mhurhangee/ep-ind-claims huggingface dataset:
A nitride semiconductor device (110, 111, 120) comprising: a stacked foundation layer formed on an AIN buffer layer formed on a silicon substrate, the stacked foundation layer including a plurality of AIN foundation layers and a plurality of GaN foundation layers being alternately stacked with the AlN foundation layers; and a functional layer, the functional layer including: a low-concentration part provided on the stacked foundation layer, the low-concentration part including a nitride semiconductor and having a Si concentration less than 1 X 10 18 cm -3; and a high-concentration part provided on the low-concentration part and having a Si concentration not less than 1 X 10 18 cm -3, a substrate-side GaN foundation layer closest to the silicon substrate among the plurality of GaN foundation layers including: a first portion having a Si concentration less than 5 X 10 18 cm -3; a second portion having a Si concentration less than 5 X 10 18 cm -3; and a third portion (51 c) being provided between the first portion and the second portion, the third portion having a Si concentration not less than 5 X 10 18 cm -3 and having a thickness smaller than a sum of a thickness of the first portion and a thickness of the second portion, and the third portion including silicon nitride. a stacked foundation layer formed on an AIN buffer layer formed on a silicon substrate, the stacked foundation layer including a plurality of AIN foundation layers and a plurality of GaN foundation layers being alternately stacked with the AlN foundation layers; and a functional layer, the functional layer including: a low-concentration part provided on the stacked foundation layer, the low-concentration part including a nitride semiconductor and having a Si concentration less than 1 X 10 18 cm -3; and a high-concentration part provided on the low-concentration part and having a Si concentration not less than 1 X 10 18 cm -3, a low-concentration part provided on the stacked foundation layer, the low-concentration part including a nitride semiconductor and having a Si concentration less than 1 X 10 18 cm -3; and a high-concentration part provided on the low-concentration part and having a Si concentration not less than 1 X 10 18 cm -3, a substrate-side GaN foundation layer closest to the silicon substrate among the plurality of GaN foundation layers including: a first portion having a Si concentration less than 5 X 10 18 cm -3; a second portion having a Si concentration less than 5 X 10 18 cm -3; and a first portion having a Si concentration less than 5 X 10 18 cm -3; a second portion having a Si concentration less than 5 X 10 18 cm -3; and a third portion (51 c) being provided between the first portion and the second portion, the third portion having a Si concentration not less than 5 X 10 18 cm -3 and having a thickness smaller than a sum of a thickness of the first portion and a thickness of the second portion, and the third portion including silicon nitride.
Cucurbituril and/or one or more derivatives thereof comprising less than 300 ppm formaldehyde, preferably less than 200 ppm formaldehyde, less than 100 ppm formaldehyde, less than 50 ppm formaldehyde, less than 25 ppm formaldehyde, less than 10 ppm formaldehyde, or which is formaldehyde free, wherein the derivative thereof is wherein: n is an integer between 4 and 20; and for each glycoluril unit: each X is O, S or NR 3, and -R 1 and -R 2 are each independently selected from -H and the following optionally substituted groups: -R 3, -OH, -OR 3, -COOH, -COOR 3, -NH 2, -NHR 3 and -N(R 3) 2 where -R 3 is independently selected from C 1-20 alkyl group, C 6-20 carboaryl group, and C 5 - 20 heteroaryl group, or where -R 1 and/or -R 2 is -N(R 3) 2, both -R 3 together form a C 5-7 heterocyclic ring; or together -R 1 and -R 2 are C 4-6 alkylene forming a C 6-8 carbocyclic ring together with the uracil frame. each X is O, S or NR 3, and -R 1 and -R 2 are each independently selected from -H and the following optionally substituted groups: -R 3, -OH, -OR 3, -COOH, -COOR 3, -NH 2, -NHR 3 and -N(R 3) 2 where -R 3 is independently selected from C 1-20 alkyl group, C 6-20 carboaryl group, and C 5 - 20 heteroaryl group, or where -R 1 and/or -R 2 is -N(R 3) 2, both -R 3 together form a C 5-7 heterocyclic ring; or together -R 1 and -R 2 are C 4-6 alkylene forming a C 6-8 carbocyclic ring together with the uracil frame.
