mhurhangee/patent-ind-claim-en huggingface dataset:
A bevel formation data setting device for setting a bevel for holding an eyeglasses lens (LE) on a rim of an eyeglasses frame, comprising: a rim information acquisition means configured to acquire rim information of the eyeglasses frame; and a display control means configured to control display of a display , wherein the display control means is configured to cause the display to display a setting screen for setting bevel formation data based on the acquired rim information, the setting screen corresponding to the rim, wherein the display control means is configured to cause the display to display information to be identifiable on the setting screen based on the acquired rim information, the information being required for forming the bevel corresponding to the rim. a rim information acquisition means configured to acquire rim information of the eyeglasses frame; and a display control means configured to control display of a display , wherein the display control means is configured to cause the display to display a setting screen for setting bevel formation data based on the acquired rim information, the setting screen corresponding to the rim, wherein the display control means is configured to cause the display to display information to be identifiable on the setting screen based on the acquired rim information, the information being required for forming the bevel corresponding to the rim.
An electroluminescent display comprising a base substrate and a plurality of pixel units arranged in arrays on the base substrate , each of the pixel units being composed of at least four subpixel units, and each of the pixel units comprising a carrier or exciton blocking layer and at least three luminescent material layers , wherein each of the luminescent material layers at least covers two adjacent subpixel units, the at least four subpixel units comprise a first subpixel unit, a second subpixel unit, a third subpixel unit and a fourth subpixel unit, the at least three luminescent material layers comprise a first luminescent material layer , a second luminescent material layer and a third luminescent material layer , the first luminescent material layer covers the second subpixel unit and the third subpixel unit, the second luminescent material layer covers the first subpixel unit and the second subpixel unit, and the third luminescent material layer covers the third subpixel unit and the fourth subpixel unit, wherein the first luminescent material layer is on a side of the carrier or exciton blocking layer , and the second luminescent material layer and the third luminescent material layer are on another side of the carrier or exciton blocking layer, the carrier or exciton blocking layer is arranged in a portion where the second luminescent material layer and the third luminescent material layer overlap the first luminescent material layer , only one of the luminescent material layers in each of the subpixel units is configured to emit light, and only the first luminescent material layer is configured to emit light in the second subpixel unit and the third subpixel unit. wherein each of the luminescent material layers at least covers two adjacent subpixel units, the at least four subpixel units comprise a first subpixel unit, a second subpixel unit, a third subpixel unit and a fourth subpixel unit, the at least three luminescent material layers comprise a first luminescent material layer , a second luminescent material layer and a third luminescent material layer , the first luminescent material layer covers the second subpixel unit and the third subpixel unit, the second luminescent material layer covers the first subpixel unit and the second subpixel unit, and the third luminescent material layer covers the third subpixel unit and the fourth subpixel unit, wherein the first luminescent material layer is on a side of the carrier or exciton blocking layer , and the second luminescent material layer and the third luminescent material layer are on another side of the carrier or exciton blocking layer, the carrier or exciton blocking layer is arranged in a portion where the second luminescent material layer and the third luminescent material layer overlap the first luminescent material layer , only one of the luminescent material layers in each of the subpixel units is configured to emit light, and only the first luminescent material layer is configured to emit light in the second subpixel unit and the third subpixel unit.
A method for the additive manufacturing of a component , wherein the component is constructed layer by layer by means of at least one extruder of a 3D printing device, wherein during the additive manufacturing of at least one component layer of the component by means of the at least one extruder - in a first working step an outer contour of the component layer initially is produced, which extends in a layer plane and comprises at least one outer wall extending in a direction of extension (z) perpendicular to the layer plane for at least partly bordering a volume region , wherein within the volume region at least one volume chamber open in the direction of extension (z) is formed, and - in at least one succeeding, second working step the at least one volume chamber is at least partly filled with a filler material, characterized in that in the direction of extension (z) at least one further component layer including at least one further volume chamber is produced for the component by means of the at least one extruder, wherein the at least one further volume chamber is arranged with respect to the at least one volume chamber of the underlying layer - offset in at least one spatial direction x or y extending perpendicularly to the direction of extension (z) and/or - rotated about an X-axis parallel to the x-direction and/or - rotated about an Y-axis parallel to the y-direction. - in a first working step an outer contour of the component layer initially is produced, which extends in a layer plane and comprises at least one outer wall extending in a direction of extension (z) perpendicular to the layer plane for at least partly bordering a volume region , wherein within the volume region at least one volume chamber open in the direction of extension (z) is formed, and - in at least one succeeding, second working step the at least one volume chamber is at least partly filled with a filler material, - offset in at least one spatial direction x or y extending perpendicularly to the direction of extension (z) and/or - rotated about an X-axis parallel to the x-direction and/or - rotated about an Y-axis parallel to the y-direction.
