mhurhangee/ep-ind-claims huggingface dataset:
A reception device comprising: an intermittent action block configured to work solely during a T2 frame part when receiving data obtained by time-division multiplexing of the T2 frame part and an FEF, Future Extension Frame, part according to the DVB-T2, Digital Video Broadcasting-Terrestrial 2, standard, which FEF has a structure different from a structure of the T2 frame, wherein the intermittent action block includes an RF circuit and an A/D converter circuit; and a constant action block configured to constantly monitor the T2 frame part and the FEF frame part and control an action of the intermittent action block, characterized in that the constant action block is configured to carry out control of stopping the actions of the RF circuit and the A/D converter circuit in the order of an oscillation circuit, an A/D converter, a first variable gain amplifier, a channel selection filter, a distortion detector, a mixer, and a second variable gain amplifier, which constitute the RF circuit and the A/D converter circuit, or of restarting the actions of the RF circuit and the A/D converter circuit in the order of the second variable gain amplifier, the mixer, the distortion detector, the channel selection filter, the first variable gain amplifier, the A/D converter, and the oscillation circuit, which constitute the RF circuit and the A/D converter circuit. an intermittent action block configured to work solely during a T2 frame part when receiving data obtained by time-division multiplexing of the T2 frame part and an FEF, Future Extension Frame, part according to the DVB-T2, Digital Video Broadcasting-Terrestrial 2, standard, which FEF has a structure different from a structure of the T2 frame, wherein the intermittent action block includes an RF circuit and an A/D converter circuit; and a constant action block configured to constantly monitor the T2 frame part and the FEF frame part and control an action of the intermittent action block, characterized in that the constant action block is configured to carry out control of stopping the actions of the RF circuit and the A/D converter circuit in the order of an oscillation circuit, an A/D converter, a first variable gain amplifier, a channel selection filter, a distortion detector, a mixer, and a second variable gain amplifier, which constitute the RF circuit and the A/D converter circuit, or of restarting the actions of the RF circuit and the A/D converter circuit in the order of the second variable gain amplifier, the mixer, the distortion detector, the channel selection filter, the first variable gain amplifier, the A/D converter, and the oscillation circuit, which constitute the RF circuit and the A/D converter circuit.
A lubricant additive consisting of: a monoester carboxylic acid salt represented by formula, wherein R 1 represents an alkylene group or alkenylene group having 2 carbon atoms, R 2 represents a linear or branched saturated hydrocarbon group or a linear or branched unsaturated hydrocarbon group having 4 to 18 carbon atoms, AO represents an oxyalkylene group of one type selected from oxyalkylene groups having 2 to 4 carbon atoms, or a mixed oxyalkylene group of two or more types selected from oxyalkylene groups having 2 to 4 carbon atoms, n is the average number of added moles of the oxyalkylene group represented by AO and is 1 to 5, and M represents a secondary or tertiary ammonium cation. a monoester carboxylic acid salt represented by formula, wherein R 1 represents an alkylene group or alkenylene group having 2 carbon atoms, R 2 represents a linear or branched saturated hydrocarbon group or a linear or branched unsaturated hydrocarbon group having 4 to 18 carbon atoms, AO represents an oxyalkylene group of one type selected from oxyalkylene groups having 2 to 4 carbon atoms, or a mixed oxyalkylene group of two or more types selected from oxyalkylene groups having 2 to 4 carbon atoms, n is the average number of added moles of the oxyalkylene group represented by AO and is 1 to 5, and M represents a secondary or tertiary ammonium cation.
A tubing (14, 42) with a light shield suitable for being arranged in a light shielding position with respect to a sensor or a blood leakage detector, the sensor or blood leakage detector being installed in a medical apparatus and monitoring for changes in transmittance of a translucent fluid carried in the tubing (14, 42) which is connected to the medical apparatus, wherein the light shield has a non-transparent configuration and is configured to prevent environmental light from being incident on a relevant detection active sensor area, characterized in that the light shield comprises a first light shield element formed of non-transparent coating or paint (44, 46a, 46b) provided on the tubing at least over a region where the active sensor detecting area is underneath and does not touch the light path of the sensor and shields the sensor from impacts of environmental light.
