mhurhangee/ep-ind-claims huggingface dataset:
A head mounted display system (100, 300, 900, 1000) comprising: a substrate (315, 401, 402, 810, 905) supporting a set of light emitting elements (301, 407, 614, 808, 1107), wherein each light emitting element (301, 407, 614, 808, 1107) is oriented toward a world side of the HMD system (100, 300, 900, 1000); a non-planar reflective surface (316, 613) oriented toward a user eye and positioned on the world side of the set of light emitting elements (301, 407, 614, 808, 1107); a motor (602, 802) coupled to the substrate (315, 401, 402, 807, 905) and the reflective surface (316, 613) for motion of the substrate (315, 401, 402, 810, 905) and reflective surface (316, 613), wherein the motor (602, 802) is configured for rotating the substrate (315, 401, 402, 807, 905) and the reflective surface (316, 613); and a display driver electrically coupled to the set of light emitting elements (301, 407, 614, 808, 1107) and configured to selectively activate the set of light emitting elements (301, 407, 614, 808, 1107) so as to generate an image during motion of the substrate (315, 401, 402, 810, 905) and the reflective surface (316, 613). a substrate (315, 401, 402, 810, 905) supporting a set of light emitting elements (301, 407, 614, 808, 1107), wherein each light emitting element (301, 407, 614, 808, 1107) is oriented toward a world side of the HMD system (100, 300, 900, 1000); a non-planar reflective surface (316, 613) oriented toward a user eye and positioned on the world side of the set of light emitting elements (301, 407, 614, 808, 1107); a motor (602, 802) coupled to the substrate (315, 401, 402, 807, 905) and the reflective surface (316, 613) for motion of the substrate (315, 401, 402, 810, 905) and reflective surface (316, 613), wherein the motor (602, 802) is configured for rotating the substrate (315, 401, 402, 807, 905) and the reflective surface (316, 613); and a display driver electrically coupled to the set of light emitting elements (301, 407, 614, 808, 1107) and configured to selectively activate the set of light emitting elements (301, 407, 614, 808, 1107) so as to generate an image during motion of the substrate (315, 401, 402, 810, 905) and the reflective surface (316, 613).
A vehicle hybrid drive device (10, 100, 150, 160) comprising: a first rotating machine (102, MG1) coupled to an engine; a connection/disconnection device (26, 108, 154, 168) capable of connecting/disconnecting the engine and the first rotating machine (102, MGI) to/from wheels; and a second rotating machine (MG2, RMG) disposed in a manner enabling transmission of drive power to the wheels, the vehicle hybrid drive device (10, 100, 150, 160) enabling a vehicle to run in two running modes of an EV running mode enabling the vehicle to run with the second rotating machine (MG2, RMG) used as a drive power source while the connection/disconnection device (26, 108, 154, 168) is disconnected, and a parallel HEV running mode enabling the vehicle to run with the engine and at least one of the first and second rotating machines (102, MG1; MG2, RMG) as the drive power sources while the connection/disconnection device (26, 108, 154, 168) is connected, wherein when the EV running mode is shifted to the parallel HEV running mode, the shift is made in two shift modes of a first shift mode in which after the engine is cranked by the first rotating machine (102, MGI) and the engine is ignited and started, the connection/disconnection device (26, 108, 154, 168) is connected, and a second shift mode in which after the engine is cranked by the first rotating machine (102, MGI) and the connection/disconnection device (26, 108, 154, 168) is connected, the engine is ignited and started, and if a driver desires power-performance-oriented running, the EV running mode is shifted in the second shift mode, and if the driver does not desire power-performance-oriented running, the EV running mode is shifted in the first shift mode.
An agricultural product treatment system having a desolventizer/toaster and an evaporator apparatus connected down flow of the DT by a conduit array, further comprising: a mist injection station in a segment of the conduit array extending downwardly at an acute angle from an egress end from an upper end of the DT; a generally vertically extending segment of the conduit array in fluid communication with an egress port of the segment of the conduit array extending downwardly at an acute angle; a truncated conical section having a small diameter end in fluid communication with an egress port of said generally vertically extending segment, and an open, large diameter end axially coextensive and coaxial with an expanded diameter conduit portion, thereby defining an annular plenum within said expanded diameter conduit portion; and a bridge section of the conduit facilitating passage of fluid flow and particulate matter entrained therein from said annular plenum to the evaporator. a mist injection station in a segment of the conduit array extending downwardly at an acute angle from an egress end from an upper end of the DT; a generally vertically extending segment of the conduit array in fluid communication with an egress port of the segment of the conduit array extending downwardly at an acute angle; a truncated conical section having a small diameter end in fluid communication with an egress port of said generally vertically extending segment, and an open, large diameter end axially coextensive and coaxial with an expanded diameter conduit portion, thereby defining an annular plenum within said expanded diameter conduit portion; and a bridge section of the conduit facilitating passage of fluid flow and particulate matter entrained therein from said annular plenum to the evaporator.
