mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: applying an FFT to a time domain digital signal to produce a frequency domain signal ; splitting the frequency domain signal into a plurality of spectral bands (1654 ~ 1664); applying an IFFT to each of the plurality of spectral bands to produce respective waveforms (1656 ~ 1666); for at least two of the waveforms, multiplying each waveform with a respective pilot tone, wherein the pilot tones differ from each other (1658 ~ 1668); combining the waveforms applied pilot tones and any remaining waveforms not applied a pilot tone to produce a combined time domain digital signal ; and converting the combined time domain digital signal to an optical channel signal. applying an FFT to a time domain digital signal to produce a frequency domain signal ; splitting the frequency domain signal into a plurality of spectral bands (1654 ~ 1664); applying an IFFT to each of the plurality of spectral bands to produce respective waveforms (1656 ~ 1666); for at least two of the waveforms, multiplying each waveform with a respective pilot tone, wherein the pilot tones differ from each other (1658 ~ 1668); combining the waveforms applied pilot tones and any remaining waveforms not applied a pilot tone to produce a combined time domain digital signal ; and converting the combined time domain digital signal to an optical channel signal.
Electrical control device for controlling the drive of a passenger transport system which can be switched between load operation and idle operation, which passenger transport system is designed as an escalator or moving walkway and has a three-phase drive motor ; the electrical control device at least comprising: • a three-phase mains voltage connection for supplying a three-phase mains voltage (U N ); • a frequency converter which can be controlled at least with regard to the frequency of its three-phase output voltage (U AC1 , U AC2 , U AC3 ); • a controllable switching device having a load operation switching state (B2), in which the three phases (U 2 , V 2 , W 2 ) of the drive motor can be coupled to the three phases (R, S, T) of the mains voltage connection , and an idle operation switching state (B 1), in which the three phases (U 2 , V 2 , W 2 ) of the drive motor can be coupled to the three phases (U 1 , V 1 , W 1 ) of the frequency converter in such a way that the drive motor is supplied with the three-phase mains voltage (U N ) in the load operation switching state (B2) and with the three-phase output voltage (U AC1 , U AC2 , U AC3 ) of the frequency converter in the idle operation switching state (B 1), characterized in that the frequency converter is supplied via at least one phase (R, S, T) of the three-phase mains voltage connection and a neutral conductor (N) of the mains voltage connection . • a three-phase mains voltage connection for supplying a three-phase mains voltage (U N ); • a frequency converter which can be controlled at least with regard to the frequency of its three-phase output voltage (U AC1 , U AC2 , U AC3 ); • a controllable switching device having a load operation switching state (B2), in which the three phases (U 2 , V 2 , W 2 ) of the drive motor can be coupled to the three phases (R, S, T) of the mains voltage connection , and an idle operation switching state (B 1), in which the three phases (U 2 , V 2 , W 2 ) of the drive motor can be coupled to the three phases (U 1 , V 1 , W 1 ) of the frequency converter in such a way that the drive motor is supplied with the three-phase mains voltage (U N ) in the load operation switching state (B2) and with the three-phase output voltage (U AC1 , U AC2 , U AC3 ) of the frequency converter in the idle operation switching state (B 1),
A method for making a stacked semiconductor device comprising: molding rims on a first die and a second die, the rims extending laterally away from the first and second dice, each of the rims including upper and lower rim faces, and the first and second dice are between respective upper and lower rim faces; forming one or more redistribution layers of conductive traces over one or more of the first or second dice or the rims, the one or more vias in communication with the conductive traces at the rims; and stacking the second die over the first die including engaging an upper rim face of the first die with a lower rim face of the second die, and adhering the upper rim face of the first die to the lower rim face of the second die; and drilling one or more vias through the rims after stacking, the one or more vias extending between the first and second dice. molding rims on a first die and a second die, the rims extending laterally away from the first and second dice, each of the rims including upper and lower rim faces, and the first and second dice are between respective upper and lower rim faces; forming one or more redistribution layers of conductive traces over one or more of the first or second dice or the rims, the one or more vias in communication with the conductive traces at the rims; and stacking the second die over the first die including engaging an upper rim face of the first die with a lower rim face of the second die, and adhering the upper rim face of the first die to the lower rim face of the second die; and engaging an upper rim face of the first die with a lower rim face of the second die, and adhering the upper rim face of the first die to the lower rim face of the second die; and drilling one or more vias through the rims after stacking, the one or more vias extending between the first and second dice.
