mhurhangee/ep-ind-claims huggingface dataset:
A folding leaf door installation, comprising - at least one folding leaf door (2, 3), and - at least one drive unit for moving the folding leaf door (2, 3) between a closed location and an opened location, and - a control unit for controlling the drive unit, - wherein the control unit is adapted to detect a deviation, potentially caused by the influence of wind, of the folding leaf door (2, 3) from the closed location, and - wherein the control unit is adapted to control the drive unit in such a manner that the drive unit with increasing deviation develops an increasing force, which is controllable by electric power, onto the folding leaf door (2, 3) in the direction of the closed location, characterized in that - the control unit is adapted to detect a deviation above a predefined limit value within a predefined time slot, and to increase the power by a specified increase value, and - the control unit is adapted to repeatedly lower the power to be output, after a predefined time slot pattern has elapsed, by a predefined decrease value, and - the decrease value is smaller than the increase value, wherein the control unit is adapted to lower the power to be output so often by the decrease value until the increase by the increase value is neutralized. - at least one folding leaf door (2, 3), and - at least one drive unit for moving the folding leaf door (2, 3) between a closed location and an opened location, and - a control unit for controlling the drive unit, - wherein the control unit is adapted to detect a deviation, potentially caused by the influence of wind, of the folding leaf door (2, 3) from the closed location, and - wherein the control unit is adapted to control the drive unit in such a manner that the drive unit with increasing deviation develops an increasing force, which is controllable by electric power, onto the folding leaf door (2, 3) in the direction of the closed location, - the control unit is adapted to detect a deviation above a predefined limit value within a predefined time slot, and to increase the power by a specified increase value, and - the control unit is adapted to repeatedly lower the power to be output, after a predefined time slot pattern has elapsed, by a predefined decrease value, and - the decrease value is smaller than the increase value, wherein the control unit is adapted to lower the power to be output so often by the decrease value until the increase by the increase value is neutralized.
A digital nano-mirror device, comprising - a nano-mirror extending in one position in an xy-plane of an orthogonal xyz-coordinale system, and - an actuating mechanism for moving the nano-mirror in an upward and/or downward position, and - a fixed structure wherein the actuating mechanism comprises a cantilever mounted to the fixed structure, characterized in that the cantilever comprises: - a first, second, third and fourth cantilever segment, and a torsional element - a first cantilever segment extending in the direction y of the xyz-coordinate system, the first cantilever segment having a first end connected to the nano-mirror and a second end connected to a second cantilever segment; - a third cantilever segment extending in the direction y of the xyz-coordinate system, the third cantilever segment having a first end connected to the second cantilever segment and a second end connected to a fourth cantilever segment, wherein the third cantilever segment is pivotally mounted to the fixed structure via the torsional element such that the second cantilever segment is disposed on a first side of the torsional element and the fourth cantilever segment is disposed on a second side of the torsional element; such that the pivoting axis is oriented in direction x of the xyz coordinate system a first electrode configured to actuate electrostatically the second cantilever segment and substantially overlapping the second cantilever segment on the first side when viewed in a direction perpendicular to a surface of the nanomirror; and a second electrode configured to actuate the fourth cantilever segment and substantially overlapping the fourth cantilever segment on the second side when viewed in the direction perpendicular to the surface of the nano-mirror. - a nano-mirror extending in one position in an xy-plane of an orthogonal xyz-coordinale system, and - an actuating mechanism for moving the nano-mirror in an upward and/or downward position, and - a fixed structure - a first, second, third and fourth cantilever segment, and a torsional element - a first cantilever segment extending in the direction y of the xyz-coordinate system, the first cantilever segment having a first end connected to the nano-mirror and a second end connected to a second cantilever segment; - a third cantilever segment extending in the direction y of the xyz-coordinate system, the third cantilever segment having a first end connected to the second cantilever segment and a second end connected to a fourth cantilever segment, wherein the third cantilever segment is pivotally mounted to the fixed structure via the torsional element such that the second cantilever segment is disposed on a first side of the torsional element and the fourth cantilever segment is disposed on a second side of the torsional element;
A structural component comprising a substrate consisting of at least two substrate planes (100, 200) that are spaced apart from one another such that an intermediate space is formed between a first substrate plane and a second substrate plane which is opposite the first substrate plane, the substrate planes (100, 200) having a plurality of interconnected planar elements (101, 201) that are each separated from one another by open spaces (102, 202), at least in regions, the planar elements of the first substrate plane being connected to planar elements of the second substrate plane by means of connecting pieces in such a way that passages are formed in each case between adjacent connecting pieces, a structural material being provided in the intermediate space between the substrate planes (100, 200), at least in regions, and extending through the passages between the connecting pieces in the intermediate space, characterized in that the structural material forms the outer surface (4, 5) of the structural component, at least in regions.