A method implemented in a multi-core processor having n cores , comprising: selecting and dedicating k cores of the n cores of the multi-core processor to perform low-latency operations for the n-core processor, wherein: k is less than n; m cores are unselected; and each core of the multi-core processor has a rated core capacity; operating the selected k cores at less than the rated core capacity such that k cores are collectively underutilized by an underutilized capacity; and operating one or more of the m cores at a capacity in excess of the rated core capacity such that the one or more m cores operate at a collective capacity that temporarily exceeds a collective capacity of the rated core capacities of the m cores and the underutilized capacity by which the k cores are collectively underutilized, further comprising periodically rotating selections of the k cores in the multi-core processor such that at each selection a different set of k cores are selected and dedicated to perform low-latency operations for the n-core processor. selecting and dedicating k cores of the n cores of the multi-core processor to perform low-latency operations for the n-core processor, wherein: k is less than n; m cores are unselected; and each core of the multi-core processor has a rated core capacity; k is less than n; m cores are unselected; and each core of the multi-core processor has a rated core capacity; operating the selected k cores at less than the rated core capacity such that k cores are collectively underutilized by an underutilized capacity; and operating one or more of the m cores at a capacity in excess of the rated core capacity such that the one or more m cores operate at a collective capacity that temporarily exceeds a collective capacity of the rated core capacities of the m cores and the underutilized capacity by which the k cores are collectively underutilized, further comprising periodically rotating selections of the k cores in the multi-core processor such that at each selection a different set of k cores are selected and dedicated to perform low-latency operations for the n-core processor.
A nacelle for a turbofan engine , the nacelle comprising: an inlet axially forward of a fan section , the inlet including an interior surface defining an outer radial surface of a bypass flow path (B), the inlet comprising a leading edge and a leading edge cavity , the cavity disposed about a circumference of the inlet ; a first conduit communicating airflow to the cavity for preventing accretion of ice on the leading edge ; an inlet duct open to the interior surface aft of the cavity ; and a second conduit attached to the first conduit and in fluid communication with the first conduit and the inlet duct , the second conduit communicating airflow to the inlet duct for generating film heating airflow over the interior surface for preventing ice accretion. an inlet axially forward of a fan section , the inlet including an interior surface defining an outer radial surface of a bypass flow path (B), the inlet comprising a leading edge and a leading edge cavity , the cavity disposed about a circumference of the inlet ; a first conduit communicating airflow to the cavity for preventing accretion of ice on the leading edge ; an inlet duct open to the interior surface aft of the cavity ; and a second conduit attached to the first conduit and in fluid communication with the first conduit and the inlet duct , the second conduit communicating airflow to the inlet duct for generating film heating airflow over the interior surface for preventing ice accretion.
A droplet size determining device comprising: a first type of liquid droplet detector having a pair of electrodes with a first gap between the electrodes, having a first relationship between a size of a liquid droplet and a detection output; and a second type of liquid droplet detector having a pair of electrodes with a second gap between the electrodes, having a second relationship different from the first relationship, wherein the first type of liquid droplet detector and the second type of liquid droplet detector are arranged on a substrate, wherein sizes of liquid droplets attached to the first type of liquid droplet detector and the second type of liquid droplet detector are determined at least on the basis of output signals from the first type of liquid droplet detector and the second type of liquid droplet detector, wherein the output signals from the first type of liquid droplet detector and the second type of liquid droplet detector are values of current, and characterized in that the device is adapted to determine a distribution of sizes of liquid droplets attached to the first type of liquid droplet detector and the second type of liquid droplet detector. a first type of liquid droplet detector having a pair of electrodes with a first gap between the electrodes, having a first relationship between a size of a liquid droplet and a detection output; and a second type of liquid droplet detector having a pair of electrodes with a second gap between the electrodes, having a second relationship different from the first relationship, wherein the first type of liquid droplet detector and the second type of liquid droplet detector are arranged on a substrate, wherein sizes of liquid droplets attached to the first type of liquid droplet detector and the second type of liquid droplet detector are determined at least on the basis of output signals from the first type of liquid droplet detector and the second type of liquid droplet detector, wherein the output signals from the first type of liquid droplet detector and the second type of liquid droplet detector are values of current, and characterized in that the device is adapted to determine a distribution of sizes of liquid droplets attached to the first type of liquid droplet detector and the second type of liquid droplet detector.
