mhurhangee/ep-ind-claims huggingface dataset:
An abnormality sensing and vehicle tracking apparatus which senses an abnormal state of the vehicle with abnormality sensing means including a sensor sensing vibrations or the like applied to a vehicle, and which has a vehicle tracking function, the apparatus comprising: an internal power supply which is capable of supplying driving electrical power to the abnormality sensing and vehicle tracking apparatus in place of an in-vehicle battery when the in-vehicle battery is unconnected to the vehicle; and operational mode switching means for switching a plurality of operational modes provided to the abnormality sensing and vehicle tracking apparatus, wherein the plurality of operational modes include a first operational mode (normal mode M4) in which the abnormality sensing and vehicle tracking apparatus is activated by use of the internal power supply, and a second operational mode (transportation mode M1) in which the internal power supply is prohibited from being used when the in-vehicle battery is removed; wherein among the plurality of operational modes, only the second operational mode is set in an initial state before the in-vehicle battery is first connected to the vehicle, and the second operational mode is allowed to be switched to the first operational mode for the first time when the in-vehicle battery is connected to the vehicle. an internal power supply which is capable of supplying driving electrical power to the abnormality sensing and vehicle tracking apparatus in place of an in-vehicle battery when the in-vehicle battery is unconnected to the vehicle; and operational mode switching means for switching a plurality of operational modes provided to the abnormality sensing and vehicle tracking apparatus, wherein the plurality of operational modes include a first operational mode (normal mode M4) in which the abnormality sensing and vehicle tracking apparatus is activated by use of the internal power supply, and a second operational mode (transportation mode M1) in which the internal power supply is prohibited from being used when the in-vehicle battery is removed; wherein among the plurality of operational modes, only the second operational mode is set in an initial state before the in-vehicle battery is first connected to the vehicle, and the second operational mode is allowed to be switched to the first operational mode for the first time when the in-vehicle battery is connected to the vehicle.
Harvesting device for agricultural products having an elongated shape, such as grass, straw, leguminous plants, biomass products, of the type translatable by a movement means, comprising: - a frame having a main extension direction which, during use, keeps itself transverse to the displacement direction of the movement means; - a plurality of harvesting elements for agricultural products, each in turn provided with at least an elongated harvesting prong; - a movement system for each of the harvesting elements in a plane of movement along a closed trajectory surrounding the main extension direction, in which the closed trajectory includes a transport path for the agricultural product between a loading point of the product from the soil by the elongated prongs and a disengagement point of the agricultural product from the prongs; - a plurality of bands attached to the frame, arranged in succession along said main extension direction and spaced apart so that at least one harvesting element is at least partly interposed between two successive bands; said transport path being divided into a first section, in which a prong portion radially outside the band has a constant or increasing size, and a second section, in which a prong portion radially outside the band has a decreasing size to the disengagement point; - a plurality of sorting members, each associated to a band and positioned below said band, along the second section of the transport path, wherein which each sorting member is rotatable about its central axis, transverse to the section of the transport path, in which it is placed, characterized in that said central axis is substantially aligned to said plane of movement. - a frame having a main extension direction which, during use, keeps itself transverse to the displacement direction of the movement means; - a plurality of harvesting elements for agricultural products, each in turn provided with at least an elongated harvesting prong; - a movement system for each of the harvesting elements in a plane of movement along a closed trajectory surrounding the main extension direction, in which the closed trajectory includes a transport path for the agricultural product between a loading point of the product from the soil by the elongated prongs and a disengagement point of the agricultural product from the prongs; - a plurality of bands attached to the frame, arranged in succession along said main extension direction and spaced apart so that at least one harvesting element is at least partly interposed between two successive bands; said transport path being divided into a first section, in which a prong portion radially outside the band has a constant or increasing size, and a second section, in which a prong portion radially outside the band has a decreasing size to the disengagement point; - a plurality of sorting members, each associated to a band and positioned below said band, along the second section of the transport path,
A waste disposal apparatus for disposing of waste materials using aerobic decomposition, the apparatus including a decomposition chamber having a waste inlet for receiving waste materials, a waste outlet for discharging waste materials from the chamber after aerobic decomposition thereof, characterized in that the apparatus comprises a sieve element located within the decomposition chamber between the inlet and the outlet, and a load sensor for sensing the quantity of waste material within the decomposition chamber, said load sensor being configured to sense the load supported by the sieve element.
