positioned within 25% of the complete distance between a longitudinal centre line of the chassis and the external lateral side wall (24,25) of the chassis and in that said sound shielding means (27,28) is compressible in a height direction of said chassis.
A hair cutting system, comprising: a handle defining a longitudinal axis; a strut mounted to the handle; a hair cutting blade assembly coupled to the strut, the cutting blade assembly including: a stationary blade defining cutting teeth having blade edges; a movable blade defining cutting teeth having blade edges and capable of reciprocal movement relative to the stationary blade in a horizontal direction, the movable blade and the stationary blade being movable relative to each other in a longitudinal direction to adjust a longitudinal position of the movable blade relative to the stationary blade to selectively vary a distance between the blade edges of the stationary blade and the blade edges of the movable blade; and a releasable lock to selectively lock and release the stationary blade and the movable blade with respect to each other in the longitudinal direction, characterized in that the hair cutting system further comprises: an adjustment tool mountable relative to the cutting blade assembly and operatively engageable with the movable blade, the adjustment tool and the strut correspondingly configured such that longitudinal movement of the adjustment tool imparts corresponding longitudinal movement of the movable blade to facilitate adjustment of the longitudinal position of the movable blade relative to the stationary blade. a handle defining a longitudinal axis; a strut mounted to the handle; a hair cutting blade assembly coupled to the strut, the cutting blade assembly including: a stationary blade defining cutting teeth having blade edges; a movable blade defining cutting teeth having blade edges and capable of reciprocal movement relative to the stationary blade in a horizontal direction, the movable blade and the stationary blade being movable relative to each other in a longitudinal direction to adjust a longitudinal position of the movable blade relative to the stationary blade to selectively vary a distance between the blade edges of the stationary blade and the blade edges of the movable blade; and a releasable lock to selectively lock and release the stationary blade and the movable blade with respect to each other in the longitudinal direction, a stationary blade defining cutting teeth having blade edges; a movable blade defining cutting teeth having blade edges and capable of reciprocal movement relative to the stationary blade in a horizontal direction, the movable blade and the stationary blade being movable relative to each other in a longitudinal direction to adjust a longitudinal position of the movable blade relative to the stationary blade to selectively vary a distance between the blade edges of the stationary blade and the blade edges of the movable blade; and a releasable lock to selectively lock and release the stationary blade and the movable blade with respect to each other in the longitudinal direction,
A hot water supplier having a malfunction detection device comprising: a heat pump unit with a power supply unit, the heat pump unit heating water; and a tank unit having a hot water storage tank for storing the heated hot water, a tank temperature detecting section detecting a hot water temperature of the hot water storage tank, a tank printed circuit board and a tank control section, wherein the tank control section of the tank unit controls an energization switching section switching between permission and non-permission of power supply to the heat pump unit from the tank unit, the hot water supplier having power supply lines (46,47) connected with the power supply unit of the heat pump unit through the tank printed circuit board, the energization switching section being a relay interposed in the power supply line in the tank printed circuit board, such that when a standby power saving command for saving a standby power of the heat pump unit is given to the tank control section, power supply of the heat pump unit is stopped and when a hot water temperature of the hot water storage tank detected by the tank temperature detecting section becomes a reference temperature or more, power supply from the tank unit to the heat pump unit is stopped. a heat pump unit with a power supply unit, the heat pump unit heating water; and a tank unit having a hot water storage tank for storing the heated hot water, a tank temperature detecting section detecting a hot water temperature of the hot water storage tank, a tank printed circuit board and a tank control section, wherein the tank control section of the tank unit controls an energization switching section switching between permission and non-permission of power supply to the heat pump unit from the tank unit, the hot water supplier having power supply lines (46,47) connected with the power supply unit of the heat pump unit through the tank printed circuit board, the energization switching section being a relay interposed in the power supply line in the tank printed circuit board, such that when a standby power saving command for saving a standby power of the heat pump unit is given to the tank control section, power supply of the heat pump unit is stopped and when a hot water temperature of the hot water storage tank detected by the tank temperature detecting section becomes a reference temperature or more, power supply from the tank unit to the heat pump unit is stopped.
