mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method, comprising: collecting, for each of a plurality of local networks, each local network being a network that communicates with other networks through a network linking device and including a respective plurality of network devices that communicate through the network linking device, traffic data representing communication traffic over the local network for a period of time; determining, for each of the network devices included in the plurality of networks, a device type of the network device and at least one device priority value for the network device based on the device type, each device priority value being a measure of a priority of device traffic for the network device relative to other device traffic of other network devices; and training a device prioritization model, using the traffic data and the device priority values of the devices, for prioritizing network traffic for each network device in a local network, such that the device prioritization model is enabled to receive information about a set of traffic data for devices in a local network as an input and output at least one prioritization scheme for the local network. collecting, for each of a plurality of local networks, each local network being a network that communicates with other networks through a network linking device and including a respective plurality of network devices that communicate through the network linking device, traffic data representing communication traffic over the local network for a period of time; determining, for each of the network devices included in the plurality of networks, a device type of the network device and at least one device priority value for the network device based on the device type, each device priority value being a measure of a priority of device traffic for the network device relative to other device traffic of other network devices; and training a device prioritization model, using the traffic data and the device priority values of the devices, for prioritizing network traffic for each network device in a local network, such that the device prioritization model is enabled to receive information about a set of traffic data for devices in a local network as an input and output at least one prioritization scheme for the local network.
A driving assistance device comprising: an acceleration operation amount detection unit configured to detect an acceleration operation amount of an acceleration operator operated by a driver to instruct acceleration; a braking/driving force control unit (10K, 16) configured to generate the acceleration depending on the acceleration operation amount detected by the acceleration operation amount detection unit in a host vehicle; an imaging unit configured to acquire a captured image obtained by capturing the periphery of the host vehicle; a line detection unit configured to detect a line positioned on a road surface from the captured image; a crossing detection unit configured to detect a crossing where a railway line crosses the road based on the captured image; a parking frame extraction unit configured to extract a parking frame based on the line detected by the line detection unit; and an acceleration suppression control unit (10I, 10J, 10K) configured to reduce the acceleration controlled by the braking/driving force control unit based on the parking frame extracted by the parking frame extraction unit, wherein, during the operation of the acceleration suppression control unit, if the crossing detection unit detects a crossing, the operation of the acceleration suppression control unit is released. an acceleration operation amount detection unit configured to detect an acceleration operation amount of an acceleration operator operated by a driver to instruct acceleration; a braking/driving force control unit (10K, 16) configured to generate the acceleration depending on the acceleration operation amount detected by the acceleration operation amount detection unit in a host vehicle; an imaging unit configured to acquire a captured image obtained by capturing the periphery of the host vehicle; a line detection unit configured to detect a line positioned on a road surface from the captured image; a crossing detection unit configured to detect a crossing where a railway line crosses the road based on the captured image; a parking frame extraction unit configured to extract a parking frame based on the line detected by the line detection unit; and an acceleration suppression control unit (10I, 10J, 10K) configured to reduce the acceleration controlled by the braking/driving force control unit based on the parking frame extracted by the parking frame extraction unit, wherein, during the operation of the acceleration suppression control unit, if the crossing detection unit detects a crossing, the operation of the acceleration suppression control unit is released.
A reflector arrangement for installation in an ultrasonic flow sensor, the reflector arrangement comprising two holder elements (1, 1') attached to each other and having a reflector seating (2, 2') which is adapted to secure a reflector (3, 3') independently from the other holder elements (1, 1'), the holder elements (1, 1') together giving the reflector arrangement a basically cylindrical outer shape, the holder elements (1, 1') providing one or more reflector seatings (2, 2') in order to secure one or more reflectors (3, 3'), wherein the holder elements (1, 1') being arranged facing each other such that the elongated cylindrical outer wall structures (7, 7') provided by each of the holder elements (1, 1') together form a basically cylindrical reflector arrangement, wherein each holder element (1, 1') comprises a base structure (5, 5') from which a seating framework (6, 6') for the reflector seating (2, 2') and an elongated cylindrical outer wall structure (7, 7') of the reflector arrangement extend and the base structure (5, 5') is interposed between the cylindrical outer wall structure (7, 7') and the seating framework (6, 6'), characterized in that each of the holder elements (1, 1') has basically an L-shape in a cross section perpendicular to a direction of elongation of the elongated cylindrical outer wall structures (7, 7') provided by each of the holder elements (1, 1') and the cylindrical outer wall structure (7, 7') of each of the holder elements (1, 1') covers an arc of 180° of the base structure (5, 5').