An infusion catheter, comprising: an elongate tubular member having a proximal portion and a distal portion, wherein the distal portion includes an infusion region extending along a portion thereof; wherein the infusion region of the elongate tubular member includes a plurality of apertures; wherein the apertures reduce the surface area of the infusion region by 0.25% - 10%; and wherein the apertures have a diameter from 0.000254 cm to 0.004826 cm. an elongate tubular member having a proximal portion and a distal portion, wherein the distal portion includes an infusion region extending along a portion thereof; wherein the infusion region of the elongate tubular member includes a plurality of apertures; wherein the apertures reduce the surface area of the infusion region by 0.25% - 10%; and wherein the apertures have a diameter from 0.000254 cm to 0.004826 cm.
A chain cover that is configured to cover a timing chain that transmits rotation of a crankshaft of an internal combustion engine to a camshaft , the chain cover comprising: a crankshaft-side opening forming portion that defines a crankshaft-side opening into which the crankshaft is inserted; and a general portion that is a section different from the crankshaft-side opening forming portion , wherein the crankshaft-side opening forming portion is made of a first material, the general portion is made of a second material, the first material and the second material are different from each other, and the chain cover further comprises a camshaft-side opening into which the camshaft is inserted, characterized in that a section of the chain cover that defines the camshaft-side opening is made of a third material, and the third material is different from both the first material and the second material. a crankshaft-side opening forming portion that defines a crankshaft-side opening into which the crankshaft is inserted; and a general portion that is a section different from the crankshaft-side opening forming portion , wherein the crankshaft-side opening forming portion is made of a first material, the general portion is made of a second material, the first material and the second material are different from each other, and the chain cover further comprises a camshaft-side opening into which the camshaft is inserted, characterized in that a section of the chain cover that defines the camshaft-side opening is made of a third material, and the third material is different from both the first material and the second material.
A bar lock for a leaf of a window or of a door comprising a turning handle , in particular a turning handgrip, which is rotatable between a first position, in particular a closed position; a second position, in particular an open position; and a third position, in particular a tilted position; and a lock housing in which a rotational to linear conversion gear is arranged which comprises a drive element , which is rotationally fixedly connected to the turning handle and which is rotatably supported, and two respective longitudinally displaceably guided connection sliders displaceable opposite to one another for a respective locking bolt , wherein the rotational to linear conversion gear is coupled in on a rotation of the turning handle from the first position into the second position to displace the connection sliders oppositely to one another and is decoupled on a rotation of the turning handle from the second position into the third position so that a further displacement of the connection sliders is suppressed, characterized in that the coupling in and the decoupling of the rotational to linear conversion gear is configured such that the drive element is arranged between the two connection sliders and is provided with a respective rotary driver at mutually oppositely disposed sides that engages into a respective rotary drive cut-out of the respective connection slider on a rotation of the turning handle from the first position into the second position and that exits the respective rotary drive cut-out on a rotation of the turning handle from the second position into the third position. a lock housing in which a rotational to linear conversion gear is arranged which comprises a drive element , which is rotationally fixedly connected to the turning handle and which is rotatably supported, and two respective longitudinally displaceably guided connection sliders displaceable opposite to one another for a respective locking bolt , wherein the rotational to linear conversion gear is coupled in on a rotation of the turning handle from the first position into the second position to displace the connection sliders oppositely to one another and is decoupled on a rotation of the turning handle from the second position into the third position so that a further displacement of the connection sliders is suppressed, characterized in that the coupling in and the decoupling of the rotational to linear conversion gear is configured such that the drive element is arranged between the two connection sliders and is provided with a respective rotary driver at mutually oppositely disposed sides that engages into a respective rotary drive cut-out of the respective connection slider on a rotation of the turning handle from the first position into the second position and that exits the respective rotary drive cut-out on a rotation of the turning handle from the second position into the third position.
A vertical decoupler assembly for a hydraulic mount including a first fluid chamber and a second fluid chamber and comprising: a diaphragm dividing the first fluid chamber from the second fluid chamber and being elastically deformable for dampening small vibrations across the mount, and said diaphragm being generally tubular and radially deformable in response to a pressure differential between the first fluid chamber and the second fluid chamber ; and an inner cage with a first wall disposed inside said diaphragm and extending along substantially the entire length thereof, characterized in that , the inner cage is spaced therefrom by a predetermined distance for limiting the inward radial deflection of said diaphragm , whereby the vertical decoupler assembly further includes a lower insert having an inverted cup shape with a second wall extending between a closed upper end and a second rim defining an open end , wherein said second rim of said lower insert extends radially outward to an outer end , and said diaphragm sealingly engages said outer end of said lower insert . a diaphragm dividing the first fluid chamber from the second fluid chamber and being elastically deformable for dampening small vibrations across the mount, and said diaphragm being generally tubular and radially deformable in response to a pressure differential between the first fluid chamber and the second fluid chamber ; and an inner cage with a first wall disposed inside said diaphragm and extending along substantially the entire length thereof, characterized in that , the inner cage is spaced therefrom by a predetermined distance for limiting the inward radial deflection of said diaphragm , whereby the vertical decoupler assembly further includes a lower insert having an inverted cup shape with a second wall extending between a closed upper end and a second rim defining an open end , wherein said second rim of said lower insert extends radially outward to an outer end , and said diaphragm sealingly engages said outer end of said lower insert .
