mhurhangee/ep-ind-claims huggingface dataset:
A voltage controlled oscillator in a wireless terminal comprising: an oscillator to generate a reference frequency based on a variable voltage applied to an input node of the oscillator, wherein said oscillator includes a voltage-controlled variable capacitive element; and characterized in that the voltage controlled oscillator further comprises: a start-up controller operatively connected to the oscillator to apply a temporary bias voltage to the oscillator input node to reduce a start-up time of the voltage controlled oscillator by reducing the capacitance of the voltage-controlled variable capacitive element. an oscillator to generate a reference frequency based on a variable voltage applied to an input node of the oscillator, wherein said oscillator includes a voltage-controlled variable capacitive element; and characterized in that the voltage controlled oscillator further comprises: a start-up controller operatively connected to the oscillator to apply a temporary bias voltage to the oscillator input node to reduce a start-up time of the voltage controlled oscillator by reducing the capacitance of the voltage-controlled variable capacitive element. a start-up controller operatively connected to the oscillator to apply a temporary bias voltage to the oscillator input node to reduce a start-up time of the voltage controlled oscillator by reducing the capacitance of the voltage-controlled variable capacitive element.
Heat storage tank comprising an envelope with a longitudinal axis filled with a heat transfer liquid and solid heat storage elements, a first longitudinal end provided with first means for collecting and supplying a liquid at a first temperature and a second longitudinal end provided with seconds means for collecting and supplying a liquid at a second temperature, said tank being characterised in that said solid heat storage elements are distributed across at least two beds (TH1, TH2, TH3) superposed along the longitudinal axis, separated by a layer of heat transfer liquid (L1, L2, L3), the heat transfer liquid being capable of flowing between the first longitudinal end and the second longitudinal end.
An integrated aircraft galley structure comprising: a bottom portion including a storage area for serving carts; an upper portion including a second storage area; and a service module between the upper portion and the bottom portion, the service module comprising: plurality of galley inserts including at least one oven and at least one refrigeration unit a plurality of bays (24, 32) formed in the service module and sized to receive the plurality of galley inserts; a human machine interface for controlling all of the galley inserts; and a plurality of galley insert modules (20, 22) for controlling each galley insert, the galley insert modules being received in the service module in designated slots (23, 25); an insert power and control unit for each galley insert for controlling power to said insert; the integrated aircraft galley structure being characterized by: a galley power and control unit for controlling each of the insert power and control units; and an AC distribution unit for distributing power to the insert power and control units and the galley power and control unit. a bottom portion including a storage area for serving carts; an upper portion including a second storage area; and a service module between the upper portion and the bottom portion, the service module comprising: plurality of galley inserts including at least one oven and at least one refrigeration unit a plurality of bays (24, 32) formed in the service module and sized to receive the plurality of galley inserts; a human machine interface for controlling all of the galley inserts; and a plurality of galley insert modules (20, 22) for controlling each galley insert, the galley insert modules being received in the service module in designated slots (23, 25); an insert power and control unit for each galley insert for controlling power to said insert; the integrated aircraft galley structure being characterized by: plurality of galley inserts including at least one oven and at least one refrigeration unit a plurality of bays (24, 32) formed in the service module and sized to receive the plurality of galley inserts; a human machine interface for controlling all of the galley inserts; and a plurality of galley insert modules (20, 22) for controlling each galley insert, the galley insert modules being received in the service module in designated slots (23, 25); an insert power and control unit for each galley insert for controlling power to said insert; the integrated aircraft galley structure being characterized by: a galley power and control unit for controlling each of the insert power and control units; and an AC distribution unit for distributing power to the insert power and control units and the galley power and control unit.