A hydrogen generating device for executing a bioactivation method for enhancing a neural activity and/or a blood circulation activity of a living body in which method a gas mixture containing hydrogen and oxygen at predetermined concentrations is suctioned by spontaneous breathing continuously for a predetermined time, the hydrogen generating device comprising: a body cover member including a battery, a control substrate for controlling power supply from the battery, and a pair of positive/negative electrodes electrically conducted with or shut down from a positive electrode and a negative electrode of the battery by the control substrate; an electrolysis tank capable of storing water and detachably mounted on the body cover member and into which the pair of positive/negative electrodes are inserted therein in the mounted state; a nozzle portion having a through hole; and a mixing portion fluidically connecting the nozzle portion and an end portion of the electrolysis tank and having a channel for taking in the environmental air. a body cover member including a battery, a control substrate for controlling power supply from the battery, and a pair of positive/negative electrodes electrically conducted with or shut down from a positive electrode and a negative electrode of the battery by the control substrate; an electrolysis tank capable of storing water and detachably mounted on the body cover member and into which the pair of positive/negative electrodes are inserted therein in the mounted state; a nozzle portion having a through hole; and a mixing portion fluidically connecting the nozzle portion and an end portion of the electrolysis tank and having a channel for taking in the environmental air.
A parathyroid hormone/parathyroid hormone-related protein (PTH/PTHrP) receptor agonist for use for promoting repair of articular cartilage in a human subject, wherein the subject has injured articular cartilage, wherein the articular cartilage is injured by trauma, by intermittent administration of the parathyroid hormone/parathyroid hormone-related protein (PTH/PTHrP) receptor agonist to the subject, wherein the PTH/PTHrP receptor agonist is teriparatide.
A method of converting copper containing material to blister copper comprising: (a) providing copper containing material comprising copper sulfides and iron sulfides, whereby the copper containing material comprises at least 35 wt% copper of the total weight of the copper containing material; (b) reacting the copper containing material in a furnace with an oxygen containing gas, in the absence of flux, to effect oxidation of iron sulfide and copper sulfide, and controlling injection of the oxygen containing gas and the temperature so that the resulting converter slag is in a molten phase to obtain blister copper and converter slag. (a) providing copper containing material comprising copper sulfides and iron sulfides, whereby the copper containing material comprises at least 35 wt% copper of the total weight of the copper containing material; (b) reacting the copper containing material in a furnace with an oxygen containing gas, in the absence of flux, to effect oxidation of iron sulfide and copper sulfide, and controlling injection of the oxygen containing gas and the temperature so that the resulting converter slag is in a molten phase to obtain blister copper and converter slag.
A monolithic polymer interlayer comprising: a first poly(vinyl butyral) resin having a first residual hydroxyl content; a second poly(vinyl butyral) resin having a second residual hydroxyl content, wherein the difference between the first residual hydroxyl content and the second residual hydroxyl content is at least 2.0 weight percent; and a plasticizer having a refractive index of at least 1.460. a first poly(vinyl butyral) resin having a first residual hydroxyl content; a second poly(vinyl butyral) resin having a second residual hydroxyl content, wherein the difference between the first residual hydroxyl content and the second residual hydroxyl content is at least 2.0 weight percent; and a plasticizer having a refractive index of at least 1.460.
A system (10; 80) for simultaneously blowing and filling plastic containers from plastic preforms, comprising a rotating apparatus capable of rotating around a central vertical axis and including: - a plurality of moulds (14a-n; 92), each being suitable for enclosing a preform, - a plurality of stretching means (20a-n) for stretching each a preform enclosed within a mould from said plurality of moulds, - a plurality of injection means (18a-n; 94) for injecting each a liquid into a preform enclosed within a mould from said plurality of moulds so as to cause expansion of said preform within a corresponding mould, characterized in that it comprises a manifold (22; 100) for distributing said liquid under pressure to said plurality of injection means, such that said preforms are simultaneously blown and filled by said liquid, and a pump device (30; 102) that is operable to supply liquid to said manifold, and in that each mould (14a-n) has an upper portion that is provided with an aperture, each preform has a mouth that is arranged within said aperture when enclosed within said mould, said aperture being centered around a longitudinal axis (a-n) that is inclined towards said vertical axis. - a plurality of moulds (14a-n; 92), each being suitable for enclosing a preform, - a plurality of stretching means (20a-n) for stretching each a preform enclosed within a mould from said plurality of moulds, - a plurality of injection means (18a-n; 94) for injecting each a liquid into a preform enclosed within a mould from said plurality of moulds so as to cause expansion of said preform within a corresponding mould,