mhurhangee/ep-ind-claims huggingface dataset:
A drawer pull-out guide, comprising: - a first guide rail and at least one second guide rail displaceably supported relative to one another in a longitudinal direction of the guide rails (10, 11) between a closed position and an open position, - at least one guide body supported between the guide rails (10, 11), the guide rails (10, 11) being guidable in a lateral direction relative to one another in a mounted position of the drawer pull-out guide by the at least one guide body, - wherein at least one of the guide rails (10, 11) includes at least one protrusion bearing against the at least one guide body in the open position of the guide rails (10, 11), so that at least in that region, in which the at least one guide body and the at least one protrusion bear against each other, the guide rails (10, 11) are arranged without clearance relative to one another in the lateral direction, characterized in that - at least two guide bodies (23a, 23b) are supported between the guide rails (10, 11), the at least two guide bodies (23a, 23b) being spaced apart from one another in the longitudinal direction of the guide rails (10, 11), wherein a first guide body bears against a first protrusion of the guide rails (10, 11) without clearance and a second guide body bears against a second protrusion of the guide rails (10, 11) without clearance when the guide rails (10, 11) are located in the open position, and - the first protrusion and the at least one second protrusion have a different height. - a first guide rail and at least one second guide rail displaceably supported relative to one another in a longitudinal direction of the guide rails (10, 11) between a closed position and an open position, - at least one guide body supported between the guide rails (10, 11), the guide rails (10, 11) being guidable in a lateral direction relative to one another in a mounted position of the drawer pull-out guide by the at least one guide body, - wherein at least one of the guide rails (10, 11) includes at least one protrusion bearing against the at least one guide body in the open position of the guide rails (10, 11), so that at least in that region, in which the at least one guide body and the at least one protrusion bear against each other, the guide rails (10, 11) are arranged without clearance relative to one another in the lateral direction, characterized in that - at least two guide bodies (23a, 23b) are supported between the guide rails (10, 11), the at least two guide bodies (23a, 23b) being spaced apart from one another in the longitudinal direction of the guide rails (10, 11), wherein a first guide body bears against a first protrusion of the guide rails (10, 11) without clearance and a second guide body bears against a second protrusion of the guide rails (10, 11) without clearance when the guide rails (10, 11) are located in the open position, and - the first protrusion and the at least one second protrusion have a different height.
A switching converter that comprises: a transformer comprising a primary winding (L P), a secondary winding (L S) and at least an auxiliary winding (L AUX '); a first electronic switch (T 1) coupled to the primary winding (L P) and configured to switch a primary current (i P) passing through the primary winding on and off in accordance with a first drive signal; a synchronous rectifier circuit coupled between the secondary winding (L S) and an output node of the switching converter and including a transistor (T SR) and a controller configured to switch the transistor (T SR) on and off; a pre-magnetization circuit which comprises a capacitive circuit (C PM, D P1, Dp 3; C PM1, C PM2, D P1, D P2, D P3) and a second electronic switch (T 2) that is connected between the auxiliary winding ( L AUX ') and the capacitive circuit (C PM, D P1, Dp 3; C PM1, C PM2, D P1, D P2, D P3); characterised in that the capacitive circuit is configured to apply a first voltage (V PM /2, V PM -2V F) to the auxiliary winding ( L AUX ') during a pre-magnetization period (T ON2) when the second electronic switch (T 2) is closed and to be charged up to a second voltage (V PM) when the second electronic switch (T 2) is open, the first voltage being lower than the second voltage, such that a switch-on of the transistor (T SR) by the controller is avoided in the pre-magnetization period (T ON2). a transformer comprising a primary winding (L P), a secondary winding (L S) and at least an auxiliary winding (L AUX '); a first electronic switch (T 1) coupled to the primary winding (L P) and configured to switch a primary current (i P) passing through the primary winding on and off in accordance with a first drive signal; a synchronous rectifier circuit coupled between the secondary winding (L S) and an output node of the switching converter and including a transistor (T SR) and a controller configured to switch the transistor (T SR) on and off; a pre-magnetization circuit which comprises a capacitive circuit (C PM, D P1, Dp 3; C PM1, C PM2, D P1, D P2, D P3) and a second electronic switch (T 2) that is connected between the auxiliary winding ( L AUX ') and the capacitive circuit (C PM, D P1, Dp 3; C PM1, C PM2, D P1, D P2, D P3); characterised in that the capacitive circuit is configured to apply a first voltage (V PM /2, V PM -2V F) to the auxiliary winding ( L AUX ') during a pre-magnetization period (T ON2) when the second electronic switch (T 2) is closed and to be charged up to a second voltage (V PM) when the second electronic switch (T 2) is open, the first voltage being lower than the second voltage, such that a switch-on of the transistor (T SR) by the controller is avoided in the pre-magnetization period (T ON2).