A method for managing a biometric smart card associated to a user , said biometric smart card comprising a reference biometric data previously enrolled by said user, a secure element , a biometric sensor and a controller coupled to the biometric sensor , said controller comprising a first firmware , wherein the method comprises the steps: - Receiving, by the secure element, a second firmware originated from a remote server , - Establishing a secure channel between said secure element and controller by using keys pre-stored in said secure element and controller, - Sending the second firmware to the controller through the secure channel, - Collecting by the biometric sensor a first captured biometric data of the user, - Generating by the controller a first treated biometric data from the first captured biometric data using said first firmware, - Collecting by the biometric sensor a second captured biometric data of the user, - Generating by said controller a second treated biometric data from the second captured biometric data using said second firmware, - Providing, by the controller, the secure element with said first and second treated biometric data , - Performing by the secure element a checking to verify that both said first and second treated biometric data match the reference biometric data , - Sending, by the secure element, a switch command to the controller only when said checking is successful and, - Upon receipt of the switch command, permanently deactivating, by the controller, said first firmware and activating said second firmware. - Receiving, by the secure element, a second firmware originated from a remote server , - Establishing a secure channel between said secure element and controller by using keys pre-stored in said secure element and controller, - Sending the second firmware to the controller through the secure channel, - Collecting by the biometric sensor a first captured biometric data of the user, - Generating by the controller a first treated biometric data from the first captured biometric data using said first firmware, - Collecting by the biometric sensor a second captured biometric data of the user, - Generating by said controller a second treated biometric data from the second captured biometric data using said second firmware, - Providing, by the controller, the secure element with said first and second treated biometric data , - Performing by the secure element a checking to verify that both said first and second treated biometric data match the reference biometric data , - Sending, by the secure element, a switch command to the controller only when said checking is successful and, - Upon receipt of the switch command, permanently deactivating, by the controller, said first firmware and activating said second firmware.
Hydraulic system for an automatic transmission, in particular a double clutch transmission, of a motor vehicle, by means of which the hydraulic cylinder of at least one clutch (K1, K2) and of gear actuators (G1 to G4) can be actuated, which hydraulic system has a pressure storage for providing a storage pressure (p S ) in the hydraulic system, wherein in at least one gear actuator path leading from the pressure storage to the gear actuator hydraulic cylinder a gear actuator valve is arranged which can be actuated by an electronic control unit , with which the hydraulic pressure applied to the gear actuator hydraulic cylinder can be adjusted, and with a charging hydraulic pump , which conveys hydraulic fluid into the hydraulic system in a charging process, in order to increase a storage pressure (p S ) in the hydraulic system, wherein the pressure storage has an oil chamber connected to the gear actuator path , which can be acted on by means of a preloaded pressure piston and can be filled in the charging process with adjustment of the pressure piston , characterised in that the control unit has a diagnostic module by which a storage volume diagnostic can be performed, in which an evaluation unit of the diagnostic module compares an actual storage volume (V E ) of the pressure storage with a reference storage volume (V ref ) of the pressure storage and in the event of a significant deviation recognises a fault which can be stored in a storage volume fault memory , and wherein in order to detect the actual storage volume (V E ) the pressure storage is completely filled with hydraulic fluid in a diagnostic-charging operation, and subsequently in a diagnostic-time interval (Δt D ) the pressure storage is completely emptied by actuating a reference hydraulic cylinder , and until an ambient pressure (p U ) is present in the hydraulic system due to the withdrawal of the absorption volume (V S ) associated with the actuation of the reference hydraulic cylinder and due to the withdrawal of the leakage volume (V L ) associated with the hydraulic system leakage and in that the evaluation unit determines the actual storage volume (V E ) from the sum of the absorption volume (Vs) and the leakage volume (V L ).
