mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling operation of a communication device arranged to operate in a cellular communication network employing a paging signal to allow discontinuous reception for communication devices, wherein the communication device is arranged for three main communication states: detached state where the communication device is not registered to the cellular communication network; idle state where the communication device is registered to the cellular communication network, and receives paging signals through discontinuous reception; and active state where the communication device is registered to the cellular communication network and performs communication with the cellular communication network essentially continuously, the method being executed by the communication device and characterized by i) connecting to the cellular communication network such that a transition from the detached state to any of idle state or active state is made; ii) performing scheduled operations in the active state or idle state; iii) determining, when a transition from the active state to the idle state occurs, the time instant for next operation in the active state; iv) disconnecting from the cellular communication network such that a transition to the detached state is made; and v) when the time for next operation in the active state is approaching, returning the procedure to step i). detached state where the communication device is not registered to the cellular communication network; idle state where the communication device is registered to the cellular communication network, and receives paging signals through discontinuous reception; and active state where the communication device is registered to the cellular communication network and performs communication with the cellular communication network essentially continuously, the method being executed by the communication device and characterized by i) connecting to the cellular communication network such that a transition from the detached state to any of idle state or active state is made; ii) performing scheduled operations in the active state or idle state; iii) determining, when a transition from the active state to the idle state occurs, the time instant for next operation in the active state; iv) disconnecting from the cellular communication network such that a transition to the detached state is made; and v) when the time for next operation in the active state is approaching, returning the procedure to step i). i) connecting to the cellular communication network such that a transition from the detached state to any of idle state or active state is made; ii) performing scheduled operations in the active state or idle state; iii) determining, when a transition from the active state to the idle state occurs, the time instant for next operation in the active state; iv) disconnecting from the cellular communication network such that a transition to the detached state is made; and v) when the time for next operation in the active state is approaching, returning the procedure to step i).
A method for controlling a power conversion device, which is a DC/DC converter comprising a class-E inverter, for converting power from a power supply by controlling an input to a resonance circuit comprising a resonance coil (Lr) and a resonance capacitor (Cr), with a switching element, wherein: - the method comprises simultaneously changing a switching frequency (f) and a time ratio of the switching element so that the switching element satisfies a condition of zero-voltage switching when an output power of the power conversion device is changed, and - the switching frequency (f) is set so as to be located within an inductive region where an operating point for driving the resonance circuit is inductive, characterized in that the method further comprises simultaneously changing the switching frequency (f) and the time ratio so that: - the switching frequency and the time ratio satisfy the following relation: f = 1 2 π 2 1 − D 2 π 2 − 1 + 2 cos φ s cos 2 πD + φ s − cos 2 πD + φ s cos 2 πD − π 1 − D sin 2 πD 2 π 2 1 − D L r C s, wherein the switching frequency (f) is f, the time ratio is D, an inductance of the resonance coil (L r) is Lr, a capacitance of a shunt capacitor (C s) connected in parallel with the switching element is C s, and a phase difference between a drive signal for the switching element and a current flowing in the resonance circuit is φ s; or - a product of the switching frequency and the time ratio satisfies the following relation: f ⋅ D = α Vo 2 RL β, wherein the switching frequency (f) is f, the time ratio is D, an output voltage of the power conversion device is V 0, a resistance value of a load connected to the power conversion device is RL, and α, and β are constants. - the method comprises simultaneously changing a switching frequency (f) and a time ratio of the switching element so that the switching element satisfies a condition of zero-voltage switching when an output power of the power conversion device is changed, and - the switching frequency (f) is set so as to be located within an inductive region where an operating point for driving the resonance circuit is inductive, - the switching frequency and the time ratio satisfy the following relation: f = 1 2 π 2 1 − D 2 π 2 − 1 + 2 cos φ s cos 2 πD + φ s − cos 2 πD + φ s cos 2 πD − π 1 − D sin 2 πD 2 π 2 1 − D L r C s, wherein the switching frequency (f) is f, the time ratio is D, an inductance of the resonance coil (L r) is Lr, a capacitance of a shunt capacitor (C s) connected in parallel with the switching element is C s, and a phase difference between a drive signal for the switching element and a current flowing in the resonance circuit is φ s; or - a product of the switching frequency and the time ratio satisfies the following relation: f ⋅ D = α Vo 2 RL β, wherein the switching frequency (f) is f, the time ratio is D, an output voltage of the power conversion device is V 0, a resistance value of a load connected to the power conversion device is RL, and α, and β are constants.
