mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a communications network, the method comprising the steps of: a) modulating a common mode voltage signal onto an electrical conductor at a first location, the common mode voltage signal carrying data comprising one or more operational parameters; b) detecting the common mode voltage signal from the electrical conductor at a second location; the method being characterised in that the one or more operational parameters determine the gain of an amplifier and the method comprises the further step of: c) operating an amplifier located at the second location in accordance with the one or more operational parameters. a) modulating a common mode voltage signal onto an electrical conductor at a first location, the common mode voltage signal carrying data comprising one or more operational parameters; b) detecting the common mode voltage signal from the electrical conductor at a second location;
An integrated circuit comprised in a communication apparatus and which, in operation, is configured to perform a process of communication, the process comprising: receiving first downlink control information of a first component carrier and second downlink control information of a second component carrier; determining a first search space and a second search space which are configured within one physical resource block, PRB, set among a plurality of PRB sets included in Enhanced Physical Downlink Control Channel, EPDCCH, region defined in a data region of the first component carrier, wherein the second search space is configured using a Carrier Indicator Field, CIF, value that is set for the second component carrier, the first search space includes one or more mapping candidates of the first downlink control information, and the second search space includes one or more mapping candidates of the second downlink control information; and detecting the first downlink control information by blind decoding the first search space, and detecting the second downlink control information by blind decoding the second search space, wherein each of the plurality of PRB sets includes a plurality of control channel elements, CCEs; and one or more CCEs corresponding to the one or more mapping candidates included in the second search space are given by cyclically shifting one or more CCEs corresponding to the one or more mapping candidates included in the first search space by the CIF value that is set for the second component carrier. receiving first downlink control information of a first component carrier and second downlink control information of a second component carrier; determining a first search space and a second search space which are configured within one physical resource block, PRB, set among a plurality of PRB sets included in Enhanced Physical Downlink Control Channel, EPDCCH, region defined in a data region of the first component carrier, wherein the second search space is configured using a Carrier Indicator Field, CIF, value that is set for the second component carrier, the first search space includes one or more mapping candidates of the first downlink control information, and the second search space includes one or more mapping candidates of the second downlink control information; and detecting the first downlink control information by blind decoding the first search space, and detecting the second downlink control information by blind decoding the second search space, wherein each of the plurality of PRB sets includes a plurality of control channel elements, CCEs; and one or more CCEs corresponding to the one or more mapping candidates included in the second search space are given by cyclically shifting one or more CCEs corresponding to the one or more mapping candidates included in the first search space by the CIF value that is set for the second component carrier.
A welding structure comprising: a first metal member and a second metal member that are superimposed and welded together, wherein the first metal member has a hole, the second metal member has a nugget portion where a part of the second metal member is melted by heat of laser light and is solidified again, a peripheral portion of the hole in the first metal member covers the nugget portion, a part of the nugget portion is exposed through the hole, and in a cross-sectional view along an up-down direction in which the first metal member and the second metal member are superimposed, an interface between the nugget portion and a non-melted portion in the second metal member includes a protruding interface that protrudes toward the first metal member in the up-down direction, the welding structure characterized in that: an eutectic portion is formed at the interface between the first metal member and the second metal member, wherein the non-melted portion is a portion of the second metal member that is not melted by the heat of the laser light, in that the nugget portion is a portion of the second metal member that has been melted by the heat of the laser light and then solidified again, and in that the eutectic portion is a portion where the first metal member and the second metal member are melted and mixed, and solidified in the eutectic state. a first metal member and a second metal member that are superimposed and welded together, wherein the first metal member has a hole, the second metal member has a nugget portion where a part of the second metal member is melted by heat of laser light and is solidified again, a peripheral portion of the hole in the first metal member covers the nugget portion, a part of the nugget portion is exposed through the hole, and in a cross-sectional view along an up-down direction in which the first metal member and the second metal member are superimposed, an interface between the nugget portion and a non-melted portion in the second metal member includes a protruding interface that protrudes toward the first metal member in the up-down direction, the welding structure characterized in that: an eutectic portion is formed at the interface between the first metal member and the second metal member, wherein the non-melted portion is a portion of the second metal member that is not melted by the heat of the laser light, in that the nugget portion is a portion of the second metal member that has been melted by the heat of the laser light and then solidified again, and in that the eutectic portion is a portion where the first metal member and the second metal member are melted and mixed, and solidified in the eutectic state.