Luminaire having two light-emitting assemblies which are disposed symmetrically to one another with respect to a longitudinal axis of the luminaire, wherein each light-emitting assembly comprises: • a plurality of LEDs which are distributed on a carrier in a common plane, • a cover which covers the LEDs and consists at least partially of a light-permeable material and which comprises an integrated plurality of optical elements associated with the LEDs, wherein the optical elements are formed by lenses, wherein each cover influences the light emitted by the LEDs such that an emission of light results, which is asymmetric with respect to an axis perpendicular to the plane of the LEDs, wherein each cover can be fastened and latched to the associated carrier for the LEDs in at least two positions without tools, and in each position covers the LEDs, wherein all of the optical elements are identically configured, and wherein, when the covers are disposed on the luminaire oriented in opposite directions to one another, an emission of light is achieved which is symmetrical with respect to a center plane of the luminaire, wherein the opening angle of the emission of light is dependent on the orientation of the covers. • a plurality of LEDs which are distributed on a carrier in a common plane, • a cover which covers the LEDs and consists at least partially of a light-permeable material and which comprises an integrated plurality of optical elements associated with the LEDs, wherein the optical elements are formed by lenses, wherein each cover influences the light emitted by the LEDs such that an emission of light results, which is asymmetric with respect to an axis perpendicular to the plane of the LEDs, wherein each cover can be fastened and latched to the associated carrier for the LEDs in at least two positions without tools, and in each position covers the LEDs, wherein all of the optical elements are identically configured, and wherein, when the covers are disposed on the luminaire oriented in opposite directions to one another, an emission of light is achieved which is symmetrical with respect to a center plane of the luminaire, wherein the opening angle of the emission of light is dependent on the orientation of the covers. wherein each cover influences the light emitted by the LEDs such that an emission of light results, which is asymmetric with respect to an axis perpendicular to the plane of the LEDs, wherein each cover can be fastened and latched to the associated carrier for the LEDs in at least two positions without tools, and in each position covers the LEDs, wherein all of the optical elements are identically configured, and wherein, when the covers are disposed on the luminaire oriented in opposite directions to one another, an emission of light is achieved which is symmetrical with respect to a center plane of the luminaire, wherein the opening angle of the emission of light is dependent on the orientation of the covers.
A polarization reconfigurable apparatus, comprising a signal generation unit, a signal adjustment unit, a digital-to-analog conversion unit, and a transmission unit that are sequentially connected, wherein the transmission unit comprises a first port and a second port, and a signal transmitted by the first port is orthogonal to a signal transmitted by the second port; the signal generation unit is configured to generate a first signal; the signal adjustment unit is configured to: determine a polarization mode of a to-be-transmitted signal, wherein the polarization mode comprises linear polarization, circular polarization, and elliptical polarization; divide the first signal into two first signals; and adjust an amplitude and a phase of a 1 st first signal and an amplitude and a phase of a 2 nd first signal based on the determined polarization mode; the digital-to-analog conversion unit is configured to perform digital-to-analog conversion on an adjusted 1 st first signal to obtain a second signal, and perform digital-to-analog conversion on an adjusted 2 nd first signal to obtain a third signal; and the transmission unit is configured to transmit the second signal by using the first port, and transmit the third signal by using the second port, wherein the to-be-transmitted signal is obtained by combining the second signal and the third signal. the signal generation unit is configured to generate a first signal; the signal adjustment unit is configured to: determine a polarization mode of a to-be-transmitted signal, wherein the polarization mode comprises linear polarization, circular polarization, and elliptical polarization; divide the first signal into two first signals; and adjust an amplitude and a phase of a 1 st first signal and an amplitude and a phase of a 2 nd first signal based on the determined polarization mode; the digital-to-analog conversion unit is configured to perform digital-to-analog conversion on an adjusted 1 st first signal to obtain a second signal, and perform digital-to-analog conversion on an adjusted 2 nd first signal to obtain a third signal; and the transmission unit is configured to transmit the second signal by using the first port, and transmit the third signal by using the second port, wherein the to-be-transmitted signal is obtained by combining the second signal and the third signal.
An illumination module (200, 500), comprising: a first dark field multi-color LED and a second dark field multi-color LED, wherein the first dark field multi-color LED and the second dark field multi-color LED provide high incidence angle dark field illumination; a first bright field multi-color LED and a second bright field multi-color LED; a first LED module and a second LED module; and a close-up corrective lens; characterized in that the illumination module further comprises a first end dark field light block and a second end dark field light block, wherein the first end dark field light block and the second end dark field light block reduces illumination and reflection in the illumination module (200, 500); wherein the first dark field multi-color LED and the first bright field multi-color LED are mounted on the first LED module, and the second dark field multi-color LED and the second bright field multi-color LED are mounted on the second LED module, and wherein the first LED module is mounted on one side of the illumination module (200, 500) and the second LED module is mounted on another side of the illumination module (200, 500), with the close-up corrective lens positioned between the first LED module and the second LED module; and wherein the first dark field multi-color LED and the first end dark field light block are proximate to one end of the illumination module (200, 500), and the second dark field multi-color LED and the second end dark field light block are proximate to another end of the illumination module (200, 500). a first dark field multi-color LED and a second dark field multi-color LED, wherein the first dark field multi-color LED and the second dark field multi-color LED provide high incidence angle dark field illumination; a first bright field multi-color LED and a second bright field multi-color LED; a first LED module and a second LED module; and a close-up corrective lens; characterized in that the illumination module further comprises a first end dark field light block and a second end dark field light block, wherein the first end dark field light block and the second end dark field light block reduces illumination and reflection in the illumination module (200, 500); wherein the first dark field multi-color LED and the first bright field multi-color LED are mounted on the first LED module, and the second dark field multi-color LED and the second bright field multi-color LED are mounted on the second LED module, and wherein the first LED module is mounted on one side of the illumination module (200, 500) and the second LED module is mounted on another side of the illumination module (200, 500), with the close-up corrective lens positioned between the first LED module and the second LED module; and wherein the first dark field multi-color LED and the first end dark field light block are proximate to one end of the illumination module (200, 500), and the second dark field multi-color LED and the second end dark field light block are proximate to another end of the illumination module (200, 500).