Method for detecting an impact and activating occupant protection devices, in which at least one acceleration signal of at least one acceleration sensor is measured directly or a signal derived therefrom is compared with a trigger threshold, wherein there is provision for at least one environment sensor for detecting an imminent impact and at least one parameter of this imminent impact, in particular an expected impact time and impact severity, and the trigger behaviour is adapted on the basis of the parameters of the environment sensor, characterized in that the trigger threshold (dth1=dth0+fth(G,t)) is increased fth(G,t) from a starting value from a starting time if the acceleration signal or the signal derived therefrom satisfies a minimum condition, wherein the starting time is set to the expected impact time if at least one parameter of the environment sensor satisfies a predefined condition. in which at least one acceleration signal of at least one acceleration sensor is measured directly or a signal derived therefrom is compared with a trigger threshold, wherein there is provision for at least one environment sensor for detecting an imminent impact and at least one parameter of this imminent impact, in particular an expected impact time and impact severity, and the trigger behaviour is adapted on the basis of the parameters of the environment sensor, characterized in that the trigger threshold (dth1=dth0+fth(G,t)) is increased fth(G,t) from a starting value from a starting time if the acceleration signal or the signal derived therefrom satisfies a minimum condition, wherein the starting time is set to the expected impact time if at least one parameter of the environment sensor satisfies a predefined condition.
Driver for medical wires having - a hollow drive shaft, rotatable about a rotation axis, the hollow drive shaft has an open distal end and a proximal end, - a plurality of clamping jaws (30, 31, 32) movable to penetrate under an angle into the hollow drive shaft close to its distal end, - a jaw guide mounted slidable parallel to the rotation axis and movably connected to the clamping jaws to move the clamping jaws into or out of the hollow drive shaft, - the jaw guide pulling the jaws back into proximal direction or pushing the jaws forward into distal direction, therefore enlarging or decreasing the opening between the jaws, and - an actuator to shift the jaw guide parallel to the rotation axis and therefore modify the penetration depth of the clamping jaws. - a hollow drive shaft, rotatable about a rotation axis, the hollow drive shaft has an open distal end and a proximal end, - a plurality of clamping jaws (30, 31, 32) movable to penetrate under an angle into the hollow drive shaft close to its distal end, - a jaw guide mounted slidable parallel to the rotation axis and movably connected to the clamping jaws to move the clamping jaws into or out of the hollow drive shaft, - the jaw guide pulling the jaws back into proximal direction or pushing the jaws forward into distal direction, therefore enlarging or decreasing the opening between the jaws, and - an actuator to shift the jaw guide parallel to the rotation axis and therefore modify the penetration depth of the clamping jaws.
A method of wireless communication at a receiving device, comprising: receiving a first message from a first device; receiving a first re-transmission configuration indicator indicating a first quality-of-service, QoS, requirement configured to trigger a coding-based re-transmission of the first message; caching the first message at the receiving device in response to receiving the first re-transmission configuration indicator; receiving, from a re-transmitting device designated by one or more devices for performing at least one message re-transmission on behalf of the one or more devices, a coded message that encodes at least a first message and a second message, wherein the receiving device has failed to receive at least the second message from one of the one or more devices; receiving, from the re-transmitting device, a coding-based re-transmission indicator indicating that the coded message is configured as a coding-based re-transmission of two or more previously transmitted messages that are encoded together in the coded message, wherein receiving the coded message comprises receiving over a device-to-device, D2D, communication link in a vehicle-to-everything, V2X, communication; and recovering, in response to receiving the coding-based re-transmission indicator, at least the second message by decoding the coded message, wherein the recovering of at least the second message includes using at least the cached first message for decoding the coded message. receiving a first message from a first device; receiving a first re-transmission configuration indicator indicating a first quality-of-service, QoS, requirement configured to trigger a coding-based re-transmission of the first message; caching the first message at the receiving device in response to receiving the first re-transmission configuration indicator; receiving, from a re-transmitting device designated by one or more devices for performing at least one message re-transmission on behalf of the one or more devices, a coded message that encodes at least a first message and a second message, wherein the receiving device has failed to receive at least the second message from one of the one or more devices; receiving, from the re-transmitting device, a coding-based re-transmission indicator indicating that the coded message is configured as a coding-based re-transmission of two or more previously transmitted messages that are encoded together in the coded message, wherein receiving the coded message comprises receiving over a device-to-device, D2D, communication link in a vehicle-to-everything, V2X, communication; and recovering, in response to receiving the coding-based re-transmission indicator, at least the second message by decoding the coded message, wherein the recovering of at least the second message includes using at least the cached first message for decoding the coded message.
