mhurhangee/ep-ind-claims huggingface dataset:
A process for the removal of by-products from a phenolic mixture, which process comprises the following steps: - subjecting a phenolic mixture to extractive distillation to produce an initial phenolic mixture, - contacting said initial phenolic mixture containing phenol and one or more by-products with a catalyst to produce a first purified phenol product mixture, and - distilling the first purified phenol product mixture to produce a second purified phenol product mixture; - wherein the extractive distillation is carried out in two columns, a higher pressure column and a lower pressure column. - subjecting a phenolic mixture to extractive distillation to produce an initial phenolic mixture, - contacting said initial phenolic mixture containing phenol and one or more by-products with a catalyst to produce a first purified phenol product mixture, and - distilling the first purified phenol product mixture to produce a second purified phenol product mixture; - wherein the extractive distillation is carried out in two columns, a higher pressure column and a lower pressure column.
A protector for optical fiber comprising: a protector main body that includes a fiber receiving passage for receiving an optical fiber; and a ferrule holding portion that is integrally mounted to the protector main body for holding a ferrule, wherein the fiber receiving passage is defined by an inner circumference side bending side wall, an outer circumference side bending side wall and a bottom surface wall, characterized in that a reinforcing portion is installed to the inner circumference side bending side wall, the reinforcing portion links one end with the other end of the inner circumference side bending side wall, and one end of the reinforcing portion links to the ferrule holding portion. a protector main body that includes a fiber receiving passage for receiving an optical fiber; and a ferrule holding portion that is integrally mounted to the protector main body for holding a ferrule, wherein the fiber receiving passage is defined by an inner circumference side bending side wall, an outer circumference side bending side wall and a bottom surface wall, characterized in that a reinforcing portion is installed to the inner circumference side bending side wall, the reinforcing portion links one end with the other end of the inner circumference side bending side wall, and one end of the reinforcing portion links to the ferrule holding portion.
A method of operating a data processing system, the method comprising: communicatively coupling graphics processing units, GPUs, (1161, 1162) over a Peripheral Component Interconnect Express, PCIe, fabric; and establishing a peer-to-peer arrangement between the GPUs (1161, 1162) over the PCIe fabric by at least providing an isolation function in the PCIe fabric configured to isolate a device PCIe address domain associated with the GPUs (1161, 1162) from at least a local PCIe address domain associated with a host processor that initiates the peer-to-peer arrangement between the GPUs (1161, 1162) isolating the device PCIe address domain from the local PCIe address domain by at least establishing synthetic PCIe devices (1141, 1142) representing the GPUs (1161, 1162) in the local PCIe address domain; redirecting traffic transferred by the host processor for the GPUs (1161, 1162) in the local PCIe address domain for delivery to corresponding ones of the GPUs (1161, 1162) in the device PCIe address domain; and responsive to peer-to-peer traffic from a first of the GPUs (1161, 1162) indicating the second of the GPUs (1161, 1162) as a destination in the local PCIe address domain, employing a peer-to-peer address trap in the isolation function to receive the peer-to-peer traffic and transfer the peer-to-peer traffic to the second of the GPUs (1161, 1162) in the device PCIe address domain. communicatively coupling graphics processing units, GPUs, (1161, 1162) over a Peripheral Component Interconnect Express, PCIe, fabric; and establishing a peer-to-peer arrangement between the GPUs (1161, 1162) over the PCIe fabric by at least providing an isolation function in the PCIe fabric configured to isolate a device PCIe address domain associated with the GPUs (1161, 1162) from at least a local PCIe address domain associated with a host processor that initiates the peer-to-peer arrangement between the GPUs (1161, 1162) isolating the device PCIe address domain from the local PCIe address domain by at least establishing synthetic PCIe devices (1141, 1142) representing the GPUs (1161, 1162) in the local PCIe address domain; redirecting traffic transferred by the host processor for the GPUs (1161, 1162) in the local PCIe address domain for delivery to corresponding ones of the GPUs (1161, 1162) in the device PCIe address domain; and responsive to peer-to-peer traffic from a first of the GPUs (1161, 1162) indicating the second of the GPUs (1161, 1162) as a destination in the local PCIe address domain, employing a peer-to-peer address trap in the isolation function to receive the peer-to-peer traffic and transfer the peer-to-peer traffic to the second of the GPUs (1161, 1162) in the device PCIe address domain.