The use of an aqueous polymer dispersion comprising a multistage emulsion polymer particle, said multistage emulsion polymer particle comprises: a polysiloxane formed in the first stage; a transition layer formed in the second stage; and a polyacrylate formed in the third stage; wherein the transition layer is made of silane coupling agents for preparing coatings. a polysiloxane formed in the first stage; a transition layer formed in the second stage; and a polyacrylate formed in the third stage; wherein the transition layer is made of silane coupling agents for preparing coatings.
Use of an electrical resistance element for sintering of metal powder in particular, in sintering furnaces of low oxygen potential or low dew point atmospheres, wherein said electrical resistance element mainly consists of a silicide phase and wherein Mo is partly substituted by W for forming a silicide phase according to the formula Mo 1-y W y (Si 1-x Al x) 2, which phase forms alumina on the surface of the element and wherein x amounts to between 0.10 and 0.60; y amounts to between 0 and 0.40; and the silicide phase amounts to between 65 and 95 percent by weight of the total weight of the resistance element whereby the element contains besides the mentioned silicide phase 0 to 40 percent by volume of Al 2 O 3.
Elevator arrangement, which comprises an elevator hoistway extending in vertical direction, an elevator car, a movable supporting platform for supporting the elevator components in the elevator hoistway, which supporting platform comprises a supporting frame, which comprises a plurality of support elements (8'-8'''') movable between a position extended from the supporting platform towards the side and a position retracted towards the supporting platform, supported on which support elements in their extended position the supporting frame can be lowered to rest on top of the wall structures of the elevator hoistway, for the vertical supporting of the supporting platform in the elevator hoistway, and in the retracted position of which support elements the supporting platform can be moved in the vertical direction in the elevator hoistway without being obstructed by the support elements, which support platform extends in four lateral directions (D1, D2, D3, D4) extending in one horizontal plane, wherein the four lateral directions point such that from the first direction D1 clockwise, the second direction D2 is at 180 degrees, the third direction D3 is at 270 degrees and the fourth direction D4 at 90 degrees, characterized in that the supporting frame comprises a plurality of beams that are rigidly fixed to each other, which beams are arranged such that at least one beam end of the supporting frame points towards each of all four lateral directions (D1, D2, D3, D4) of the supporting platform, at which beam end is a movable support element (8'-8'''') that belongs to the aforementioned plurality of support elements.
A network protection method, characterized in that the method comprises the following steps: setting up a protection characteristic set for a local network which is determined to be protected, and setting up a link from protected links in the protection characteristic set as a protection link; judging whether there exists a protection switching request, and a node to which the protection link belongs blocking a port connected to the protection link if there does not exist a protection switching request; and a node of the protection switching request blocking a port designated by the protection switching request, and the node to which the protection link belongs unblocking a port which is connected to the protection link after receiving the switching protocol frame if there exists a protection switching request; wherein the protection characteristic set at least comprises characteristics of the protected links, the node connected to the protected link, and protected data; wherein the step of setting up a protection link comprises: selecting a link with little traffic from the protected links as a protection link according to the real traffic of each protected link, and selecting any node connected to the protection link as a node to which the protection link belongs. setting up a protection characteristic set for a local network which is determined to be protected, and setting up a link from protected links in the protection characteristic set as a protection link; judging whether there exists a protection switching request, and a node to which the protection link belongs blocking a port connected to the protection link if there does not exist a protection switching request; and a node of the protection switching request blocking a port designated by the protection switching request, and the node to which the protection link belongs unblocking a port which is connected to the protection link after receiving the switching protocol frame if there exists a protection switching request; wherein the protection characteristic set at least comprises characteristics of the protected links, the node connected to the protected link, and protected data; wherein the step of setting up a protection link comprises: selecting a link with little traffic from the protected links as a protection link according to the real traffic of each protected link, and selecting any node connected to the protection link as a node to which the protection link belongs.
