mhurhangee/ep-ind-claims huggingface dataset:
A dynamic random access memory device, DRAM, comprising: a memory array including multiple memory rows, the memory rows including multiple memory locations to store data and error checking and correction, ECC, information associated with the data; input/output, I/O, circuitry to couple to an associated memory controller, the I/O circuitry being configured to receive a trigger for an error check and scrub, ECS, mode when coupled to the associated memory controller; and an internal controller on the DRAM being configured to, responsive to the trigger for the ECS mode, read one or more memory locations, perform ECC for the one or more memory locations based on the ECC information, and count error information, the error information including a row count indicating a number of rows having N or more errors, and a maximum count indicating an address of a row with a highest number of code word errors detected in the ECS mode in the rows of the memory array. a memory array including multiple memory rows, the memory rows including multiple memory locations to store data and error checking and correction, ECC, information associated with the data; input/output, I/O, circuitry to couple to an associated memory controller, the I/O circuitry being configured to receive a trigger for an error check and scrub, ECS, mode when coupled to the associated memory controller; and an internal controller on the DRAM being configured to, responsive to the trigger for the ECS mode, read one or more memory locations, perform ECC for the one or more memory locations based on the ECC information, and count error information, the error information including a row count indicating a number of rows having N or more errors, and a maximum count indicating an address of a row with a highest number of code word errors detected in the ECS mode in the rows of the memory array.
Device for further processing a wound thread hank, in particular for removing the thread hank from the reel and transporting to a further processing station, in particular for a hank of hollow threads for filter devices, wherein - two support arms (2; 3) for receiving the threads are present on the reel, - the reel stops in a defined position after reaching the specified number of threads, - a transfer gripper is provided which can clamp, cut and transfer the supplied threads to an empty reel, - and wherein the reel, if appropriate, has a starting clamp to fix the beginning of the supplied threads in place, characterised in that the following devices are present: 1.1 at least two grippers (27; 28) with gripper jaws (16; 16a; 17; 17a) which can enclose the thread hank on all sides, 1.2 cutting tools (21; 22) with feed devices (23; 24) which can cut through the thread hank at right angles, 1.3 suction devices whose funnels (19; 20) can approach the separating surfaces (4; 4a; 5, 5a) of the support arms (2; 3) and suck in cut pieces of thread with the help of an air flow, and 1.4 a handling device, which has at least one rotational or linear axis, and which can transport the grippers (27; 28) together with the severed thread hank to a further processing station. - two support arms (2; 3) for receiving the threads are present on the reel, - the reel stops in a defined position after reaching the specified number of threads, - a transfer gripper is provided which can clamp, cut and transfer the supplied threads to an empty reel, - and wherein the reel, if appropriate, has a starting clamp to fix the beginning of the supplied threads in place, 1.1 at least two grippers (27; 28) with gripper jaws (16; 16a; 17; 17a) which can enclose the thread hank on all sides, 1.2 cutting tools (21; 22) with feed devices (23; 24) which can cut through the thread hank at right angles, 1.3 suction devices whose funnels (19; 20) can approach the separating surfaces (4; 4a; 5, 5a) of the support arms (2; 3) and suck in cut pieces of thread with the help of an air flow, and 1.4 a handling device, which has at least one rotational or linear axis, and which can transport the grippers (27; 28) together with the severed thread hank to a further processing station.
Optical sensor for detecting objects in a monitoring area of the sensor, having a light transmitter with transmitting optics for transmitting transmitted light beams, having a receiver with receiving optics for receiving light beams and having an evaluation unit for generating an object detection signal as a function of received signals at an output of the receiver, wherein the transmitting optics and the receiving optics have different optical axes (8, 9), wherein the optical sensor has a device for collimating light beams onto the receiving optics, which is arranged in the transition region between the transmitting optics and the receiving optics and is designed to direct light from the transition zone to the receiving optics, wherein a free end face of a separating device, between transmitting optics and receiving optics to at least partially overlapping entry surface of the device is arranged for collimation, to detect light emitted by the object and entering light, and wherein the device is set up to deflect the entering light through a first reflection surface and a second reflection surface aligned at an angle or parallel to this at an angle or parallel to the first reflection surface and to direct it onto the receiving optics at an exit surface of the device.