A vehicle-based computing apparatus comprising: a computer processor in communication with persistent and non-persistent memory; a local wireless transceiver in communication with the computer processor and configured to communicate wirelessly with a nomadic device (53,209) located in proximity to the vehicle; and a microphone configured to provide a microphone input; wherein the processor is operable to receive, through the wireless transceiver, a connection request sent from the nomadic device, the connection request including at least an identifier identifying an application (201,205) operating on the nomadic device and being configured to communicate with the processor and to provide services to a vehicle occupant; and wherein the processor is further operable to receive at least one secondary communication from the nomadic device pertaining to operation of the application, once the connection request has been processed, characterized in that the secondary communication is a create phrase command including a plurality of text strings to be listened for by the vehicle-based computing system through the microphone input, wherein the processor is operable to process the microphone input to determine if the microphone input matches a text string among said plurality of text strings; and wherein, if the microphone input is determined to match a text string, the processor is operable to return an identifier to the nomadic device, through the transceiver, identifying which text string was matched. a computer processor in communication with persistent and non-persistent memory; a local wireless transceiver in communication with the computer processor and configured to communicate wirelessly with a nomadic device (53,209) located in proximity to the vehicle; and a microphone configured to provide a microphone input; wherein the processor is operable to receive, through the wireless transceiver, a connection request sent from the nomadic device, the connection request including at least an identifier identifying an application (201,205) operating on the nomadic device and being configured to communicate with the processor and to provide services to a vehicle occupant; and wherein the processor is further operable to receive at least one secondary communication from the nomadic device pertaining to operation of the application, once the connection request has been processed, characterized in that the secondary communication is a create phrase command including a plurality of text strings to be listened for by the vehicle-based computing system through the microphone input, wherein the processor is operable to process the microphone input to determine if the microphone input matches a text string among said plurality of text strings; and wherein, if the microphone input is determined to match a text string, the processor is operable to return an identifier to the nomadic device, through the transceiver, identifying which text string was matched.
A method for counting countable cells disposed in a liquid enclosed in a culture container using a counting apparatus according to claim 6, the method comprising: pressing a part of the culture container from the upper side or a lower side by the pressing plate as a thickness adjusting member thereby adjusting a thickness of at least a part of the culture container; culture container; setting at least a part of the culture container adjusted by the pressing as a measurement target region; and photographing the countable cells in the measurement target region,and counting a number of countable cells in the photographed image of the measurement target region. pressing a part of the culture container from the upper side or a lower side by the pressing plate as a thickness adjusting member thereby adjusting a thickness of at least a part of the culture container; culture container; setting at least a part of the culture container adjusted by the pressing as a measurement target region; and photographing the countable cells in the measurement target region,and counting a number of countable cells in the photographed image of the measurement target region.