Method for processing sensor data (8, 16, 26, 28) in a vehicle, comprising: - capturing (14, 22, 24) driving dynamics data and chassis sensor data (26, 28) of the vehicle, - filtering the driving dynamics data or the chassis sensor data (26, 28) on the basis of the chassis sensor data (26, 28) or the driving dynamics data, - calculating a road inclination and/or road gradient on the basis of the chassis sensor data (26, 28), wherein filtering involves the road inclination and/or road gradient being filtered on the basis of the driving dynamics data, and wherein the chassis sensor data (26, 28) comprise ride height data. - capturing (14, 22, 24) driving dynamics data and chassis sensor data (26, 28) of the vehicle, - filtering the driving dynamics data or the chassis sensor data (26, 28) on the basis of the chassis sensor data (26, 28) or the driving dynamics data, - calculating a road inclination and/or road gradient on the basis of the chassis sensor data (26, 28), wherein filtering involves the road inclination and/or road gradient being filtered on the basis of the driving dynamics data, and
A controller-circuit for operating an automated vehicle, said system comprising: an input configured to communicate with a perception-sensor used to determine a rendering of an area proximate to a host-vehicle; an output configured to communicate with a display operable to convey to an operator of the host-vehicle a position of an object present in the area in accordance with the rendering; and a processor in communication with the perception-sensor and the display, said processor configured to operate the host-vehicle in an autonomous-mode, and operate the display to convey to the operator a history of the position of the object in accordance with the rendering, said history conveyed in response to initiating a transition of operation of the host-vehicle from the autonomous-mode to a manual-mode. an input configured to communicate with a perception-sensor used to determine a rendering of an area proximate to a host-vehicle; an output configured to communicate with a display operable to convey to an operator of the host-vehicle a position of an object present in the area in accordance with the rendering; and a processor in communication with the perception-sensor and the display, said processor configured to operate the host-vehicle in an autonomous-mode, and operate the display to convey to the operator a history of the position of the object in accordance with the rendering, said history conveyed in response to initiating a transition of operation of the host-vehicle from the autonomous-mode to a manual-mode.
A seat structure (1C, ID, IE) which includes a seat cushion part and a seat back part coupled to each other via a reclining mechanism part, the seat structure comprising a reinforcing structure (X3, X4, X5) in a substantially rectangular frame shape provided in an area where the seat cushion part and the seat back part are coupled to each other via the reclining mechanism part, from vicinities of rear portions of cushion-part side frames included in a cushion frame of the seat cushion part up to vicinities of lower portions of back-part side frames included in a back frame of the seat back part, the reinforcing structure (X3, X4, X5) including a pair of rigid members (111A, 310) provided in vicinities of side portions of the area and at least two bridge members (1200, 1300) arranged at an interval from each other and extending between the pair of rigid members along a left and right direction wherein the reclining mechanism parts are provided in pair on left and right, characterized in that the rigid members included in the reinforcing structure (X3, X4, X5) are constituted by gears disposed to face each other in the pair of left and right reclining mechanism parts.
A bodypart of a motor vehicle, comprising a wall having an external face, an inner face, and at least one opening, the part having an optical element fixed on the inner face opposite the opening, the opening being filled with a transparent or translucent resin so as to ensure a seal between the external face and the optical element, the optical element comprising at least one support fixed on the inner face opposite and along the opening, characterised in that a luminous element is fixed to the support directly opposite the opening, the light element comprising a flexible main body suitable for assembly by insertion into the support, and in that the support comprises a technical area of the inlet of the support configured for inserting a polyurethane injection nozzle for injecting the resin and/or a technical area of the outlet of the support defining a volume serving as a mass in order to constitute an overflow tank of the injected resin.
A collection of capture oligonucleotides, wherein each type of capture oligonucleotide of the collection is coupled to a solid support, has greater than sixteen nucleotides, and differs in nucleotide sequence from other types of capture oligonucleotides in the collection by at least 25% when aligned, and wherein each capture oligonucleotide of the collection hybridizes to a nucleic acid molecule comprising a complementary nucleotide sequence under uniform hybridization conditions.
