mhurhangee/patent-ind-claim-en huggingface dataset:
A display device comprising: a support configured to support a body and serve as an antenna to receive a broadcast signal transmitted from an outside thereof; a matching circuit disposed in the body and configured to match a signal reception characteristic of the support to a frequency band allocated to a broadcast channel, wherein the matching circuit includes at least one variable capacitor and at least one inductor ; a tuner configured to select a signal in the frequency band allocated to the broadcast channel among broadcast signals output from the matching circuit ; a display configured to display an image signal included in the selected signal of the frequency band; characterised by : a detector configured to detect the signal reception characteristic of the support ; and a processor configured to, when a selection of a broadcast channel is input, control capacitance of the variable capacitor such that the signal reception characteristic matches a frequency band allocated to the selected broadcast channel; and wherein the processor is configured to generate a control signal for controlling the capacitance of the variable capacitor based on the detected signal reception characteristic and the frequency band allocated to the selected broadcast channel. a support configured to support a body and serve as an antenna to receive a broadcast signal transmitted from an outside thereof; a matching circuit disposed in the body and configured to match a signal reception characteristic of the support to a frequency band allocated to a broadcast channel, wherein the matching circuit includes at least one variable capacitor and at least one inductor ; a tuner configured to select a signal in the frequency band allocated to the broadcast channel among broadcast signals output from the matching circuit ; a display configured to display an image signal included in the selected signal of the frequency band; characterised by : a detector configured to detect the signal reception characteristic of the support ; and a processor configured to, when a selection of a broadcast channel is input, control capacitance of the variable capacitor such that the signal reception characteristic matches a frequency band allocated to the selected broadcast channel; and a detector configured to detect the signal reception characteristic of the support ; and a processor configured to, when a selection of a broadcast channel is input, control capacitance of the variable capacitor such that the signal reception characteristic matches a frequency band allocated to the selected broadcast channel; and wherein the processor is configured to generate a control signal for controlling the capacitance of the variable capacitor based on the detected signal reception characteristic and the frequency band allocated to the selected broadcast channel.
A device comprising: a substrate having a device-side and a backside opposite the device-side; an optical ring resonator located on the device-side of the substrate; a heater having a shape complementary to the optical ring resonator, the heater positioned to heat the optical ring resonator; one or more metal traces that connect at least to the heater, the metal traces configured to provide power to the heater and extending outward from the heater; and, a recess on the backside of the substrate, the recess centered on the optical ring resonator, and having a diameter larger than both respective outer diameters of the optical ring resonator and the heater, the recess further extending laterally into a region of the one or more metal traces, the recess extending from the backside of the substrate to a layer of material at a side of the recess adjacent the device-side of the substrate such that the substrate is hollow from the backside of the substrate to the layer of material at the side of the recess adjacent the device-side of the substrate. a substrate having a device-side and a backside opposite the device-side; an optical ring resonator located on the device-side of the substrate; a heater having a shape complementary to the optical ring resonator, the heater positioned to heat the optical ring resonator; one or more metal traces that connect at least to the heater, the metal traces configured to provide power to the heater and extending outward from the heater; and, a recess on the backside of the substrate, the recess centered on the optical ring resonator, and having a diameter larger than both respective outer diameters of the optical ring resonator and the heater, the recess further extending laterally into a region of the one or more metal traces, the recess extending from the backside of the substrate to a layer of material at a side of the recess adjacent the device-side of the substrate such that the substrate is hollow from the backside of the substrate to the layer of material at the side of the recess adjacent the device-side of the substrate.
A method of allocating listening radio channels for a wireless interface for communicating between an ultra low power wireless node and a network of backbone nodes , for use when the ultra low power wireless node sends transmissions having a same packet on at least two radio channels, wherein the transmissions are received at the backbone nodes, the method having the steps of: receiving indications of reception performance of the wireless interface from one or more backbone nodes by a listening channel allocation processor , and allocating dynamically by the listening channel allocation processor which of the radio channels are listened for at the backbone nodes according to the indications of reception performance, wherein the step of dynamically allocating is biased to be more dependent on more recent ones of the indications of reception performance , wherein the step of dynamically allocating comprises making coordinated allocations for different ones of the backbone nodes, and outputting the allocations to the backbone nodes. receiving indications of reception performance of the wireless interface from one or more backbone nodes by a listening channel allocation processor , and allocating dynamically by the listening channel allocation processor which of the radio channels are listened for at the backbone nodes according to the indications of reception performance, wherein the step of dynamically allocating is biased to be more dependent on more recent ones of the indications of reception performance , wherein the step of dynamically allocating comprises making coordinated allocations for different ones of the backbone nodes, and outputting the allocations to the backbone nodes.
