mhurhangee/patent-ind-claim-en huggingface dataset:
A heating circuit , comprising: a heating device comprising a heating coil (L1) for resonance heating of an object to be heated; and a measurement coil , wherein a portion of the measurement coil is in mutual induction with the heating coil (L1) and another portion is in mutual induction with the heating coil (L1) and the object to be heated, respectively, and a corresponding measurement signal is output, the measurement signal being used to cooperate with a measured and collected resonance electric parameter of the heating coil (L1) to determine a temperature of the object to be heated, wherein the measurement coil comprises: a first measurement (L2) sub-coil being arranged close to the heating coil (L1) to be in mutual induction with the heating coil (L1) and being arranged to be in mutual induction with the object to be heated; and a second measurement (L3) sub-coil being arranged to be in mutual induction with the heating coil (L1), characterized in that one pair of dotted terminals of the first measurement (L2) sub-coil and the second measurement (L3) sub-coil is connected, and another pair of dotted terminals of the first measurement (L2) sub-coil and the second measurement (L3) sub-coil serves as an output end of the measurement coil to output the measurement signal. a heating device comprising a heating coil (L1) for resonance heating of an object to be heated; and a measurement coil , wherein a portion of the measurement coil is in mutual induction with the heating coil (L1) and another portion is in mutual induction with the heating coil (L1) and the object to be heated, respectively, and a corresponding measurement signal is output, the measurement signal being used to cooperate with a measured and collected resonance electric parameter of the heating coil (L1) to determine a temperature of the object to be heated, wherein the measurement coil comprises: a first measurement (L2) sub-coil being arranged close to the heating coil (L1) to be in mutual induction with the heating coil (L1) and being arranged to be in mutual induction with the object to be heated; and a second measurement (L3) sub-coil being arranged to be in mutual induction with the heating coil (L1), characterized in that one pair of dotted terminals of the first measurement (L2) sub-coil and the second measurement (L3) sub-coil is connected, and another pair of dotted terminals of the first measurement (L2) sub-coil and the second measurement (L3) sub-coil serves as an output end of the measurement coil to output the measurement signal.
A direct radio transmission communication system , comprising a source transceiver , and a plurality of further transceivers , wherein the source transceiver is configured to individually indicate to each of the plurality of further transceivers to - participate in not-acknowledge, NACK, signaling with regard to the source transceiver , if a channel quality of the individual of the further transceivers is above a channel quality threshold, and - not to participate in NACK signaling with regard to the source transceiver , if the channel quality of the individual of the further transceivers is below the channel quality threshold, and wherein each of the plurality of further transceivers is configured to - participate in NACK signaling with regard to the source transceiver , if the source transceiver has indicated to participate in NACK signaling with regard to the source transceiver , and - not participate in NACK signaling with regard to the source transceiver , if the source transceiver has indicated not to participate in NACK signaling with regard to the source transceiver . wherein the source transceiver is configured to individually indicate to each of the plurality of further transceivers to - participate in not-acknowledge, NACK, signaling with regard to the source transceiver , if a channel quality of the individual of the further transceivers is above a channel quality threshold, and - not to participate in NACK signaling with regard to the source transceiver , if the channel quality of the individual of the further transceivers is below the channel quality threshold, and - participate in not-acknowledge, NACK, signaling with regard to the source transceiver , if a channel quality of the individual of the further transceivers is above a channel quality threshold, and - not to participate in NACK signaling with regard to the source transceiver , if the channel quality of the individual of the further transceivers is below the channel quality threshold, and wherein each of the plurality of further transceivers is configured to - participate in NACK signaling with regard to the source transceiver , if the source transceiver has indicated to participate in NACK signaling with regard to the source transceiver , and - not participate in NACK signaling with regard to the source transceiver , if the source transceiver has indicated not to participate in NACK signaling with regard to the source transceiver . - participate in NACK signaling with regard to the source transceiver , if the source transceiver has indicated to participate in NACK signaling with regard to the source transceiver , and - not participate in NACK signaling with regard to the source transceiver , if the source transceiver has indicated not to participate in NACK signaling with regard to the source transceiver .
