mhurhangee/ep-ind-claims huggingface dataset:
A power amplifier comprising a driver circuit, a bias circuit, a matching network and an antenna, wherein the driver circuit having an input configured to receive a radio frequency, RF, signal, an output configured to output a digital output signal, and a bias port configured to receive a bias signal, wherein the RF signal is a digital signal having a duty cycle; the bias circuit having a first input coupled to the output of the driver circuit configured to receive the digital output signal, a second input coupled to the input of the driver circuit configured to receive the RF signal, and an output coupled to the bias port of the driver circuit configured to provide the bias signal to the driver circuit; the matching network passing through a fundamental frequency of the digital output signal to the antenna for transmission; wherein the bias circuit further comprises: a first averaging circuit configured to determine a first average voltage value of the digital output signal; a second averaging circuit configured to determine a second average voltage value of the RF signal; and a comparator configured to generate the bias signal based on a difference between the first average voltage value and the second average voltage value and provide the bias signal to the driver circuit for balancing rise and fall times of the digital output signal. the driver circuit having an input configured to receive a radio frequency, RF, signal, an output configured to output a digital output signal, and a bias port configured to receive a bias signal, wherein the RF signal is a digital signal having a duty cycle; the bias circuit having a first input coupled to the output of the driver circuit configured to receive the digital output signal, a second input coupled to the input of the driver circuit configured to receive the RF signal, and an output coupled to the bias port of the driver circuit configured to provide the bias signal to the driver circuit; the matching network passing through a fundamental frequency of the digital output signal to the antenna for transmission; wherein the bias circuit further comprises: a first averaging circuit configured to determine a first average voltage value of the digital output signal; a second averaging circuit configured to determine a second average voltage value of the RF signal; and a comparator configured to generate the bias signal based on a difference between the first average voltage value and the second average voltage value and provide the bias signal to the driver circuit for balancing rise and fall times of the digital output signal. a first averaging circuit configured to determine a first average voltage value of the digital output signal; a second averaging circuit configured to determine a second average voltage value of the RF signal; and a comparator configured to generate the bias signal based on a difference between the first average voltage value and the second average voltage value and provide the bias signal to the driver circuit for balancing rise and fall times of the digital output signal.
An electromagnetic-wave absorbing sheet comprising an electromagnetic-wave absorbing layer that contains a magnetic iron oxide (la) that magnetically resonates in a frequency band equal to or higher than a millimeter-wave band as an electromagnetic-wave absorbing material and a rubber binder (lb), characterized in that the electromagnetic-wave absorbing sheet has a maximum elongation percentage of an elastic region in one in-plane direction of 20% to 200%, and an input impedance of the electromagnetic-wave absorbing layer when stretched within a range of the elastic region is in a range from 360 Ω to 450 Ω.
An apparatus for controlling, monitoring, and/or communicating with an optical device, photonic integrated circuit or subassembly, the apparatus comprising: an optical device including a tunable laser having two mirrors; and a field programmable device including programmable hardware gates coupled to the optical device, characterized by: the field programmable device being configured to act as a control device for the apparatus and to implement a plurality of functions at a gate level for controlling, monitoring, and/or communicating with the optical device, each of the plurality of functions being configured to run as a concurrent process within the field programmable device; the plurality of functions including functions to obtain one or more gain-voltage maps by tuning laser mirror currents of the tunable laser at a temperature value; and the plurality of functions further including functions to determine lasing wavelengths corresponding to minima of the one or more gain-voltage maps according to a temperature, the lasing wavelengths being used for tuning or calibrating the tunable laser of the optical device. an optical device including a tunable laser having two mirrors; and a field programmable device including programmable hardware gates coupled to the optical device, characterized by: the field programmable device being configured to act as a control device for the apparatus and to implement a plurality of functions at a gate level for controlling, monitoring, and/or communicating with the optical device, each of the plurality of functions being configured to run as a concurrent process within the field programmable device; the plurality of functions including functions to obtain one or more gain-voltage maps by tuning laser mirror currents of the tunable laser at a temperature value; and the plurality of functions further including functions to determine lasing wavelengths corresponding to minima of the one or more gain-voltage maps according to a temperature, the lasing wavelengths being used for tuning or calibrating the tunable laser of the optical device. the field programmable device being configured to act as a control device for the apparatus and to implement a plurality of functions at a gate level for controlling, monitoring, and/or communicating with the optical device, each of the plurality of functions being configured to run as a concurrent process within the field programmable device; the plurality of functions including functions to obtain one or more gain-voltage maps by tuning laser mirror currents of the tunable laser at a temperature value; and the plurality of functions further including functions to determine lasing wavelengths corresponding to minima of the one or more gain-voltage maps according to a temperature, the lasing wavelengths being used for tuning or calibrating the tunable laser of the optical device.
