mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a plurality of personal protective elements (20a-f) where each member of the plurality of personal protective elements (20a-f) carries a radio-frequency identifier-type tag, the plurality of personal protective elements (20a-f) defines a user complement of personal protective equipment; a user communication unit in wireless communication with the radio-frequency identifier-type tag of each member of the plurality of personal protective elements (20a-f), wherein the user communication unit is adapted to interrogate the plurality of personal protective elements (20a-f) and perform a configuration check to compare the user complement of personal protective equipment with a pre-stored authorized list of personal protective elements, and wherein the user communication unit includes at least one computer readable storage unit and stores therein a plurality of indicia indicative of the authorized list of personal protective elements; an aural alert and/or display on the user communication unit that notifies the user upon detection of an unauthorized user complement of personal protective equipment on the user; and a configuration checkpoint with at least an RFID tag that uniquely identifies that configuration check point, wherein reading of the RFID tag of the configuration checkpoint by the user communication unit causes the user communication unit to automatically initiate the configuration check. a plurality of personal protective elements (20a-f) where each member of the plurality of personal protective elements (20a-f) carries a radio-frequency identifier-type tag, the plurality of personal protective elements (20a-f) defines a user complement of personal protective equipment; a user communication unit in wireless communication with the radio-frequency identifier-type tag of each member of the plurality of personal protective elements (20a-f), wherein the user communication unit is adapted to interrogate the plurality of personal protective elements (20a-f) and perform a configuration check to compare the user complement of personal protective equipment with a pre-stored authorized list of personal protective elements, and wherein the user communication unit includes at least one computer readable storage unit and stores therein a plurality of indicia indicative of the authorized list of personal protective elements; an aural alert and/or display on the user communication unit that notifies the user upon detection of an unauthorized user complement of personal protective equipment on the user; and a configuration checkpoint with at least an RFID tag that uniquely identifies that configuration check point, wherein reading of the RFID tag of the configuration checkpoint by the user communication unit causes the user communication unit to automatically initiate the configuration check.
Powder of an alloy comprising uranium and molybdenum in a metastable γ phase, which is formed of particles which have an elongation index of at least equal to 1.1, a non-zero closed porosity value, and which are composed of grains having a molybdenum content, the variations of which within a same grain are of at most 1% by mass.
RF transmission circuitry comprising: an integrated circuit comprising an impedance matching measuring circuit (208, 400), the impedance matching measuring circuit (208, 400) comprising: an artificial transmission line arranged as a lumped element model of a transmission line comprising a plurality of inductors connected in series with a plurality of nodes such that there is a node located on either side of each inductor and a capacitor connected to each node; a first detector circuit connected to receive a first voltage such that a measurement of a peak-to-peak voltage at a first node of the plurality of nodes is enabled, the first detector adapted to provide a first detected voltage; a second detector circuit connected to receive a second voltage such that a measurement of a peak-to-peak voltage at a second node of the plurality of nodes is enabled, the second detector adapted to provide a second detected voltage; an antenna tuner circuit; and a controller (214, 412) configured to receive the first and second detected voltages; determine a required tuner control setting in order for the peak-to-peak voltages of the nodes to become equal using the first and second detected voltages; and provide the determined tuner control setting to the antenna tuner circuit. an artificial transmission line arranged as a lumped element model of a transmission line comprising a plurality of inductors connected in series with a plurality of nodes such that there is a node located on either side of each inductor and a capacitor connected to each node; a first detector circuit connected to receive a first voltage such that a measurement of a peak-to-peak voltage at a first node of the plurality of nodes is enabled, the first detector adapted to provide a first detected voltage; a second detector circuit connected to receive a second voltage such that a measurement of a peak-to-peak voltage at a second node of the plurality of nodes is enabled, the second detector adapted to provide a second detected voltage; an antenna tuner circuit; and a controller (214, 412) configured to receive the first and second detected voltages; determine a required tuner control setting in order for the peak-to-peak voltages of the nodes to become equal using the first and second detected voltages; and provide the determined tuner control setting to the antenna tuner circuit.