An isolated antibody or antigen-binding fragment thereof that specifically binds to human soluble Growth Stimulation-Expressed Gene 2, wherein the antibody or fragment is produced by a hybridoma deposited at the American Type Culture Collection (ATCC) and designated by Patent Deposit Designation PTA-10432.
A shutter valve for regulating pressure and controlling fluid flow, comprising: an actuator ring, the actuator ring further comprising a plurality of gear teeth, the gear teeth driven by a mating gear; a plurality of arm pin bosses, each pin boss affixed within an inside circumference of the actuator ring, the arm pin boss further comprising a hinge pin aperture; three or more pivot arms, each pivot arm having a first end and a second end, the first end mounted to a hinge pin aperture of an arm pin boss; three or more obturator elements, each obturator element comprising: a) a petal shape structure including a tongue and groove feature along at least a portion of an outside circumference thereof; b) a hook element located at an apex of said petal shape structure of each obturator element; and c) a hinged connection to a second end of a pivot arm; and a housing (105, 107) defining a cavity for holding the actuator ring, the pivot arms and the obturator elements. an actuator ring, the actuator ring further comprising a plurality of gear teeth, the gear teeth driven by a mating gear; a plurality of arm pin bosses, each pin boss affixed within an inside circumference of the actuator ring, the arm pin boss further comprising a hinge pin aperture; three or more pivot arms, each pivot arm having a first end and a second end, the first end mounted to a hinge pin aperture of an arm pin boss; three or more obturator elements, each obturator element comprising: a) a petal shape structure including a tongue and groove feature along at least a portion of an outside circumference thereof; b) a hook element located at an apex of said petal shape structure of each obturator element; and c) a hinged connection to a second end of a pivot arm; and a) a petal shape structure including a tongue and groove feature along at least a portion of an outside circumference thereof; b) a hook element located at an apex of said petal shape structure of each obturator element; and c) a hinged connection to a second end of a pivot arm; and a housing (105, 107) defining a cavity for holding the actuator ring, the pivot arms and the obturator elements.
A method for checking the genuineness of a security feature, particularly on a security document, wherein the security feature is a security feature whose appearance in the visible range when excited by a flash of light exhibits an alteration, characterized in that the method comprises the following steps: I. taking at least one first image of the unexcited security feature using a mobile telephone which simultaneously has a camera with an integrated flash function; II. taking at least one second image of the security feature excited using the flash function, using the same mobile telephone; with the proviso that the order of steps I. & II. may also be converse, and in that after step II. the mobile telephone performs an authentication check from the at least two images using a suitable data processing program on the mobile telephone, and the result of this check is output by means of a display or an audio interface on the mobile telephone. I. taking at least one first image of the unexcited security feature using a mobile telephone which simultaneously has a camera with an integrated flash function; II. taking at least one second image of the security feature excited using the flash function, using the same mobile telephone;
Sensor for sensing the presence of at least one fluidum in a space adjoining the sensor, comprising a plurality of respective 2DEG (two-Dimensional Electron Gas) layer stacks (2, 12), each of the respective 2DEG layer stacks (2, 12) comprising a gate electrode overlaying at least part of the 2DEG layer stack (2, 12) for electrostatically controlling electron density of a 2DEG in the 2DEG layer stack (2, 12) and a source and a drain electrode contacting the 2DEG layer stack (2, 12) for electrically contacting the 2DEG, wherein one detection opening is provided in between each of the respective gate electrodes and each of the respective 2DEG layer stacks (2, 12), wherein the detection opening communicates with the space through a detection opening inlet such that molecules of the fluidum can move from the adjoining space through the detection opening inlet into the detection opening where they can measurably alter a electric characteristic of the 2DEG, and wherein the detection opening is at least partly filled with a porous material, characterized in that the sensor comprises a single gate interconnecting the respective gates of the respective 2DEG layer stacks (2, 12); and in that each of the respective 2DEG layer stacks (2, 12) being provided further away from the detection opening inlet
Apparatus for providing breathing assistance, the apparatus including: a) a body configured to be positioned within an oral cavity of the user and including a recess configured to receive the user's maxillary teeth; b) a first opening configured to extend beyond lips of a user to allow air from outside the oral cavity to be drawn in through the opening; c) a second opening configured to be provided in the oral cavity to allow air to be directed into a posterior region of the oral cavity; and, d) a channel connecting the first and second openings, the channel being configured to extend along at least part of a buccal sulcus of the user and to extend behind teeth of the user, the channel being completely enclosed, characterised in that the body includes the channel and that the channel is extended in a lateral direction so that at least part of the cross-section of the channel (113.1) is configured to extend through the sulcus and at least part of the cross-section of the channel (113.2) is configured to extend between the user's maxillary and mandibular teeth. a) a body configured to be positioned within an oral cavity of the user and including a recess configured to receive the user's maxillary teeth; b) a first opening configured to extend beyond lips of a user to allow air from outside the oral cavity to be drawn in through the opening; c) a second opening configured to be provided in the oral cavity to allow air to be directed into a posterior region of the oral cavity; and, d) a channel connecting the first and second openings, the channel being configured to extend along at least part of a buccal sulcus of the user and to extend behind teeth of the user, the channel being completely enclosed, characterised in that the body includes the channel and that the channel is extended in a lateral direction so that at least part of the cross-section of the channel (113.1) is configured to extend through the sulcus and at least part of the cross-section of the channel (113.2) is configured to extend between the user's maxillary and mandibular teeth.
