mhurhangee/patent-ind-claim-en huggingface dataset:
An agricultural baler comprising a baling chamber and a pre-compression chamber , wherein the pre-compression chamber is adapted to gather crop material via a rotor and to periodically form a slice of said crop material and introduce the slice towards the baling chamber into a first segment of the baling chamber , the baling chamber comprising a plunger provided for reciprocally moving in the baling chamber thereby compressing slices of crop material into a bale, the baling chamber further at least comprising a movable top wall, characterized in that the first segment comprises at least one sensor , the at least one sensor being provided for outputting a first signal relating to a height of the slice in the first segment, and a second signal , and wherein the movable top wall comprises a position sensor provided for outputting a third signal relating to a position of the movable top wall, wherein the baler further comprises a signal processor adapted to receive the first signal , second signal and third signal and configured to adjust baler operation parameters of the agricultural baler based on the received signals; and in that the second signal relates to a speed of introduction of the slice in the first segment , and in that the at least one sensor comprises a first sensor arranged in a central top section of said first segment of the baling chamber, and a second and a third sensor arranged in respectively a left top section and a right top section of said first segment of the baling chamber .
A solid form of a compound, wherein the compound is the compound of formula (I) or an isotopically labeled compound of compound of formula (I), or an optical isomer of compound of formula (I), or a geometric isomer of compound of formula (I), or a tautomer of compound of formula (I),a pharmaceutically acceptable salt of compound of formula (I), or a solvate of any one of these compounds, wherein the solid form of a compound is a crystal form. or an isotopically labeled compound of compound of formula (I), or an optical isomer of compound of formula (I), or a geometric isomer of compound of formula (I), or a tautomer of compound of formula (I),a pharmaceutically acceptable salt of compound of formula (I), or a solvate of any one of these compounds, wherein the solid form of a compound is a crystal form.
Drain (100; 120) for mounting on a plate, such as a foam plate, which drain comprises: - a collecting tray with a bottom, an upright wall along the periphery of the bottom and an outlet opening ; - a fastening ring for coupling to the collecting tray , which fastening ring has a peripheral wall (111; 121) directed downward on the inner edge of the ring , which downward directed peripheral wall (111; 121) extends inside the upright wall of the collecting tray ; - a sealing ring arranged between the downward directed peripheral wall (111; 121) and the upright wall ; and - coupling means for coupling the fastening ring to the collecting tray ; characterized in that the coupling means comprise at least one resilient finger arranged parallel to the upright wall and on the inner side of the upright wall , wherein the at least one resilient finger has a first edge arranged on the free end thereof; and wherein the coupling means comprise a second edge (112; 122) oriented in radial direction of the fastening ring and arranged on the downward directed peripheral wall (111; 121), which second edge (112; 122) engages on the first edge of the at least one resilient finger during axial displacement of the upright wall relative to the downward directed wall (111; 121). - a collecting tray with a bottom, an upright wall along the periphery of the bottom and an outlet opening ; - a fastening ring for coupling to the collecting tray , which fastening ring has a peripheral wall (111; 121) directed downward on the inner edge of the ring , which downward directed peripheral wall (111; 121) extends inside the upright wall of the collecting tray ; - a sealing ring arranged between the downward directed peripheral wall (111; 121) and the upright wall ; and - coupling means for coupling the fastening ring to the collecting tray ;
Apparatus for providing an aligned bunch of items of media, comprising: a disposal slot ; a driven drum arranged to rotate about a drum axis of rotation; and at least one driven endless belt , each arranged along a respective belt pathway, the belt pathway comprising a pathway portion in which the belt extends in a cooperating relationship with more than sixty per cent of the circumference of an outer surface of the drum ; wherein the drum and said at least one belt co-operate to receive and align items of media therebetween; the apparatus further comprising at least one guide element selectively locatable in a stack position in which items of media are rotated about the drum , and an exit position in which an item of media or bunch of items are discharged to the disposal slot ; characterised in that said at least one guide element comprises a guide finger member comprising, at a first end region thereof, an abutment surface and a pulley arranged to locate a belt pathway; and the guide finger member is rotatable about a pivot point at a further end region thereof, the stack position of the guide element corresponding to the finger member being rotated towards the drum to locate the abutment surface and belt proximate to the drum ; the exit position of the guide element corresponding to the finger member being rotated away from the drum to locate the abutment surface and belt distal from the drum .
