mhurhangee/ep-ind-claims huggingface dataset:
An automated vehicle supporting autonomous or self-driving, the vehicle comprising: sensors; a display including a display area (3010, 3020, 3030) formed on a glass of the vehicle; and characterized by: a controller configured to cause the display to display data obtained via at least one of the sensors on the display area (3010, 3020, 3030) based on an operation mode of the vehicle and vehicle passenger information, such that the data obtained via the at least one of the sensors is not displayed when the operation mode is an automatous or self-driving mode, while the data obtained via the at least one of the sensors is displayed at a specific display area (3010, 3020, 3030) of the display area (3010, 3020, 3030) when the operation mode is a manual mode. sensors; a display including a display area (3010, 3020, 3030) formed on a glass of the vehicle; and characterized by: a controller configured to cause the display to display data obtained via at least one of the sensors on the display area (3010, 3020, 3030) based on an operation mode of the vehicle and vehicle passenger information, such that the data obtained via the at least one of the sensors is not displayed when the operation mode is an automatous or self-driving mode, while the data obtained via the at least one of the sensors is displayed at a specific display area (3010, 3020, 3030) of the display area (3010, 3020, 3030) when the operation mode is a manual mode.
Semiconductor relay for consumer commutation, consisting of an assembly to be connected to the consumer and to a supply voltage, said assembly comprising a diode circuit and at least one transistor, characterized in that the transistor is a P-channel MOS-FET whose gate is connected, via an electronic drive unit having an undervoltage protection circuit (Δt/Umin), to an output terminal of said diode circuit in form of a bridge connected rectifier having four diodes, wherein the positive pole (+UBATT) of a storage battery generating said supply voltage is connected through an input switch to an input of said diode circuit, whereas a load is inserted between the drain of the transistor and the negative pole (-UBATT), and wherein said undervoltage protection circuit (Δt/Umin) will positively switch off the transistor in the case of a fall short of a minimum control voltage (Umin) at the output terminal of said diode circuit.
A computer-implemented neural network training method comprising: a step of inputting at least one input training image into a neural network, wherein, the at least one input training image is generated by introducing at least one defect into at least one original training image, and the at least one defect is associated with at least one image feature of the at least one original training image; a step of, by utilizing the neural network, decomposing the at least one input training image, introducing noise into the at least one decomposition result, and synthesizing the at least one decomposition result and the noise to obtain at least one synthesis training image; and a step of performing defect inspection on the at least one synthesis training image by using the neural network, and adjusting, based on at least the at least one original training image and the defect inspection result, at least one parameter of the neural network, wherein the decomposing the at least one input training image includes utilizing the neural network to decompose the at least one input training image so as to acquire, as the at least one decomposition result, at least one restoration image component, at least one defect image component, and at least one correction factor. a step of inputting at least one input training image into a neural network, wherein, the at least one input training image is generated by introducing at least one defect into at least one original training image, and the at least one defect is associated with at least one image feature of the at least one original training image; a step of, by utilizing the neural network, decomposing the at least one input training image, introducing noise into the at least one decomposition result, and synthesizing the at least one decomposition result and the noise to obtain at least one synthesis training image; and a step of performing defect inspection on the at least one synthesis training image by using the neural network, and adjusting, based on at least the at least one original training image and the defect inspection result, at least one parameter of the neural network, wherein the decomposing the at least one input training image includes utilizing the neural network to decompose the at least one input training image so as to acquire, as the at least one decomposition result, at least one restoration image component, at least one defect image component, and at least one correction factor.
A computing device, e.g. a switch comprising: a first section comprising a first set of connectors at a first location and in a first orientation and a second set of connectors at a second location and in a second orientation, wherein the first and second location and orientation are different; and a second section fixed within the computing device, wherein the first section is slidable with respect to the second section within the computing device to enable access to the second set of connectors, characterized in that the second set of connectors is oriented at a first side channel within the first section, wherein the first side channel is configured for air flow and cable (255, 260). a first section comprising a first set of connectors at a first location and in a first orientation and a second set of connectors at a second location and in a second orientation, wherein the first and second location and orientation are different; and a second section fixed within the computing device, wherein the first section is slidable with respect to the second section within the computing device to enable access to the second set of connectors, characterized in that the second set of connectors is oriented at a first side channel within the first section, wherein the first side channel is configured for air flow and cable (255, 260).
