mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: an obtaining module configured to obtain an image including a license plate mounted on a vehicle; an identification module configured to identify feature points associated with the vehicle, wherein the feature points include a center point of the license plate, a left boundary of the head of the vehicle and a right boundary of the head of the vehicle; a determination module configured to determine an approximate angle range within which a tilt angle of the license plate is located based on a mapping relation between a ratio of a first horizontal distance to a second horizontal distance, wherein the first horizontal distance is between the center point of the license plate and the left boundary of the head of the vehicle and the second horizontal distance is between the center point of the license plate and the right boundary of the head of the vehicle; and a calculation module configured to determine, within the approximate angle range, the tilt angle of the license plate; and perform a tilt correction on the license plate based on the tilt angle of the license plate. an obtaining module configured to obtain an image including a license plate mounted on a vehicle; an identification module configured to identify feature points associated with the vehicle, wherein the feature points include a center point of the license plate, a left boundary of the head of the vehicle and a right boundary of the head of the vehicle; a determination module configured to determine an approximate angle range within which a tilt angle of the license plate is located based on a mapping relation between a ratio of a first horizontal distance to a second horizontal distance, wherein the first horizontal distance is between the center point of the license plate and the left boundary of the head of the vehicle and the second horizontal distance is between the center point of the license plate and the right boundary of the head of the vehicle; and a calculation module configured to determine, within the approximate angle range, the tilt angle of the license plate; and perform a tilt correction on the license plate based on the tilt angle of the license plate. determine, within the approximate angle range, the tilt angle of the license plate; and perform a tilt correction on the license plate based on the tilt angle of the license plate.
A relay station comprising: a receiving section that is adapted to receive a signal from a base station employing a first radio access technique and covering a first coverage area; an addition section (304, 307, 309) that is adapted to add one of a frequency offset, a time offset and a power offset to the signal; and a transmitting section that is adapted to transmit to a mobile station the signal with the offset, in a third coverage area that is identical to a second coverage area, part or entirety of which is included in the first coverage area, and the second coverage area being covered by a host station employing a second radio access technique different from the first radio access technique, characterized in that the addition section is adapted to decide on an amount of the offset based on a type of the second radio access technique of the host station. a receiving section that is adapted to receive a signal from a base station employing a first radio access technique and covering a first coverage area; an addition section (304, 307, 309) that is adapted to add one of a frequency offset, a time offset and a power offset to the signal; and a transmitting section that is adapted to transmit to a mobile station the signal with the offset, in a third coverage area that is identical to a second coverage area, part or entirety of which is included in the first coverage area, and the second coverage area being covered by a host station employing a second radio access technique different from the first radio access technique, characterized in that the addition section is adapted to decide on an amount of the offset based on a type of the second radio access technique of the host station.
A transfer assembly for a hoist unit, the transfer assembly comprising: a motor base; a first frame secured to the motor base, the first frame including one or more first suspension wheels rotatably affixed thereto for rotation about a laterally extending axis; a second frame secured to the first frame for rotation about a yaw axis, the second frame including one or more second suspension wheels each of which is rotatably affixed thereto for rotation about a laterally extending axis; a drive wheel assembly which includes one or more drive wheels (260L, 260R) each of which is rotatably mounted on the motor base for rotation about a laterally extending drive wheel axis; and a motor assembly secured to the motor base and operatively connected to the drive wheel assembly such that operation of the motor assembly rotates the drive wheel assembly, characterised in that the first frame is secured to the motor base for rotation about a pitch axis. a motor base; a first frame secured to the motor base, the first frame including one or more first suspension wheels rotatably affixed thereto for rotation about a laterally extending axis; a second frame secured to the first frame for rotation about a yaw axis, the second frame including one or more second suspension wheels each of which is rotatably affixed thereto for rotation about a laterally extending axis; a drive wheel assembly which includes one or more drive wheels (260L, 260R) each of which is rotatably mounted on the motor base for rotation about a laterally extending drive wheel axis; and a motor assembly secured to the motor base and operatively connected to the drive wheel assembly such that operation of the motor assembly rotates the drive wheel assembly, characterised in that the first frame is secured to the motor base for rotation about a pitch axis.