Apparatus (1, 20) for processing electronic components mounted on a carrier, comprising: - at least two engaging elements (9, 10, 21, 22) which co-act for engaging on the carrier, which engaging elements (9, 10, 21, 22), depending on the dimensioning of the carrier for engaging, can be positioned in a relative orientation in adjustable manner; and - an interchangeable processing element (2, 23) for processing the carrier with electronic components, wherein - the interchangeable processing element (2, 23) is provided with integrated reference means (7, 8, 24, 25); and - the engaging elements (9, 10, 21, 22) are provided with at least one reference position for co-action with the integrated reference means (7, 8, 24, 25) defining the relative orientation. - at least two engaging elements (9, 10, 21, 22) which co-act for engaging on the carrier, which engaging elements (9, 10, 21, 22), depending on the dimensioning of the carrier for engaging, can be positioned in a relative orientation in adjustable manner; and - an interchangeable processing element (2, 23) for processing the carrier with electronic components, - the interchangeable processing element (2, 23) is provided with integrated reference means (7, 8, 24, 25); and - the engaging elements (9, 10, 21, 22) are provided with at least one reference position for co-action with the integrated reference means (7, 8, 24, 25) defining the relative orientation.
An electronic card produced in a format such as a credit card format and, in particular, in a flexible chip card format, is provided with at least one flexible circuit comprising a first face accommodating electronic components and a second face that is provided with contact tabs that are intended to be connected to conductive tracks of a clothing textile, said flexible circuit being covered, on its first face, with first polymer layers for encapsulating the components (41, 42, 43, 44) and covered, on its second face, with at least one first layer of polymer material for producing an outer face of the card which is provided with cutouts for accessing the contact tabs, characterized in that at least some of the contact tabs are produced at the edge of the card and provided with a terminal portion on the edge face of the card.
A signal processing apparatus comprising high speed ports (2; 2A, 2B; 2-0 to 2-7) connected via an integrated high speed serial switch fabric and serializer/deserializer circuits (5; 5A, 5B) to an internal processing logic, wherein said high speed serial switch fabric is adapted to switch a serial reception signal received by a high speed port (2; 2A, 2B; 2-0 to 2-7) to at least one other high speed port (2; 2A, 2B; 2-0 to 2-7) of said apparatus in addition to connecting said high speed ports (2; 2A, 2B; 2-0 to 2-7) with a parallel domain, wherein the high speed ports (2; 2A, 2B; 2-0 to 2-7) are bidirectional ports each comprising a reception port (3; 3A, 3B) to receive a serial signal, and a transmission port (4; 4A, 4B) to transmit a serial signal, characterized in that each of the high speed port (2; 2A, 2B; 2-0 to 2-7) further comprises at least one internal loopback signal path (20, 21) provided to loop a signal received by its reception port (3; 3A, 3B) directly back to its transmission port (4; 4A, 4B) in response to an internal control signal repurposed for use as a low latency functional path; wherein the integrated high speed serial switch fabric is used to tap and/or replicate and/or switch the serial reception signal received by the high speed port (2; 2A, 2B; 2-0 to 2-7) of the apparatus for use as a low latency functional path. a reception port (3; 3A, 3B) to receive a serial signal, and a transmission port (4; 4A, 4B) to transmit a serial signal,
A mesh-type moisture-release cushion cosmetic product, comprising: a cosmetic container comprising a container body for receiving a cosmetic composition, and a mesh net mounted at an upper part of the container body; and a cosmetic composition loaded into the cosmetic container, wherein the cosmetic composition is a water-in-oil moisture release cosmetic composition comprising: an oil phase part including wax, oil, and a mixture-emulsifier comprising a combination of a main emulsifier and an auxiliary emulsifier, the main emulsifier including cetyl PEG/PPG-10/1 dimethicone and dimethicone/PEG-10/15 Crosspolymer, the auxiliary emulsifier being at least one selected from the group consisting of lauryl PEG-9 polydimethylsiloxyethyl dimethicone, lauryl PEG-10 tris(trimethylsiloxy)silylethyl dimethicone, and sorbitan sesquioleate; an aqueous phase part including water; and a powder part including hollow-structured gloss pigments, wherein the cosmetic composition is a low-hydrous, water-in-oil moisture release cosmetic composition containing the aqueous phase part at a content of 25-45 % by weight, and wherein the mesh net has a pore size of 0.5-1.5 mm. wherein the cosmetic composition is a low-hydrous, water-in-oil moisture release cosmetic composition containing the aqueous phase part at a content of 25-45 % by weight, and wherein the mesh net has a pore size of 0.5-1.5 mm.
