mhurhangee/ep-ind-claims huggingface dataset:
A method for objectively evaluating an airport runway condition, comprising: determining a first set of conditions pertaining to aircraft landing factors that are controlled by a pilot, including autobrake setting, brake metered pressure, thrust reverse, thrust lever position and ground spoilers; measuring a second set of conditions pertaining to aircraft braking factors, including brake pressure, wheel speed, and aircraft deceleration; determining a third set of conditions generated by an antiskid brake control system; processing the first, second, and third set of conditions to calculate a braking quality factor for the aircraft based on all three sets of conditions; assigning a runway condition based on the braking quality factor; generating a condition report from the braking quality factor and the associated data; and making available the condition report to pilots of subsequently landing aircrafts prior to landing. determining a first set of conditions pertaining to aircraft landing factors that are controlled by a pilot, including autobrake setting, brake metered pressure, thrust reverse, thrust lever position and ground spoilers; measuring a second set of conditions pertaining to aircraft braking factors, including brake pressure, wheel speed, and aircraft deceleration; determining a third set of conditions generated by an antiskid brake control system; processing the first, second, and third set of conditions to calculate a braking quality factor for the aircraft based on all three sets of conditions; assigning a runway condition based on the braking quality factor; generating a condition report from the braking quality factor and the associated data; and making available the condition report to pilots of subsequently landing aircrafts prior to landing.
A timed control device of a burner of a hob, comprising: a frame, fixable angularly integral to a hob via a coupling system; a knob body, extending substantially around an axis and supported axially by the frame and angularly rotatable around the axis with respect to the frame; an electromechanical actuator which comprises an electrical motor having a stator, supported by the frame, and a rotor supported by the knob body and connectable to a control rod of a gas supply valve of the hob for acting on the control rod; and a timer that operates the actuator so as to rotate the rotor with respect to the frame after a preset time period characterised by the rotor being integrally connected to the knob body via a connection structure and being provided with a seat dimensioned to receive and engage angularly the control rod of the gas supply valve so as the rod is coupled integral to the rotor and rotates with the rotor around the axis.
Stamped sealing device comprising a rigid substrate with two substantially parallel major surfaces (106, 108) separated by two cut surfaces, wherein each said cut surface comprises a first burnished region of height p1 and a second burnished region of height p2 wherein said first and second burnished regions are separated by a rough breakout of height b, characterized in that said two cut surfaces are parallel.
A driving gear of a vehicle starter, comprising a plurality of teeth, each tooth comprising a top chamfer formed between a top land and a front end face of the tooth and a side chamfer formed between a non-driving flank and the front end face of the tooth; the driving gear being characterized in that the distance from a radially inner most point of the top chamfer to the top land is in the range of 0.4 to 0.75 times the height of the tooth; the angle (α) formed between the intersection line between the top chamfer and the front end face and a longitudinal central axis of the tooth is in the range of 125 to 155°; and the angle (γ) between the top chamfer and the front end face is in the range of 15 to 32°.
A rotary valve, comprising: a valve body defining a fluid inlet and a fluid outlet; a valve seat arranged within the valve body; a closure member disposed within the valve body and movable relative to the valve seat via a drive shaft to control fluid flow through the valve body; and a bearing disposed in the valve body to maintain the closure member in alignment with the valve seat, the bearing having a first portion disposed between the valve body and the drive shaft and a second portion disposed between the valve body and the closure member, characterized in that the second portion has a first flat surface spaced from each of the valve body and the closure member, and a second flat surface configured to engage a corresponding flat surface of the valve body when the bearing is subject to a combined thrust and torsional load via the drive shaft, such that the bearing can accommodate the combined thrust and torsional load. a valve body defining a fluid inlet and a fluid outlet; a valve seat arranged within the valve body; a closure member disposed within the valve body and movable relative to the valve seat via a drive shaft to control fluid flow through the valve body; and a bearing disposed in the valve body to maintain the closure member in alignment with the valve seat, the bearing having a first portion disposed between the valve body and the drive shaft and a second portion disposed between the valve body and the closure member, characterized in that the second portion has a first flat surface spaced from each of the valve body and the closure member, and a second flat surface configured to engage a corresponding flat surface of the valve body when the bearing is subject to a combined thrust and torsional load via the drive shaft, such that the bearing can accommodate the combined thrust and torsional load.