A clip for fixing an element, in particular a plug, to a structure, having at least one groove which is defined by two parallel and opposite hook-in edges (23; 24), the fixation clip including a tab which is designed such that it can cooperate with the groove at least on one of its edges on a first plane and a second plane which are parallel to each other, the tab including at least one first fixing means which has at least one first surface and at least one second surface, the first surface extending only on one side of the first plane, and the second surface extending only on one side of the second plane opposite the first surface, the first surface extending set back with respect to the first plane and in the thickness of the tab to the second plane, the second surface extending so as to protrude from the second plane to the outside of the tab, the first surface and the second surface together defining at least one elastically deformable region, characterized in that the volume defined on one side by the second surface and the second plane is smaller than the volume defined on the other side by the first surface and the first plane or is equal thereto.
A method of synthesizing 2'-deoxy-2'-[ 18 F]-fluoro-5-substituted-1-β-D-arabinofuranosyl-uracil or -cytosine compounds in a one-pot reaction comprising: a) radiolabeling a precursor sugar with 18 F; b) contacting the 18 F radiolabeled sugar with a silylated uracil or cytosine in the presence of trimethylsilyl trifluorosulfonate (TMSOTf) and hexamethyldisilazane (HMDS); c) incubating the components in step (b) under microwave irradiation thereby conjugating the 18 F radiolabeled sugar and the silylated uracil or cytosine; d) hydrolyzing the protecting groups of the components in step (c); and e) purifying the hydrolyzed product. a) radiolabeling a precursor sugar with 18 F; b) contacting the 18 F radiolabeled sugar with a silylated uracil or cytosine in the presence of trimethylsilyl trifluorosulfonate (TMSOTf) and hexamethyldisilazane (HMDS); c) incubating the components in step (b) under microwave irradiation thereby conjugating the 18 F radiolabeled sugar and the silylated uracil or cytosine; d) hydrolyzing the protecting groups of the components in step (c); and e) purifying the hydrolyzed product.
A liquid dispensing hair removal device comprising: a handle; a cartridge mounted to the handle, the cartridge having a guard, a cap, and at least one blade behind the guard and in front of the cap, the blade having a blade edge; and a dispensing unit within the handle, the dispensing unit comprising a reservoir, a pump in liquid communication with the reservoir, and an applicator in liquid communication with the pump, wherein the applicator has a guard with a plurality of ribs and an outlet port in front of the ribs, characterized in that the guard of the cartridge has a plurality of projections extending transverse to the blade that are aligned with the ribs of the applicator to define a plurality of open channels extending transverse to the blade. a handle; a cartridge mounted to the handle, the cartridge having a guard, a cap, and at least one blade behind the guard and in front of the cap, the blade having a blade edge; and a dispensing unit within the handle, the dispensing unit comprising a reservoir, a pump in liquid communication with the reservoir, and an applicator in liquid communication with the pump, wherein the applicator has a guard with a plurality of ribs and an outlet port in front of the ribs, characterized in that the guard of the cartridge has a plurality of projections extending transverse to the blade that are aligned with the ribs of the applicator to define a plurality of open channels extending transverse to the blade.
A light emitting diode comprising: a n-type semiconductor layer comprising a n-type dopant; an active layer disposed on the n-type semiconductor layer; a spacer layer disposed on the active layer;a carrier injection layer disposed on the spacer layer; an electron blocking layer disposed on the carrier injection layer and comprising a p-type dopant; and a p-type semiconductor layer comprising a p-type dopant and disposed on the electron blocking layer, wherein the active layer comprises a multi quantum well structure comprising a plurality of well layers and barrier layers, and the bandgap of the barrier layer is greater than the bandgap of the well layer, and wherein the carrier injection layer comprises a n-type dopant and a p-type dopant, whereby the n-type dopant concentration of the carrier injection layer is lower than the p-type dopant concentration of the carrier injection layer, and wherein the spacer layer has an intermediate bandgap between the bandgap of the barrier layer of the active layer and the bandgap of the electron blocking layer. a n-type semiconductor layer comprising a n-type dopant; an active layer disposed on the n-type semiconductor layer; a spacer layer disposed on the active layer;a carrier injection layer disposed on the spacer layer; an electron blocking layer disposed on the carrier injection layer and comprising a p-type dopant; and a p-type semiconductor layer comprising a p-type dopant and disposed on the electron blocking layer, wherein the active layer comprises a multi quantum well structure comprising a plurality of well layers and barrier layers, and the bandgap of the barrier layer is greater than the bandgap of the well layer, and wherein the carrier injection layer comprises a n-type dopant and a p-type dopant, whereby the n-type dopant concentration of the carrier injection layer is lower than the p-type dopant concentration of the carrier injection layer, and wherein the spacer layer has an intermediate bandgap between the bandgap of the barrier layer of the active layer and the bandgap of the electron blocking layer.