Hydraulic thermal relief device comprising a housing having an inlet bore forming an inlet and an outlet bore forming an outlet, and a relief channel connecting the inlet and the outlet, characterized in that a microporous structure is arranged between inlet and outlet, wherein a flow rate of hydraulic fluid through the device is controlled by a pore size and a thickness of the microporous structure, wherein the inlet bore comprises a diameter smaller than the diameter of the outlet bore, the microporous structure is part of the housing characterised in that the whole thermal device is sintered as a single part with regions of differing densities.
Method for automatic configuration parameter monitoring for wind energy installations, comprising the following steps: a) generation of a nominal configuration parameter set for a wind energy installation; b) storage of the nominal configuration parameter set in a database; c) automated detection of an actual configuration parameter set for the wind energy installation; d) automated comparison of the nominal configuration parameter set with the actual configuration parameter set; and e) output of a warning message in the event of discrepancies between the actual configuration parameter set and the nominal configuration parameter set, characterized in that, in order to continue to operate the wind energy installation without regular output of warning messages, the comparison of the nominal configuration parameter set with the actual configuration parameter set is carried out at times using a discrepant nominal configuration parameter set. a) generation of a nominal configuration parameter set for a wind energy installation; b) storage of the nominal configuration parameter set in a database; c) automated detection of an actual configuration parameter set for the wind energy installation; d) automated comparison of the nominal configuration parameter set with the actual configuration parameter set; and e) output of a warning message in the event of discrepancies between the actual configuration parameter set and the nominal configuration parameter set,
An organic light emitting display panel, comprising: a first electrode; a second electrode on the first electrode; an organic layer disposed between the first electrode and the second electrode and including a light emitting layer; an organic cover layer on the second electrode; a lower layer disposed between the organic cover layer and the second electrode and including a first layer, a second layer, and a third layer, the first to third layers (IL1, IL2, IL3) being different from each other and sequentially stacked; and an upper layer on the organic cover layer, and wherein the first layer is configured to contact the second electrode, and wherein each of the second layer and the third layer includes a silicon compound, and wherein an optical path of the second layer is defined by a product of a refractive index of the second layer and the thickness of the second layer, wherein the optical path of the second layer is from 280Å to 900Å, characterized in that the lower layer further includes a fourth layer between the third layer and the organic cover layer and in contact with the third layer, the fourth layer includes a silicon compound, the fourth layer has higher oxygen content than the third layer, and the third layer and the fourth layer include silicon oxynitride. a first electrode; a second electrode on the first electrode; an organic layer disposed between the first electrode and the second electrode and including a light emitting layer; an organic cover layer on the second electrode; a lower layer disposed between the organic cover layer and the second electrode and including a first layer, a second layer, and a third layer, the first to third layers (IL1, IL2, IL3) being different from each other and sequentially stacked; and an upper layer on the organic cover layer, and wherein the first layer is configured to contact the second electrode, and wherein each of the second layer and the third layer includes a silicon compound, and wherein an optical path of the second layer is defined by a product of a refractive index of the second layer and the thickness of the second layer, wherein the optical path of the second layer is from 280Å to 900Å, characterized in that the lower layer further includes a fourth layer between the third layer and the organic cover layer and in contact with the third layer, the fourth layer includes a silicon compound, the fourth layer has higher oxygen content than the third layer, and the third layer and the fourth layer include silicon oxynitride.