A connector (40, 45) for connecting a shaving head to a handle (20, 21) of a skincare device (9, 99), comprising a first piece (41, 41M) configured to be connected to the shaving head, a second piece (42, 42F, 46, 46F) configured to be connected to the handle, at least a first magnet connected to the first piece, at least a second magnet (52, 53) connected to the second piece, the first and second pieces being insertable inside each other along an insertion direction, such that equal poles (51N-53N, 51S-53S) of the first and second magnets are arranged obliquely or perpendicularly to the insertion direction for retaining the first and second pieces inside each other through magnetic repulsion, characterized in that the connector (40, 45) comprises a third piece connected to the second piece (46, 46F), the second magnet being fixed with respect to the third piece, the third piece being movable with respect to the second piece (46, 46F) between a first position, in which the second magnet repels the first magnet so as to increase insertion of the first (41, 41M) and second pieces (46, 46F) inside each other, and a second position, in which the second magnet repels the first magnet so as to decrease insertion of the first (41, 41M) and second pieces (46, 46F) inside each other.
Lithium silicate glass ceramic which comprises monovalent metal oxide selected from Rb 2 O, Cs 2 O and mixtures thereof and comprises less than 5.1 wt.-% Al 2 O 3 and less than 1.0 wt.-% K 2 O.
A spherical device (1, 200) for detecting particles or ionizing radiations, said device including a cathode (2, 110) forming a hollow sphere (6, 111) filled with an ionization gas, an anode (3, 120) placed in the centre of said hollow sphere (6, 111) through a holding rod (10, 20, 40, 50); said detecting spherical device being characterized in that said holding rod includes an insulating element (23, 60, 70, 80) having an insulating plate (61, 62, 63, 64) positioned along a direction perpendicular to the longitudinal axis of the holding rod (10, 20, 40, 50) and positioned in the proximity of a first end, said first end being adapted to hold said anode of said device.
A method for detecting an object in a first distorted image of a scene using a sliding window algorithm, the method comprising: receiving an inverse of a mathematical representation of a distortion of the first distorted image, wherein the mathematical representation of the distortion is an image transform which when applied to a rectilinear image of the scene results in the first distorted image of the scene; and detecting an object in the first distorted image by sliding a sliding window over the first distorted image, the sliding window comprising a feature detection pattern for detecting a specific feature in images, and for each position (630, 634, 638) of a plurality of positions in the first distorted image: transforming the sliding window based on the inverse of the mathematical representation of the distortion at the position (630, 634, 638), wherein the step of transforming the sliding window comprises transforming the feature detection pattern of the sliding window such that a resulting distortion of the feature detection pattern of the transformed sliding window (720, 724, 726) corresponds to the distortion of the first distorted image at the position; and using the transformed sliding window (720, 724, 728) comprising the transformed feature detection pattern in the sliding window algorithm. receiving an inverse of a mathematical representation of a distortion of the first distorted image, wherein the mathematical representation of the distortion is an image transform which when applied to a rectilinear image of the scene results in the first distorted image of the scene; and detecting an object in the first distorted image by sliding a sliding window over the first distorted image, the sliding window comprising a feature detection pattern for detecting a specific feature in images, and for each position (630, 634, 638) of a plurality of positions in the first distorted image: transforming the sliding window based on the inverse of the mathematical representation of the distortion at the position (630, 634, 638), wherein the step of transforming the sliding window comprises transforming the feature detection pattern of the sliding window such that a resulting distortion of the feature detection pattern of the transformed sliding window (720, 724, 726) corresponds to the distortion of the first distorted image at the position; and using the transformed sliding window (720, 724, 728) comprising the transformed feature detection pattern in the sliding window algorithm. transforming the sliding window based on the inverse of the mathematical representation of the distortion at the position (630, 634, 638), wherein the step of transforming the sliding window comprises transforming the feature detection pattern of the sliding window such that a resulting distortion of the feature detection pattern of the transformed sliding window (720, 724, 726) corresponds to the distortion of the first distorted image at the position; and using the transformed sliding window (720, 724, 728) comprising the transformed feature detection pattern in the sliding window algorithm.