A semiconductor module comprising: a plurality of insulating circuit boards, each circuit board comprising a circuit pattern and including semiconductor chips (2a, 2b) mounted thereon; a resin frame body comprising a frame element and a crosspiece; first and second apertures, each aperture being surrounded by the crosspiece and the frame element, the cross piece abutting on adjacent first outer edges of the insulating circuit boards, the frame element abutting on second outer edges of the insulating circuit boards, each aperture having a size smaller than that of the insulating circuit boards; a conductive component (7, 7a) striding over the crosspiece to electrically connect the circuit patterns of the adjacent insulating circuit boards to each other; and an upper lid having a lid element covering an opening disposed at an upper part of the resin frame body and a partition protruding from a face of the lid element which is opposed to the insulating circuit boards and abutting on a part of the crosspiece; the resin frame body being mounted on the insulating circuit boards such that the crosspiece and the frame element press to glue to the periphery of the insulating circuit boards, wherein the partition is in contact only with a part of the top face of the crosspiece to avoid interfering contact with the conductive component (7, 7a) striding over the crosspiece. a plurality of insulating circuit boards, each circuit board comprising a circuit pattern and including semiconductor chips (2a, 2b) mounted thereon; a resin frame body comprising a frame element and a crosspiece; first and second apertures, each aperture being surrounded by the crosspiece and the frame element, the cross piece abutting on adjacent first outer edges of the insulating circuit boards, the frame element abutting on second outer edges of the insulating circuit boards, each aperture having a size smaller than that of the insulating circuit boards; a conductive component (7, 7a) striding over the crosspiece to electrically connect the circuit patterns of the adjacent insulating circuit boards to each other; and an upper lid having a lid element covering an opening disposed at an upper part of the resin frame body and a partition protruding from a face of the lid element which is opposed to the insulating circuit boards and abutting on a part of the crosspiece; the resin frame body being mounted on the insulating circuit boards such that the crosspiece and the frame element press to glue to the periphery of the insulating circuit boards, wherein the partition is in contact only with a part of the top face of the crosspiece to avoid interfering contact with the conductive component (7, 7a) striding over the crosspiece.
Soil working tool for an agricultural machine, in particular a cultivator blade, which is fastened on a tool holder and which a tine-like region, which is adjoined by a preferably guide-plate-like element, characterized in that the tine-like region has two side strips, which run in the longitudinal direction of the soil working tool and have notch-like depressions extending in the transverse direction, in that the leading edge of the notch-like depressions, as seen in the direction of the tip of the tine-like region, runs at least more or less parallel to a line in the direction transverse to the direction of travel of the machine and/or at least more or less horizontally, in that the trailing edge of the notch-like depressions, as seen in the direction of the tip of the tine-like region, runs obliquely away from the tip of the tine-like region, at least at an angle of 25°, preferably 35°, in relation to the leading edge of the respective notch-like depression, as it extends from the inner region of the tine-like region to the outer region of the tine-like region.
An underwater camera housing 910)having a body, handles mounted on the body, a pad positioned on the body so that the pad is accessible for use by a user, the pad being able to be pressed by a user at any point of its periphery, links (20, 50) mounted on the body between the pad and, in use, a position adjacent or in contact with the multi selector controls of a camera so that by pressing the pad a selected camera control can be operated, characterized in that each link includes a first lever mounted internally to the body, positioned to receive an input force from the pad, and a second lever mounted internally to the body, positioned to receive an input force from the first lever and to provide a force on the selected camera control in use.
An apparatus comprising: a convolutional encoder for coding an input ( l) to produce three output streams of coded bits (P 1, P 2, P 3), wherein said encoder implements a rate 1/3 tail-biting convolutional code with a constraint length k=7 and a generator polynomial [133, 171, 165] o; an interleaver for interleaving coded bits within each stream of coded bits, wherein the interleaver is configured to order coded bits such that odd-indexed coded bits precede even-indexed coded bits within each stream of coded bits; and a rate-matching means for outputting said interleaved coded bits ( P 1 ', P 2 ', P 3 ') ordered by stream. a convolutional encoder for coding an input ( l) to produce three output streams of coded bits (P 1, P 2, P 3), wherein said encoder implements a rate 1/3 tail-biting convolutional code with a constraint length k=7 and a generator polynomial [133, 171, 165] o; an interleaver for interleaving coded bits within each stream of coded bits, wherein the interleaver is configured to order coded bits such that odd-indexed coded bits precede even-indexed coded bits within each stream of coded bits; and a rate-matching means for outputting said interleaved coded bits ( P 1 ', P 2 ', P 3 ') ordered by stream.