An axle shaft assembly for a vehicle, the assembly comprising: a first shaft having a first end , a second end , and a central portion , wherein the first shaft is formed from a first material having a first modulus of elasticity for providing the first shaft with a flexibility adapted to withstand shock loads associated with side impacts and resist deformation, wherein the axle shaft assembly further comprises a first splined end member and a hub flange the first splined end member engaged with the first end of the first shaft , and wherein the first splined end member is adapted to withstand a first rotational force from a drive system and transfer the first rotational force to the first shaft ; and the hub flange engaged with the second end of the first shaft , and wherein the hub flange is adapted to withstand the first rotational force transferred from the first shaft ; characterised in that the first splined end member and the hub flange are both formed from a second material having a second modulus of elasticity greater than the first modulus of elasticity. a first shaft having a first end , a second end , and a central portion , wherein the first shaft is formed from a first material having a first modulus of elasticity for providing the first shaft with a flexibility adapted to withstand shock loads associated with side impacts and resist deformation, wherein the axle shaft assembly further comprises a first splined end member and a hub flange the first splined end member engaged with the first end of the first shaft , and wherein the first splined end member is adapted to withstand a first rotational force from a drive system and transfer the first rotational force to the first shaft ; and the hub flange engaged with the second end of the first shaft , and wherein the hub flange is adapted to withstand the first rotational force transferred from the first shaft ; characterised in that the first splined end member and the hub flange are both formed from a second material having a second modulus of elasticity greater than the first modulus of elasticity.
Venetian blind consisting of a plurality of slats each having a reflective upper surface, said slats (10 to 14) being pivotably orientable between a position in which the normal to the reflective surface is oriented vertically upwards, and positions in which said normal to the reflective surface is oriented inwards, characterized in that each of said slats (10 to 14) is extended at its outer edge by a downwardly extending strip (30 to 33), said strip (30 to 33) having a width at least equal to the height separating two consecutive slats, the lower edge of each of said strips (30 to 33) being rigid and connected to an inner vertical connecting means.
A pole sledge having a vertical hub shaft , a boom having a first boom end and a second boom end , a power unit and a sledge arrangement , and the first boom end is attached to the sledge arrangement and the boom is fixed to the hub shaft, and the boom and the attachment of the boom to the hub shaft are configured in such a way that the boom is rotatable relative to the hub shaft in such a way that the hub shaft is the centre of rotational movement, and the power unit is configured to rotate the boom, characterized in that the power unit is connected to the hub shaft, and the pole sledge further has a pushing arrangement attached to the boom for pushing the pole sledge by the user to rotate the boom, the pushing arrangement having at least a first position and a second position, and the pushing arrangement and power unit are configured to engage when the pushing arrangement is moved from the first to second position and the power unit stops rotating the boom when the pushing arrangement is moved back to the first position.