A method comprising: receiving, at a behavior analysis engine, an executable file from a network traffic hub in a local network as the executable file is being downloaded by a networked device in the local network; executing the executable file in a sandbox environment operated by the behavior analysis engine and configured to replicate an operating system running by the networked device that is downloading the executable file and to execute the executable file as the networked device would execute the executable file; extracting execution features from the execution of the executable file, the execution features corresponding to characteristics of the execution of the executable file; applying an execution model to the extracted execution features, the execution model to determine whether an executable file is malicious based on execution features of the executable file and transmitting processing instructions to the network traffic hub based on the determination of whether the execution file is malicious. receiving, at a behavior analysis engine, an executable file from a network traffic hub in a local network as the executable file is being downloaded by a networked device in the local network; executing the executable file in a sandbox environment operated by the behavior analysis engine and configured to replicate an operating system running by the networked device that is downloading the executable file and to execute the executable file as the networked device would execute the executable file; extracting execution features from the execution of the executable file, the execution features corresponding to characteristics of the execution of the executable file; applying an execution model to the extracted execution features, the execution model to determine whether an executable file is malicious based on execution features of the executable file and transmitting processing instructions to the network traffic hub based on the determination of whether the execution file is malicious.
An industrial vehicle sun protector for the protection of an operator located in the cabin of an industrial vehicle, comprising: - a mounting arrangement configured to be installed in the cabin of an industrial vehicle, - a rigid shade member for obstructing the passage of sun rays therethrough, the shade member being pivotably connected to the mounting arrangement such that the shade member is pivotable between a stored position and different selectable deployed positions, wherein adjustment from one of the deployed positions to another one of the deployed positions allows for protecting the operator from sun rays at different positions of the sun, characterized in that a pivoting of the shade member from the stored position to any one of the different selectable deployed positions results in an angular displacement of the shade member greater than 90°. for the protection of an operator located in the cabin of an industrial vehicle, comprising: - a mounting arrangement configured to be installed in the cabin of an industrial vehicle, - a rigid shade member for obstructing the passage of sun rays therethrough, the shade member being pivotably connected to the mounting arrangement such that the shade member is pivotable between a stored position and different selectable deployed positions, wherein adjustment from one of the deployed positions to another one of the deployed positions allows for protecting the operator from sun rays at different positions of the sun, - a mounting arrangement configured to be installed in the cabin of an industrial vehicle, - a rigid shade member for obstructing the passage of sun rays therethrough, the shade member being pivotably connected to the mounting arrangement such that the shade member is pivotable between a stored position and different selectable deployed positions, wherein adjustment from one of the deployed positions to another one of the deployed positions allows for protecting the operator from sun rays at different positions of the sun, characterized in that a pivoting of the shade member from the stored position to any one of the different selectable deployed positions results in an angular displacement of the shade member greater than 90°.
A money processing device comprising: at least one money container that is configured to contain money; a controller operable to control a process on the money container; and a storage, wherein the storage is configured to store a condition for deciding which of a plurality of check processes to be performed, wherein the plurality of check processes include: a quick check process in which the controller does not count the money in the at least one money container where an event in which an amount of money held in the at least one money container may become indefinite has not occurred, but the controller counts the money in the at least one money container where the event has occurred; and a general check process in which the money in the at least one money container is counted regardless of the presence or absence of an occurrence of the event, wherein the condition includes at least one of a date, a day of a week, and a time zone and the controller is configured to execute one of the quick check process and the general check process based on the condition stored in the storage. at least one money container that is configured to contain money; a controller operable to control a process on the money container; and a storage, wherein the storage is configured to store a condition for deciding which of a plurality of check processes to be performed, wherein the plurality of check processes include: a quick check process in which the controller does not count the money in the at least one money container where an event in which an amount of money held in the at least one money container may become indefinite has not occurred, but the controller counts the money in the at least one money container where the event has occurred; and a general check process in which the money in the at least one money container is counted regardless of the presence or absence of an occurrence of the event, a quick check process in which the controller does not count the money in the at least one money container where an event in which an amount of money held in the at least one money container may become indefinite has not occurred, but the controller counts the money in the at least one money container where the event has occurred; and a general check process in which the money in the at least one money container is counted regardless of the presence or absence of an occurrence of the event, wherein the condition includes at least one of a date, a day of a week, and a time zone and the controller is configured to execute one of the quick check process and the general check process based on the condition stored in the storage.
A method of decoding a bitstream of encoded video, the method comprising: determining that an amount of coefficients between a first non-zero coefficient in a coefficient group of a transform unit and a last non-zero coefficient in the coefficient group exceeds a threshold, wherein the transform unit is partitioned into non-overlapping coefficient groups; determining absolute values of non-zero coefficients in the coefficient group; summing the absolute values; and based on whether a result of the summing is odd or even, assigning a sign to a coefficient in the coefficient group. determining that an amount of coefficients between a first non-zero coefficient in a coefficient group of a transform unit and a last non-zero coefficient in the coefficient group exceeds a threshold, wherein the transform unit is partitioned into non-overlapping coefficient groups; determining absolute values of non-zero coefficients in the coefficient group; summing the absolute values; and based on whether a result of the summing is odd or even, assigning a sign to a coefficient in the coefficient group.