A fluidized bed reactor comprising: a fluidized bed reactor in which a catalyst bed is provided; a dust collector provided in an upper portion of the fluidized bed reactor and collecting catalyst particles in a gas discharged toward the upper portion of the fluidized bed reactor ; and a filter portion provided in a region between the dust collector and the catalyst bed , wherein two or more filter portions are provided at different heights, wherein each filter portion includes a filtering screen and a plurality of conical caps coupled to the filtering screen , wherein each conical cap includes: a collecting portion in a hollow cone shape collecting the catalyst particles in the gas discharged toward the upper portion of the fluidized bed reactor ; and a plurality of connecting portions provided at a predetermined interval along a circumference of the collecting portion and coupled to the filtering screen , and wherein the plurality of conical caps are provided on each filtering screen while being spaced apart from each other at a predetermined interval, characterized in that the conical caps provided on each filter portion are arranged so as not to be positioned on the same vertical line. a fluidized bed reactor in which a catalyst bed is provided; a dust collector provided in an upper portion of the fluidized bed reactor and collecting catalyst particles in a gas discharged toward the upper portion of the fluidized bed reactor ; and a filter portion provided in a region between the dust collector and the catalyst bed , wherein two or more filter portions are provided at different heights, wherein each filter portion includes a filtering screen and a plurality of conical caps coupled to the filtering screen , wherein each conical cap includes: a collecting portion in a hollow cone shape collecting the catalyst particles in the gas discharged toward the upper portion of the fluidized bed reactor ; and a plurality of connecting portions provided at a predetermined interval along a circumference of the collecting portion and coupled to the filtering screen , and a collecting portion in a hollow cone shape collecting the catalyst particles in the gas discharged toward the upper portion of the fluidized bed reactor ; and a plurality of connecting portions provided at a predetermined interval along a circumference of the collecting portion and coupled to the filtering screen , and wherein the plurality of conical caps are provided on each filtering screen while being spaced apart from each other at a predetermined interval,
A computed tomography device for optimizing values of scan parameters for a scan of an object, the computed tomography device comprising: - an exposure time determination unit configured for determining an object specific exposure time based on a maximal required value of a z-dependent tube current by exposure time product profile along a z-axis of the object and a maximal available tube current value of a tube used for the scan of the object, and - a scan parameter determination unit configured for determining the values of the scan parameters for the scan of the object based on the object specific exposure time, wherein the maximal available tube current value depends on a tube voltage and maximal electric power of the tube at given focal spot area, and wherein the z-dependent tube current by exposure time product profile is based on a dose index value or a pixel noise index value for the scan of the object, the tube voltage, and a z-dependent object size along the z-axis, wherein the scan parameter determination unit is configured for determining the values of the scan parameters based on maximizing a Figure of Merit that is defined as Figure of Merit = table speed a exposure time b ⋅ dose length product c , with a, b and c being constant. - an exposure time determination unit configured for determining an object specific exposure time based on a maximal required value of a z-dependent tube current by exposure time product profile along a z-axis of the object and a maximal available tube current value of a tube used for the scan of the object, and - a scan parameter determination unit configured for determining the values of the scan parameters for the scan of the object based on the object specific exposure time, wherein the maximal available tube current value depends on a tube voltage and maximal electric power of the tube at given focal spot area, and
A method of forming a hinge for a computing device, comprising: forming a shaft to move rotationally; forming a sliding component to move translationally as a result of rotational movement of the shaft; and forming a locking mechanism, wherein the locking mechanism is adapted to inhibit translational movement of the sliding component via locking components that are configured to apply a force to the sliding component, characterized in that the locking mechanism is self-locking such that the locking mechanism applies increasing pressure to the sliding component based on an increasing frictional force between the sliding component and the locking mechanism, the locking component defining an opening, wherein the sliding component is to move translationally through the opening; and the locking mechanism further comprises a spring to apply pressure to the locking component, wherein movement of the sliding component is inhibited by the pressure applied to the locking component resulting in an increased pressure on the sliding component. forming a shaft to move rotationally; forming a sliding component to move translationally as a result of rotational movement of the shaft; and forming a locking mechanism, wherein the locking mechanism is adapted to inhibit translational movement of the sliding component via locking components that are configured to apply a force to the sliding component, characterized in that the locking mechanism is self-locking such that the locking mechanism applies increasing pressure to the sliding component based on an increasing frictional force between the sliding component and the locking mechanism, the locking component defining an opening, wherein the sliding component is to move translationally through the opening; and the locking mechanism further comprises a spring to apply pressure to the locking component, wherein movement of the sliding component is inhibited by the pressure applied to the locking component resulting in an increased pressure on the sliding component.