A compound represented by formula or an N -oxide thereof, or a pharmaceutically acceptable salt thereof: wherein -(X-M-Q)- represents an optionally substituted five-membered heteroaromatic ring selected from furyl, thienyl, pyrrolyl, pyrazolyl, oxazolyl, isoxazolyl, thiazolyl, isothiazolyl, imidazolyl, oxadiazolyl, thiadiazolyl, triazolyl and tetrazolyl; R 1 represents halogen; or R 1 represents heteroaryl or (C 3-7)cycloalkyl-heteroaryl-, either of which groups may be optionally substituted by one or more substituents; R 2 represents hydrogen or halogen; R 5 represents difluoromethoxy or -OR a R a represents optionally substituted C 1-6 alkyl; R 6, represents hydrogen, halogen or trifluoromethyl; R 7 represents hydrogen or trifluoromethyl; and R 8 represents hydrogen or trifluoromethyl. -(X-M-Q)- represents an optionally substituted five-membered heteroaromatic ring selected from furyl, thienyl, pyrrolyl, pyrazolyl, oxazolyl, isoxazolyl, thiazolyl, isothiazolyl, imidazolyl, oxadiazolyl, thiadiazolyl, triazolyl and tetrazolyl; R 1 represents halogen; or R 1 represents heteroaryl or (C 3-7)cycloalkyl-heteroaryl-, either of which groups may be optionally substituted by one or more substituents; R 2 represents hydrogen or halogen; R 5 represents difluoromethoxy or -OR a R a represents optionally substituted C 1-6 alkyl; R 6, represents hydrogen, halogen or trifluoromethyl; R 7 represents hydrogen or trifluoromethyl; and R 8 represents hydrogen or trifluoromethyl.
A decoder for generating a frequency enhanced audio signal, comprising: a feature extractor for extracting a feature from a core signal; a side information extractor for extracting a selection side information associated with the core signal; a parameter generator for generating a parametric representation for estimating a spectral range of the frequency enhanced audio signal not defined by the core signal, wherein the parameter generator is configured to provide a number of parametric representation alternatives (702, 704, 706, 708) in response to the feature, and wherein the parameter generator is configured to select one of the parametric representation alternatives as the parametric representation in response to the selection side information (712 to 718); a signal estimator for estimating the frequency enhanced audio signal using the parametric representation selected; and a signal classifier for classifying a frame of the core signal, wherein the parameter generator is configured to use a first statistical model, when a signal frame is classified to belong to a first class of signals and to use a second different statistical model, when the frame is classified into a second different class of signals. a feature extractor for extracting a feature from a core signal; a side information extractor for extracting a selection side information associated with the core signal; a parameter generator for generating a parametric representation for estimating a spectral range of the frequency enhanced audio signal not defined by the core signal, wherein the parameter generator is configured to provide a number of parametric representation alternatives (702, 704, 706, 708) in response to the feature, and wherein the parameter generator is configured to select one of the parametric representation alternatives as the parametric representation in response to the selection side information (712 to 718); a signal estimator for estimating the frequency enhanced audio signal using the parametric representation selected; and a signal classifier for classifying a frame of the core signal, wherein the parameter generator is configured to use a first statistical model, when a signal frame is classified to belong to a first class of signals and to use a second different statistical model, when the frame is classified into a second different class of signals.
LED light source comprising a first LED strip equipped with - input terminals (1,3) for connection to a DC-supply source; - a load (LS, R) comprising a plurality of parallel series arrangements; - several conductive paths (1, 2, 3), at least connecting the series arrangements between the input terminals (1, 3); - each series arrangement comprises a LED string and a resistor in series; the LED light source being characterised in that: - each series arrangement has a common terminal between the LED string and the resistor; and - a sensing conductive path of the several conductive paths (1, 2, 3) connecting the common terminals of each of the series arrangements of the plurality of series arrangements. - input terminals (1,3) for connection to a DC-supply source; - a load (LS, R) comprising a plurality of parallel series arrangements; - several conductive paths (1, 2, 3), at least connecting the series arrangements between the input terminals (1, 3); - each series arrangement comprises a LED string and a resistor in series; the LED light source being characterised in that: - each series arrangement has a common terminal between the LED string and the resistor; and - a sensing conductive path of the several conductive paths (1, 2, 3) connecting the common terminals of each of the series arrangements of the plurality of series arrangements. - each series arrangement has a common terminal between the LED string and the resistor; and - a sensing conductive path of the several conductive paths (1, 2, 3) connecting the common terminals of each of the series arrangements of the plurality of series arrangements.