A modular article of footwear (10, 110, 201, 510) comprising: a sole structure (112, 12A, 12B, 12, 212, 512) having a foot-facing surface, a ground-engaging surface, and a peripheral side surface extending between the foot-facing surface and the ground-engaging surface; wherein the peripheral side surface has at least one recess (30A, 30B, 30); an upper component (14, 16, 316, 416, 514, 516A, 516C, 714, 814); a flange (264, 364, 464, 564C, 564D, 64) secured to the upper component and projecting therefrom; and wherein an inner surface (266, 366, 466, 566C, 566D, 66) of the flange (264, 364, 464, 564C, 564D, 64) fits against and is securable to the peripheral side surface of the sole structure (112, 12A, 12B, 12, 212, 512) with the flange in the at least one recess (30A, 30B, 30), and the upper component (14, 16, 316, 416, 514, 516A, 516C, 714, 814) at least partially defining a foot-receiving cavity (56A, 56B, 56C, 56D) over the foot-facing surface, wherein the upper component (14, 16, 316, 416, 514, 516A, 516C, 714, 814) is a first material; and the flange (264, 364, 464, 564C, 564D, 64) is a second material, wherein the peripheral side surface of the sole structure is the second material, or further comprising: an adhesive disposed on either or both of the inner surface of the flange (264, 364, 464, 564C, 564D, 64) and the peripheral side surface of the sole structure. a sole structure (112, 12A, 12B, 12, 212, 512) having a foot-facing surface, a ground-engaging surface, and a peripheral side surface extending between the foot-facing surface and the ground-engaging surface; wherein the peripheral side surface has at least one recess (30A, 30B, 30); an upper component (14, 16, 316, 416, 514, 516A, 516C, 714, 814); a flange (264, 364, 464, 564C, 564D, 64) secured to the upper component and projecting therefrom; and wherein an inner surface (266, 366, 466, 566C, 566D, 66) of the flange (264, 364, 464, 564C, 564D, 64) fits against and is securable to the peripheral side surface of the sole structure (112, 12A, 12B, 12, 212, 512) with the flange in the at least one recess (30A, 30B, 30), and the upper component (14, 16, 316, 416, 514, 516A, 516C, 714, 814) at least partially defining a foot-receiving cavity (56A, 56B, 56C, 56D) over the foot-facing surface, wherein the upper component (14, 16, 316, 416, 514, 516A, 516C, 714, 814) is a first material; and the flange (264, 364, 464, 564C, 564D, 64) is a second material, wherein the peripheral side surface of the sole structure is the second material, or further comprising: an adhesive disposed on either or both of the inner surface of the flange (264, 364, 464, 564C, 564D, 64) and the peripheral side surface of the sole structure.
Method for production of a fault signal which indicates a single-pole or a two-pole fault in a three-phase electrical power supply system, which fault has occurred during a previous electrical oscillation in the electrical power supply system, wherein the method has the following steps: - production of a balance signal during the oscillation which indicates whether the oscillation is balanced or unbalanced; - check of the phases of the electrical power supply system for the presence of a fault, wherein the balance signal is used to carry out the check such that, in the case of a balance signal which indicates a balanced oscillation, a different fault identification algorithm is used to check for the presence of a fault than in the case of a balance signal which indicates an unbalanced oscillation; and - production of the fault signal if a fault has been identified during the check. - production of a balance signal during the oscillation which indicates whether the oscillation is balanced or unbalanced; - check of the phases of the electrical power supply system for the presence of a fault, wherein the balance signal is used to carry out the check such that, in the case of a balance signal which indicates a balanced oscillation, a different fault identification algorithm is used to check for the presence of a fault than in the case of a balance signal which indicates an unbalanced oscillation; and - production of the fault signal if a fault has been identified during the check.
Bracket with a U-shaped support arm, which comprises a first and a second side piece (111, 112) that are integrally connected to each other by a middle piece, and which is connected at one end to a head piece, which is connectable to a support by a connecting means and which comprises mutually angled and mutually overlapping end pieces (1111, 1121) of the two side pieces (111, 112), wherein the head piece comprises a mounting plate, which is not integrally connected to the support arm, which has a mounting opening, for receiving the connecting means, and that the end pieces (1111, 1121) of the two side pieces (111, 112) are held between the mounting plate and a counter plate which is arranged inside the U-profile of the support arm and is not integrally connected to the support arm, and that the end pieces (1111, 1121) of the two side pieces (111, 112), the mounting plate and the counter plate are connected to each other by at least one mechanical connection, such as a tox connection, a screw connection with a screw or a riveted connection.
A terminal detection method, characterized in that, the method comprises: obtaining current first position information of a terminal; wherein the first position information is configured to indicate that a position where the terminal is currently located is a first position; when the first position information does not match second position information stored in the terminal, obtaining a first direction vector; wherein the first direction vector is a direction vector between a target base station and the terminal, and the target base station is a base station to be accessed by the terminal; obtaining a current first normal vector of an antenna array plane of the terminal; determining a first target vector according to the first direction vector and the first normal vector; wherein the first target vector is configured to instruct the terminal to search for a signal transmitted by the target base station in a direction of the first target vector. obtaining current first position information of a terminal; wherein the first position information is configured to indicate that a position where the terminal is currently located is a first position; when the first position information does not match second position information stored in the terminal, obtaining a first direction vector; wherein the first direction vector is a direction vector between a target base station and the terminal, and the target base station is a base station to be accessed by the terminal; obtaining a current first normal vector of an antenna array plane of the terminal; determining a first target vector according to the first direction vector and the first normal vector; wherein the first target vector is configured to instruct the terminal to search for a signal transmitted by the target base station in a direction of the first target vector.