A method for controlling a dual-fed induction generator (DFIG) in response to a high-voltage grid event, said method comprising: calculating, by a controller, a rotor voltage feed-forward command; using a closed-loop current regulator to determine a closed-loop rotor voltage command; setting, by the controller, the closed-loop rotor voltage command to a fixed value such that the feed-forward rotor voltage command sets an internal voltage for the DFIG; and detecting, by the controller, a condition of high dc voltage on a dc link or a condition predictive of high dc voltage on the dc link, and in response reducing a rotor torque producing current command to approximately zero, wherein the dc link connects a line-side converter connected to a system bus and a rotor-side converter connected to a rotor of the DFIG. calculating, by a controller, a rotor voltage feed-forward command; using a closed-loop current regulator to determine a closed-loop rotor voltage command; setting, by the controller, the closed-loop rotor voltage command to a fixed value such that the feed-forward rotor voltage command sets an internal voltage for the DFIG; and detecting, by the controller, a condition of high dc voltage on a dc link or a condition predictive of high dc voltage on the dc link, and in response reducing a rotor torque producing current command to approximately zero, wherein the dc link connects a line-side converter connected to a system bus and a rotor-side converter connected to a rotor of the DFIG.
A method of harvesting a crop material, the method comprising: sensing a value of a characteristic of the crop material at each of a plurality of intervals with a characteristic sensor; sensing a location of a harvesting implement on a field at each of the plurality of intervals with a position sensor; generating a set of estimated values of the characteristic of the crop material throughout the field, with a controller, based on the sensed characteristic of the crop material and the sensed location of the harvesting implement at each of the plurality of intervals; predicting a value of the characteristic of the crop material ahead of the harvesting implement, with the controller, as the harvesting implement moves along a harvest path based on the set of estimated values of the characteristic of the crop material throughout the field; and controlling a function of the harvesting implement based on the predicted value of the characteristic of the crop material ahead of the harvesting implement while moving along the harvest path, characterized in that, controlling the function of the harvesting implement using a previously defined set of measured values of the characteristic of the crop material prior to controlling the function of the harvesting implement using the predicted value of the crop material ahead of the harvesting implement. sensing a value of a characteristic of the crop material at each of a plurality of intervals with a characteristic sensor; sensing a location of a harvesting implement on a field at each of the plurality of intervals with a position sensor; generating a set of estimated values of the characteristic of the crop material throughout the field, with a controller, based on the sensed characteristic of the crop material and the sensed location of the harvesting implement at each of the plurality of intervals; predicting a value of the characteristic of the crop material ahead of the harvesting implement, with the controller, as the harvesting implement moves along a harvest path based on the set of estimated values of the characteristic of the crop material throughout the field; and controlling a function of the harvesting implement based on the predicted value of the characteristic of the crop material ahead of the harvesting implement while moving along the harvest path,
Method for joining at least two components (13, 15), at least one component consisting of a fibre-reinforced plastic, characterized by joining the at least two components (13, 15) to form a form-fitting connection by a head of a dome consisting of a filled plastic, preferably of glass fibre-reinforced polyamide or polypropylene, is set in rotation, oscillation and/or a circular movement, and a shaft of the dome is introduced into the components (13, 15) to be connected by applying an axial force, the head in its outer diameter being bigger than the shaft of the dome.
A submarine branching unit, comprising: switching means adapted to switch a plurality of power feeding paths formed between first to third power receiving ports (601, 602, 603); control means adapted to receive power feeding from a power feeding path formed between the first power receiving port and the second power receiving port, and controlling the switching means; and connection means adapted to connect the control means between the third power receiving port and a sea earth when power is not fed to the control means from a power feeding path formed between the first power receiving port and the second power receiving port, characterized in that, after the connection means connects the control means between the third power receiving port and the sea earth, the control means controls the switching means in such a way as to switch to a path that does not pass through the connection means, between the third power receiving port and the sea earth. switching means adapted to switch a plurality of power feeding paths formed between first to third power receiving ports (601, 602, 603); control means adapted to receive power feeding from a power feeding path formed between the first power receiving port and the second power receiving port, and controlling the switching means; and connection means adapted to connect the control means between the third power receiving port and a sea earth when power is not fed to the control means from a power feeding path formed between the first power receiving port and the second power receiving port,