An electric brake system for an aircraft, the electric brake system comprising: a wheel-brake configured to produce brake torque in response to a clamping force; a plurality of electric brake actuators EBAs configured to provide the clamping force for the wheel-brake; a plurality of sensors coupled to the EBAs and configured to sense EBA parameters; an EBA motor controller coupled to the EBAs, wherein the EBA motor controller is configured to: monitor the EBA parameters for occurrence of a failure condition, wherein the EBA parameters comprise an EBA position; detect at least one failed EBA based upon the failure condition; disable the at least one failed EBA; and proportionally overdrive remaining functional EBAs by an amount partially or fully equivalent to a lost clamping force of the at least one failed EBA (task 312) on any wheel-brake. a wheel-brake configured to produce brake torque in response to a clamping force; a plurality of electric brake actuators EBAs configured to provide the clamping force for the wheel-brake; a plurality of sensors coupled to the EBAs and configured to sense EBA parameters; an EBA motor controller coupled to the EBAs, wherein the EBA motor controller is configured to: monitor the EBA parameters for occurrence of a failure condition, wherein the EBA parameters comprise an EBA position; detect at least one failed EBA based upon the failure condition; disable the at least one failed EBA; and proportionally overdrive remaining functional EBAs by an amount partially or fully equivalent to a lost clamping force of the at least one failed EBA (task 312) on any wheel-brake. monitor the EBA parameters for occurrence of a failure condition, wherein the EBA parameters comprise an EBA position; detect at least one failed EBA based upon the failure condition; disable the at least one failed EBA; and proportionally overdrive remaining functional EBAs by an amount partially or fully equivalent to a lost clamping force of the at least one failed EBA (task 312) on any wheel-brake.
An imaging device, comprising: a lens which faces an imaging object; and an imaging element which is disposed on another side of the lens opposite to the imaging object to have a vignetting area (4a~4g) located outside an image circle which is a range where incident light coming in through the lens forms an image, characterised by: an image processing unit configured to perform a correction process on a captured image of the imaging object, to correct an optical distortion in the image from the lens, wherein the image processing unit is configured to calculate a displacement quantity between the lens and the imaging element with respect to initial positions of the lens and the imaging element by calculating a position on the imaging element of an optical axis of the lens on the basis of a shape of the vignetting area (4a~4g) with respect to an initial relative position between the lens and the imaging element and the shape of the vignetting area (4a~4g) with respect to a displaced position which results from displacement in the relative position between the lens and the imaging element, and to apply the calculated displacement quantity to said correction process. a lens which faces an imaging object; and an imaging element which is disposed on another side of the lens opposite to the imaging object to have a vignetting area (4a~4g) located outside an image circle which is a range where incident light coming in through the lens forms an image, characterised by: an image processing unit configured to perform a correction process on a captured image of the imaging object, to correct an optical distortion in the image from the lens, wherein the image processing unit is configured to calculate a displacement quantity between the lens and the imaging element with respect to initial positions of the lens and the imaging element by calculating a position on the imaging element of an optical axis of the lens on the basis of a shape of the vignetting area (4a~4g) with respect to an initial relative position between the lens and the imaging element and the shape of the vignetting area (4a~4g) with respect to a displaced position which results from displacement in the relative position between the lens and the imaging element, and to apply the calculated displacement quantity to said correction process. an image processing unit configured to perform a correction process on a captured image of the imaging object, to correct an optical distortion in the image from the lens, wherein the image processing unit is configured to calculate a displacement quantity between the lens and the imaging element with respect to initial positions of the lens and the imaging element by calculating a position on the imaging element of an optical axis of the lens on the basis of a shape of the vignetting area (4a~4g) with respect to an initial relative position between the lens and the imaging element and the shape of the vignetting area (4a~4g) with respect to a displaced position which results from displacement in the relative position between the lens and the imaging element, and to apply the calculated displacement quantity to said correction process.