An image sensor comprising: a sensor substrate comprising a first photosensitive cell and a second photosensitive cell which are configured to sense light incident on the sensor substrate; a color separating lens array comprising a plurality of nanoposts, the plurality of nanoposts being configured to change a phase of first wavelength light and a phase of second wavelength light different from each other such that the first wavelength light included in light incident on the color separating lens array travels to the first photosensitive cell and is condensed on the first photosensitive cell and the second wavelength light included in the light incident on the color separating lens array travels to the second photosensitive cell and is condensed on the second photosensitive cell; and a spectrum shaping layer comprising: a plurality of nanostructures (151a, 152a) respectively having a first refractive index; and a dielectric material provided between the plurality of nanostructures and having a second refractive index, wherein the spectrum shaping layer is provided between the sensor substrate and the color separating lens array and configured to shape a spectral profile of the light incident on the sensor substrate by reflecting and/or absorbing portion of light passing through the color separating lens array. a sensor substrate comprising a first photosensitive cell and a second photosensitive cell which are configured to sense light incident on the sensor substrate; a color separating lens array comprising a plurality of nanoposts, the plurality of nanoposts being configured to change a phase of first wavelength light and a phase of second wavelength light different from each other such that the first wavelength light included in light incident on the color separating lens array travels to the first photosensitive cell and is condensed on the first photosensitive cell and the second wavelength light included in the light incident on the color separating lens array travels to the second photosensitive cell and is condensed on the second photosensitive cell; and a spectrum shaping layer comprising: a plurality of nanostructures (151a, 152a) respectively having a first refractive index; and a dielectric material provided between the plurality of nanostructures and having a second refractive index, a plurality of nanostructures (151a, 152a) respectively having a first refractive index; and a dielectric material provided between the plurality of nanostructures and having a second refractive index, wherein the spectrum shaping layer is provided between the sensor substrate and the color separating lens array and configured to shape a spectral profile of the light incident on the sensor substrate by reflecting and/or absorbing portion of light passing through the color separating lens array.
A method of igniting one or more filaments for silicon production, comprising: applying an output voltage to the one or more filaments using a transformer connected with the one or more filaments; and supplying, in combination with the application of the output voltage, a current to a primary winding of the transformer via a choke to limit the current to a first predetermined current threshold range, wherein the combination of the supplied current and applied output voltage allows a predetermined output range to be generated from a power supply device initially required to ignite the one or more filaments; reversing a polarity of either a first transformer or a second transformer when a first filament and a second filament have reached the first predetermined current threshold; applying the output voltage to a third filament using a third transformer connected in parallel with the first transformer and the second transformer, while still applying the output voltage to the first filament or the second filament; bypassing the choke of each transformer until a second predetermined current threshold range is reached to ignite the filaments; and in response to reaching the second predetermined current threshold range, limiting the current to that second predetermined current threshold range via anyone of the first transformer, second transformer, or third transformer. applying an output voltage to the one or more filaments using a transformer connected with the one or more filaments; and supplying, in combination with the application of the output voltage, a current to a primary winding of the transformer via a choke to limit the current to a first predetermined current threshold range, wherein the combination of the supplied current and applied output voltage allows a predetermined output range to be generated from a power supply device initially required to ignite the one or more filaments; reversing a polarity of either a first transformer or a second transformer when a first filament and a second filament have reached the first predetermined current threshold; applying the output voltage to a third filament using a third transformer connected in parallel with the first transformer and the second transformer, while still applying the output voltage to the first filament or the second filament; bypassing the choke of each transformer until a second predetermined current threshold range is reached to ignite the filaments; and in response to reaching the second predetermined current threshold range, limiting the current to that second predetermined current threshold range via anyone of the first transformer, second transformer, or third transformer.
A method for closing an opening in a housing of a door actuator, a closing element being provided therefore, which is inserted into the opening, characterized in that the method comprises the following steps: - providing the closing element with a pot-shaped formation such that the closing element includes a bottom and a surrounding border projecting from the extension plane of the bottom, - forming the opening with a circumferential edge, which reaches into the opening and behind which an undercutting area is formed, and - joining the closing element into the opening so that the bottom points inwards, and - widening the surrounding border in the undercutting area, so that - the closing element pressure-tight closes the inner space of the door actuator. - providing the closing element with a pot-shaped formation such that the closing element includes a bottom and a surrounding border projecting from the extension plane of the bottom, - forming the opening with a circumferential edge, which reaches into the opening and behind which an undercutting area is formed, and - joining the closing element into the opening so that the bottom points inwards, and - widening the surrounding border in the undercutting area, so that - the closing element pressure-tight closes the inner space of the door actuator.