Method for delivery power to an inductor of an induction heating system, particularly for cooking appliances, comprising a power supply unit and a control unit for controlling the delivered power to a predetermined level, wherein the control unit measures the value of an electrical parameter of the power supply unit at predetermined time intervals (Δt1) characterized in that the control unit is adapted to measure said electrical parameter at said predetermined time intervals (Δt1) at a predetermined duty cycle of a power transistor switching frequency, the control unit being also adapted to modulate said duty cycle during heating intervals (Δt2) between said time intervals (Δt1) in order to keep the delivered power to said predetermined level.
A method of video encoding comprising the steps of: receiving a video input in a first chrominance sampling format in which chrominance information is sampled at different sample densities in the horizontal and vertical directions respectively; resampling the video to a second chrominance sampling format in which the chrominance information is sampled at the same sample densities in the horizontal and vertical directions, wherein at least in a first mode of operation the second chrominance sampling format is up-sampled with respect to the first chrominance sampling format; storing reference samples in the first chrominance format; forming residuals in which chrominance information is sampled in the second chrominance format by subtraction of a prediction formed through the use of the reference samples with resampling such that the prediction is in the second chrominance format; and transforming, quantising and entropy coding the residuals to form an encoded bitstream in the second chrominance sampling format. receiving a video input in a first chrominance sampling format in which chrominance information is sampled at different sample densities in the horizontal and vertical directions respectively; resampling the video to a second chrominance sampling format in which the chrominance information is sampled at the same sample densities in the horizontal and vertical directions, wherein at least in a first mode of operation the second chrominance sampling format is up-sampled with respect to the first chrominance sampling format; storing reference samples in the first chrominance format; forming residuals in which chrominance information is sampled in the second chrominance format by subtraction of a prediction formed through the use of the reference samples with resampling such that the prediction is in the second chrominance format; and transforming, quantising and entropy coding the residuals to form an encoded bitstream in the second chrominance sampling format.
A coated granular sorbent comprising a plurality of sorbent granules, each sorbent granule comprising: (a) an inner core formed of an extruded starch-containing pellet containing at least 50% starch by weight and comprised of a first sorbent material, the inner core having a first bulk density; and (b) an outer shell comprised of a second sorbent material, the outer shell having a second bulk density higher than the first bulk density of the inner core, and the outer shell extending about the inner core; and wherein the outer shell of each sorbent granule is formed of a water-soluble binder matrix formed of water-soluble binder from the inner core and particles of the second sorbent material attached to each other and the inner core by the water-soluble binder, wherein the inner core is further comprised of the water-soluble binder, and wherein the plurality of sorbent granules form a clump when wetted. (a) an inner core formed of an extruded starch-containing pellet containing at least 50% starch by weight and comprised of a first sorbent material, the inner core having a first bulk density; and (b) an outer shell comprised of a second sorbent material, the outer shell having a second bulk density higher than the first bulk density of the inner core, and the outer shell extending about the inner core; and wherein the outer shell of each sorbent granule is formed of a water-soluble binder matrix formed of water-soluble binder from the inner core and particles of the second sorbent material attached to each other and the inner core by the water-soluble binder, wherein the inner core is further comprised of the water-soluble binder, and wherein the plurality of sorbent granules form a clump when wetted. wherein the outer shell of each sorbent granule is formed of a water-soluble binder matrix formed of water-soluble binder from the inner core and particles of the second sorbent material attached to each other and the inner core by the water-soluble binder, wherein the inner core is further comprised of the water-soluble binder, and wherein the plurality of sorbent granules form a clump when wetted.