Apparatus for monitoring the state of a roller bearing having a vibration sensor, it being possible to detect vibrations which occur during operation of the bearing using said vibration sensor and it being possible to generate a first signal as a function of the detected vibrations, and having a diagnosis electronics system which can output an item of information about a state of the bearing on the basis of the first signal, which is generated by the vibration sensor, and of at least one limit value, which is stored in the diagnosis electronics system, characterized in that, in addition to the vibration sensor, a sound emission sensor is provided, it being possible for noises which are produced in the event of plastic deformation of the bearing at least in regions to be picked up by said sound emission sensor, and wherein a second signal can be transmitted to the diagnosis electronics system taking into account the picked-up noises, for which purpose the sound emission sensor is designed to pick up sound emission signals in the region of the bearing, which signals are produced in this region on account of plastic material deformation, and to transmit a second signal which is based on this to the diagnosis electronics system, wherein the diagnosis electronics system is designed in such a way that the stored limit value can be changed taking into account the received second signal, and therefore the item of information about the state of the bearing is output as a function of the noises which are produced by the bearing and picked up by the sound emission sensor, wherein the sound emission sensor is particularly sensitive starting from a frequency of 80kHz.
Device for connecting two components (16, 17), in particular of concrete, which are separated by a joint, which device is suitable for the absorbing of transverse forces acting in one direction and/or its opposite direction, comprising a bolt, whose one region is insertable in the second component, and a sleeve which is insertable in the first component, and which serves to receive the other region of the bolt, with reinforcement elements installed on the bolt and on the sleeve, which reinforcement elements each have a first plate directed toward the joint, on which plate stirrup elements are installed on sides opposite one another, which stirrup elements extend away from the joint, and the first plate has an opening through which respectively the bolt or the sleeve is led, characterized in that the respective first plate, the regions, bordering the first plate, of the stirrup elements installed on the first plate, and the regions, bordering on the respective first plate, of the bolt or respectively of the sleeve are embedded in a plate-shaped element, which is made of a high-strength mortar-like mass, enclosing the first plate on all sides.
A bulk fin-based electrostatic discharge protection device (400; 500) comprising:- a semiconductor substrate; an isolating layer (120; 120') having a thickness, over the semiconductor substrate; a first recess formed in the isolating layer; and a first fin (110; 430) protruding from the semiconductor substrate through the first recess in the isolating layer; characterized in that the first recess defines a first region and a second region of the isolating layer (120; 120') having a reduced thickness; and in that one part of the first fin (110; 410) adjacent to the first region and a first upper substrate portion under the first region are homogeneously doped with a first dopant, and another part of the first fin (110; 430) adjacent to the second region and a second upper substrate portion under the second region are homogeneously doped with a second dopant. a semiconductor substrate; an isolating layer (120; 120') having a thickness, over the semiconductor substrate; a first recess formed in the isolating layer; and a first fin (110; 430) protruding from the semiconductor substrate through the first recess in the isolating layer;
A panning slider comprising: a set of parallel rails (12, 14), a carriage slidably affixed to said rails; a table, rotatable with respect to said carriage about a first pivot point on said carriage; characterized in that, an elongate guide member separately located from said rails (12, 14) and selectively fixed from movement with respect to said rails, said guide member having a first position substantially parallel to said rails and movable to a second position skewed with respect to said rails; and a linkage, slidably affixed to said elongate guide member and pivotally affixed to said table at a second pivot point, said first and second pivot points being spaced apart on said table, whereby lateral movement of said carriage along said rails (12, 14) causes said linkage to rotate said table with respect to said carriage when said elongate guide member is held in its skewed position with respect to said rails. a set of parallel rails (12, 14), a carriage slidably affixed to said rails; a table, rotatable with respect to said carriage about a first pivot point on said carriage; characterized in that, an elongate guide member separately located from said rails (12, 14) and selectively fixed from movement with respect to said rails, said guide member having a first position substantially parallel to said rails and movable to a second position skewed with respect to said rails; and a linkage, slidably affixed to said elongate guide member and pivotally affixed to said table at a second pivot point, said first and second pivot points being spaced apart on said table, whereby lateral movement of said carriage along said rails (12, 14) causes said linkage to rotate said table with respect to said carriage when said elongate guide member is held in its skewed position with respect to said rails.
A die-washing machine for washing dies for pasta, comprising: at least one seat for a die to be washed; at least a first nozzle (35; 37) arranged and configured to project at least one jet of a washing liquid against a first side (3A; 3B) of a die to be washed; a moving system (27, 29) to move the die with respect to the nozzles with at least one of a rotation movement and a translation movement; a pumping system to supply washing liquid to the first nozzle; wherein the pumping system is configured to supply the washing liquid to the first nozzle under a first pressure (P1; P2); characterized in that: at least a second nozzle (37; 35) is arranged and configured to project at least one jet of washing liquid against a second side (3B, 3A) of the die, the first nozzle and the second nozzle being oriented in opposite directions; and the pumping system is configured to supply the washing liquid to the second nozzle under a second pressure (P2; P1), the first pressure and the second pressure being different from one another.