A method, being performed by the system of claim 9, comprising: performing amplitude-based detection to determine locations of amplitude R-peaks for a plurality of electrograms corresponding to respective channels; determining a group of amplitude R-peaks that exceed an amplitude cutoff, each in a different one of the plurality of electrograms; performing wavelet-based detection to determine locations of wavelet R-peaks for the plurality of electrograms; adjusting the locations of wavelet R-peaks, each in a different one of the plurality of electrograms, to place them at a consistent location relative to QRS complex morphology for each respective electrogram based on the locations of amplitude R-peaks in the group of amplitude R-peaks; and storing, in memory, R-peak location data to specify R-peak locations for the plurality of electrograms based on the adjusting. performing amplitude-based detection to determine locations of amplitude R-peaks for a plurality of electrograms corresponding to respective channels; determining a group of amplitude R-peaks that exceed an amplitude cutoff, each in a different one of the plurality of electrograms; performing wavelet-based detection to determine locations of wavelet R-peaks for the plurality of electrograms; adjusting the locations of wavelet R-peaks, each in a different one of the plurality of electrograms, to place them at a consistent location relative to QRS complex morphology for each respective electrogram based on the locations of amplitude R-peaks in the group of amplitude R-peaks; and storing, in memory, R-peak location data to specify R-peak locations for the plurality of electrograms based on the adjusting.
A system , comprising: at least one current collector layer ; an energy device that includes an active region configured to generate or consume electrical current and thereby form a current providing or consuming device, and a current limiter comprising a plurality of electrochemical transistors (131-1, 131-2, 631-1, 632-2) disposed between the active region and the current collector layer, the plurality of electrochemical transistors, ECTs, arranged in an array such that each ECT in the array provides localized current control for the current providing or consuming device, each ECT comprising: a drain electrode ; a source electrode (406, 621-1, 621-2); a channel (404, 632-1, 632-2) disposed between the drain and the source electrodes; a gate electrode (402, 633-1, 633-2), wherein the gate electrode is disposed directly on the current collector layer; an electrolyte that electrically couples the gate electrode to the channel such that an electrical signal at the gate electrode controls electrical conductivity of the channel, wherein the current collector layer is a shared drain or source electrode for the ECTs. at least one current collector layer ; an energy device that includes an active region configured to generate or consume electrical current and thereby form a current providing or consuming device, and a current limiter comprising a plurality of electrochemical transistors (131-1, 131-2, 631-1, 632-2) disposed between the active region and the current collector layer, the plurality of electrochemical transistors, ECTs, arranged in an array such that each ECT in the array provides localized current control for the current providing or consuming device, each ECT comprising: a drain electrode ; a source electrode (406, 621-1, 621-2); a channel (404, 632-1, 632-2) disposed between the drain and the source electrodes; a gate electrode (402, 633-1, 633-2), wherein the gate electrode is disposed directly on the current collector layer; an electrolyte that electrically couples the gate electrode to the channel such that an electrical signal at the gate electrode controls electrical conductivity of the channel, wherein the current collector layer is a shared drain or source electrode for the ECTs. a drain electrode ; a source electrode (406, 621-1, 621-2); a channel (404, 632-1, 632-2) disposed between the drain and the source electrodes; a gate electrode (402, 633-1, 633-2), wherein the gate electrode is disposed directly on the current collector layer; an electrolyte that electrically couples the gate electrode to the channel such that an electrical signal at the gate electrode controls electrical conductivity of the channel, wherein the current collector layer is a shared drain or source electrode for the ECTs.