A light emitting device comprising: a Light Emitting Diode, LED, chip having first and second opposing faces; an anode contact and a cathode contact that are spaced apart from one another on the first face to define a gap therebetween, the anode and cathode contacts having outer faces that are remote from the first face; and a solder mask layer that extends from the gap onto the outer face of the cathode contact; and a first solder layer on the outer face of the anode contact and a second solder layer on the outer face of the cathode contact that are spaced apart from one another by the solder mask layer that extends onto the outer face of the cathode contact, wherein the cathode contact is wider than the anode contact and wherein the solder mask layer extends from the gap onto the outer face of the cathode contact, but does not extend onto the outer face of the anode contact. a Light Emitting Diode, LED, chip having first and second opposing faces; an anode contact and a cathode contact that are spaced apart from one another on the first face to define a gap therebetween, the anode and cathode contacts having outer faces that are remote from the first face; and a solder mask layer that extends from the gap onto the outer face of the cathode contact; and a first solder layer on the outer face of the anode contact and a second solder layer on the outer face of the cathode contact that are spaced apart from one another by the solder mask layer that extends onto the outer face of the cathode contact, wherein the cathode contact is wider than the anode contact and wherein the solder mask layer extends from the gap onto the outer face of the cathode contact, but does not extend onto the outer face of the anode contact.
Process for increasing the catalytic activity of an olefin polymerization catalyst component at higher temperatures, comprising the steps of: a) preparing a solution of a complex of a group 2 metal and an electron donor by reacting a compound of said metal with said electron donor and an organic liquid reaction medium; b) adding said solution of said complex to at least one titanium compound comprising titanium in the oxidation state of +4, to produce an emulsion the dispersed phase of which contains more than 50 mol% of the group 2 metal in said complex; c) agitating the emulsion in order to maintain the spherical droplets of said dispersed phase within such an average size range of from 5 to 200 μm; d) solidifying said droplets of the dispersed phase; and e) recovering the solidified particles of the olefin polymerization catalyst component; wherein the increase in activity is achieved by decreasing the amount of titanium present in said solidified particles of the olefin polymerization catalyst component being present in the oxidation state of +4 by adding a reducing agent, wherein the reducing agent is an aluminum alkoxy compound, wherein the aluminum alkoxy compound is selected from compounds of the general formula AIR 3-n X n, wherein R stands for a straight chain or a branched alkoxy group having 1 to 20 carbon atoms, X independently represents a residue selected from the group of halogen and alkyl and n stands for 1 or 2, wherein the recovered particulate product is washed at least once with a hydrocarbon, and wherein the aluminum compound is not added to the last washing. a) preparing a solution of a complex of a group 2 metal and an electron donor by reacting a compound of said metal with said electron donor and an organic liquid reaction medium; b) adding said solution of said complex to at least one titanium compound comprising titanium in the oxidation state of +4, to produce an emulsion the dispersed phase of which contains more than 50 mol% of the group 2 metal in said complex; c) agitating the emulsion in order to maintain the spherical droplets of said dispersed phase within such an average size range of from 5 to 200 μm; d) solidifying said droplets of the dispersed phase; and e) recovering the solidified particles of the olefin polymerization catalyst component;
A platform assembly comprising: a work platform including a platform floor and a safety rail extending from the platform floor to a rail height; and a primary sensor unit secured to the work platform and positioned adjacent the platform floor, the primary sensor unit being configured to monitor an area from the platform floor to a space above the rail height and forward and aft of the work platform. a work platform including a platform floor and a safety rail extending from the platform floor to a rail height; and a primary sensor unit secured to the work platform and positioned adjacent the platform floor, the primary sensor unit being configured to monitor an area from the platform floor to a space above the rail height and forward and aft of the work platform.
Guide assembly comprising a support frame and a guide unit installed cantilevered on said support frame and configured to guide the introduction and/or discharge of a metal product, into or from a rolling unit, characterized in that between said guide unit and said support frame at least one detection device is installed, configured to detect a flexion of said guide unit with respect to said support frame.
A heating element for heating cigarette comprising: a heating part at a proximal end of the heating element, with a longitudinal axis along the longitudinal direction of the heating element; the heating part is configured for inserting inside the cigarette along the longitudinal direction; a fixing part at a distal end of the heating element and secured with the heating part, the fixing part is provided with an air inlet; wherein, the heating part comprises an air flow path formed therein and extending along the longitudinal direction; the air inlet is in communication with the air flow path; the heating part is bored with an air hole (24, 26) that communicates the air flow path with outside the heating part, such that the air flow in the air flow path is flowing into the cigarette; characterized in that: the heating part comprises a body and two wings, wherein the two wings are disposed at two opposite sides of the body. a heating part at a proximal end of the heating element, with a longitudinal axis along the longitudinal direction of the heating element; the heating part is configured for inserting inside the cigarette along the longitudinal direction; a fixing part at a distal end of the heating element and secured with the heating part, the fixing part is provided with an air inlet; wherein, the heating part comprises an air flow path formed therein and extending along the longitudinal direction; the air inlet is in communication with the air flow path; the heating part is bored with an air hole (24, 26) that communicates the air flow path with outside the heating part, such that the air flow in the air flow path is flowing into the cigarette; characterized in that: the heating part comprises a body and two wings, wherein the two wings are disposed at two opposite sides of the body.