A continuous rolling mill for rolling an article defining a rolling axis X, comprising at least two rolling stations arranged in series along the rolling axis X, wherein at least one rolling station comprises: - a fixed structure; - a roll-holder cartridge connected removably to the fixed structure and comprising three rolling rolls (26.a, 26.b, 26.c) mounted on the roll-holder cartridge so as to be movable radially with respect to the rolling axis X, the three rolls being rotatable about three respective axes (r.a, r.b, r.c) arranged at 120° from each other; - three hydraulic capsules (32.a, 32.b, 32.c) mounted on the fixed structure and comprising pistons (50.a, 50.b, 50.c) movable along three respective radial axes (t.a, t.b, t.c) arranged at 120° from each other, each of said hydraulic capsules (32.a, 32.b, 32.c) being able, during use, to act on one of said rolls (26.a, 26.b, 26.c) so as to impart a radial force suitable for the rolling of the article; characterized in that the three hydraulic capsules (32.a, 32.b, 32.c) are of the single-stroke type and are arranged so that, when the pistons (50.a, 50.b) of two hydraulic capsules (32.a, 32.b) are completely retracted to the end-of-travel stop of the working stroke, a path P is created free from obstacles and parallel to the axis (t.c) of the third hydraulic capsule (32.c), said path P allowing the roll-holder cartridge to pass out laterally on the opposite side to that where the third hydraulic capsule (32.c) is situated. - a fixed structure; - a roll-holder cartridge connected removably to the fixed structure and comprising three rolling rolls (26.a, 26.b, 26.c) mounted on the roll-holder cartridge so as to be movable radially with respect to the rolling axis X, the three rolls being rotatable about three respective axes (r.a, r.b, r.c) arranged at 120° from each other; - three hydraulic capsules (32.a, 32.b, 32.c) mounted on the fixed structure and comprising pistons (50.a, 50.b, 50.c) movable along three respective radial axes (t.a, t.b, t.c) arranged at 120° from each other, each of said hydraulic capsules (32.a, 32.b, 32.c) being able, during use, to act on one of said rolls (26.a, 26.b, 26.c) so as to impart a radial force suitable for the rolling of the article; characterized in that the three hydraulic capsules (32.a, 32.b, 32.c) are of the single-stroke type and are arranged so that, when the pistons (50.a, 50.b) of two hydraulic capsules (32.a, 32.b) are completely retracted to the end-of-travel stop of the working stroke, a path P is created free from obstacles and parallel to the axis (t.c) of the third hydraulic capsule (32.c), said path P allowing the roll-holder cartridge to pass out laterally on the opposite side to that where the third hydraulic capsule (32.c) is situated.
An inductive position sensor comprising: a substrate having a front exterior face and a back exterior face, the substrate having a longitudinal axis dividing the substrate into two laterally adjacent, non-overlapping first and second substrate sections (50a, 50b) positioned on opposed sides of a longitudinal axis of the substrate, wherein the first and second substrate sections are located on a same face of the substrate; first and second inductive transmit coil circuits (256, 258; 356, 357) defined and located on the first and second substrate sections (50a, 50b) respectively; and first and second inductive receiver coil circuits (260, 262; 360, 361) defined and located on the first and second substrate sections (50a, 50b) respectively whereby each of the first and second inductive receiver circuits are at least partially surrounded by the first and second inductive transmit coil circuits (256, 258; 356, 357) respectively for reducing a coupling factor between the first and second inductive transmit coil circuits (256, 258; 356, 357), wherein the first inductive transmit coil circuit (256; 356) includes a plurality of transmit coil circuit traces (256a; 356a), wherein the plurality of transmit coil circuit traces (256a; 356a) extend in a semi-circular or quarter-circular pattern on the first substrate section. a substrate having a front exterior face and a back exterior face, the substrate having a longitudinal axis dividing the substrate into two laterally adjacent, non-overlapping first and second substrate sections (50a, 50b) positioned on opposed sides of a longitudinal axis of the substrate, wherein the first and second substrate sections are located on a same face of the substrate; first and second inductive transmit coil circuits (256, 258; 356, 357) defined and located on the first and second substrate sections (50a, 50b) respectively; and first and second inductive receiver coil circuits (260, 262; 360, 361) defined and located on the first and second substrate sections (50a, 50b) respectively whereby each of the first and second inductive receiver circuits are at least partially surrounded by the first and second inductive transmit coil circuits (256, 258; 356, 357) respectively for reducing a coupling factor between the first and second inductive transmit coil circuits (256, 258; 356, 357),
A component mounter equipped with a head configured to hold multiple suction nozzles which are configured for picking up components; a head holding unit configured to mechanically and exchangeably hold the head; a head moving device configured to move the head and the head holding unit; a head placement section configured to place thereon different types of rotary heads for exchange; a head rotating mechanism assembled on the head holding unit, and configured to rotate the head; and a control device which is configured to control the head moving device so as to control the operation of attaching a head placed on the head placement section to the head holding unit, characterized in that the head comprises a plurality of nozzle holders that are configured to exchangeably hold the suction nozzles; the component mounter is further equipped with a nozzle placement section configured for placing thereon nozzles for exchange; the control device is configured to control the operation of attaching a suction nozzle placed on the nozzle placement section to the respective head which is held by the head holding unit; a nozzle rotating mechanism comprising a driving source is assembled on the head holding unit and is configured to correct the orientation of each component picked up by the suction nozzle by rotating the suction nozzle, so that the nozzle rotating mechanism can be shared for use for all rotary heads for exchange, wherein the head is provided with a nozzle rotating gear mechanism for transmitting rotational power of the driving source to each nozzle holder, and wherein the nozzle rotating gear mechanism engages a cylindrical gear, which is rotatably held concentrically at an upper section of the head, and a gear, which is respectively attached to each nozzle holder.