Retaining and adjusting device for securing and/or adjusting heaters to a wall or similar securing surface, wherein the heaters comprise on their rear sides means for suspending them in such a device, consisting of a wall bracket and a supporting bracket, which can be brought into contact with the means arranged on the rear side of the heater for suspending in a holding connection, characterised in that the supporting bracket is clamped in the wall bracket by means of a clamping screw arranged in the wall bracket and an inlaid nut; the supporting bracket is formed from horizontal and parallel facing journals (3.1, 3.2) and a web (3.3) connecting the journals (3.1, 3.2) on one side, and a supporting carriage is arranged at the web (3.3), which is vertically adjustable by means of a spindle, wherein the supporting carriage is provided with a groove (7.1),which is formed for receiving the means; the wall bracket comprises slot-shaped parallel-facing receivers (2.1, 2.2), which are configured so as to receive the journals (3.1, 3.2) of the supporting bracket.
A sector mold constituted by attaching a pattern block to a sector, comprising: the sector including an embedding groove and holes for positioning pins; and the pattern block including a convex portion for the embedding groove and the positioning pins, on a back body surface, corresponding to the embedding groove and the holes for the positioning pins, respectively, characterised in that the pattern block includes a lug-groove forming bone and a circumferential narrow-groove forming bone connected to the lug-groove forming bone, and the pattern block is divided at a portion of the circumferential narrow-groove forming bone. the sector including an embedding groove and holes for positioning pins; and the pattern block including a convex portion for the embedding groove and the positioning pins, on a back body surface, corresponding to the embedding groove and the holes for the positioning pins, respectively, characterised in that the pattern block includes a lug-groove forming bone and a circumferential narrow-groove forming bone connected to the lug-groove forming bone, and the pattern block is divided at a portion of the circumferential narrow-groove forming bone.
A method of treating an apatite solid surface prior to first use in a chromatographic procedure, the method comprising: (a) prior to first use in a chromatographic procedure, contacting the apatite solid surface prior to first use with a phosphate buffered solution at a pH of 6.5; and then (b) contacting the apatite solid surface with a solution having a hydroxide; and then (c) purifying a target analyte from a sample with the apatite solid surface from step (b), wherein the purifying comprises contacting the apatite solid surface with the sample comprising the target analyte, thereby separating the target analyte from one or more contaminants; then (d) collecting the target analyte from the apatite solid surface; and then (e) regenerating the apatite solid surface, the regenerating comprising: (i) contacting the apatite solid surface with a buffered calcium solution having a calcium ion at a concentration of at least 5 mM and a zwitterionic buffer, wherein the ratio of zwitterionic buffer concentration to calcium ion concentration is at least 2, and the pH of the solution is at least 6.5; and then (ii) contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; and then (iii) contacting the apatite solid surface with a solution having a hydroxide. (a) prior to first use in a chromatographic procedure, contacting the apatite solid surface prior to first use with a phosphate buffered solution at a pH of 6.5; and then (b) contacting the apatite solid surface with a solution having a hydroxide; and then (c) purifying a target analyte from a sample with the apatite solid surface from step (b), wherein the purifying comprises contacting the apatite solid surface with the sample comprising the target analyte, thereby separating the target analyte from one or more contaminants; then (d) collecting the target analyte from the apatite solid surface; and then (e) regenerating the apatite solid surface, the regenerating comprising: (i) contacting the apatite solid surface with a buffered calcium solution having a calcium ion at a concentration of at least 5 mM and a zwitterionic buffer, wherein the ratio of zwitterionic buffer concentration to calcium ion concentration is at least 2, and the pH of the solution is at least 6.5; and then (ii) contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; and then (iii) contacting the apatite solid surface with a solution having a hydroxide. (i) contacting the apatite solid surface with a buffered calcium solution having a calcium ion at a concentration of at least 5 mM and a zwitterionic buffer, wherein the ratio of zwitterionic buffer concentration to calcium ion concentration is at least 2, and the pH of the solution is at least 6.5; and then (ii) contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; and then (iii) contacting the apatite solid surface with a solution having a hydroxide.
A liquid recovery system for an inkjet type dispenser, comprising: a reservoir; an interconnect to connect to a removable container; a flow channel from the reservoir to a printhead unit and back to the reservoir and from the reservoir to the interconnect; a pump to pump ink from the reservoir along the flow channel; and a bi-stable cam actuated valve to open and close the flow channel downstream from the pump between the reservoir and the interconnect. a reservoir; an interconnect to connect to a removable container; a flow channel from the reservoir to a printhead unit and back to the reservoir and from the reservoir to the interconnect; a pump to pump ink from the reservoir along the flow channel; and a bi-stable cam actuated valve to open and close the flow channel downstream from the pump between the reservoir and the interconnect.