A method for thermally aware booting in a portable computing device ("PCD"), the method comprising: initiating a boot sequence; polling a sensor in the PCD for a measurement of a thermal indicator, wherein the sensor is associated with one or more components within the PCD; comparing the polled measurement to a predetermined threshold; determining whether the polled measurement exceeds the predetermined threshold; and if the polled measurement exceeds the predetermined threshold (610, YES), delaying the boot sequence, further comprising polling the sensor a plurality of times wherein: if any polled measurement is less than the predetermined threshold (625, NO), authorizing completion of the boot sequence; or if the sensor is polled more than a predetermined number of times (630, YES), authorizing completion of the boot sequence. initiating a boot sequence; polling a sensor in the PCD for a measurement of a thermal indicator, wherein the sensor is associated with one or more components within the PCD; comparing the polled measurement to a predetermined threshold; determining whether the polled measurement exceeds the predetermined threshold; and if the polled measurement exceeds the predetermined threshold (610, YES), delaying the boot sequence, further comprising polling the sensor a plurality of times wherein: if any polled measurement is less than the predetermined threshold (625, NO), authorizing completion of the boot sequence; or if the sensor is polled more than a predetermined number of times (630, YES), authorizing completion of the boot sequence. if any polled measurement is less than the predetermined threshold (625, NO), authorizing completion of the boot sequence; or if the sensor is polled more than a predetermined number of times (630, YES), authorizing completion of the boot sequence.
A pre-assembled wall panel (116, 216, 516, 616, 816), comprising: a panel frame (220, 520, 620, 820) including a perimeter member (222, 522, 622, 822) that defines a perimeter side (535, 635, 837) of the panel frame (220, 520, 620, 820); first and second wall boards (230, 240, 530, 540, 630, 640, 830, 840) attached to opposite sides of the panel frame (220, 520, 620, 820) to define first and second major sides of the wall panel (116, 216, 516, 616, 816), each of the first and second wall boards (230, 240, 530, 540, 630, 640, 830, 840) comprising non-combustible material; and a waterproofing assembly (550, 670, 770, 870) that encloses the perimeter side (535, 635, 837) of the panel frame (220, 520, 620, 820) and that extends along a full length of the perimeter side (535, 635, 837), wherein the waterproofing assembly (550, 670, 770, 870) includes a first elongate member (551, 671, 771, 851) comprising first and second opposing flanges (552, 672, 772, 852) disposed against respective exterior surfaces of the first and second wall boards (230, 240, 530, 540, 630, 640, 830, 840), and wherein the first and second opposing flanges (552, 672, 772, 852) are attached to the perimeter member (222, 522, 622, 822), characterized in that the first elongate member (551, 671, 771, 851) is non-metallic and the waterproofing assembly (550, 670, 770, 870) includes an aperture connected to a duct attached to the wall panel (116, 216, 516, 616, 816). a panel frame (220, 520, 620, 820) including a perimeter member (222, 522, 622, 822) that defines a perimeter side (535, 635, 837) of the panel frame (220, 520, 620, 820); first and second wall boards (230, 240, 530, 540, 630, 640, 830, 840) attached to opposite sides of the panel frame (220, 520, 620, 820) to define first and second major sides of the wall panel (116, 216, 516, 616, 816), each of the first and second wall boards (230, 240, 530, 540, 630, 640, 830, 840) comprising non-combustible material; and a waterproofing assembly (550, 670, 770, 870) that encloses the perimeter side (535, 635, 837) of the panel frame (220, 520, 620, 820) and that extends along a full length of the perimeter side (535, 635, 837), wherein the waterproofing assembly (550, 670, 770, 870) includes a first elongate member (551, 671, 771, 851) comprising first and second opposing flanges (552, 672, 772, 852) disposed against respective exterior surfaces of the first and second wall boards (230, 240, 530, 540, 630, 640, 830, 840), and wherein the first and second opposing flanges (552, 672, 772, 852) are attached to the perimeter member (222, 522, 622, 822), characterized in that the first elongate member (551, 671, 771, 851) is non-metallic and the waterproofing assembly (550, 670, 770, 870) includes an aperture connected to a duct attached to the wall panel (116, 216, 516, 616, 816).