A rotary body driving apparatus, comprising: a rotary body being formed into a truncated pyramid shape and having a plurality of reflective surfaces whose inclination angles are different from each other; a motor having a rotor shaft; a rotor being attached to one end part of the rotor shaft together with the rotary body; a stator housing having a bearing section (10a, 10b), which rotatably holds the rotor shaft; a motor substrate provided to the stator housing; a magnetized section for frequency generation, the magnetized section being formed into a ring shape and being integrally attached along an outer edge of a maximum radial width part of the rotary body, on an end surface of the rotary body and facing the motor substrate; a circular frequency generation pattern, which faces the magnetized section, being provided to the motor substrate and disposed close to the magnetized section, the circular frequency generation pattern being for detecting a rotational position of the rotor; a position detecting section (16a, 16b), which is magnetized and which corresponds to a reference reflective surface of the rotary body, being radially outwardly or inwardly projected from a part of the magnetized section; and a magnetic sensor, which faces the position detecting section (16a, 16b), being provided to the motor substrate, the magnetic sensor being for detecting every time the rotary body rotates once from the reference reflective surface. a rotary body being formed into a truncated pyramid shape and having a plurality of reflective surfaces whose inclination angles are different from each other; a motor having a rotor shaft; a rotor being attached to one end part of the rotor shaft together with the rotary body; a stator housing having a bearing section (10a, 10b), which rotatably holds the rotor shaft; a motor substrate provided to the stator housing; a magnetized section for frequency generation, the magnetized section being formed into a ring shape and being integrally attached along an outer edge of a maximum radial width part of the rotary body, on an end surface of the rotary body and facing the motor substrate; a circular frequency generation pattern, which faces the magnetized section, being provided to the motor substrate and disposed close to the magnetized section, the circular frequency generation pattern being for detecting a rotational position of the rotor; a position detecting section (16a, 16b), which is magnetized and which corresponds to a reference reflective surface of the rotary body, being radially outwardly or inwardly projected from a part of the magnetized section; and a magnetic sensor, which faces the position detecting section (16a, 16b), being provided to the motor substrate, the magnetic sensor being for detecting every time the rotary body rotates once from the reference reflective surface.
Endless belt with a) a carrying side, a running side and a first and a second belt edge (24, 26) running along a running direction, b) a tension support being arranged between the carrying side and the running side, wherein the tension support has a fabric extending from the first to the second belt edge, wherein the fabric has, in a direction perpendicular to the running direction, at least two different materials, wherein the fabric has a first material in a region of the belt edges (24, 26) and a second material in a region facing away from the belt edges (24, 26), wherein the first material and the second material are different, characterized in that c) the first material in the region of the belt edges (24, 26) is food grade. a) a carrying side, a running side and a first and a second belt edge (24, 26) running along a running direction, b) a tension support being arranged between the carrying side and the running side, wherein the tension support has a fabric extending from the first to the second belt edge, wherein the fabric has, in a direction perpendicular to the running direction, at least two different materials, wherein the fabric has a first material in a region of the belt edges (24, 26) and a second material in a region facing away from the belt edges (24, 26), wherein the first material and the second material are different, characterized in that c) the first material in the region of the belt edges (24, 26) is food grade.
Feed-mixing wagon, comprising: - a container for receiving feed, which container is provided with a bottom, and a peripheral wall which is closed off at a bottom end by the bottom, wherein the container is provided, at a top end situated opposite the bottom, with a supply opening for supplying feed to the container, wherein the bottom and the peripheral wall each comprise an inner surface which extends in the container, wherein the peripheral wall is provided with a wall covering which extends at least along a bottom, ring-shaped part of the inner surface of the peripheral wall, wherein the wall covering comprises a plurality of wall plate parts, and - a mixing element for mixing the feed accommodated in the container, which mixing element is fitted in the container so as to be drivable and rotatable about a substantially vertical rotation axis, characterized in that the wall plate parts each comprise two upwardly extending side edges, and wherein the wall plate parts are arranged with these side edges adjoining each other, and wherein two adjoining side edges of at least two respective adjoining wall plate parts are clamped against the inner surface of the peripheral wall by means of clamping strips which overlap these adjoining side edges and which are attached to the peripheral wall of the container by means of detachable fasteners. - a container for receiving feed, which container is provided with a bottom, and a peripheral wall which is closed off at a bottom end by the bottom, wherein the container is provided, at a top end situated opposite the bottom, with a supply opening for supplying feed to the container, wherein the bottom and the peripheral wall each comprise an inner surface which extends in the container, wherein the peripheral wall is provided with a wall covering which extends at least along a bottom, ring-shaped part of the inner surface of the peripheral wall, wherein the wall covering comprises a plurality of wall plate parts, and - a mixing element for mixing the feed accommodated in the container, which mixing element is fitted in the container so as to be drivable and rotatable about a substantially vertical rotation axis,
A chemical mechanical polishing composition comprising: ceria-coated inorganic oxide particles; 0.0006 wt.% to 0.25 wt. % of a chemical additive comprising at least one organic carboxylic acid group(s), at least one carboxylate salt group, or at least one carboxylic ester group; and at least two hydroxyl functional groups in the same molecule; water soluble solvent; and optionally biocide and/or pH adjuster; wherein the composition has a pH of 4 to 9. ceria-coated inorganic oxide particles; 0.0006 wt.% to 0.25 wt. % of a chemical additive comprising at least one organic carboxylic acid group(s), at least one carboxylate salt group, or at least one carboxylic ester group; and at least two hydroxyl functional groups in the same molecule; water soluble solvent; and optionally biocide and/or pH adjuster; wherein the composition has a pH of 4 to 9.