A method for evaluating a material between a wellbore and a casing, said casing having a wall forming a partition that separates a first domain inside the casing from a second domain outside the casing, the method comprising: disposing at least one ultrasonic transmitter and a plurality of ultrasonic receivers in longitudinally spaced-apart relationship along a first side of the partition in the first domain; activating the at least one ultrasonic transmitter to form ultrasonic waveforms that comprise propagated quasi leaky-Lamb waves constituting extensional waves having symmetrical zero-order ( S 0) modes within the partition, wherein the spaced-apart receivers record the ultrasonic waveforms; the method further being characterized in processing the recorded ultrasonic waveforms to determine an envelope of the waves propagating through the partition from a first receiver to a second receiver that is located more remote from the transmitter than the first receiver and whose separation from the first receiver is known; integrating the envelope over a predefined interval; computing an integral envelope attenuation per distance of the wave propagating through the second domain; and establishing that the second domain contains a solid if the measured integral envelope attenuation per distance is higher than a predetermined threshold. disposing at least one ultrasonic transmitter and a plurality of ultrasonic receivers in longitudinally spaced-apart relationship along a first side of the partition in the first domain; activating the at least one ultrasonic transmitter to form ultrasonic waveforms that comprise propagated quasi leaky-Lamb waves constituting extensional waves having symmetrical zero-order ( S 0) modes within the partition, wherein the spaced-apart receivers record the ultrasonic waveforms; the method further being characterized in processing the recorded ultrasonic waveforms to determine an envelope of the waves propagating through the partition from a first receiver to a second receiver that is located more remote from the transmitter than the first receiver and whose separation from the first receiver is known; integrating the envelope over a predefined interval; computing an integral envelope attenuation per distance of the wave propagating through the second domain; and establishing that the second domain contains a solid if the measured integral envelope attenuation per distance is higher than a predetermined threshold.
An inertial sensing system comprising: a gyroscope comprising: at least one anchor defining a central opening; a plurality of gyroscope spring elements coupled to the at least one anchor; a proof mass comprising a plurality of concentric rings coupled to the plurality of gyroscope spring elements, said plurality of concentric rings is configured to encircle the plurality of gyroscope spring elements; and a gyroscope detection/excitation unit coupled to said plurality of concentric rings; an accelerometer positioned within the central opening; and a substrate configured to support the gyroscope and the accelerometer. a gyroscope comprising: at least one anchor defining a central opening; a plurality of gyroscope spring elements coupled to the at least one anchor; a proof mass comprising a plurality of concentric rings coupled to the plurality of gyroscope spring elements, said plurality of concentric rings is configured to encircle the plurality of gyroscope spring elements; and a gyroscope detection/excitation unit coupled to said plurality of concentric rings; at least one anchor defining a central opening; a plurality of gyroscope spring elements coupled to the at least one anchor; a proof mass comprising a plurality of concentric rings coupled to the plurality of gyroscope spring elements, said plurality of concentric rings is configured to encircle the plurality of gyroscope spring elements; and a gyroscope detection/excitation unit coupled to said plurality of concentric rings; an accelerometer positioned within the central opening; and a substrate configured to support the gyroscope and the accelerometer.
A foodstuff preservation composition comprising potassium acetate and alkali metal diacetate, wherein the weight ratio of potassium acetate: alkali metal diacetate ranges from 1.5 to 9: 1, preferably from 2.3 to 9: 1, more preferably from 3 to 5.7: 1, even more preferably from 3.3 to 4.9: 1, and most preferably 4: 1, and wherein the foodstuff preservation composition is in a solid form, preferably in powder or crystalline form.
A battery system comprising: positive and negative busbars (38a, 38b); a battery pack comprising a first battery string that includes first and second half-strings (25a, 25b); a first string contactor connected to the positive busbar and to the first half-string; a first mid-point disconnect circuit connected to the first and second half-strings (25a, 25b); a first mid-point current sensor configured to measure current flowing through the first mid-point disconnect circuit; a first smart mid-point disconnect unit configured to open the first mid-point disconnect circuit following receipt of an output from the first mid-point current sensor indicating over-current flowing through the first mid-point disconnect circuit; and a module monitoring unit (6a, 6b) communicatively coupled to the first smart mid-point disconnect unit and comprising sensors for measuring virtual cell voltage and individual cell temperature inside a battery module of the first half-string and a balancing circuit, wherein the first smart mid-point disconnect unit is further configured to control a balancing function performed by the balancing circuit as a function of the measured virtual cell voltage and individual cell temperature. positive and negative busbars (38a, 38b); a battery pack comprising a first battery string that includes first and second half-strings (25a, 25b); a first string contactor connected to the positive busbar and to the first half-string; a first mid-point disconnect circuit connected to the first and second half-strings (25a, 25b); a first mid-point current sensor configured to measure current flowing through the first mid-point disconnect circuit; a first smart mid-point disconnect unit configured to open the first mid-point disconnect circuit following receipt of an output from the first mid-point current sensor indicating over-current flowing through the first mid-point disconnect circuit; and a module monitoring unit (6a, 6b) communicatively coupled to the first smart mid-point disconnect unit and comprising sensors for measuring virtual cell voltage and individual cell temperature inside a battery module of the first half-string and a balancing circuit, wherein the first smart mid-point disconnect unit is further configured to control a balancing function performed by the balancing circuit as a function of the measured virtual cell voltage and individual cell temperature.