An earth working machine , such as a road milling machine, recycler, stabilizer, or surface miner, encompassing a machine body having a machine frame and a drive configuration (46; 146; 246), rotationally drivable relative to the machine frame around a drive axis (A) that defines an axial direction, that extends along the drive rotation axis (A) from an introduction longitudinal end at which the drive configuration (46; 146; 246) is embodied for introduction of a drive torque to a functional longitudinal end (46b; 146b; 246b) located axially oppositely from the introduction longitudinal end , and to which configuration a working apparatus (32; 132; 232) embodied for earth working is releasably connected in torque-transferring fashion, in an operating position operational for earth working, for rotation together around the drive axis (A), such that when the connection is released, the working apparatus (32; 132; 232) is removable from the operating position in an axial direction relative to the drive configuration (46; 146; 246) for deinstallation from the drive configuration (46; 146; 246) and, for installation on the drive configuration (46; 146; 246), is conveyable into the operating position in an axial direction relative to the drive configuration (46; 146; 246), an actuator (65; 165; 265) being provided which is embodied to move the working apparatus (32; 132; 232) out of the operating position when the connection is released, characterized in that the actuator (65; 165; 265) comprises an actuator member and an actuator housing which is provided on the drive configuration (46; 146; 246) for movement together therewith, at a position that is located closer to the functional longitudinal end (46b; 146b; 246b) than to the introduction longitudinal end , the actuator member of the actuator being movable relative to the actuator housing .
An optical computing device to provide an optical Ising machine, comprising: a parametric oscillator array , configured to receive a first group of signals, and generate a first group of optical signals based on the first group of signals, wherein the first group of optical signals comprises a plurality of first optical signals; an interaction computing array , connected to the parametric oscillator array , and configured to receive the first group of optical signals, and perform matrix operation on the first group of optical signals based on a preset matrix to obtain a second group of optical signals, wherein the second group of optical signals comprises a plurality of second optical signals; a first feedback module , connected to two ends of the parametric oscillator array , and configured to receive the first group of optical signals, and transmit the first group of optical signals to the parametric oscillator array ; a second feedback module , connected to the parametric oscillator array and the interaction computing array , and configured to receive the second group of optical signals, and transmit the second group of optical signals to the parametric oscillator array ; and a phase detector, connected to an output end of the parametric oscillator array , and configured to detect a phase of each optical signal in a group of optical signals output by the parametric oscillator array , wherein a final computing result is determined, when the phase of each optical signal meets a preset condition. a parametric oscillator array , configured to receive a first group of signals, and generate a first group of optical signals based on the first group of signals, wherein the first group of optical signals comprises a plurality of first optical signals; an interaction computing array , connected to the parametric oscillator array , and configured to receive the first group of optical signals, and perform matrix operation on the first group of optical signals based on a preset matrix to obtain a second group of optical signals, wherein the second group of optical signals comprises a plurality of second optical signals; a first feedback module , connected to two ends of the parametric oscillator array , and configured to receive the first group of optical signals, and transmit the first group of optical signals to the parametric oscillator array ; a second feedback module , connected to the parametric oscillator array and the interaction computing array , and configured to receive the second group of optical signals, and transmit the second group of optical signals to the parametric oscillator array ; and a phase detector, connected to an output end of the parametric oscillator array , and configured to detect a phase of each optical signal in a group of optical signals output by the parametric oscillator array , wherein a final computing result is determined, when the phase of each optical signal meets a preset condition.
A method for evaluating the degree of corrosion protection provided by a corrosion product layer formed on a metal surface from exposure to a corrosive fluid, comprising: selecting a fluid containing naphthenic acid with TAN at least 0.5mg/gKOH; said fluid having a maximum sulfur content of 4% by weight pre-treating the metal surface by exposing the metal surface to the fluid for a predetermined time period in the range of 16-48 hours and at a predetermined temperature in the range of 200-440°C to form a corrosion product layer thereon; identifying the corrosion protection potential of the corrosion product layer adjacent to the metal surface by examining the morphology and chemical composition of the corrosion product layer adjacent to the metal surface to confirm the formation of a spinel-type oxide layer immediately adjacent to the metal surface. selecting a fluid containing naphthenic acid with TAN at least 0.5mg/gKOH; said fluid having a maximum sulfur content of 4% by weight pre-treating the metal surface by exposing the metal surface to the fluid for a predetermined time period in the range of 16-48 hours and at a predetermined temperature in the range of 200-440°C to form a corrosion product layer thereon; identifying the corrosion protection potential of the corrosion product layer adjacent to the metal surface by examining the morphology and chemical composition of the corrosion product layer adjacent to the metal surface to confirm the formation of a spinel-type oxide layer immediately adjacent to the metal surface.