An electronic circuit comprising: a switching device (2, 3, 4, 5) including a plurality of switching elements that are connected in parallel, chiefly made of SiC and having a gate-source or gate-emitter reference voltage such that when a gate-source or gate-emitter voltage of the switching device is below the gate-source or gate-emitter reference voltage the temperature characteristics of the on-resistance of the switching device is negative and when the gate-source or gate-emitter voltage of the switching device is above the gate-source or gate-emitter reference voltage the temperature characteristics of the on-resistance of the switching device is positive; characterized by an overcurrent detecting circuit configured to detect that an overcurrent, is flowing in the switching device; and an overcurrent protecting circuit (34, 35; 32, 33, 34, 35) configured to interrupt a current flowing in the switching device when an overcurrent is detected by the overcurrent detecting circuit, wherein the overcurrent, protecting circuit is arranged to, at the time of a current interruption, lower the gate-source voltage or gate-emitter voltage of the switching device, in such a way that a time interval from a time when the gate-source voltage or gate-emitter voltage of the switching device becomes lower than the gate-source or gate-emitter reference voltage to a time when the drain current or collector current of the switching device reaches 2% of the saturation current thereof is 500 [nsec] or less. a switching device (2, 3, 4, 5) including a plurality of switching elements that are connected in parallel, chiefly made of SiC and having a gate-source or gate-emitter reference voltage such that when a gate-source or gate-emitter voltage of the switching device is below the gate-source or gate-emitter reference voltage the temperature characteristics of the on-resistance of the switching device is negative and when the gate-source or gate-emitter voltage of the switching device is above the gate-source or gate-emitter reference voltage the temperature characteristics of the on-resistance of the switching device is positive; characterized by an overcurrent detecting circuit configured to detect that an overcurrent, is flowing in the switching device; and an overcurrent protecting circuit (34, 35; 32, 33, 34, 35) configured to interrupt a current flowing in the switching device when an overcurrent is detected by the overcurrent detecting circuit, wherein the overcurrent, protecting circuit is arranged to, at the time of a current interruption, lower the gate-source voltage or gate-emitter voltage of the switching device, in such a way that a time interval from a time when the gate-source voltage or gate-emitter voltage of the switching device becomes lower than the gate-source or gate-emitter reference voltage to a time when the drain current or collector current of the switching device reaches 2% of the saturation current thereof is 500 [nsec] or less.
A protective cover (500, 600) for an electronic device, the protective cover comprising: a first protective layer (520, 620) including a flat region and a curved region and having a specified transparency, the curved region being disposed at at least part of an edge of the flat region and having a specified curvature; a second protective (540, 640) layer disposed below the first protective layer (520, 620), wherein the second protective layer is formed to be thicker than the first protective layer; a bonding layer (530, 630) configured to bond the first protective layer (520, 620) and the second protective layer (540, 640); and an adhesive layer (550, 650) disposed below the second protective layer (540, 640). a first protective layer (520, 620) including a flat region and a curved region and having a specified transparency, the curved region being disposed at at least part of an edge of the flat region and having a specified curvature; a second protective (540, 640) layer disposed below the first protective layer (520, 620), wherein the second protective layer is formed to be thicker than the first protective layer; a bonding layer (530, 630) configured to bond the first protective layer (520, 620) and the second protective layer (540, 640); and an adhesive layer (550, 650) disposed below the second protective layer (540, 640).