A method for identifying or measuring an orientation mismatch or relative angular velocity between at least two spaced apart stations, wherein the first station has an associated first reference frame and the second station has an associated second reference frame, the method comprising: receiving, at the second station, a reference signal emitted from a laser at the first station, the reference signal having a predetermined coding associated with the first reference frame, wherein predetermined coding of the reference signal is a linear polarisation of the reference signal, wherein an orientation of polarisation of the reference signal depends on the orientation of the first reference frame; splitting the received reference signal from the laser into at least first and second substantially orthogonal optical components with respect to the second reference frame by way of an optical device in the form of a polarised beam splitter, PBS,; measuring first and second intensities of the first and second components of the split reference signal, wherein the measured intensities are functions of characteristics of at least the optical device, and relative orientations of the reference signal coding with respect to the second reference frame; correcting the measured first and second intensities for dependency on an intensity of the reference signal or to account for non-ideal characteristics of the PBS; and using the corrected measured first and second intensities to determine an approximate angle of deviation, if any, between first and second reference frames. receiving, at the second station, a reference signal emitted from a laser at the first station, the reference signal having a predetermined coding associated with the first reference frame, wherein predetermined coding of the reference signal is a linear polarisation of the reference signal, wherein an orientation of polarisation of the reference signal depends on the orientation of the first reference frame; splitting the received reference signal from the laser into at least first and second substantially orthogonal optical components with respect to the second reference frame by way of an optical device in the form of a polarised beam splitter, PBS,; measuring first and second intensities of the first and second components of the split reference signal, wherein the measured intensities are functions of characteristics of at least the optical device, and relative orientations of the reference signal coding with respect to the second reference frame; correcting the measured first and second intensities for dependency on an intensity of the reference signal or to account for non-ideal characteristics of the PBS; and using the corrected measured first and second intensities to determine an approximate angle of deviation, if any, between first and second reference frames.
An anatomical imaging system comprising: a CT machine; comprising a base supporting a torus defining a central opening and a transport mechanism mounted to the base of said CT machine, wherein said transport mechanism comprises a fine movement mechanism for moving said CT machine precisely relative to a patient during scanning, and a gross movement mechanism for transporting said CT machine relatively quickly across room distances; wherein said gross movement mechanism further comprises an actuator for: (i) extending portions of the gross movement mechanism below portions of the fine movement mechanism, whereby said CT machine is supported by portions of the gross mechanism; and (ii) retracting portions of said gross movement mechanism above portions of said fine movement mechanism, whereby said CT machine is supported by portions of said fine movement mechanism; characterised in that said fine movement mechanism comprises a centipede belt drive and said gross movement mechanism comprises a caster unit and that said gross movement mechanism comprises two space apart caster units, wherein one of said caster units is disposed on either side of the patient during scanning, and said fine movement mechanism comprises two centipede belt drive units, wherein one of said centipede belt drive units is disposed on either side of the patient during scanning. a CT machine; comprising a base supporting a torus defining a central opening and a transport mechanism mounted to the base of said CT machine, wherein said transport mechanism comprises a fine movement mechanism for moving said CT machine precisely relative to a patient during scanning, and a gross movement mechanism for transporting said CT machine relatively quickly across room distances; wherein said gross movement mechanism further comprises an actuator for: (i) extending portions of the gross movement mechanism below portions of the fine movement mechanism, whereby said CT machine is supported by portions of the gross mechanism; and (ii) retracting portions of said gross movement mechanism above portions of said fine movement mechanism, whereby said CT machine is supported by portions of said fine movement mechanism; characterised in that said fine movement mechanism comprises a centipede belt drive and said gross movement mechanism comprises a caster unit and that said gross movement mechanism comprises two space apart caster units, wherein one of said caster units is disposed on either side of the patient during scanning, and said fine movement mechanism comprises two centipede belt drive units, wherein one of said centipede belt drive units is disposed on either side of the patient during scanning.