A method for controlling an internal combustion engine , wherein: - the internal combustion engine is mounted on a series hybrid vehicle , - the series hybrid vehicle comprises a traveling mode to travel only with a driving force of an electric drive motor , - the internal combustion engine is capable of being operated at an air-fuel ratio leaner than a theoretical air-fuel ratio, - the method comprises determining whether to stop the internal combustion engine , in a state in which the internal combustion engine is operated, in consideration of a NOx adsorption ratio of a NOx purification catalyst provided in an exhaust passage of the internal combustion engine , - wherein the NOx adsorption ratio is a ratio of a NOx adsorption amount to a maximum value of a NOx amount that can be absorbed by the NOx purification catalyst , - a determination condition for permitting the stop of the internal combustion engine is relaxed as the NOx adsorption ratio is higher, - wherein a power threshold is set according to a vehicle speed, a SOC of a battery , and the NOx adsorption ratio, the power threshold being a threshold of electric power required by the vehicle for travelling and for auxiliary machinery, - the power threshold is set such that the higher the NOx adsorption ratio is, the larger the power threshold is, and - when an electric power consumption of the hybrid vehicle is smaller than the power threshold, the stop of the internal combustion engine is permitted. - the internal combustion engine is mounted on a series hybrid vehicle , - the series hybrid vehicle comprises a traveling mode to travel only with a driving force of an electric drive motor , - the internal combustion engine is capable of being operated at an air-fuel ratio leaner than a theoretical air-fuel ratio, - the method comprises determining whether to stop the internal combustion engine , in a state in which the internal combustion engine is operated, in consideration of a NOx adsorption ratio of a NOx purification catalyst provided in an exhaust passage of the internal combustion engine , - wherein the NOx adsorption ratio is a ratio of a NOx adsorption amount to a maximum value of a NOx amount that can be absorbed by the NOx purification catalyst , - a determination condition for permitting the stop of the internal combustion engine is relaxed as the NOx adsorption ratio is higher, - wherein a power threshold is set according to a vehicle speed, a SOC of a battery , and the NOx adsorption ratio, the power threshold being a threshold of electric power required by the vehicle for travelling and for auxiliary machinery, - the power threshold is set such that the higher the NOx adsorption ratio is, the larger the power threshold is, and - when an electric power consumption of the hybrid vehicle is smaller than the power threshold, the stop of the internal combustion engine is permitted.
A hoist load sensor system, comprising: a boom assembly ; a strain load sensor mechanically connectable to the boom assembly , wherein the strain load sensor is, in use, mounted on a flat surface of the boom assembly , wherein the strain load sensor is disposed in the load path of the boom assembly , wherein the flat surface is configured to create a surface that elastically deforms under load on the boom assembly , wherein the strain load sensor is configured to produce an output voltage with a predetermined relationship to the load on the boom assembly and the flat surface ; an amplifier mechanically connectable to the boom assembly and electronically coupled to the strain load sensor , wherein the amplifier is configured to amplify a signal generated by the strain load sensor ; a low-pass filter electronically connectable to the boom assembly and electronically coupled to the amplifier , wherein the low-pass filter is configured to filter an amplified signal from the amplifier; an input/output connector electronically coupled to the low-pass filter , wherein the input/output connector is configured to output a filtered signal from the low-pass filter ; an electromagnetic interference (EMI) filter , wherein the EMI filter is configured to filter a power signal from the input/output connector ; and a precision reference component , wherein the precision reference component is configured to generate a reference signal for use by the strain load sensor . a boom assembly ; a strain load sensor mechanically connectable to the boom assembly , wherein the strain load sensor is, in use, mounted on a flat surface of the boom assembly , wherein the strain load sensor is disposed in the load path of the boom assembly , wherein the flat surface is configured to create a surface that elastically deforms under load on the boom assembly , wherein the strain load sensor is configured to produce an output voltage with a predetermined relationship to the load on the boom assembly and the flat surface ; an amplifier mechanically connectable to the boom assembly and electronically coupled to the strain load sensor , wherein the amplifier is configured to amplify a signal generated by the strain load sensor ; a low-pass filter electronically connectable to the boom assembly and electronically coupled to the amplifier , wherein the low-pass filter is configured to filter an amplified signal from the amplifier; an input/output connector electronically coupled to the low-pass filter , wherein the input/output connector is configured to output a filtered signal from the low-pass filter ; an electromagnetic interference (EMI) filter , wherein the EMI filter is configured to filter a power signal from the input/output connector ; and a precision reference component , wherein the precision reference component is configured to generate a reference signal for use by the strain load sensor .