An apparatus comprising: a portable card; a resonance circuit of that portable card adapted to wirelessly receive power from an external source; a processor of the portable card adapted to wirelessly transmit a predetermined data sequence through the resonance circuit in response to the resonance circuit receiving power from the external source; and characterized in a set of at least three contacts (100-110; 112-120; 122-144) on an exterior of the portable card, wherein a user bridges the contacts with the user's fingers in a predetermined combination to create a circuit and activate the processor for transmission of the predetermined data sequence. a portable card; a resonance circuit of that portable card adapted to wirelessly receive power from an external source; a processor of the portable card adapted to wirelessly transmit a predetermined data sequence through the resonance circuit in response to the resonance circuit receiving power from the external source; and a set of at least three contacts (100-110; 112-120; 122-144) on an exterior of the portable card, wherein a user bridges the contacts with the user's fingers in a predetermined combination to create a circuit and activate the processor for transmission of the predetermined data sequence.
A method comprising: causing, via a playback device (102-124, 200, 600, 700), one or more speakers (602, 604, 606, 608, 702, 704) of the playback device to emit audio; receiving, via the playback device (102-124, 200, 600, 700), audio data representing at least a portion of the emitted audio, wherein the playback device includes at least one proximity sensor including a microphone, wherein the emitted audio is captured by the microphone and the microphone converts the received audio into proximity data indicating a barrier that is proximate to the playback device; determining, via the playback device (102-124, 200, 600, 700), that the barrier is distorting audio output of the playback device (102-124, 200, 600, 700) by at least a distortion threshold to one of the speakers (602, 604, 606, 608, 702, 704) based on the indication in the proximity data from the proximity sensor; in response to determining that the barrier is distorting audio output of the playback device (102-124, 200, 600, 700) beyond the distortion threshold, applying, to the playback device (102-124, 200, 600, 700), a playback configuration that at least partially offsets the distortion of the playback device (102-124, 200, 600, 700), by adjusting a component of the audio; and causing, via the playback device (102-124, 200, 600, 700), the one or more transducers to play back audio content according to the playback configuration. causing, via a playback device (102-124, 200, 600, 700), one or more speakers (602, 604, 606, 608, 702, 704) of the playback device to emit audio; receiving, via the playback device (102-124, 200, 600, 700), audio data representing at least a portion of the emitted audio, wherein the playback device includes at least one proximity sensor including a microphone, wherein the emitted audio is captured by the microphone and the microphone converts the received audio into proximity data indicating a barrier that is proximate to the playback device; determining, via the playback device (102-124, 200, 600, 700), that the barrier is distorting audio output of the playback device (102-124, 200, 600, 700) by at least a distortion threshold to one of the speakers (602, 604, 606, 608, 702, 704) based on the indication in the proximity data from the proximity sensor; in response to determining that the barrier is distorting audio output of the playback device (102-124, 200, 600, 700) beyond the distortion threshold, applying, to the playback device (102-124, 200, 600, 700), a playback configuration that at least partially offsets the distortion of the playback device (102-124, 200, 600, 700), by adjusting a component of the audio; and causing, via the playback device (102-124, 200, 600, 700), the one or more transducers to play back audio content according to the playback configuration.
A method of producing wear-resistant layers on surfaces of components of internal combustion engines which are exposed to frictional wear, wherein a plasma is formed by means of pulse-operated laser radiation from sequentially ignited electrical arc discharges under vacuum conditions, wherein the electrical arc discharge is operated between an anode and a cathode of graphite and ionized parts of the plasma are deposited on a surface of at least one component as a layer which is formed from at least approximately hydrogen-free tetrahedrally amorphous (ta-C) comprising a mixture of sp 2 and sp 3 hybridized carbon, wherein the plasma by means of an absorber electrode positively charged ions of the plasma are deflected in the direction of the at least one component and in this respect at least approximately the same electric voltage is applied at the anode and at the absorber electrode and while the electrical arc discharges are operated and an electric current of 1100 A ± 100 A flows through the absorber electrode and an electric current of 500 A ± 100 A flows through the anode when electrical arc discharges have been ignited and operated, and no mechanical and/or chemical machine finishing of the coated surface of the at least one component is carried out which leads to a smoothing of the surface.