Grinding machine, in particular round grinding machine for grinding high-precision workpieces, in which the grinding wheel is guided approximately vertically upwards, while the workpiece to be machined is positioned below the grinding wheel in such a way that its axis of rotation lies on the same vertical plane, on which the axis of rotation of the grinding wheel is moved in the vertical direction, wherein the grinding machine having a modular structure composed of a first portal-like module with the grinding wheel together with the drive and axis drive and a second module in the form of a slide bed with a clamping device (7a, 7b) for the workpiece to be machined, characterised in that the portal-like module is provided with a housing, in which the bearing and the drive motor of the grinding wheel are installed, and in the housing there is a high-precision adjustment device with a servomotor, by means of which the axis of rotation of the grinding wheel is adjustable in the vertical direction, wherein a slide is guided on guide rails of the slide bed and is adjustable in the longitudinal direction with a feed device, wherein the clamping device (7a, 7b) consists of the slide with a workpiece bearing (20a, 20b) for bearing and clamping the workpiece.
Axle body, in particular portal axle body for a preferably electrically driven vehicle, in particular for a low-floor vehicle, comprising: a left main axle plate and a right main axle plate for receiving a wheel in each case along a wheel axle; and an axle bridge which connects the left main axle plate to the right main axle plate, wherein the axle bridge is constructed by means of a front transverse strut and a rear transverse strut and at least one peripheral component of the axle body is arranged between the front transverse strut and the rear transverse strut, characterised in that the front transverse strut in the state installed in a vehicle is fitted lower than the rear transverse strut. wherein the axle bridge is constructed by means of a front transverse strut and a rear transverse strut and at least one peripheral component of the axle body is arranged between the front transverse strut and the rear transverse strut, characterised in that the front transverse strut in the state installed in a vehicle is fitted lower than the rear transverse strut.
Agricultural round baler having a baling chamber with baling rollers, wherein at least one of the baling rollers has a roller body having a lateral surface which encloses the circumference and the length of the roller body, and comprises a plurality of radially extending elevations which are arranged on the lateral surface over the circumference and the length of the roller body, characterized in that the elevations on the lateral surface have a greater radial extent at end-side end areas (46, 48) of the roller body than in an area lying between the end areas (46, 48) of the roller body.
A calibration standard for underfloor wheel lathes used in the machining of railway wheels, characterised in that it comprises: - a set of at least two axles with different lengths, according to different sizes of railway tracks and being interchangeable with each other, which are provided with a fastening element at the ends thereof, and - corresponding wheels which have a front face, a rear face and a side face whereon a tread and a perimetral flange are defined, incorporating, in the rear face of each wheel, a centred joining element which can be coupled to the fastening element of each end of the axle in order to make up an assembly formed by said wheels and one of the axles, having dimensions according to each track gauge. - a set of at least two axles with different lengths, according to different sizes of railway tracks and being interchangeable with each other, which are provided with a fastening element at the ends thereof, and - corresponding wheels which have a front face, a rear face and a side face whereon a tread and a perimetral flange are defined, incorporating, in the rear face of each wheel, a centred joining element which can be coupled to the fastening element of each end of the axle in order to make up an assembly formed by said wheels and one of the axles, having dimensions according to each track gauge.
Sea container that can be closed on all sides with a basic framework, which has four corner columns (44, 46, 48, 50), a roof frame and a bottom frame structure, wherein the corner columns (44, 46, 48, 50) are fixedly connected to the roof frame and the bottom frame structure, characterised by that the bottom frame structure a) has a supporting frame, wherein installations are fastened to the supporting frame inside the sea container and the supporting frame has lashing means for lashing and for taking up horizontally acting forces; and the bottom frame structure furthermore b) has, above the supporting frame, an upper bottom frame, which is connected to the supporting frame and has four corner fittings (80, 82, 84, 86), two longitudinal members (96, 98) and two cross members (100, 102), wherein these corner fittings (80, 82, 84, 86) are each fixedly connected to one end of one of the corner columns (44, 46, 48, 50). a) has a supporting frame, wherein installations are fastened to the supporting frame inside the sea container and the supporting frame has lashing means for lashing and for taking up horizontally acting forces; and the bottom frame structure furthermore b) has, above the supporting frame, an upper bottom frame, which is connected to the supporting frame and has four corner fittings (80, 82, 84, 86), two longitudinal members (96, 98) and two cross members (100, 102), wherein these corner fittings (80, 82, 84, 86) are each fixedly connected to one end of one of the corner columns (44, 46, 48, 50).