Power component (10, 55) for providing an electrical heavy current, comprising a plurality of semiconductor current valves (14 1, 14 2, 14 3), each comprising a current input, a current output and a control connection for controlling the current between current input and current output, wherein the semiconductor current valves (14 1, 14 2, 14 3) are operable simultaneously in parallel, and comprising a switching means (17 1, 17 2, 17 3), which is interconnected with the semiconductor current valves (14 1, 14 2, 14 3) in such a way that the number of semiconductor current valves (14 1, 14 2, 14 3) which are operated in parallel for controlling the intensity of the current is settable by means of a switching means state defined with a parametrizable register.
A terminal device comprising: a detection unit configured to detect a first synchronization signal transmitted by a base station, the first synchronization signal having a first identifier selected from a first subset of a plurality of identifiers, and a second synchronization signal transmitted by another terminal device, the second synchronization signal having a second identifier selected from a second subset of a plurality of identifiers, wherein the first subset of identifiers is different from the second subset of identifiers; a synchronization control unit configured to acquire synchronization for performing device-to-device, D2D, communication based on the first synchronization signal or the second synchronization signal; a transmission control unit configured to control transmission of a synchronization signal for the D2D communication according to a frame structure that is used in the wireless communication with the base station and the D2D communication; and characterized by an acquiring unit configured to acquire priority information indicating a priority of detection among signals corresponding to the second subset of identifiers, wherein the detection unit is configured to detect the second synchronization signal for the wireless communication with the other terminal device in accordance with the priority. a detection unit configured to detect a first synchronization signal transmitted by a base station, the first synchronization signal having a first identifier selected from a first subset of a plurality of identifiers, and a second synchronization signal transmitted by another terminal device, the second synchronization signal having a second identifier selected from a second subset of a plurality of identifiers, wherein the first subset of identifiers is different from the second subset of identifiers; a first synchronization signal transmitted by a base station, the first synchronization signal having a first identifier selected from a first subset of a plurality of identifiers, and a second synchronization signal transmitted by another terminal device, the second synchronization signal having a second identifier selected from a second subset of a plurality of identifiers, wherein the first subset of identifiers is different from the second subset of identifiers; a synchronization control unit configured to acquire synchronization for performing device-to-device, D2D, communication based on the first synchronization signal or the second synchronization signal; a transmission control unit configured to control transmission of a synchronization signal for the D2D communication according to a frame structure that is used in the wireless communication with the base station and the D2D communication; and characterized by an acquiring unit configured to acquire priority information indicating a priority of detection among signals corresponding to the second subset of identifiers, wherein the detection unit is configured to detect the second synchronization signal for the wireless communication with the other terminal device in accordance with the priority.
A method of preparing a catalyst having polymer electrolyte multilayers, comprising: a) sequentially forming a cationic polymer electrolyte layer and an anionic polymer electrolyte layer on an anionic support to form polymer electrolyte multilayers; b) treating the polymer electrolyte multilayers of step a) with sulfuric acid; and c) loading or inserting a Pt precursor and a Pd precursor into the polymer electrolyte multilayers treated with sulfuric acid in step b), and reducing the Pt precursor and the Pd precursor by a reductant to form Pt-Pd metal particles dispersed in the polymer electrolyte multilayers, wherein a Pt/Pd atomic ratio in the reduced Pt-Pd metal particles is 0.02 to 0.15. a) sequentially forming a cationic polymer electrolyte layer and an anionic polymer electrolyte layer on an anionic support to form polymer electrolyte multilayers; b) treating the polymer electrolyte multilayers of step a) with sulfuric acid; and c) loading or inserting a Pt precursor and a Pd precursor into the polymer electrolyte multilayers treated with sulfuric acid in step b), and reducing the Pt precursor and the Pd precursor by a reductant to form Pt-Pd metal particles dispersed in the polymer electrolyte multilayers, wherein a Pt/Pd atomic ratio in the reduced Pt-Pd metal particles is 0.02 to 0.15.
A method for molding an object using a mold having at least two parts (1, 2) that when joined form a mold cavity between them, the mold cavity comprising a first zone having a first thermal conductivity, and a second zone having a second thermal conductivity lower than the first thermal conductivity, the method characterized by comprising: providing a material comprising molten plastic and a foaming agent, to the mold cavity; separating the at least two parts (1, 2) after a first portion of the molten plastic adjacent to the first zone has solidified, but before a second portion of the molten plastic adjacent to the second zone has solidified, to result in a desired section of increased thickness of the object. providing a material comprising molten plastic and a foaming agent, to the mold cavity; separating the at least two parts (1, 2) after a first portion of the molten plastic adjacent to the first zone has solidified, but before a second portion of the molten plastic adjacent to the second zone has solidified, to result in a desired section of increased thickness of the object.