Device (100, 200, 300, 400) for generating at least one frequency-stable periodical signal, including at least: - a generator (102, 402, 416) able to generate at least one first periodical signal the frequency spectrum of which includes at least two lines at different frequencies f a and f b; - a first switchable injection-locked oscillator (104, 104.1, 104.2, 104.3, 432, 434, 438, 440, 444, 446, 450, 452, 458, 460, 462, 464, 492) able to receive at the input the first periodical signal and to be locked, in a first state, to the frequency f a, and in a second state, to the frequency f b, as a function of the value of at least one control signal applied at the input of the first switchable injection-locked oscillator (104, 104.1, 104.2, 104.3, 432, 434, 438, 440, 444, 446, 450, 452, 458, 460, 462, 464, 492). - a generator (102, 402, 416) able to generate at least one first periodical signal the frequency spectrum of which includes at least two lines at different frequencies f a and f b; - a first switchable injection-locked oscillator (104, 104.1, 104.2, 104.3, 432, 434, 438, 440, 444, 446, 450, 452, 458, 460, 462, 464, 492) able to receive at the input the first periodical signal and to be locked, in a first state, to the frequency f a, and in a second state, to the frequency f b, as a function of the value of at least one control signal applied at the input of the first switchable injection-locked oscillator (104, 104.1, 104.2, 104.3, 432, 434, 438, 440, 444, 446, 450, 452, 458, 460, 462, 464, 492).
An universal asynchronous receiver/transmitter (UART) interface, comprising a configurable asynchronous receiver and transmitter unit; a set of registers (MODE, P1, P2, P3, UxRXCHK, BRG-RX), and a configurable state machine, wherein when at least a control bit (USE PROT) in a first register is set, the state machine is configured to control the UART interface to apply one of a plurality of predefined transfer protocols each being defined by the registers (MODE P1, P2, P3, UxRXCHK, BRG-RX) thereby configuring the receiver and transmitter unit to support various baud rates and provide selectable settings for at least start bit configuration, stop bit configuration, idle periods, checksum calculation, data insertion, and parity bits to automatically support said plurality of predefined transfer protocols, wherein one of the predefined transfer protocols is selected through at least one of the registers (MODE[3:0]).
An abnormality detection apparatus for detecting lifting abnormality of a substrate in a substrate processing apparatus including a lifting mechanism for lifting the substrate, comprising: a measurement section configured to measure a parameter having a correlation with load applied to the lifting mechanism; and a detection section configured to detect lifting abnormality of the substrate, further characterised in that the detection section includes a learning model generated by using machine learning, wherein the learning model receives, as input, a plurality of measurements of the parameter continuously measured by the measurement section during lifting-up of the substrate by the lifting mechanism, and outputs a level of lifting abnormality of the substrate. a measurement section configured to measure a parameter having a correlation with load applied to the lifting mechanism; and a detection section configured to detect lifting abnormality of the substrate, further characterised in that the detection section includes a learning model generated by using machine learning, wherein the learning model receives, as input, a plurality of measurements of the parameter continuously measured by the measurement section during lifting-up of the substrate by the lifting mechanism, and outputs a level of lifting abnormality of the substrate.
An RFID tag, comprising: - an analog RF interface configured to receive a request for an EPC serial number and to provide the EPC serial number in response to the RFID request; - a memory configured to store the EPC serial number and a tag ID serial number; characterized in that the RFID tag further comprises: - a digital controller configured to map the tag ID serial number to the EPC serial number by copying at least a portion of the tag ID serial number into the EPC serial number; and in that the analog RF interface is configured to provide the mapped EPC serial number in response to the RFID request. - an analog RF interface configured to receive a request for an EPC serial number and to provide the EPC serial number in response to the RFID request; - a memory configured to store the EPC serial number and a tag ID serial number; - a digital controller configured to map the tag ID serial number to the EPC serial number by copying at least a portion of the tag ID serial number into the EPC serial number;
Transmission for a motor vehicle, comprising a transmission housing, an oil sump which is attached to the transmission housing, and a power electronics system which serves as a converter for an electrical machine and which is supported on the transmission housing and/or the oil sump, characterized in that the transmission has a hydraulic transmission controller, wherein the hydraulic transmission controller and the power electronics system are arranged tangentially and/or axially next to one another at least in sections with respect to a transmission centre axis.