A controller for a gas concentration sensor that generates an output correlating with the oxygen concentration in a detected gas, said controller comprising impedance detection means for applying an impedance detection voltage to said gas concentration sensor to detect a device impedance (Rs) of said gas concentration sensor, data invalidation means for invalidating the output of said gas concentration sensor for a specified period of time after said impedance detection voltage is applied to said gas concentration sensor, and data invalidation period setup means for increasing said specified period of time with an increase in said device impedance (Rs).
A multi-level cell memory device comprising: a plurality of multi level memory cells wherein each of the plurality of memory cells stores two or more bits of information comprising a least significant bit, LSB, and a most significant bit, MSB; a sensing circuit (166, 172, 182) coupled to the memory cell, wherein the sensing circuit operates to read from and write to the memory device; a row buffer structure comprising a split page buffer having a first page buffer and a second page buffer, wherein the sensing circuit is configured to place a first bit in one of the first page buffer and the second page buffer, and wherein the sensing circuit is configured to place the second bit in one of the first page buffer and the second page buffer; characterized in that the row buffer structure further comprises: row buffer input multiplexers that are configured to select one of the first bit and the second bit to store in the split page buffer; row buffer output multiplexers that are configured to select one of the first page buffer and the second page buffer; and a page buffer select signal that determines the operation of the row buffer input and output multiplexers; and wherein the first and second bits are both LSBs. a plurality of multi level memory cells wherein each of the plurality of memory cells stores two or more bits of information comprising a least significant bit, LSB, and a most significant bit, MSB; a sensing circuit (166, 172, 182) coupled to the memory cell, wherein the sensing circuit operates to read from and write to the memory device; a row buffer structure comprising a split page buffer having a first page buffer and a second page buffer, wherein the sensing circuit is configured to place a first bit in one of the first page buffer and the second page buffer, and wherein the sensing circuit is configured to place the second bit in one of the first page buffer and the second page buffer; characterized in that the row buffer structure further comprises: row buffer input multiplexers that are configured to select one of the first bit and the second bit to store in the split page buffer; row buffer output multiplexers that are configured to select one of the first page buffer and the second page buffer; and a page buffer select signal that determines the operation of the row buffer input and output multiplexers; and wherein the first and second bits are both LSBs. row buffer input multiplexers that are configured to select one of the first bit and the second bit to store in the split page buffer; row buffer output multiplexers that are configured to select one of the first page buffer and the second page buffer; and a page buffer select signal that determines the operation of the row buffer input and output multiplexers; and wherein the first and second bits are both LSBs.
Method for cooking foodstuff in a cooking chamber by means of steam, wherein steam is fed into the cooking chamber from a steam generator, wherein a measuring opening, at the exit side of which a temperature Ts is measured, is arranged at the cooking space, and wherein furthermore a closable opening is arranged at the cooking space, characterized in that during cooking with steam the closable opening is opened at least partially upon detection of a rise of the temperature Ts above a threshold To.
A coating agent composition comprising: a polytetrafluoroethylene resin emulsion; an urethane resin emulsion; a hydrogenated NBR emulsion; and optionally an acrylic resin emulsion and/or an ethylene-vinyl acetate copolymer resin emulsion; wherein each component is contained as a resin solid matter at the following ratio: component: 20 to 80 wt.%; component: 10 to 50 wt.%; component: 3 to 40 wt.%; and component: 0 to 50 wt.% a polytetrafluoroethylene resin emulsion; an urethane resin emulsion; a hydrogenated NBR emulsion; and optionally an acrylic resin emulsion and/or an ethylene-vinyl acetate copolymer resin emulsion; component: 20 to 80 wt.%; component: 10 to 50 wt.%; component: 3 to 40 wt.%; and component: 0 to 50 wt.%
A haloolefin-based composition suitable for use for at least one application selected from heat transfer media, refrigerants, foaming agents, solvents, cleaning agents, propellants, and fire extinguishers, which composition comprises (i) a haloolefin, which haloolefin is 2,3,3,3-tetrafluoropropene containing 0.1 to < 10,000 mass ppm of 1,3,3,3-tetrafluoropropene; and, based on the total amount of the haloolefin, (ii) 0.1-200 mass ppm of water; and (iii) ≤ 0.35 mol% of oxygen. (i) a haloolefin, which haloolefin is 2,3,3,3-tetrafluoropropene containing 0.1 to < 10,000 mass ppm of 1,3,3,3-tetrafluoropropene; and, based on the total amount of the haloolefin, (ii) 0.1-200 mass ppm of water; and (iii) ≤ 0.35 mol% of oxygen.