Cooking device apparatus, in particular a hob apparatus, having at least one heating unit, having at least one sensor unit (40; 40a) which is provided to determine a cooking parameter that characterises a cooking operation, which is embodied as a cooking temperature parameter and reflects a temperature of a food to be cooked and/or of a container for food to be cooked, and which has at least one contact-free temperature sensor, and having at least one overheating prevention unit (60; 60a) which is provided to prevent overheating of the at least one sensor unit (40; 40a), wherein the overheating prevention unit (60; 60a) has at least one static, thermally active unit (62; 62a) which has at least one static, thermally active element (64; 64a) embodied as a Peltier element, characterised in that the static, thermally active unit additionally has at least one static, thermally active element embodied as a latent heat storage element or the overheating prevention unit (60; 60a) has at least one heat receiving unit (70; 70a) which is thermally connected to the sensor unit (40; 40a) via the static, thermally active unit (62; 62a) and is provided to serve as a heat sink.
A method for measuring liquid quantity, comprising: transmitting one or more incident electromagnetic waves within a conductive enclosure, wherein the conductive enclosure is an aircraft fuel tank configured to store fuel; receiving rebound electromagnetic waves corresponding to the incident electromagnetic waves; measuring a transfer function corresponding to the rebound electromagnetic waves; and calculating liquid quantity based on the measured transfer function, characterised in that the method further comprises: transmitting a first radio frequency signal comprising liquid quantity data corresponding to the calculated liquid quantity to a wireless hub inside the conductive enclosure, the wireless hub being configured to relay the liquid quantity data to a liquid quantity measurement controller outside the conductive enclosure; and relaying the liquid quantity data to the liquid quantity measuring controller. transmitting one or more incident electromagnetic waves within a conductive enclosure, wherein the conductive enclosure is an aircraft fuel tank configured to store fuel; receiving rebound electromagnetic waves corresponding to the incident electromagnetic waves; measuring a transfer function corresponding to the rebound electromagnetic waves; and calculating liquid quantity based on the measured transfer function, characterised in that the method further comprises: transmitting a first radio frequency signal comprising liquid quantity data corresponding to the calculated liquid quantity to a wireless hub inside the conductive enclosure, the wireless hub being configured to relay the liquid quantity data to a liquid quantity measurement controller outside the conductive enclosure; and relaying the liquid quantity data to the liquid quantity measuring controller. transmitting a first radio frequency signal comprising liquid quantity data corresponding to the calculated liquid quantity to a wireless hub inside the conductive enclosure, the wireless hub being configured to relay the liquid quantity data to a liquid quantity measurement controller outside the conductive enclosure; and relaying the liquid quantity data to the liquid quantity measuring controller.
A method for manufacturing a structural member for an automotive body, the structural member being formed by pressing a forming material made of a steel sheet by using a press-forming apparatus having a punch, a die, and a pad facing the punch, the structural member extending in a predetermined direction, having a substantially gutter-shaped cross section intersecting the predetermined direction, and including a gutter bottom, a ridge (3a, 3b) continuing to the gutter bottom, a vertical wall (4a, 4b) continuing to the ridge (3a, 3b), and an outward continuous flange being continuously formed along at least one end in the predetermined direction, the one end at least including a part of the ridge (3a, 3b), a part of the gutter bottom, and a part of the vertical wall (4a, 4b), the method comprising: a first step in which the pad presses the forming material against the punch to raise a portion corresponding to a flange to be formed in ends of at least the gutter bottom and the ridge (3a, 3b) in a direction opposite to the pressing direction, and the punch and the die carry out press forming to form an intermediate product, while the pad bends an end of a portion to be formed into the ridge (3a, 3b) in the pressing direction and restrains at least a part of the end, and a region other than an end in a portion to be formed into the gutter bottom remains unrestrained; and a second step in which the intermediate product is further pressed to form the structural member for the automotive body. a first step in which the pad presses the forming material against the punch to raise a portion corresponding to a flange to be formed in ends of at least the gutter bottom and the ridge (3a, 3b) in a direction opposite to the pressing direction, and the punch and the die carry out press forming to form an intermediate product, while the pad bends an end of a portion to be formed into the ridge (3a, 3b) in the pressing direction and restrains at least a part of the end, and a region other than an end in a portion to be formed into the gutter bottom remains unrestrained; and the pad presses the forming material against the punch to raise a portion corresponding to a flange to be formed in ends of at least the gutter bottom and the ridge (3a, 3b) in a direction opposite to the pressing direction, and the punch and the die carry out press forming to form an intermediate product, while the pad bends an end of a portion to be formed into the ridge (3a, 3b) in the pressing direction and restrains at least a part of the end, and a region other than an end in a portion to be formed into the gutter bottom remains unrestrained; and a second step in which the intermediate product is further pressed to form the structural member for the automotive body.