A lighting device comprising: a carrier board; and an array of lighting elements mounted on the carrier board, wherein the carrier board has a coil shape with at least two converging windings, allowing the carrier board to be tessellated with one or more identically shaped or similarly shaped other carrier boards with the windings interleaved with each other, wherein the windings comprise straight sections (10a, 10b, 10c, 10d) with a 90 degree angle between the adjacent sections along the coil, the perpendicular spacing between adjacent windings being a constant, wherein the straight sections (10a, 10b, 10c, 10d) have a width which varies between a narrower width and a wider width, the lighting elements being positioned at the portions with a wider width, and the array of lighting elements forming a regular square or rectangular grid, and wherein the narrower width portions are formed by indents, wherein the indents for one set of alternate straight sections are at an inside edge and the indents for the other set of alternate straight sections are at an outside edge.. a carrier board; and an array of lighting elements mounted on the carrier board, wherein the carrier board has a coil shape with at least two converging windings, allowing the carrier board to be tessellated with one or more identically shaped or similarly shaped other carrier boards with the windings interleaved with each other, wherein the windings comprise straight sections (10a, 10b, 10c, 10d) with a 90 degree angle between the adjacent sections along the coil, the perpendicular spacing between adjacent windings being a constant, wherein the straight sections (10a, 10b, 10c, 10d) have a width which varies between a narrower width and a wider width, the lighting elements being positioned at the portions with a wider width, and the array of lighting elements forming a regular square or rectangular grid, and wherein the narrower width portions are formed by indents, wherein the indents for one set of alternate straight sections are at an inside edge and the indents for the other set of alternate straight sections are at an outside edge..
Device for welding profiled elements in plastic material, in particular PVC, comprising: - a base frame that supports a pair of retaining members of respective profiled elements (3; 3a, 3b; 60, 61), to engage said profiled elements (3; 3a, 3b; 60, 61) with corresponding zones to be welded (4; 62, 63) facing one another; - heating means for heating said zones to be welded (4; 62, 63) of the profiled elements (3; 3a, 3b; 60, 61), comprising at least a hot-plate heat-sealing element and mobile between an active condition wherein they are placed between said profiled elements (3; 3a, 3b; 60, 61) and a non-use condition wherein they are spaced at a distance from said profiled elements (3; 3a, 3b; 60, 61); - movement means of said retaining members, to shift the profiled elements (3; 3a, 3b; 60, 61) between a first reciprocal away direction and a second reciprocal closer direction wherein the zones to be welded (4; 62, 63) are coupled together; - removal means to make at least one groove on a peripheral edge of at least one zone to be welded (4; 62, 63); characterised in that it comprises: - at least one containing presser, mobile along a direction transversal to the direction of movement of the profiled elements (3; 3a, 3b; 60, 61), to abut on the grooves made in the respective zones to be welded (4; 62, 63). - a base frame that supports a pair of retaining members of respective profiled elements (3; 3a, 3b; 60, 61), to engage said profiled elements (3; 3a, 3b; 60, 61) with corresponding zones to be welded (4; 62, 63) facing one another; - heating means for heating said zones to be welded (4; 62, 63) of the profiled elements (3; 3a, 3b; 60, 61), comprising at least a hot-plate heat-sealing element and mobile between an active condition wherein they are placed between said profiled elements (3; 3a, 3b; 60, 61) and a non-use condition wherein they are spaced at a distance from said profiled elements (3; 3a, 3b; 60, 61); - movement means of said retaining members, to shift the profiled elements (3; 3a, 3b; 60, 61) between a first reciprocal away direction and a second reciprocal closer direction wherein the zones to be welded (4; 62, 63) are coupled together; - removal means to make at least one groove on a peripheral edge of at least one zone to be welded (4; 62, 63); - at least one containing presser, mobile along a direction transversal to the direction of movement of the profiled elements (3; 3a, 3b; 60, 61), to abut on the grooves made in the respective zones to be welded (4; 62, 63).