Method (S1-S6) for storing images (S1, S2) recorded in time sequence during an operating process by means of a camera of a large household appliance, in which a) the images are stored (S2, S3) together with a time stamp and a rating number in a data storage unit with a predetermined number of storage places for the images, and then b) when all storage places are occupied with the images, of the images stored in the data storage unit those images are deleted, the rating number of which does not reach a predetermined threshold value, and there is a subsequent return to step a), wherein - the rating number of an image represents a measure of a difference in the pixels of this image with respect to pixels of an image recorded before it in the operating process and is greater as the differences in the pixels increase, and wherein - step b) is carried out (S5-S6) repeatedly up to the end of an operating process with an increasing rating number. a) the images are stored (S2, S3) together with a time stamp and a rating number in a data storage unit with a predetermined number of storage places for the images, and then b) when all storage places are occupied with the images, of the images stored in the data storage unit those images are deleted, the rating number of which does not reach a predetermined threshold value, and there is a subsequent return to step a), wherein - the rating number of an image represents a measure of a difference in the pixels of this image with respect to pixels of an image recorded before it in the operating process and is greater as the differences in the pixels increase, and wherein - step b) is carried out (S5-S6) repeatedly up to the end of an operating process with an increasing rating number. - the rating number of an image represents a measure of a difference in the pixels of this image with respect to pixels of an image recorded before it in the operating process and is greater as the differences in the pixels increase, and wherein - step b) is carried out (S5-S6) repeatedly up to the end of an operating process with an increasing rating number.
Method for machine-washing of textiles, in which method the textiles are washed in a washing machine (1; 11a-11f) with water and a washing agent or washing agents, and in which method at least one disinfecting agent is dosed in the washing process for disinfecting the textiles in the washing process, characterized in that the electrical conductivity or the pH value of the washing liquid, which comprises at least water and the washing agent or washing agents, is measured during the washing process first before the dosing of the disinfecting agent to the washing process and then a second time after the dosing of the disinfecting agent, and the two measurement values are compared to each other to confirm a successful dosing of the disinfecting agent to the washing process, and wherein the increased electrical conductivity of the washing liquid, or the decreased pH value of the washing liquid, between the two measurements indicate the successful dosing of the disinfecting agent to the washing process.
A method for performing clock synchronization among devices, comprising the following steps: A: performing coarse synchronization between clocks of both a home end and an opposite end by using a network time protocol, with high accuracy of the coarse synchronization up to second scale; B: initiating, by the home end, a two-way network delay measurement, and obtaining time when the opposite end transmits a response message, time when the home end receives a response message and a two-way frame delay, and using half of the two-way frame delay as a one-way frame delay; C: repeating the step B for predetermined times, and obtaining an average value of the time when the opposite end transmits a response message, an average value of the time when the home end receives a response message and an average one-way frame delay according to multiple obtained time when the opposite end transmits a response message, multiple obtained time when the home end receives a response message and multiple obtained one-way frame delays; D: subtracting the average value of the time when the home end receives a response message from the sum of the average value of the time when the opposite end transmits a response message and the average one-way frame delay, to obtain a time correction value; and E: obtaining local current time and correcting the local current time according to the time correction value by the home end. A: performing coarse synchronization between clocks of both a home end and an opposite end by using a network time protocol, with high accuracy of the coarse synchronization up to second scale; B: initiating, by the home end, a two-way network delay measurement, and obtaining time when the opposite end transmits a response message, time when the home end receives a response message and a two-way frame delay, and using half of the two-way frame delay as a one-way frame delay; C: repeating the step B for predetermined times, and obtaining an average value of the time when the opposite end transmits a response message, an average value of the time when the home end receives a response message and an average one-way frame delay according to multiple obtained time when the opposite end transmits a response message, multiple obtained time when the home end receives a response message and multiple obtained one-way frame delays; D: subtracting the average value of the time when the home end receives a response message from the sum of the average value of the time when the opposite end transmits a response message and the average one-way frame delay, to obtain a time correction value; and E: obtaining local current time and correcting the local current time according to the time correction value by the home end.