Weapon trough, wherein the weapon trough has at least a first clamping strap, wherein the at least one first clamping strap has at least one bearing region and at least a first fastening region, wherein the bearing region and the first fastening region are connected via a first force-limiting region, wherein the first fastening region is movably connected to the weapon trough perpendicularly to the longitudinal direction of the weapon trough, wherein the at least one first fastening region and the first force-limiting region are fixedly connectable to one another, wherein the first force-limiting region has at least a first shaft, wherein the at least one first shaft is rigidly connected to the first force-limiting region, wherein the at least one first shaft is arranged perpendicularly to the longitudinal direction of the weapon trough, wherein at least one first resetting element is arranged about the at least one first shaft, wherein a first connecting element is movably arranged on the at least one first shaft, wherein the first connecting element is fixedly connected to the bearing region.
An antibody that binds specifically to the S100P protein for use in the prevention and/or treatment of cancer wherein the S100P protein is a protein with SEQ ID NO: 1.
A method (100, 200) of activating cruise control for a vehicle in motion, comprising: - continuously acquiring measurements of the speed of the vehicle, - determining a maximum allowable speed on the path currently travelled by the vehicle, - selecting a value V1 for a limit speed based on the determined maximum allowable speed, said value V1 being lower than the maximum allowable speed, - selecting a time range of T units of time, such as T seconds, wherein the value of T is selected based on the maximum allowable speed, - continuously calculating the average speed of the vehicle, wherein said calculated average speed is, at any given moment, based on the continuously acquired speed measurements for the most recent T units of time, - upon determination that the speed of the vehicle exceeds the value V1 and that during the most recent T units of time the speed has deviated less than or equal to a predefined allowable deviation from the last calculated average speed, automatically activating the cruise control to operate the vehicle at said last calculated average speed. - continuously acquiring measurements of the speed of the vehicle, - determining a maximum allowable speed on the path currently travelled by the vehicle, - selecting a value V1 for a limit speed based on the determined maximum allowable speed, said value V1 being lower than the maximum allowable speed, - selecting a time range of T units of time, such as T seconds, wherein the value of T is selected based on the maximum allowable speed, - continuously calculating the average speed of the vehicle, wherein said calculated average speed is, at any given moment, based on the continuously acquired speed measurements for the most recent T units of time, - upon determination that the speed of the vehicle exceeds the value V1 and that during the most recent T units of time the speed has deviated less than or equal to a predefined allowable deviation from the last calculated average speed, automatically activating the cruise control to operate the vehicle at said last calculated average speed.
A process for acquiring seismic data in a marine environment using seismic receivers mounted to streamers (20, 120) in the water following behind a tow vessel, the process comprising: a) installing a series of guidance devices (22, 27) along the length of each streamer (20, 120) with a steerable element (22, 27) providing lateral streamer control; b) directing the tow vessel to follow a path through the water where the path that the tow vessel has taken is a navigated path and where the navigated path includes turns and is an "S" shape; the process characterized in that it further comprises c) countersteering the guidance devices (22, 27) to cause the streamers (20, 120) to maintain an "S" shape around a turn and maintaining the path of the streamers to follow the tow vessel navigated "S" shape path; and wherein each guidance device (22, 27) uses its steerable element hydrofoil to exert a force to steer itself along a path relative to the navigated path, the forces exerted vary over time and concurrently different forces between guidance devices (22, 27) and the streamers (20. 120) are towed in flared configuration such that the separation between the streamers at the head of the streamers is smaller than the separation between the streamers at the tail of the streamers. a) installing a series of guidance devices (22, 27) along the length of each streamer (20, 120) with a steerable element (22, 27) providing lateral streamer control; b) directing the tow vessel to follow a path through the water where the path that the tow vessel has taken is a navigated path and where the navigated path includes turns and is an "S" shape; c) countersteering the guidance devices (22, 27) to cause the streamers (20, 120) to maintain an "S" shape around a turn and maintaining the path of the streamers to follow the tow vessel navigated "S" shape path; and wherein each guidance device (22, 27) uses its steerable element hydrofoil to exert a force to steer itself along a path relative to the navigated path, the forces exerted vary over time and concurrently different forces between guidance devices (22, 27) and the streamers (20. 120) are towed in flared configuration such that the separation between the streamers at the head of the streamers is smaller than the separation between the streamers at the tail of the streamers.