An AIPO-91 microporous crystalline material that has an empirical composition in an as-synthesized form and on an anhydrous basis expressed by an empirical formula: C + c A + a M m 2+ EP x Si y O z where M is at least one framework divalent cation and is selected from the group consisting of alkaline earth and transition metals, wherein M is a cation selected from the group consisting of beryllium, magnesium, cobalt (II), manganese, zinc, iron(II), nickel and mixtures thereof, C is a cyclic organoammonium cation, wherein C is prepared from the reaction of an aqueous mixture of a cyclic secondary amine and an organic dihalide, wherein the cyclic secondary amine is piperidine, and the organic dihalide is 1,4-dibromobutane, A is an acyclic organoammonium cation, wherein A is tetramethylammonium, the ratio (c/a) having a value from 0 to 1000, and the sum (c+a) representing the mole ratio of (C+A) to E and has a value of 0.1 to 2.0, "m" is the mole ratio of M to E and varies from 0 to 1.0, "x" is a mole ratio of P to E and varies from 0.5 to 2.0, a ratio of silicon to E is represented by "y" which varies from 0 to 1.0, E is a trivalent element which is tetrahedrally coordinated, is present in the framework, and is aluminum, and "z" is a mole ratio of O to E and is given by an equation: z = 2 • m + c + a + 3 + 5 • x + 4 • y / 2 and is characterized by a following x-ray diffraction pattern, having at least the d-spacings and relative intensities set forth in Table 1: Table 1 2-theta (°) d (Å) Intensity 4.50-4.53 19.62-19.54 vw 7.71-7.74 11.45-11.41 s-vs 8.04-8.08 11.00-10.94 w-m 8.96-9.05 9.87-9.76 m-s 10.29-10.32 8.59-8.57 s-vs 11.92-11.99 7.42-7.37 w-vw 13.35-13.38 6.63-6.61 m-vs 13.49-13.52 6.56-6.54 s-vs 13.71-14.11 6.46-6.27 w-m 15.48-15.51 5.72-5.70 w-m 15.66-15.69 5.66-5.64 m-vs 16.14-16.17 5.49-5.47 m-s 16.28-16.30 5.44-5.43 m-s 16.92-16.95 5.24-5.22 s-vs 17.07-17.12 5.19-5.17 m-s 17.71-17.74 5.19-5.17 w-m 18.19-18.21 4.87-4.86 w-m 19.23-19.85 4.62-4.47 vw-w 20.46-20.51 4.34-4.32 m 20.66-20.82 4.30-4.26 s-vs 20.96-21.15 4.23-4.19 w-m 21.23-21.26 4.19-4.17 w-m 21.59-21.62 4.12-4.10 m-vs 21.75-21.84 4.09-4.06 s-vs 22.25-22.30 4.00-3.98 vw-w 22.71-22.74 3.92-3.90 w-m 23.32-23.35 3.82-3.80 m-s 23.58-23.61 3.77-3.76 m 24.10-24.13 3.69-3.68 s-vs 24.66-24.69 3.61-3.60 m-vs 24.82-24.90 3.59-3.57 m-s
A drive assembly for a rail transport system for conveying bulk materials via a plurality of cars adapted to form a train, each car having a pair of side drive plates and a trough arrangement for carrying the bulk materials on a rail, said drive assembly comprising: at least one drive unit comprising a motor and a drive tire , wherein the motor is adapted to rotate the drive tire to frictionally contact a side drive plate of at least one of the cars for imparting a driven moment to the car, a mounting plate situated between the motor and the drive tire, and a support structure adapted to carry the mounting plate, characterised in that the support structure is adapted to carry the mounting plate such that drive force from the drive unit and squeeze force between the drive tire and side plate are reacted through the mounting plate to the support structure, and wherein the mounting plate and support structure define a plurality of apertures that when aligned and connected via a pin arrangement inserted through corresponding apertures in the mounting plate and the support structure can be used to selectively control the squeeze force between the drive tire and side plate. at least one drive unit comprising a motor and a drive tire , wherein the motor is adapted to rotate the drive tire to frictionally contact a side drive plate of at least one of the cars for imparting a driven moment to the car, a mounting plate situated between the motor and the drive tire, and a support structure adapted to carry the mounting plate, characterised in that the support structure is adapted to carry the mounting plate such that drive force from the drive unit and squeeze force between the drive tire and side plate are reacted through the mounting plate to the support structure, and wherein the mounting plate and support structure define a plurality of apertures that when aligned and connected via a pin arrangement inserted through corresponding apertures in the mounting plate and the support structure can be used to selectively control the squeeze force between the drive tire and side plate.
A method comprising detecting a radio problem of a radio link carrying a network connection of a communication device, and initiating a recovery procedure for recovering the connection on said radio link and a re-establishment procedure for re-establishing the connection on an alternative radio link, upon detection of the radio link problem, characterised in that the initiating is started before a radio link failure of said radio link is declared. detecting a radio problem of a radio link carrying a network connection of a communication device, and initiating a recovery procedure for recovering the connection on said radio link and a re-establishment procedure for re-establishing the connection on an alternative radio link, upon detection of the radio link problem, characterised in that the initiating is started before a radio link failure of said radio link is declared.