A light source member (LU) comprising: a guide panel (GP); a light source (LS) disposed adjacent to at least one side of the guide panel; a low refractive layer (LRL) disposed on the guide panel, the low refractive layer having a refractive index lower than the refractive index of the guide panel; and a color converting layer (CCL) disposed on the low refractive layer and comprising a base resin (BR) and a plurality of quantum dots (EB) dispersed in the base resin, wherein: the low refractive layer comprises a base part (MX), a plurality of low refractive substances (LR) dispersed in the base part, and a plurality of individual voids (VD) disposed in the base part, characterised in that : the low refractive substances have a refractive index in a range of about 1.0 to about 1.3; and a total area occupied by the plurality of individual voids in a cross-section of the low refractive layer is less than about 20% of the entire area of the cross-section. a guide panel (GP); a light source (LS) disposed adjacent to at least one side of the guide panel; a low refractive layer (LRL) disposed on the guide panel, the low refractive layer having a refractive index lower than the refractive index of the guide panel; and a color converting layer (CCL) disposed on the low refractive layer and comprising a base resin (BR) and a plurality of quantum dots (EB) dispersed in the base resin, wherein: the low refractive layer comprises a base part (MX), a plurality of low refractive substances (LR) dispersed in the base part, and a plurality of individual voids (VD) disposed in the base part, characterised in that : the low refractive substances have a refractive index in a range of about 1.0 to about 1.3; and a total area occupied by the plurality of individual voids in a cross-section of the low refractive layer is less than about 20% of the entire area of the cross-section. the low refractive layer comprises a base part (MX), a plurality of low refractive substances (LR) dispersed in the base part, and a plurality of individual voids (VD) disposed in the base part, characterised in that : the low refractive substances have a refractive index in a range of about 1.0 to about 1.3; and a total area occupied by the plurality of individual voids in a cross-section of the low refractive layer is less than about 20% of the entire area of the cross-section. the low refractive substances have a refractive index in a range of about 1.0 to about 1.3; and a total area occupied by the plurality of individual voids in a cross-section of the low refractive layer is less than about 20% of the entire area of the cross-section.
A laser distance measurement device , comprising: a transmission circuit , configured to emit at least two laser pulse sequences, wherein the at least two laser pulse sequences have different emission paths and the at least two laser pulse sequences are emitted at different times; a receiving circuit , configured to receive each laser pulse sequence of the at least two laser pulse sequences reflected by an object to be detected and perform photoelectric conversion on each received laser pulse sequence to obtain each electrical signal of at least two electrical signals; a sampling circuit , configured to sample each electrical signal to obtain sampling results; a processing circuit , configured to determine a distance to the object to be detected according to the sampling results, wherein: drive signals in the transmission circuit that correspond to the at least two laser pulse sequences share at least one multiplexed device of the transmission circuit , wherein the drive signals include a signal for a driver to drive a switch device of a laser diode and a signal for the switch device to control the laser diode , and wherein the at least one multiplexed device is at least one of the switch device and the driver . a transmission circuit , configured to emit at least two laser pulse sequences, wherein the at least two laser pulse sequences have different emission paths and the at least two laser pulse sequences are emitted at different times; a receiving circuit , configured to receive each laser pulse sequence of the at least two laser pulse sequences reflected by an object to be detected and perform photoelectric conversion on each received laser pulse sequence to obtain each electrical signal of at least two electrical signals; a sampling circuit , configured to sample each electrical signal to obtain sampling results; a processing circuit , configured to determine a distance to the object to be detected according to the sampling results, wherein: drive signals in the transmission circuit that correspond to the at least two laser pulse sequences share at least one multiplexed device of the transmission circuit , wherein the drive signals include a signal for a driver to drive a switch device of a laser diode and a signal for the switch device to control the laser diode , and wherein the at least one multiplexed device is at least one of the switch device and the driver . drive signals in the transmission circuit that correspond to the at least two laser pulse sequences share at least one multiplexed device of the transmission circuit , wherein the drive signals include a signal for a driver to drive a switch device of a laser diode and a signal for the switch device to control the laser diode , and wherein the at least one multiplexed device is at least one of the switch device and the driver .