A brazing system for automatically applying a braze material to a substrate, wherein the substrate is a component for a gas turbine engine, the system comprising: a braze dispenser having a braze head, a braze nozzle, and a braze processor module; and being characterised by the following: a vision system having a camera, a sensor, and a vision processor module, a robot having an articulating arm; a control interface having an input device and an output device; and a processing module having a controller and memory configured to communicate with and control the vision system, the braze dispenser, the robot, and the control interface; wherein the vision system is configured to determine where the braze dispenser is to apply a braze material to a substrate and whether the braze dispenser is to apply additional braze material to the substrate after an initial application, wherein the vision system is programmed to recognize different types of substrates, and wherein the brazing system is programmed to make different brazing applications to different types of substrates. a vision system having a camera, a sensor, and a vision processor module, a robot having an articulating arm; a control interface having an input device and an output device; and a processing module having a controller and memory configured to communicate with and control the vision system, the braze dispenser, the robot, and the control interface; wherein the vision system is configured to determine where the braze dispenser is to apply a braze material to a substrate and whether the braze dispenser is to apply additional braze material to the substrate after an initial application, wherein the vision system is programmed to recognize different types of substrates, and wherein the brazing system is programmed to make different brazing applications to different types of substrates. a control interface having an input device and an output device; and a processing module having a controller and memory configured to communicate with and control the vision system, the braze dispenser, the robot, and the control interface; wherein the vision system is configured to determine where the braze dispenser is to apply a braze material to a substrate and whether the braze dispenser is to apply additional braze material to the substrate after an initial application, wherein the vision system is programmed to recognize different types of substrates, and wherein the brazing system is programmed to make different brazing applications to different types of substrates.
A transmission assembly for a mechanically controllable valve train, having at least two transmission elements (58,62), wherein the transmission elements (58, 62) are designed in such a manner that they are each, directly or indirectly via coupling means (54, 56), in operative connection with a respective gas exchange valve (24, 26), and wherein the transmission elements (58, 62) are mounted in a slotted guide module by means of mounting members (74, 76, 78) in a slotted guide system (80, 82, 84) and said transmission elements (58, 62) are also in operative connection with a camshaft via cam following roller elements (66, 68), and wherein a valve stroke adjustment device for setting different maximum strokes of the respective gas exchange valve (24, 26) is provided, wherein at least one mounting member (74, 76, 78, 98, 100) and cam following roller elements (66, 68) are mounted on a rotary axis, characterized in that a cam following roller element (66, 68) has assigned to it respectively two mounting members (74, 76, 78, 98, 100) in such a manner that the rigidity of the rotary axis is increased.
A method for triggering establishment of a wireless connection, comprising: detecting, by a wireless station, a first neighboring wireless station via signal scanning using a first wireless interface of the wireless station, wherein the first wireless interface comprises a Bluetooth Low Energy, BLE, interface; discovering, by the wireless station, one or more services available via a second wireless interface of the wireless station, via exchange of messages over the first wireless interface with the first neighboring wireless station, wherein the second wireless interface is a Wi-Fi interface, wherein the exchange includes an address of a neighbor awareness networking, NAN, interface of the wireless station; and establishing, by the wireless station a wireless connection via the second wireless interface with the first neighboring wireless station, based at least in part on identification of a desired service among the one or more discovered services, wherein establishing the wireless connection comprises the wireless station: scanning, via the second wireless interface, for existing device clusters; creating, in response to not finding existing device clusters, a new device cluster and assuming a role of master device of the new device cluster; sending NAN discovery beacon frames to allow the first neighboring wireless station to synchronize to the wireless station; establishing a NAN datapath with the first neighboring wireless station via the wireless connection via exchange of service discovery frames with the first neighboring wireless station via the second wireless interface, said exchange of service discovery frames occurring in a discovery window subsequent to the first neighboring wireless station receiving NAN discovery beacon frames. scanning, via the second wireless interface, for existing device clusters; creating, in response to not finding existing device clusters, a new device cluster and assuming a role of master device of the new device cluster; sending NAN discovery beacon frames to allow the first neighboring wireless station to synchronize to the wireless station; establishing a NAN datapath with the first neighboring wireless station via the wireless connection via exchange of service discovery frames with the first neighboring wireless station via the second wireless interface, said exchange of service discovery frames occurring in a discovery window subsequent to the first neighboring wireless station receiving NAN discovery beacon frames.