An optical device , for example, a proximity sensor, comprising - a substrate member ; - one or more active optical components operable to emit or sense light of a particular range of wavelengths; - a clear encapsulation material translucent to light of the particular range of wavelengths; - an opaque coating material comprising a photolithographically structured photoresist that is opaque for light of the particular range of wavelengths, defining at least one aperture associated with the one or more active optical components ; - an opaque wall structure made of a replicated, opaque encapsulation material opaque to light of the particular range of wavelengths; wherein the one or more active optical components are attached to the substrate member , and wherein the clear encapsulation material establishes an overmold for the one or more active optical components , wherein the opaque coating material is a different material to the opaque encapsulation material , and wherein an extension of the opaque coating material in a direction perpendicular to the substrate member overlaps with an extension of the opaque encapsulation material of the opaque wall structure in a direction perpendicular to the substrate member . - a substrate member ; - one or more active optical components operable to emit or sense light of a particular range of wavelengths; - a clear encapsulation material translucent to light of the particular range of wavelengths; - an opaque coating material comprising a photolithographically structured photoresist that is opaque for light of the particular range of wavelengths, defining at least one aperture associated with the one or more active optical components ; - an opaque wall structure made of a replicated, opaque encapsulation material opaque to light of the particular range of wavelengths;
Timepiece component , which comprises an alloy of galvanic type or autocatalytic deposition type based on copper, tin and zinc providing improved tribological properties, the component being formed from the alloy which comprises a majority proportion of copper as a percentage of the total weight of the alloy , a minority proportion of zinc as a percentage of the total weight of the alloy and an intermediate proportion of tin between the proportion of copper and the proportion of zinc as a percentage of the total weight of the alloy .
A method for controlling a rear collision traffic assist brake, RCTB, system of a vehicle, comprising: receiving (S10) information on an ego vehicle and an obstacle, for predicting a collision with the obstacle in a rear side of the ego vehicle; performing braking by a reference braking pressure that is generated when the collision with the obstacle is predicted (S20); storing (S30) a location of the ego vehicle at a reference point in time when the reference braking pressure is generated, a speed of the ego vehicle, an estimated reference collision distance, which is a distance from the ego vehicle to an estimated collision point with the obstacle, and an estimated reference collision time; monitoring (S40) whether the braking is performed in a normal braking situation based on the stored data; and generating (S50) an additional braking pressure to increase a total braking pressure applied for the braking when it is determined that the braking is performed not in a normal braking situation during the monitoring. receiving (S10) information on an ego vehicle and an obstacle, for predicting a collision with the obstacle in a rear side of the ego vehicle; performing braking by a reference braking pressure that is generated when the collision with the obstacle is predicted (S20); storing (S30) a location of the ego vehicle at a reference point in time when the reference braking pressure is generated, a speed of the ego vehicle, an estimated reference collision distance, which is a distance from the ego vehicle to an estimated collision point with the obstacle, and an estimated reference collision time; monitoring (S40) whether the braking is performed in a normal braking situation based on the stored data; and generating (S50) an additional braking pressure to increase a total braking pressure applied for the braking when it is determined that the braking is performed not in a normal braking situation during the monitoring.
A LED lamp drive circuit which is frequency adaptive, comprising a first drive branch (A) for low frequency and a second drive branch (B) for high frequency, and a frequency detection circuit (C) for detection of the power supply frequency, wherein the branches are suitable for being connected between a power supply and a LED; each of the said first and second drive branches (A and B) comprises a switch; characterized in that the LED lamp drive circuit further comprises a switching valve (Q1) and that the switches of the first and second drive branches (A and B) are implemented by a relay; the relay comprises a control coil (K) and a normally closed contact (K2) used as the switch for the second drive branch (B) and a normally opened contact (K1) used as the switch for the first drive branch (A), the relay is configured to maintain its status and provide power to the LED via the second drive branch (B) in case of high frequency, and the switching valve (Q1) is triggered to change the status of the normally opened contact (K1) and the normally closed contact (K2) via the control coil (K) to provide power to the LED via the first drive branch (A) in case of low frequency, wherein the said control coil (K) of the relay is in serial connection with the switching valve (Q1) controlled by a signal output terminal of the frequency detection circuit (C), wherein the normally closed contact (K2) and the normally opened contact (K1) are connected to the second drive branch (B) and the first drive branch (A) respectively, wherein the normally closed contact (K2) is placed on the live wire (L) of the power supply at the input terminals of the second drive branch (B), and the normally opened contact (K1) is placed on the neutral wire (N) of the power supply at the input terminals of the first drive branch (A); the said first drive branch (A) is an AC/DC drive circuit of constant current, and the second drive branch (B) is a voltage reducing and current limiting drive circuit realized by a capacitor (C4); the said frequency detection circuit (C) comprises a rectification circuit connected to the power supply, a voltage division sampling circuit connected to the output terminals of the rectification circuit and a detection chip (IC1) used to receive signals from the voltage division sampling circuit for frequency detection.