A tongue location monitoring system, comprising: at least one position circuit configured to respond to wireless transmissions; and a reader including: a transceiver configured to wirelessly transmit and/or receive signals to/from the at least one position circuit; and a control circuit including a processor programmed to instruct the transceiver to transmit a signal for the at least one position circuit, receive a response to the transmitted signal, and calculate the distance based on the transmission; wherein the at least one position circuit is configured for placement in or on the person's tongue, and the reader is configured for location outside the person's head; wherein the control circuit determines the location of a person's tongue based on responses of the at least one position circuit. at least one position circuit configured to respond to wireless transmissions; and a reader including: a transceiver configured to wirelessly transmit and/or receive signals to/from the at least one position circuit; and a control circuit including a processor programmed to instruct the transceiver to transmit a signal for the at least one position circuit, receive a response to the transmitted signal, and calculate the distance based on the transmission; a transceiver configured to wirelessly transmit and/or receive signals to/from the at least one position circuit; and a control circuit including a processor programmed to instruct the transceiver to transmit a signal for the at least one position circuit, receive a response to the transmitted signal, and calculate the distance based on the transmission; wherein the at least one position circuit is configured for placement in or on the person's tongue, and the reader is configured for location outside the person's head; wherein the control circuit determines the location of a person's tongue based on responses of the at least one position circuit.
A method, performed by an apparatus, capable of wirelessly connecting to a network via an air interface, of signal scanning for connection to a local service provider, the method comprising: determining a location where signal scanning is to occur; scanning, the location for signals from one or more local service providers (102, 116, 110), wherein scanning is operable to detect signals based on at least a first air interface (104, 108, 112) and a second air interface (104, 108, 112); and prior to scanning determining an order of scanning among the at least first and second air interfaces (104, 108, 112) and among local service providers using each air interface (104, 108, 112), wherein determining the order of scanning comprises applying a filter having one or more predefined filtering conditions to preclude search of particular service providers and air interfaces (104, 108, 112) based on predefined filtering conditions, the predefine filtering conditions including precluding search for signals on the second air interface based on the location determination; and assembling a list of local service providers detected from the scanning to allow a selection of a connection to at least one of the local service providers from the list. determining a location where signal scanning is to occur; scanning, the location for signals from one or more local service providers (102, 116, 110), wherein scanning is operable to detect signals based on at least a first air interface (104, 108, 112) and a second air interface (104, 108, 112); and prior to scanning determining an order of scanning among the at least first and second air interfaces (104, 108, 112) and among local service providers using each air interface (104, 108, 112), wherein determining the order of scanning comprises applying a filter having one or more predefined filtering conditions to preclude search of particular service providers and air interfaces (104, 108, 112) based on predefined filtering conditions, the predefine filtering conditions including precluding search for signals on the second air interface based on the location determination; and assembling a list of local service providers detected from the scanning to allow a selection of a connection to at least one of the local service providers from the list.
An equalizer in a receiving system, said equalizer comprising a tap coefficient update block configured to determine a tap coefficient to compensate distortion and interference in a frequency profile of an input signal received by a tuner in said system, the equalizer further comprising: an input signal position verification block configured to verify a position change in said frequency profile of the received input signal between an input signal currently received by said tuner and an input signal previously received by said tuner; and a coefficient position adjustment block configured to shift a tap coefficient inputted from the tap coefficient update block based on said position change, if the position of the frequency profile of the input signal has changed, wherein the shifted tap coefficient is used to compensate said distortion and interference by the equalizer; and the coefficient position adjustment block is further configured not to shift said tap coefficient inputted from said tap coefficient update block if it is determined that the position of the frequency profile of the received input signal has not changed. an input signal position verification block configured to verify a position change in said frequency profile of the received input signal between an input signal currently received by said tuner and an input signal previously received by said tuner; and a coefficient position adjustment block configured to shift a tap coefficient inputted from the tap coefficient update block based on said position change, if the position of the frequency profile of the input signal has changed, wherein the shifted tap coefficient is used to compensate said distortion and interference by the equalizer; and the coefficient position adjustment block is further configured not to shift said tap coefficient inputted from said tap coefficient update block if it is determined that the position of the frequency profile of the received input signal has not changed.