A control system for controlling a variable acoustical damping device disposed in a sound producing channel of a vehicle engine, comprising: a controller coupled to the variable acoustical damping device and storing a plurality of control patterns (A, B) for different levels of acoustical damping via the acoustical damping device; and a selection device arranged and constructed to output a selection signal to the controller; wherein the controller controls the variable acoustical damping device level based on one of the control patterns corresponding to the selection signal, characterized in that the selection device comprises at least one of an operating mode selection switch of a vehicle automatic transmission, a vehicle audio device, a vehicle lighting switch, a vehicle air conditioning switch, a wiper switch, a window regulator switch for opening and closing at least one vehicle window, and a sensor for detecting the sitting of at least one person on at least one vehicle seat. a controller coupled to the variable acoustical damping device and storing a plurality of control patterns (A, B) for different levels of acoustical damping via the acoustical damping device; and a selection device arranged and constructed to output a selection signal to the controller; wherein the controller controls the variable acoustical damping device level based on one of the control patterns corresponding to the selection signal, characterized in that the selection device comprises at least one of an operating mode selection switch of a vehicle automatic transmission, a vehicle audio device, a vehicle lighting switch, a vehicle air conditioning switch, a wiper switch, a window regulator switch for opening and closing at least one vehicle window, and a sensor for detecting the sitting of at least one person on at least one vehicle seat.
MEMS transducer for interacting with a volume flow of a fluid, comprising: a substrate comprising a cavity; an electromechanical transducer (18; 18a-f) connected to the substrate in the cavity and comprising an element (22; 22a-f; 30; 40; 150; 160) deformable along a lateral movement direction, wherein a deformation of the deformable element (22; 22a-f; 30; 40; 150; 160) along the lateral movement direction and the volume flow of the fluid are causally related; wherein the deformation of the deformable element (22; 22a-f; 30; 40; 150; 160) is a curvature of the deformable element in-plane with respect to the substrate; wherein the cavity comprises an opening in the substrate, characterized in that a valve structure (85a-f) is arranged in a region of the opening, configured to reduce a passage of the volume flow through the opening along at least one direction out of the cavity or into the cavity. a substrate comprising a cavity; an electromechanical transducer (18; 18a-f) connected to the substrate in the cavity and comprising an element (22; 22a-f; 30; 40; 150; 160) deformable along a lateral movement direction, wherein a deformation of the deformable element (22; 22a-f; 30; 40; 150; 160) along the lateral movement direction and the volume flow of the fluid are causally related; wherein the deformation of the deformable element (22; 22a-f; 30; 40; 150; 160) is a curvature of the deformable element in-plane with respect to the substrate; wherein the cavity comprises an opening in the substrate, characterized in that a valve structure (85a-f) is arranged in a region of the opening, configured to reduce a passage of the volume flow through the opening along at least one direction out of the cavity or into the cavity.
A method of switching between modes of operation for a device in a cellular network performed by a serving cell in the cellular network, comprising: providing a service to the device; determining, while providing the service to the device, that the device is approaching an edge of coverage; responsive to determining that the device is approaching the edge of coverage, sending a relay discovery command to the device; receiving a measurement report from the device indicating discovered nodes capable of acting as relay nodes; selecting a suitable node to act as a relay node from the discovered relay nodes; and instructing initiation of a mechanism to switch to receiving the service via the relay node. providing a service to the device; determining, while providing the service to the device, that the device is approaching an edge of coverage; responsive to determining that the device is approaching the edge of coverage, sending a relay discovery command to the device; receiving a measurement report from the device indicating discovered nodes capable of acting as relay nodes; selecting a suitable node to act as a relay node from the discovered relay nodes; and instructing initiation of a mechanism to switch to receiving the service via the relay node.
Microtome having a microtome blade and having a cutting device for cutting histological samples into thin histological slides, wherein an optically readable image pattern is applied to the microtome blade, and wherein an optical reading device is present which reads the image pattern from the microtome blade, generates analogue or digital image signals in relation to the read image pattern and transmits the image signals to a control device of the microtome.
A battery pack comprising: a battery module frame accommodating a battery cell stack; a battery pack frame on which the battery module frame is mounted; and a battery module mounting part formed in the battery pack frame and allow the battery module frame to be mounted on the battery pack frame, wherein an insulation member is formed between the battery module mounting part and the battery module frame; wherein the battery module mounting part and the battery module frame are coupled to each other through a mounting member; wherein the battery module frame includes end plates covering front and rear surfaces of the battery cell stack, and the mounting member is inserted through a through-hole (111, 112) formed at each of both ends of the end plates, wherein the insulation member is located between the mounting member and the through-hole (111, 112). a battery module frame accommodating a battery cell stack; a battery pack frame on which the battery module frame is mounted; and a battery module mounting part formed in the battery pack frame and allow the battery module frame to be mounted on the battery pack frame, wherein an insulation member is formed between the battery module mounting part and the battery module frame; wherein the battery module mounting part and the battery module frame are coupled to each other through a mounting member; wherein the battery module frame includes end plates covering front and rear surfaces of the battery cell stack, and the mounting member is inserted through a through-hole (111, 112) formed at each of both ends of the end plates, wherein the insulation member is located between the mounting member and the through-hole (111, 112).