Vacuum cleaning apparatus, comprising a vacuum cleaner with a mean power input of less than 1200 W and a filter bag with a filtration efficiency of the filter bag material of greater than 60 %,, wherein the vacuum cleaning apparatus has a quality factor with an empty filter bag Q S un defined by Q S un = P saug un / P el un × ψ where P saug un: suction power of the vacuum cleaning apparatus with empty filter bag in, P el un: electric input power of the motor/fan unit of the vacuum cleaning apparatus with an empty filter bag in, and ψ: filtration efficiency of the filter bag material in [%] which is greater than 7, preferably greater than 8, especially preferably greater than 9, and/or the vacuum cleaning apparatus has a quality factor with a partly filled filterbag Q S teil defined by Q S teil = P saug teil / P el teil × ψ where P saug teil: suction power of the vacuum cleaning apparatus with partly filled filter bag in, P el teil: electric input power of the motor/fan unit of the vacuum cleaning apparatus with a partly filled filter bag in, and ψ: filtration efficiency of the filter bag material in [%] which is greater than 4, preferably greater than 5, especially preferably greater than 6, and wherein the air flow determined for determining the suction power P saug un is greater than 30 l/s and the air flow determined for determining the suction power P saug teil is greater than 26 l/s. P saug un: suction power of the vacuum cleaning apparatus with empty filter bag in, P el un: electric input power of the motor/fan unit of the vacuum cleaning apparatus with an empty filter bag in, and ψ: filtration efficiency of the filter bag material in [%] P saug teil: suction power of the vacuum cleaning apparatus with partly filled filter bag in, P el teil: electric input power of the motor/fan unit of the vacuum cleaning apparatus with a partly filled filter bag in, and ψ: filtration efficiency of the filter bag material in [%]
A computer-implemented method for managing distributed directory data, the method comprising: obtaining, by a security server from a directory service, client directory data associated with a client; providing, by the security server, the obtained client directory data to a computing device associated with the client for caching on the computing device; identifying, by the security server, a request from the client to access or take an action on a secure target resource; in response to identifying the request from the client, receiving, by the security server from the computing device, the client directory data that was cached on the computing device, the client directory data indicating which actions the computing device may take on the secure target resource; and evaluating, by the security server, the request based on the received client directory data that was cached on the computing device to determine whether the client is permitted to access or take the action on the secure target resource in response to the request. obtaining, by a security server from a directory service, client directory data associated with a client; providing, by the security server, the obtained client directory data to a computing device associated with the client for caching on the computing device; identifying, by the security server, a request from the client to access or take an action on a secure target resource; in response to identifying the request from the client, receiving, by the security server from the computing device, the client directory data that was cached on the computing device, the client directory data indicating which actions the computing device may take on the secure target resource; and evaluating, by the security server, the request based on the received client directory data that was cached on the computing device to determine whether the client is permitted to access or take the action on the secure target resource in response to the request.