Heat transfer and storage medium compounded with silica sand, characterized in that, it is compounded by adding silica sand in heat transfer and storage molten salt system, the proportion of the silica sand in the heat transfer and storage medium is 10-40% by weight; the adding silica sand in heat transfer and storage molten salt system includes the follow steps: adding raw materials of heat transfer and storage molten salt system into a molten salt tank with interlayer and heating to molten state, then adding silica sand in proportion, continuously heating and stirring till making the compounded system uniform; the heat transfer and storage molten salt system are nitrate molten salt system or carbonate molten salt system, the nitrate molten salt system is binary nitrate molten salt system, ternary nitrate molten salt system or multiple nitrate molten salt system. the heat transfer and storage molten salt system are nitrate molten salt system or carbonate molten salt system, the nitrate molten salt system is binary nitrate molten salt system, ternary nitrate molten salt system or multiple nitrate molten salt system.
A portable medical apparatus for real-time individualized treatment guidance for a subject, the apparatus comprising: a user interface for obtaining the subject's identification information; a communications module configured for communicating with at least one of (i) a remote server having stored thereon a cloud-based electronic health record that comprises at least the subject's physical body measurements and (ii) a smartphone located within a given immediate proximity of the portable medical apparatus, the communications module further for retrieving, via at least one of the remote server or the smartphone, in response to the subject's identification information, the cloud-based electronic health record; and a controller configured for generating, in response to at least the subject's physical body measurements from the cloud-based electronic health record, real-time individualized treatment guidance to be followed by a user of the portable medical apparatus for administering the individualized treatment to the subject, wherein the user interface further comprises: augmented reality glasses configured to provide the real-time individualized treatment guidance as an overlay guidance for at least one aspect of the individualized treatment of the subject as a function of (i) an image of the subject as viewed by the augmented reality glasses and (ii) the cloud-based electronic health record of the subject's physical body measurements. a user interface for obtaining the subject's identification information; a communications module configured for communicating with at least one of (i) a remote server having stored thereon a cloud-based electronic health record that comprises at least the subject's physical body measurements and (ii) a smartphone located within a given immediate proximity of the portable medical apparatus, the communications module further for retrieving, via at least one of the remote server or the smartphone, in response to the subject's identification information, the cloud-based electronic health record; and a controller configured for generating, in response to at least the subject's physical body measurements from the cloud-based electronic health record, real-time individualized treatment guidance to be followed by a user of the portable medical apparatus for administering the individualized treatment to the subject,
A system for ultrasonic locationing of a mobile device within an environment, the system characterized by comprising: a plurality of fixed ultrasonic emitters within the environment, a backend controller operable to transmit an instruction to listen for an enrollment tone to at least one communication device located within the environment and to cause the plurality of fixed ultrasonic emitters to sequentially emit the enrollment tone from each emitter in the environment at specific times to be received by those communication devices that implement the instruction; a controller coupled to the emitters, the controller operable to receive a response from each of those communication devices that implemented the instruction and received the enrollment tone, the respective response including an identity of the communication device, a time that the enrollment tone was received, and an indication of a hardware platform of the communication device, the controller also operable to assign a locationing mode to each responding communication device in accordance with the hardware platform of the respective communication device; and at least one communication device operable to provide locationing information using its assigned locationing mode and locationing tones from active emitters. a plurality of fixed ultrasonic emitters within the environment, a backend controller operable to transmit an instruction to listen for an enrollment tone to at least one communication device located within the environment and to cause the plurality of fixed ultrasonic emitters to sequentially emit the enrollment tone from each emitter in the environment at specific times to be received by those communication devices that implement the instruction; a controller coupled to the emitters, the controller operable to receive a response from each of those communication devices that implemented the instruction and received the enrollment tone, the respective response including an identity of the communication device, a time that the enrollment tone was received, and an indication of a hardware platform of the communication device, the controller also operable to assign a locationing mode to each responding communication device in accordance with the hardware platform of the respective communication device; and at least one communication device operable to provide locationing information using its assigned locationing mode and locationing tones from active emitters.