System for printing a printing-material web, comprising: • at least one gravure printing unit, • at least one forme cylinder with end-side bearing journals (4, 5), • at least one cylinder mandrel which is configured to receive cylinder sleeves which carry printing motifs, without the cylinder mandrel having to be removed from the gravure printing unit, • it being possible for the forme cylinder or the cylinder mandrel to be introduced into the gravure printing unit and to be connected fixedly to a drive of the gravure printing unit so as to rotate with it, • it being possible for the forme cylinder or the cylinder mandrel to be held in an aligned position with the drive by means of holding arms and fixing levers, • the holding arms and fixing levers being articulated on those sides of the side frame walls (6, 7) which face one another. • at least one gravure printing unit, • at least one forme cylinder with end-side bearing journals (4, 5), • at least one cylinder mandrel which is configured to receive cylinder sleeves which carry printing motifs, without the cylinder mandrel having to be removed from the gravure printing unit, • it being possible for the forme cylinder or the cylinder mandrel to be introduced into the gravure printing unit and to be connected fixedly to a drive of the gravure printing unit so as to rotate with it, • it being possible for the forme cylinder or the cylinder mandrel to be held in an aligned position with the drive by means of holding arms and fixing levers, • the holding arms and fixing levers being articulated on those sides of the side frame walls (6, 7) which face one another.
A ferroelectric thin film-forming sol-gel solution comprising: a raw material of a PZT-based compound; polyvinylpyrrolidone; and an organic dopant, wherein a molar ratio of the polyvinylpyrrolidone to the PZT-based compound is PZT-based compound:polyvinylpyrrolidone = 1:0.1 to 1:0.5 in terms of the monomer of the polyvinylpyrrolidone, characterized in that the organic dopant includes N-methylformamide, the raw material of a PZT-based compound is included in the sol-gel solution at 17 mass% or more of PZT as an oxide, and the N-methylformamide is included from 3 mass% to 13 mass% of the sol-gel solution. a raw material of a PZT-based compound; polyvinylpyrrolidone; and an organic dopant, wherein a molar ratio of the polyvinylpyrrolidone to the PZT-based compound is PZT-based compound:polyvinylpyrrolidone = 1:0.1 to 1:0.5 in terms of the monomer of the polyvinylpyrrolidone, the organic dopant includes N-methylformamide, the raw material of a PZT-based compound is included in the sol-gel solution at 17 mass% or more of PZT as an oxide, and the N-methylformamide is included from 3 mass% to 13 mass% of the sol-gel solution.
Cyclone separator arrangement for an off gas glove box, the cyclone separator arrangement comprising a cyclone separator with an elongated hollow body having a longitudinal axis, a first end, a second end and a circumferential wall; a first lateral gas inlet for supplying the off gas to an inside of the elongated hollow body, the first lateral gas inlet being provided in the circumferential wall of the elongated hollow body; a second lateral gas inlet for supplying an additive gas to the inside of the elongated hollow body, the second lateral gas inlet being provided in the circumferential wall of the elongated hollow body and being spaced from the first lateral gas inlet; and a gas outlet for outputting the off gas and the additive gas; and wherein the cyclone separator arrangement further comprises a filter device connected with the gas outlet of the cyclone separator, the filter device comprising an elongated filter housing and a filter being arranged inside the filter housing; and a container connected with the elongated hollow body for collecting the solid and/or liquid parts separated from the off gas, wherein the elongated filter housing, the elongated hollow body of the cyclone separator and the container are coaxially aligned; characterized in that the elongated filter housing has a first filter housing end and an opposite second filter housing end, the first filter housing end being configured as a four way connector, and the second filter housing end being provided with an opening that is connected with the gas outlet of the cyclone separator, preferably by a filter connection flange. a cyclone separator with an elongated hollow body having a longitudinal axis, a first end, a second end and a circumferential wall; a first lateral gas inlet for supplying the off gas to an inside of the elongated hollow body, the first lateral gas inlet being provided in the circumferential wall of the elongated hollow body; a second lateral gas inlet for supplying an additive gas to the inside of the elongated hollow body, the second lateral gas inlet being provided in the circumferential wall of the elongated hollow body and being spaced from the first lateral gas inlet; and a gas outlet for outputting the off gas and the additive gas; and wherein the cyclone separator arrangement further comprises a filter device connected with the gas outlet of the cyclone separator, the filter device comprising an elongated filter housing and a filter being arranged inside the filter housing; and a container connected with the elongated hollow body for collecting the solid and/or liquid parts separated from the off gas, wherein the elongated filter housing, the elongated hollow body of the cyclone separator and the container are coaxially aligned; characterized in that the elongated filter housing has a first filter housing end and an opposite second filter housing end, the first filter housing end being configured as a four way connector, and the second filter housing end being provided with an opening that is connected with the gas outlet of the cyclone separator, preferably by a filter connection flange.