A method for time-dependent hint generation, the method comprising: receiving a plurality of resource samples by a hinting machine , each resource sample recorded at a corresponding sample time and indicating a rendering status of a respective resource with respect to rendering a web page at the corresponding sample time, the web page comprising multiple of the resources; calculating, by the hinting machine as a function of the plurality of resource samples, a time-based probability function of each resource being fetched over time as part of rendering the web page, wherein calculating the time-based probability function as a function of the plurality of resource samples comprises applying a weighting function to each resource sample to weight an impact of each resource sample on the time-based probability function for the particular resource; and generating, by the hinting machine according to the respective time-based probability functions, a plurality of time-dependent hints for prefetching the set of resources in association with rendering the web page by a client machine . receiving a plurality of resource samples by a hinting machine , each resource sample recorded at a corresponding sample time and indicating a rendering status of a respective resource with respect to rendering a web page at the corresponding sample time, the web page comprising multiple of the resources; calculating, by the hinting machine as a function of the plurality of resource samples, a time-based probability function of each resource being fetched over time as part of rendering the web page, wherein calculating the time-based probability function as a function of the plurality of resource samples comprises applying a weighting function to each resource sample to weight an impact of each resource sample on the time-based probability function for the particular resource; and generating, by the hinting machine according to the respective time-based probability functions, a plurality of time-dependent hints for prefetching the set of resources in association with rendering the web page by a client machine .
An in-vehicle control device comprising: a specifying unit configured to specify a limited device that is a device of which power consumption is to be limited, based on information acquired from outside, characterized in that the in-vehicle control device further comprises: a controller configured to select the limited device specified by the specifying unit , wherein: the controller limits power consumption of the limited device by a mode control unit when the limited device is a device of a first type having a function of switching an operation mode between a normal mode and a mode in which power consumption is limited compared to the normal mode in accordance with an instruction via communication; the controller limits power consumption of the limited device by a power control unit when the limited device is a device of a second type not having the function; the mode control unit is configured to transmit to the limited device, via a communication line, an instruction to shift the operation mode of the limited device to the mode in which power consumption is limited compared to the normal mode; and the power control unit is configured to stop power supply to the limited device. the controller limits power consumption of the limited device by a mode control unit when the limited device is a device of a first type having a function of switching an operation mode between a normal mode and a mode in which power consumption is limited compared to the normal mode in accordance with an instruction via communication; the controller limits power consumption of the limited device by a power control unit when the limited device is a device of a second type not having the function; the mode control unit is configured to transmit to the limited device, via a communication line, an instruction to shift the operation mode of the limited device to the mode in which power consumption is limited compared to the normal mode; and the power control unit is configured to stop power supply to the limited device.
A classification-based medical-image identification apparatus comprising: an ultrasound image acquisition device configured for acquiring, by means of ultrasound, an image depicting a medical instrument; and a classification circuitry configured to, dynamically responsive to said acquiring, segment the medical instrument by operating on information derived from said image, characterized in that the classification circuitry is machine-learning-based-classification circuitry , which comprises a boosted statistical classifier configured for using machine-learning-based-classification to segment the medical instrument, and in that the apparatus is configured for - via the ultrasound image acquisition device, dynamically performing, automatically, without need for user intervention, said acquiring incrementally, in a sweep, over a range of ultrasound beam angles for corresponding depictions of the medical instrument, the segmenting of said depictions being dynamically responsive to the incremental acquiring, - applying, increment by increment, a line detection algorithm to output of said segmenting for respective ones of said depictions, and - adding outputs of said algorithm to derive an orientation of the medical instrument. an ultrasound image acquisition device configured for acquiring, by means of ultrasound, an image depicting a medical instrument; and a classification circuitry configured to, dynamically responsive to said acquiring, segment the medical instrument by operating on information derived from said image, characterized in that the classification circuitry is machine-learning-based-classification circuitry , which comprises a boosted statistical classifier configured for using machine-learning-based-classification to segment the medical instrument, and in that the apparatus is configured for - via the ultrasound image acquisition device, dynamically performing, automatically, without need for user intervention, said acquiring incrementally, in a sweep, over a range of ultrasound beam angles for corresponding depictions of the medical instrument, the segmenting of said depictions being dynamically responsive to the incremental acquiring, - applying, increment by increment, a line detection algorithm to output of said segmenting for respective ones of said depictions, and - adding outputs of said algorithm to derive an orientation of the medical instrument. - via the ultrasound image acquisition device, dynamically performing, automatically, without need for user intervention, said acquiring incrementally, in a sweep, over a range of ultrasound beam angles for corresponding depictions of the medical instrument, the segmenting of said depictions being dynamically responsive to the incremental acquiring, - applying, increment by increment, a line detection algorithm to output of said segmenting for respective ones of said depictions, and - adding outputs of said algorithm to derive an orientation of the medical instrument.