An agricultural working machine, in particular a harvester, comprising a crop collection arrangement for separating and picking up crop material from a field stand, which as components has at least one crop cutting device, a crop conveyor device arranged downstream thereof and a crop intake device arranged downstream of the latter, and a closed-loop control device which has at least one sensor unit for optical detection of a crop material flow, an image processing unit for processing images which are generated by the sensor unit based on the optically detected crop material flow and a data output unit for output of the images processed by the image processing unit, wherein the image processing unit creates a speed characteristic diagram based on the images produced by the sensor unit, characterised in that the image processing unit is configured to create a directional change characteristic diagram based on the images produced by the sensor unit in addition to the speed characteristic diagram, wherein the information from the respective directional change characteristic diagram is used to check the information from the associated speed characteristic diagram, corresponding therefore in respect of time, in respect of its plausibility, and that the two characteristic diagrams (16, 17) are used jointly or each individually by the closed-loop control device for the control of processes in the agricultural working machine and/or in the crop collection arrangement. a crop collection arrangement for separating and picking up crop material from a field stand, which as components has at least one crop cutting device, a crop conveyor device arranged downstream thereof and a crop intake device arranged downstream of the latter, and a closed-loop control device which has at least one sensor unit for optical detection of a crop material flow, an image processing unit for processing images which are generated by the sensor unit based on the optically detected crop material flow and a data output unit for output of the images processed by the image processing unit, wherein the image processing unit creates a speed characteristic diagram based on the images produced by the sensor unit, characterised in that the image processing unit is configured to create a directional change characteristic diagram based on the images produced by the sensor unit in addition to the speed characteristic diagram, wherein the information from the respective directional change characteristic diagram is used to check the information from the associated speed characteristic diagram, corresponding therefore in respect of time, in respect of its plausibility, and that the two characteristic diagrams (16, 17) are used jointly or each individually by the closed-loop control device for the control of processes in the agricultural working machine and/or in the crop collection arrangement.
Driver assistance system for improving the availability and reliability of autonomous driving modes of vehicles capable of operating in an autonomous driving mode, the driver assistance system comprising: at least one backend-server, the backend-server comprising: - a Quality of Service, QoS, map module operable to maintain at least one up-to-date QoS map for at least one mobile network operator, MNO, the QoS map being indicative of a QoS or coverage of a Wireless Wide Area Network WWAN; and - a scheduling module operable to schedule appropriate map data downloads to the vehicle; and at least one vehicle, the vehicle comprising: - a transmission module operable to: - transmit driving data to the backend-server in predefined time intervals, the driving data comprising positioning data of the vehicle; and - receive, from the scheduling module the appropriate map data, wherein the scheduling module schedules the appropriate map data downloads based on the transmitted driving data; and - a control module operable to control the vehicle in the autonomous driving mode based on the appropriate map data. at least one backend-server, the backend-server comprising: - a Quality of Service, QoS, map module operable to maintain at least one up-to-date QoS map for at least one mobile network operator, MNO, the QoS map being indicative of a QoS or coverage of a Wireless Wide Area Network WWAN; and - a scheduling module operable to schedule appropriate map data downloads to the vehicle; and - a Quality of Service, QoS, map module operable to maintain at least one up-to-date QoS map for at least one mobile network operator, MNO, the QoS map being indicative of a QoS or coverage of a Wireless Wide Area Network WWAN; and - a scheduling module operable to schedule appropriate map data downloads to the vehicle; and at least one vehicle, the vehicle comprising: - a transmission module operable to: - transmit driving data to the backend-server in predefined time intervals, the driving data comprising positioning data of the vehicle; and - receive, from the scheduling module the appropriate map data, wherein the scheduling module schedules the appropriate map data downloads based on the transmitted driving data; and - a control module operable to control the vehicle in the autonomous driving mode based on the appropriate map data. - a transmission module operable to: - transmit driving data to the backend-server in predefined time intervals, the driving data comprising positioning data of the vehicle; and - receive, from the scheduling module the appropriate map data, wherein the scheduling module schedules the appropriate map data downloads based on the transmitted driving data; and - transmit driving data to the backend-server in predefined time intervals, the driving data comprising positioning data of the vehicle; and - receive, from the scheduling module the appropriate map data, wherein the scheduling module schedules the appropriate map data downloads based on the transmitted driving data; and - a control module operable to control the vehicle in the autonomous driving mode based on the appropriate map data.