A rocker switch comprising: a housing; a rocker pivotably attached to said housing about a rocker pivot point, said rocker comprising: a first side having a first end, a second side having a second end, said rocker pivot point located between said first end and said second end, and a channel, disposed on said second side of said rocker, said channel having a first end and a second end, a crank pivotably attached to said housing about a crank pivot point; a pin disposed on said crank and positioned in said channel; characterised in that said components are arranged so that a depression of said first end of said rocker causes a rotational movement of said channel in a curvilinear path around said crank pivot point, causing a rotational movement of said crank, moving said pin from said first end of said channel toward said second end of said channel. a housing; a rocker pivotably attached to said housing about a rocker pivot point, said rocker comprising: a first side having a first end, a second side having a second end, said rocker pivot point located between said first end and said second end, and a channel, disposed on said second side of said rocker, said channel having a first end and a second end, a crank pivotably attached to said housing about a crank pivot point; a pin disposed on said crank and positioned in said channel; a first side having a first end, a second side having a second end, said rocker pivot point located between said first end and said second end, and a channel, disposed on said second side of said rocker, said channel having a first end and a second end, a crank pivotably attached to said housing about a crank pivot point; a pin disposed on said crank and positioned in said channel;
Method for managing a database in a communication network comprising the following steps: - at least some of a segment to be copied from the database is copied to a copied segment; - at least one node (18a, 18b) which is part of the communication network and intended to receive the copied segment is selected; - characterized in that, said segment to be copied being stored on a node of a subnetwork of said communication network, the node (18a, 18b) is selected on the basis of a capacity information item which is characteristic of it from among the nodes of a predetermined subnetwork. - at least some of a segment to be copied from the database is copied to a copied segment; - at least one node (18a, 18b) which is part of the communication network and intended to receive the copied segment is selected; - characterized in that, said segment to be copied being stored on a node of a subnetwork of said communication network, the node (18a, 18b) is selected on the basis of a capacity information item which is characteristic of it from among the nodes of a predetermined subnetwork.
A locking device for connecting pipe elements (2, 3), intended to be mounted at the junction between an upstream pipe member, so-called upstream element, and a downstream pipe member, so-called downstream element, the upstream element being provided with a relief for forming an abutment against the locking device, said device comprising: - a first half-collar, - a second half-collar, intended to be associated with the first half-collar so as to form a collar (5, 6) around said junction, at least a portion of said collar (5, 6) thus formed abutting against the relief, the first and second half-collars (5, 6) having automatic mutual coupling means, characterized in that the coupling means are shaped and arranged so as to allow coupling of the second half-collar on the first half-collar to the rear of the relief, by moving the second half-collar from upstream to downstream. - a first half-collar, - a second half-collar, intended to be associated with the first half-collar so as to form a collar (5, 6) around said junction, at least a portion of said collar (5, 6) thus formed abutting against the relief, the first and second half-collars (5, 6) having automatic mutual coupling means,
Fuel injector for injecting fuel into a combustion chamber of an internal combustion engine, comprising a nozzle body and a nozzle needle which is received, such that it can perform stroke movements, in a high-pressure bore of the nozzle body for the purposes of opening up and closing off at least one injection opening and which is forced in the direction of a sealing seat by the spring force of a nozzle spring, furthermore comprising an actuator for controlling the stroke movement of the nozzle needle, wherein the actuator is hydraulically coupled to the nozzle needle by means of a coupling device which comprises at least one coupler piston, and wherein the coupler piston is acted on directly, or indirectly via a pressure plate which can perform stroke movements, by the spring force of a coupler spring which is arranged in the high-pressure bore and which preloads the coupler piston axially in the direction of the actuator, characterized in that the coupler piston is, for the purposes of delimiting a coupler chamber, received at least partially in a coupler plate which separates the high-pressure bore from a low-pressure region.