A moon phase display, having: • a display plane in which the current moon phase is displayed, • multiple display elements which are each rotatably supported about their longitudinal axis and have a first strip-shaped side face on which an illuminated moon portion is depicted, and a second strip-shaped side face on which no illuminated moon portion is depicted, • wherein each of the display elements has a first rotational position in which the first side face is arranged in the display plane, and a second rotational position in which the second side face is arranged in the display plane, • wherein the first side faces together represent the full moon in a full moon position in which all the display elements are located in their first rotational position, • a drive which can rotate each of the individual display elements independently of the remaining display elements about its longitudinal axis, and • a controller which is configured to actuate the drive so that, starting from the full moon position, each one of the display elements is rotated into the second rotational position in successive steps until all the display elements are located in the second rotational position, so that a gradually waning moon is displayed. • a display plane in which the current moon phase is displayed, • multiple display elements which are each rotatably supported about their longitudinal axis and have a first strip-shaped side face on which an illuminated moon portion is depicted, and a second strip-shaped side face on which no illuminated moon portion is depicted, • wherein each of the display elements has a first rotational position in which the first side face is arranged in the display plane, and a second rotational position in which the second side face is arranged in the display plane, • wherein the first side faces together represent the full moon in a full moon position in which all the display elements are located in their first rotational position, • a drive which can rotate each of the individual display elements independently of the remaining display elements about its longitudinal axis, and • a controller which is configured to actuate the drive so that, starting from the full moon position, each one of the display elements is rotated into the second rotational position in successive steps until all the display elements are located in the second rotational position, so that a gradually waning moon is displayed.
A pneumatic radial tire having a bead portion provided therein with a bead core, wherein the bead core is wrapped with a flipper formed of a reinforced material, and wherein (i) the flipper has an axially inner leg that extends radially outward to a radial distance Li from a reference line XX', wherein the line XX' extends through the geometric center of the bead core and in parallel with the axial direction of tire, and wherein the radial distance Li is equal to or greater than the extension or radius of the bead core, as measured from the geometric center in a radial direction from line XX'; (ii) the flipper has an axially inner end point of the axially inner leg of the flipper and an axially outer end point of an axially outer leg of the flipper, the axially outer end point being located radially inward of the geometric center of the bead core; characterized in that the bead core comprises a first layer of a total of three or four annular rows of sheath wires in the first layer surrounding the geometric center of the bead core, said sheath wires in the first layer having the same diameter, and a second layer formed of one or two rows of sheath wires in the second layer surrounding the first layer, said sheath wires in the second layer having the same diameter, wherein the sheath wires in the second layer have a diameter in the range of from 1.5 mm to 2.5 mm or from 1 to 2 mm, wherein the sheath wires in the first layer have a diameter in the range of from 1.5 mm to 3 mm, wherein the sheath wires in the second layer have a diameter less than the sheath wires in the first layer, and wherein the sheath wires in the first layer and in the second layer are steel wires that are helically or spirally wound about the geometric center of the bead core. (i) the flipper has an axially inner leg that extends radially outward to a radial distance Li from a reference line XX', wherein the line XX' extends through the geometric center of the bead core and in parallel with the axial direction of tire, and wherein the radial distance Li is equal to or greater than the extension or radius of the bead core, as measured from the geometric center in a radial direction from line XX'; (ii) the flipper has an axially inner end point of the axially inner leg of the flipper and an axially outer end point of an axially outer leg of the flipper, the axially outer end point being located radially inward of the geometric center of the bead core;
Tillage tine for a soil working implement, in particular a rotary harrow or harrow, wherein the tillage tine has a base body having a main working surface which can be passed through a soil in a working direction forwardly during a tillage, and an elongated reinforcing member disposed in a longitudinal direction along the main working surface and made of a material less prone to wear than the base body, wherein the reinforcing element is at least partially embedded in the base body, and said main working surface has at least one exposed portion extending adjacent said reinforcing member in longitudinal direction, characterized in that the base body has a slot oriented along the main working surface in the longitudinal direction for receiving the reinforcing element.