A method of controlling the output of information to a driver, the method comprising: monitoring at least one operating parameter of a vehicle; estimating a driver workload based on said at least one operating parameter; and controlling the output of information to said driver based on the estimated driver workload; wherein the driver workload is estimated with reference to a plurality of thresholds which define a plurality of driver workload ratings; wherein the method comprises periodically cycling through some or all of said defined driver workload ratings having a lower rating than a current estimated workload rating. monitoring at least one operating parameter of a vehicle; estimating a driver workload based on said at least one operating parameter; and controlling the output of information to said driver based on the estimated driver workload; wherein the driver workload is estimated with reference to a plurality of thresholds which define a plurality of driver workload ratings; wherein the method comprises periodically cycling through some or all of said defined driver workload ratings having a lower rating than a current estimated workload rating.
An apparatus of a user equipment, UE, operable to authorize access to a node, the UE comprising: one or more processors configured to: process, at the UE, extended access barring, EAB, configuration information in a system information block, SIB, received in a broadcast control channel, BCCH, from a node, wherein the SIB is a SIB type 14 in a long term evolution, LTE, system; when, as a result of the processing, it is determined that the UE has characteristics identified in the EAB configuration information for barring, bar, at the UE, access by the UE to the node; and when, as a result of the processing, it is determined that the UE does not have characteristics identified in the EAB configuration information for barring, send to the node a radio resource, RRC, connection establishment request including an EAB classification for the UE; and memory interfaced with the one or more processors, wherein the memory is configured to store the EAB configuration information received from the node. one or more processors configured to: process, at the UE, extended access barring, EAB, configuration information in a system information block, SIB, received in a broadcast control channel, BCCH, from a node, wherein the SIB is a SIB type 14 in a long term evolution, LTE, system; when, as a result of the processing, it is determined that the UE has characteristics identified in the EAB configuration information for barring, bar, at the UE, access by the UE to the node; and when, as a result of the processing, it is determined that the UE does not have characteristics identified in the EAB configuration information for barring, send to the node a radio resource, RRC, connection establishment request including an EAB classification for the UE; and memory interfaced with the one or more processors, wherein the memory is configured to store the EAB configuration information received from the node.
A uniflow scavenging 2-cycle engine comprising: a cylinder having a combustion chamber formed therein; a piston configured to slide in the cylinder ; an exhaust port provided at a side of one end of the cylinder in a stroke direction of the piston ; a first exhaust valve configured to open and close the exhaust port ; an exhaust passage communicating with the exhaust port and through which an exhaust gas generated due to a combustion operation in the cylinder is guided from the exhaust port ; and a second exhaust valve provided in the exhaust passage and configured to vary a degree of opening of the exhaust passage ; and a control unit configured to control the first exhaust valve and the second exhaust valve to reduce a degree of opening of the second exhaust valve after the first exhaust valve is opened, characterized in that the uniflow scavenging 2-cycle engine further comprises a sensor provided in the exhaust passage and configured to measure an oxygen concentration contained in the exhaust gas, and the control unit reduces the degree of opening of the second exhaust valve when the oxygen concentration measured by the sensor increases to exceed a threshold value after the first exhaust valve is opened. a cylinder having a combustion chamber formed therein; a piston configured to slide in the cylinder ; an exhaust port provided at a side of one end of the cylinder in a stroke direction of the piston ; a first exhaust valve configured to open and close the exhaust port ; an exhaust passage communicating with the exhaust port and through which an exhaust gas generated due to a combustion operation in the cylinder is guided from the exhaust port ; and a second exhaust valve provided in the exhaust passage and configured to vary a degree of opening of the exhaust passage ; and a control unit configured to control the first exhaust valve and the second exhaust valve to reduce a degree of opening of the second exhaust valve after the first exhaust valve is opened, characterized in that the uniflow scavenging 2-cycle engine further comprises a sensor provided in the exhaust passage and configured to measure an oxygen concentration contained in the exhaust gas, and the control unit reduces the degree of opening of the second exhaust valve when the oxygen concentration measured by the sensor increases to exceed a threshold value after the first exhaust valve is opened.