A control interface system for controlling a vehicle through an electronic control unit, the system comprising a first steering column lever (2.1) comprising: a gear mode scroll wheel for controlling a gear box of the vehicle to switch between a plurality of gear modes comprising a forward drive gear mode, a neutral gear mode, and a reverse gear mode, wherein the gear mode scroll wheel is arranged for rotating from a single spring-back position thereof in: - a first scrolling direction for changing from either the neutral gear mode into the forward drive gear mode, and the reverse gear mode into the neutral gear mode or forward drive gear mode, such as via the neutral gear mode; and - a second scrolling direction, opposite the first scrolling direction for changing from either the neutral gear mode into the reverse gear mode, and the forward drive gear mode into the neutral gear mode or reverse gear mode, such as via the neutral gear mode, wherein the single spring-back position is the only rest position of the gear mode scroll wheel, so that the gear box can be controlled to switch between said plurality of gear modes with the single spring-back position as a starting position for rotating the gear mode scroll wheel, characterized in that the gear mode scroll wheel is arranged on a user facing face of the first steering column lever (2.1). wherein the gear mode scroll wheel is arranged for rotating from a single spring-back position thereof in: - a first scrolling direction for changing from either the neutral gear mode into the forward drive gear mode, and the reverse gear mode into the neutral gear mode or forward drive gear mode, such as via the neutral gear mode; and - a second scrolling direction, opposite the first scrolling direction for changing from either the neutral gear mode into the reverse gear mode, and the forward drive gear mode into the neutral gear mode or reverse gear mode, such as via the neutral gear mode, - a first scrolling direction for changing from either the neutral gear mode into the forward drive gear mode, and the reverse gear mode into the neutral gear mode or forward drive gear mode, such as via the neutral gear mode; and - a second scrolling direction, opposite the first scrolling direction for changing from either the neutral gear mode into the reverse gear mode, and the forward drive gear mode into the neutral gear mode or reverse gear mode, such as via the neutral gear mode, wherein the single spring-back position is the only rest position of the gear mode scroll wheel, so that the gear box can be controlled to switch between said plurality of gear modes with the single spring-back position as a starting position for rotating the gear mode scroll wheel, characterized in that the gear mode scroll wheel is arranged on a user facing face of the first steering column lever (2.1).
Modular diverting apparatus for intermediate storage of workpiece carriers (WT1, WT2) for a linear transport system, wherein the diverting apparatus is arrangeable between a changeover region, in particular an introduction and/or removal region, and a processing region of a linear transport system that transports workpiece carriers (WT1, WT2) at a transport level, comprising a first horizontally arranged carrier unit and a second horizontally arranged carrier unit, wherein the first and second carrier units (2, 3) are arranged vertically one above the other and are at a fixed distance from one another, wherein mounted on the first carrier unit and the second carrier unit is in each case one guide device (4, 5) by way of which workpiece carriers (WT1, WT2) are transportable in a transporting direction, wherein the first carrier unit and the second carrier unit are jointly adjustable in a vertical direction by means of a lifting apparatus (6, 7) in such a way that both the guide device arranged on the first carrier unit and the guide device arranged on the second carrier unit are able to be positioned in such a way that, by means of the respective guide device (4, 5), workpiece carriers (WT1, WT2) are transportable at the transport level, characterized in that the workpiece carriers (WT1, WT2) are transportable in the transport direction upon interaction with a transport belt, and in that the first and second carrier units (2, 3) are mounted on a common wall, wherein the wall is adjustable in the vertical direction by means of the lifting apparatus (6, 7), and in that the vertical adjustment of the wall is limited by a first and a second shock absorber (12, 13), wherein the first shock absorber is arranged in such a way as to limit the vertical adjustment when the guide device mounted on the first carrier unit is positioned in such a way that workpiece carriers (WT1, WT2) arrangeable thereon are transportable at the transport level, wherein the second shock absorber is arranged in such a way as to limit the vertical adjustment when the guide device mounted on the second carrier unit is positioned in such a way that workpiece carriers (WT1, WT2) arrangeable thereon are transportable at the transport level.
An oxygen-vacancy based resistive random access memory device comprising a stack of a lower oxygen affinity bottom electrode, a rare earth metal oxide layer, comprising hydroxyl groups, and a higher oxygen affinity top electrode, wherein the rare earth metal oxide layer is doped with aluminum and/or silicon with dopant ranges from above 0 to about 50 atomic percent, characterized in that the stack further comprises a scavenging layer in between the rare earth metal oxide layer and the higher oxygen affinity top electrode, the scavenging layer comprising a rare earth metal being the same as the rare earth metal of the rare earth metal oxide layer.