A method of measuring a health index of a plant in which a condition of a lower level component is reflected, the method comprising: a first step of collecting data regarding a first level layer of the plant and calculating an expected value of each component constituting the first level layer; a second step of comparing the expected value with an actual measurement value of each component and calculating a tag index of each component, characterized in that the tag index calculated at the second step has a feature of being calculated by multiplying the tag index by a weight; the method further comprising: a third step of calculating deviation values of the above tag indices and calculating an average value of the above deviation values; a fourth step of calculating a calculated value, which is based on the above average value; a fifth step of calculating an average value (X') of the tag index; a sixth step of determining an index of a next upper level component to which the first level layer belongs from the calculated value and the average value (X'). a first step of collecting data regarding a first level layer of the plant and calculating an expected value of each component constituting the first level layer; a second step of comparing the expected value with an actual measurement value of each component and calculating a tag index of each component, characterized in that the tag index calculated at the second step has a feature of being calculated by multiplying the tag index by a weight; the method further comprising: a third step of calculating deviation values of the above tag indices and calculating an average value of the above deviation values; a fourth step of calculating a calculated value, which is based on the above average value; a fifth step of calculating an average value (X') of the tag index; a sixth step of determining an index of a next upper level component to which the first level layer belongs from the calculated value and the average value (X'). a third step of calculating deviation values of the above tag indices and calculating an average value of the above deviation values; a fourth step of calculating a calculated value, which is based on the above average value; a fifth step of calculating an average value (X') of the tag index; a sixth step of determining an index of a next upper level component to which the first level layer belongs from the calculated value and the average value (X').
A computer-implemented method of determining, at a first node, a common secret that is common with the first node and a second node, wherein the first node is associated with a first asymmetric cryptography pair of an elliptic curve cryptography system common with the first node and the second node and using a generator common with the first node and the second node, the first asymmetric cryptography pair having a first node master private key (V 1C) and a first node master public key (Pic), and the second node is associated with a second asymmetric cryptography pair of the common elliptic curve cryptography system, the second asymmetric cryptography pair having a second node master private key (Vis) and a second node master public key (Pis), wherein the first node master public key and second node master public key are based on elliptic curve point multiplication by the respective first node master private key and second node master private key of the generator, and wherein the method comprises: - determining a first node second private key (V 2C) based on at least the first node master private key (V 1C) and a deterministic key common with the first and second nodes; - determining a second node second public key (P 2S) based on at least the second node master public key (Pis) with elliptic curve point multiplication of the deterministic key and the generator; and - determining the common secret based on the first node second private key (V 2C) and the second node second public key (P 2S), wherein the second node has the same common secret based on a first node second public key (P 2C) and a second node second private key (V 2S), wherein: - the first node second public key (P 2C) is based the first node second private key (V 2C) with elliptic curve point multiplication with the generator; and - the second node second private key (V 2S) is based on at least the second node master private key (Vis) and the deterministic key. - determining a first node second private key (V 2C) based on at least the first node master private key (V 1C) and a deterministic key common with the first and second nodes; - determining a second node second public key (P 2S) based on at least the second node master public key (Pis) with elliptic curve point multiplication of the deterministic key and the generator; and - determining the common secret based on the first node second private key (V 2C) and the second node second public key (P 2S), - the first node second public key (P 2C) is based the first node second private key (V 2C) with elliptic curve point multiplication with the generator; and - the second node second private key (V 2S) is based on at least the second node master private key (Vis) and the deterministic key.