An inclined conveyor for a harvester comprising at least two endless drive belts (19, 19a, 19b and 19c) which extend parallel to each other and which pass around at least two mutually spaced shafts (15 and 17) which are mounted rotatably in an inclined conveyor housing of the inclined conveyor, wherein arranged between the drive belts (19, 19a, 19b and 19c) are conveyor bars which extend parallel to the shafts (15 and 17) and which are fixed to each of the drive belts (19, 19a, 19b and 19c), wherein the one shaft is in the form of a drive shaft and for each of the drive belts (19, 19a, 19b and 19c) is provided with drive wheels (16, 16a, 16b and 16c), wherein the drive shaft with the drive wheels (16, 16a, 16b and 16c) and the drive belts (19, 19a, 19b and 19c) jointly form a drive system of the inclined conveyor which drives the inclined conveyor in a conveyor direction and transmits a drive torque to the at least two drive belts (19, 19a, 19b and 19c), characterised in that the drive system can be switched over into a reversing mode and that the inclined conveyor includes a device for increasing the drive torque which can be transmitted by the drive wheels (16, 16a, 16b and 16c) to the drive belts (19, 19a, 19b and 19c), which device can be activated in the reversing mode and prevents slippage of the respective drive belts (19, 19a, 19b and 19c) at the contact surface or surfaces of the drive wheel (16, 16a, 16b and 16c) associated therewith.
Machine for processing slabs, comprising: - a device for transporting the slabs between two zones, at least one of which is a machining zone along a feeding direction; - means (16, 17) for supporting and clamping the slabs, designed to clamp the slabs in a machining position; - at least one tool for machining the slabs, mounted on a spindle, said at least one tool being operative in the machining zone; wherein the machine comprises means for moving said transporting device, configured to move said transporting device from a working position corresponding substantially to said position for machining the slabs into a position spaced at least vertically from said working position, and vice versa; and wherein said transporting device comprises a conveyor belt; characterized in that said movement means are configured to move said conveyor belt from a raised working position corresponding substantially to said positioning for machining of the slabs into a lowered position spaced from said working position, and vice versa. - a device for transporting the slabs between two zones, at least one of which is a machining zone along a feeding direction; - means (16, 17) for supporting and clamping the slabs, designed to clamp the slabs in a machining position; - at least one tool for machining the slabs, mounted on a spindle, said at least one tool being operative in the machining zone; wherein the machine comprises means for moving said transporting device, configured to move said transporting device from a working position corresponding substantially to said position for machining the slabs into a position spaced at least vertically from said working position, and vice versa; and wherein said transporting device comprises a conveyor belt; characterized in that said movement means are configured to move said conveyor belt from a raised working position corresponding substantially to said positioning for machining of the slabs into a lowered position spaced from said working position, and vice versa.
A method for modulating a plurality of K -ary symbols to be transmitted on a transmission channel, the method comprising: converting the k bits of each K -ary symbol into a distinct integer value, and generating a Zadoff-Chu sequence, associated with this symbol, said Zadoff-Chu sequence being defined as: ZC N r, q k = e − j π N r k + 1 + 2 q k, k = 0,..., N − 1 if N is odd ZC N r, q k = e − j π N r k + 2 q k, k = 0,..., N − 1, f N is even said Zadoff-Chu sequence being of length N, root r and frequency offset q where N is a positive integer such that log 2 N ≥ K, r is an integer such that r > 1 and prime with N, q is a relative integer, each K -ary symbol being modulated in the form of a sequence, of length greater than or equal to 2 K, of consecutive complex elements of the Zadoff-Chu sequence of length N, root r and frequency offset q equal to said integer value associated with said K -ary symbol, said modulation method being characterised in that any two K -ary symbols of said plurality are associated with Zadoff-Chu sequences having distinct frequency offsets. converting the k bits of each K -ary symbol into a distinct integer value, and generating a Zadoff-Chu sequence, associated with this symbol, said Zadoff-Chu sequence being defined as: ZC N r, q k = e − j π N r k + 1 + 2 q k, k = 0,..., N − 1 if N is odd ZC N r, q k = e − j π N r k + 2 q k, k = 0,..., N − 1, f N is even said Zadoff-Chu sequence being of length N, root r and frequency offset q where N is a positive integer such that log 2 N ≥ K, r is an integer such that r > 1 and prime with N, q is a relative integer, each K -ary symbol being modulated in the form of a sequence, of length greater than or equal to 2 K, of consecutive complex elements of the Zadoff-Chu sequence of length N, root r and frequency offset q equal to said integer value associated with said K -ary symbol, said modulation method being characterised in that any two K -ary symbols of said plurality are associated with Zadoff-Chu sequences having distinct frequency offsets.