Cationic borate in powder form with a. a water solubility of maximum 5 g/l at 20°C, indicated as free boron, and b. a particle size d90, determined according to ISO 20998-1:2006, of less than 500 nm, wherein the powder contains adhesion promoters selected from the group of titanates, aluminates, zirconates, silanes and mixtures thereof, and wherein the powder comprises at least 50% calcium borate by weight, based on the total mass of cationic borate and indicated as Ca 3 (BO 3 ) 2 . a. a water solubility of maximum 5 g/l at 20°C, indicated as free boron, and b. a particle size d90, determined according to ISO 20998-1:2006, of less than 500 nm, wherein the powder contains adhesion promoters selected from the group of titanates, aluminates, zirconates, silanes and mixtures thereof, and wherein the powder comprises at least 50% calcium borate by weight, based on the total mass of cationic borate and indicated as Ca 3 (BO 3 ) 2 . wherein the powder contains adhesion promoters selected from the group of titanates, aluminates, zirconates, silanes and mixtures thereof, and wherein the powder comprises at least 50% calcium borate by weight, based on the total mass of cationic borate and indicated as Ca 3 (BO 3 ) 2 .
A spectral filter (7100; 7200; 7300; 7400; 2100; 2200; 2300; 9100) comprising: a first filter (1711; 1712; 1713; 2711; 2712; 2713; 3711; 3712; 3713; 4711; 4712; 4713; 1111; 1112; 1113; 1211; 1212; 1213; 1311; 1312; 1313) having a central wavelength in a first wavelength region; and a second filter (1721; 1722; 1723; 2721; 2722; 2723; 3721; 3722; 3723; 4721; 4722; 4723; 1121; 1122; 1123; 1221; 1222; 1223; 1321; 1322; 1323) having a central wavelength in a second wavelength region, wherein the first filter comprises: two first metal reflection layers (1131; 1132; 2131; 2132; 3131; 3132; 4131; 4132) vertically spaced apart from each other; and a first cavity (1141; 1142; 1143; 2141; 2142; 2143; 3141; 3142; 3143; 4141; 4142; 4143) provided between the two first metal reflection layers, and the second filter comprises: a second metal reflection layer (1151; 2151; 3151; 4152) and a Bragg reflection layer (1152; 2152; 3152; 4151) vertically spaced apart from each other; and a second cavity (1161; 1162; 1163; 2161; 2162; 2163; 3161; 3162; 3163; 4161; 4162; 4163) disposed between the second metal reflection layer and the Bragg reflection layer, in particular, wherein the second metal reflection layer and the Bragg reflection layer are of different materials. a first filter (1711; 1712; 1713; 2711; 2712; 2713; 3711; 3712; 3713; 4711; 4712; 4713; 1111; 1112; 1113; 1211; 1212; 1213; 1311; 1312; 1313) having a central wavelength in a first wavelength region; and a second filter (1721; 1722; 1723; 2721; 2722; 2723; 3721; 3722; 3723; 4721; 4722; 4723; 1121; 1122; 1123; 1221; 1222; 1223; 1321; 1322; 1323) having a central wavelength in a second wavelength region, wherein the first filter comprises: two first metal reflection layers (1131; 1132; 2131; 2132; 3131; 3132; 4131; 4132) vertically spaced apart from each other; and a first cavity (1141; 1142; 1143; 2141; 2142; 2143; 3141; 3142; 3143; 4141; 4142; 4143) provided between the two first metal reflection layers, and two first metal reflection layers (1131; 1132; 2131; 2132; 3131; 3132; 4131; 4132) vertically spaced apart from each other; and a first cavity (1141; 1142; 1143; 2141; 2142; 2143; 3141; 3142; 3143; 4141; 4142; 4143) provided between the two first metal reflection layers, and the second filter comprises: a second metal reflection layer (1151; 2151; 3151; 4152) and a Bragg reflection layer (1152; 2152; 3152; 4151) vertically spaced apart from each other; and a second cavity (1161; 1162; 1163; 2161; 2162; 2163; 3161; 3162; 3163; 4161; 4162; 4163) disposed between the second metal reflection layer and the Bragg reflection layer, a second metal reflection layer (1151; 2151; 3151; 4152) and a Bragg reflection layer (1152; 2152; 3152; 4151) vertically spaced apart from each other; and a second cavity (1161; 1162; 1163; 2161; 2162; 2163; 3161; 3162; 3163; 4161; 4162; 4163) disposed between the second metal reflection layer and the Bragg reflection layer, in particular, wherein the second metal reflection layer and the Bragg reflection layer are of different materials.