Pipe cutting machine with a pipe, with a longitudinal direction, from which a pipe section is to be cut to size, a stationary cutting die, a movable cutting die which can be moved relative to the stationary cutting die, and a cutting mandrel which is introduced into the pipe and which comprises a stationary mandrel and a mandrel that can be moved relative to the stationary mandrel, wherein the cutting mandrel is arranged in a cutting position in a floating manner, characterised in that the cutting mandrel is arranged in the pipe in a floating manner, and a magnetic coupling is provided with a coupling stator arranged outside of the pipe and a coupling rotor arranged on the stationary mandrel, and a movement of a magnetic field of the magnetic coupling in a longitudinal direction can be controlled using control values, and a position sensor has a sensor stator, which is connected to a frame in a fixed position, and a sensor rotor, which is connected to the stationary mandrel in a fixed position, said position sensor being used to measure deviations of the cutting mandrel from the cutting position, and a control unit converts deviation measurement values into the control values, by means of which the cutting mandrel can be returned to the cutting position. the cutting mandrel is arranged in the pipe in a floating manner, and a magnetic coupling is provided with a coupling stator arranged outside of the pipe and a coupling rotor arranged on the stationary mandrel, and a movement of a magnetic field of the magnetic coupling in a longitudinal direction can be controlled using control values, and a position sensor has a sensor stator, which is connected to a frame in a fixed position, and a sensor rotor, which is connected to the stationary mandrel in a fixed position, said position sensor being used to measure deviations of the cutting mandrel from the cutting position, and a control unit converts deviation measurement values into the control values, by means of which the cutting mandrel can be returned to the cutting position.
Transfer wheel for transferring a tire component to a tire building drum, wherein the transfer wheel defines a circumferential surface extending about a transfer wheel axis, wherein the transfer wheel comprises a pusher segment arranged at a first segment position along said circumferential surface, wherein the pusher segment comprises a segment body that is configured to be flush with the circumferential surface, characterized in that the pusher segment comprises a plurality of push-off members arranged adjacent to each other in a lateral direction parallel to the transfer wheel axis in said segment body movable relative to each other and the segment body in a push-off direction facing radially outward relative to the transfer wheel axis between a flush position in which the plurality of push-off members are flush with the circumferential surface and a push-off position radially outside of said circumferential surface.
A radio device, in particular a user equipment, UE, a base station, BS, or a Sidelink device, comprising: a radio transceiver configured to receive a radio subframe; a receive, RX, processor, configured to process the radio subframe; and a transmit, TX, processor, configured to define an Acknowledgement, ACK, field in the radio subframe based on a processing power of the RX processor or a processing power of a second radio device, wherein defining the ACK field is further based on a metric with respect to a latency parameter and/or a reliability parameter; wherein the radio transceiver is configured to transmit the radio subframe, processed by the TX processor, to the second radio device; wherein the radio subframe is subdivided into a plurality of minislots, wherein the ACK field comprises a plurality of ACK messages, each one related to a corresponding minislot, wherein the RX processor is configured to process the plurality of minislots and the TX processor is configured to acknowledge the processing of a respective minislot by setting a corresponding ACK message in the ACK field of the radio subframe; wherein the radio subframe is divided in time in terms of minislots and in frequency in terms of resource blocks, and wherein each ACK message location is pointing to a certain minislot and resource block according to a certain predefined mapping rule. a radio transceiver configured to receive a radio subframe; a receive, RX, processor, configured to process the radio subframe; and a transmit, TX, processor, configured to define an Acknowledgement, ACK, field in the radio subframe based on a processing power of the RX processor or a processing power of a second radio device, wherein defining the ACK field is further based on a metric with respect to a latency parameter and/or a reliability parameter; wherein the radio transceiver is configured to transmit the radio subframe, processed by the TX processor, to the second radio device; wherein the radio subframe is subdivided into a plurality of minislots, wherein the ACK field comprises a plurality of ACK messages, each one related to a corresponding minislot, wherein the RX processor is configured to process the plurality of minislots and the TX processor is configured to acknowledge the processing of a respective minislot by setting a corresponding ACK message in the ACK field of the radio subframe; wherein the radio subframe is divided in time in terms of minislots and in frequency in terms of resource blocks, and wherein each ACK message location is pointing to a certain minislot and resource block according to a certain predefined mapping rule.