Method for manufacturing workpieces, preferably preforms, from semifinished fibrous products, the method comprising the steps: providing a semifinished fibrous product impregnated with binder, applying heat to the semifinished fibrous product impregnated with binder in order to activate the binder; forming the semifinished fibrous product impregnated with binder, wherein the application of heat to the semifinished fibrous product impregnated with binder and the forming of the semifinished fibrous product impregnated with binder take place in the same processing station, wherein the moulding tool has at least one profile clamping vice (8, 9), characterised in that the application of heat to the semifinished fibrous product impregnated with binder is effected using hot air, wherein the hot air is passed through at least one opening (10, 11) in the profile clamping vice (8, 9) into a space between the upper and lower part of the mould. providing a semifinished fibrous product impregnated with binder, applying heat to the semifinished fibrous product impregnated with binder in order to activate the binder; forming the semifinished fibrous product impregnated with binder, wherein the application of heat to the semifinished fibrous product impregnated with binder and the forming of the semifinished fibrous product impregnated with binder take place in the same processing station, wherein the moulding tool has at least one profile clamping vice (8, 9), characterised in that the application of heat to the semifinished fibrous product impregnated with binder is effected using hot air, wherein the hot air is passed through at least one opening (10, 11) in the profile clamping vice (8, 9) into a space between the upper and lower part of the mould.
An organic light emitting device, comprising: a first substrate comprising a display area and a non-display area; a dummy metal layer disposed on the first substrate in the non-display area, wherein the dummy metal layer comprises a first dummy metal layer and a second dummy metal layer, and the first dummy metal layer and the second dummy metal layer overlap each other; an insulating layer disposed between the first dummy metal layer and the second dummy metal layer in a cross-sectional view; a second substrate covering the first substrate; and a sealant disposed between the first substrate and the second substrate and overlapping the dummy metal layer, wherein the first dummy metal layer is electrically connected to the second dummy metal layer, and the sealant contacts the second dummy metal layer, wherein a resistivity of the second dummy metal layer is less than a resistivity of the first dummy metal layer, and characterized in that a first side surface of the second dummy metal layer disposed near an edge of the first substrate is not covered by the sealant, and a second side surface of the second dummy metal layer opposite to the first side surface of the second dummy metal layer is covered by the sealant. a first substrate comprising a display area and a non-display area; a dummy metal layer disposed on the first substrate in the non-display area, wherein the dummy metal layer comprises a first dummy metal layer and a second dummy metal layer, and the first dummy metal layer and the second dummy metal layer overlap each other; an insulating layer disposed between the first dummy metal layer and the second dummy metal layer in a cross-sectional view; a second substrate covering the first substrate; and a sealant disposed between the first substrate and the second substrate and overlapping the dummy metal layer, wherein the first dummy metal layer is electrically connected to the second dummy metal layer, and the sealant contacts the second dummy metal layer, wherein a resistivity of the second dummy metal layer is less than a resistivity of the first dummy metal layer, and characterized in that a first side surface of the second dummy metal layer disposed near an edge of the first substrate is not covered by the sealant, and a second side surface of the second dummy metal layer opposite to the first side surface of the second dummy metal layer is covered by the sealant.
An authentication method of a prover device by a verifier device by means of cryptographic coupons, wherein a coupon comprises, on one hand, a pseudo-random number r i, where i is an index for labeling the coupon, and, on the other hand, a reduced-coupon x i such that x i = f ( r i), where f is a predetermined one-way function, comprising at least the following steps: - the prover device or verifier device selects a value for index i, - if the prover device selected index i, the prover device sends index i to the verifier device, - the verifier device sends a challenge consisting of a random value c to the prover device, and if the verifier device selected index i the verifier device sends index i to the prover device, - the prover device sends to the verifier device a response y calculated by using a pseudo-random number r i, said challenge c, and a secret key s belonging to the prover device, and - the verifier device checks the validity of said response y based on the challenge c, the reduced-coupon x i corresponding to said pseudo-random number r i, and a public key V corresponding to said secret key s, wherein that the verifier device sends the index i to a source external to the prover device and receives said reduced-coupon x i. - the prover device or verifier device selects a value for index i, - if the prover device selected index i, the prover device sends index i to the verifier device, - the verifier device sends a challenge consisting of a random value c to the prover device, and if the verifier device selected index i the verifier device sends index i to the prover device, - the prover device sends to the verifier device a response y calculated by using a pseudo-random number r i, said challenge c, and a secret key s belonging to the prover device, and - the verifier device checks the validity of said response y based on the challenge c, the reduced-coupon x i corresponding to said pseudo-random number r i, and a public key V corresponding to said secret key s, wherein that the verifier device sends the index i to a source external to the prover device and receives said reduced-coupon x i.