A glycopeptide compound or pharmaceutically acceptable salt thereof of Formula (I), wherein: R1 is H or a mono-substituted benzyl substituted by halogen; R2 is H; R3 is H or n-decyl; and NR4R5 is morpholino. R1 is H or a mono-substituted benzyl substituted by halogen; R2 is H; R3 is H or n-decyl; and NR4R5 is morpholino.
Injector for implantation of an intraocular lens , having a base body and an elongated actuation element , which projects at least partly into a rear section of the base body and which is movably guided in an actuation axis , and wherein a movement of the actuation element into the base body can be generated selectively by means of a push actuation (P) along the actuation axis or by means of a screw actuation (S) about the actuation axis , and wherein the actuation element features an external thread at least on one section, wherein a switch element , which can be rotated about the actuation axis , is arranged on the base body and has a passage, through which the actuation element extends, characterized in, that at least one spring arm is arranged at the base body , wherein the spring arm has a thread engagement structure on an inner surface facing the external thread , and wherein the passage of the switch element features at least one inner surface having an inner radius (Ri) varying at least in sections in a circumferential direction, and wherein an outer surface of the spring arm is in contact with the inner surface of the switch element , so that upon a rotation of the switch element about the actuation axis , due to the varying inner radius (Ri) at the circumferential position of the spring arm , an elastic deformation of the spring arm towards the actuation axis and away from the actuation axis can be generated, whereby the thread engagement structure can be selectively engaged or disengaged with the external thread .
An optically-enabled integrated circuit package for connecting an electrical circuit board to an optical fibre , the package comprising: a. a microchip ; b. a substrate comprising electrical connections for routing signals between the microchip and the electrical circuit board; and c. an optical sub-assembly (OSA) having a laser which is pre-aligned with the optical fibre, the OSA further comprising a standard electrical interface connecting the OSA to the microchip ; characterised in that the OSA further comprises a standard optical interface for connecting to the optical fibre, the OSA thereby connecting the microchip to the laser which is in turn optically connected to the optical fibre ; wherein the microchip is configured to access the electrical connections of the electrical circuit board via the substrate and access optical connections via the OSA , the package further comprising a housing comprising a first zone in which is located the microchip and a second zone in which is located the OSA . a. a microchip ; b. a substrate comprising electrical connections for routing signals between the microchip and the electrical circuit board; and c. an optical sub-assembly (OSA) having a laser which is pre-aligned with the optical fibre, the OSA further comprising a standard electrical interface connecting the OSA to the microchip ;
A method comprising: for an optical fiber span coupled between a first node and a second node, obtaining a first receive power measurement at the second node with a controlled optical source at the first node turned on and with a plurality of Raman pump lasers at different wavelengths at the second node turned off; obtaining a second receive power measurement at the second node with the controlled optical source at the first node turned on and the plurality of Raman pump lasers turned on to respective power levels to inject optical Raman pump power into the optical fiber span; obtaining a noise measurement at the second node with the controlled optical source at the first node turned off and the plurality of Raman pump lasers turned on to the respective power levels; computing a measured Raman gain based on the first receive power measurement, the noise measurement, and the second receive power measurement; and setting the respective power levels of the plurality of Raman pump lasers to bring the measured Raman gain closer to a target Raman gain. for an optical fiber span coupled between a first node and a second node, obtaining a first receive power measurement at the second node with a controlled optical source at the first node turned on and with a plurality of Raman pump lasers at different wavelengths at the second node turned off; obtaining a second receive power measurement at the second node with the controlled optical source at the first node turned on and the plurality of Raman pump lasers turned on to respective power levels to inject optical Raman pump power into the optical fiber span; obtaining a noise measurement at the second node with the controlled optical source at the first node turned off and the plurality of Raman pump lasers turned on to the respective power levels; computing a measured Raman gain based on the first receive power measurement, the noise measurement, and the second receive power measurement; and setting the respective power levels of the plurality of Raman pump lasers to bring the measured Raman gain closer to a target Raman gain.