An engine cooling water temperature control method of controlling cooling water temperature of an engine mounted in a vehicle, comprising setting a lower limit value of an engine rotation speed according to a factor of drop in the cooling water temperature, wherein the lower limit value of the engine rotation speed is set at a temperature raising-state lower limit rotation speed when the cooling water temperature drops below a preset first threshold value, the lower limit value of the engine rotation speed is not set when the cooling water temperature rises to a third threshold value higher than the first threshold value, and the lower limit value of the engine rotation speed is set at a maintaining-state lower limit rotation speed lower than the temperature raising-state lower limit rotation speed when the cooling water temperature drops below a second threshold value higher than the first threshold value and lower than the third threshold value. setting a lower limit value of an engine rotation speed according to a factor of drop in the cooling water temperature, wherein the lower limit value of the engine rotation speed is set at a temperature raising-state lower limit rotation speed when the cooling water temperature drops below a preset first threshold value, the lower limit value of the engine rotation speed is not set when the cooling water temperature rises to a third threshold value higher than the first threshold value, and the lower limit value of the engine rotation speed is set at a maintaining-state lower limit rotation speed lower than the temperature raising-state lower limit rotation speed when the cooling water temperature drops below a second threshold value higher than the first threshold value and lower than the third threshold value.
Console scaffold consisting of a plurality of console elements that can be arranged in a row along the rear side of a first formwork element of a wall form, wherein said console elements can be suspended from the upper end of the first formwork element and fastened thereto in a releasable manner and comprise a work platform that can be walked on and that can be supported at the rear side of the first formwork element in such a manner that it projects substantially perpendicularly therefrom, a vertically adjustable fall protection device being arranged at the projecting end of said work platform, characterised in that a respective work podium that forms a work surface together with the work platform of one of the console elements that can be arranged in a row and that can project towards the rear from a second formwork element that can be disposed at a distance from the first formwork element is arranged opposite each of the console elements that can be arranged in a row, wherein said work podium can be placed at least on the second formwork element and is connected to the work platform, that the console elements that can be arranged in a row each have an arm (15, 15') that can extend along the lateral end edges and perpendicularly to the first formwork element, wherein said arm is connected by a preferably two-part supporting element to a supporting beam present on the first formwork rear wall, and that the arms (15, 15') of a console element that can be arranged in a row that can be placed on the first formwork element are designed with a positioning panel that can project below the upper edge of the first formwork element and can be brought to bear against the formwork wall thereof.
A stable perfluorcarbon nanoemulsion having an endocytosis enhancing surface and comprising (a) a perfluorcarbon component comprising at least one perfluorcarbon compound; (b) an emulsifying component; and (c) an endocytosis enhancing component comprising transferrin or a fragment or derivative thereof that induces cellular uptake of the nanoemulsion via endocytosis. (a) a perfluorcarbon component comprising at least one perfluorcarbon compound; (b) an emulsifying component; and (c) an endocytosis enhancing component comprising transferrin or a fragment or derivative thereof that induces cellular uptake of the nanoemulsion via endocytosis.
A method for verifying identification of a replacement fluid during a therapeutic exchange procedure utilizing a system with a hardware component comprising a durable separation device and a sensor associated therewith, a single-use kit, and an automated controller for receiving operator input comprising: a) entering into the controller an identification of the therapeutic exchange procedure to be performed; b) automatically identifying the proper replacement fluid to be used for the identified therapeutic exchange procedure; c) loading a container of replacement fluid (170A, 170B) onto the durable separation device; d) flowing replacement fluid through a tubing segment of the single use kit during performance of the therapeutic exchange procedure, said tubing segment being in proximity to the sensor; e) determining the identification of the replacement fluid in the tubing segment with the sensor and providing a signal to the controller indicative of the determination; f) comparing the identification of the replacement fluid in the tubing segment to the proper replacement fluid for the identified therapeutic procedure to determine whether there is a match; and g) permitting further automatic operation of the system to perform the identified therapeutic procedure only if there is a match. a) entering into the controller an identification of the therapeutic exchange procedure to be performed; b) automatically identifying the proper replacement fluid to be used for the identified therapeutic exchange procedure; c) loading a container of replacement fluid (170A, 170B) onto the durable separation device; d) flowing replacement fluid through a tubing segment of the single use kit during performance of the therapeutic exchange procedure, said tubing segment being in proximity to the sensor; e) determining the identification of the replacement fluid in the tubing segment with the sensor and providing a signal to the controller indicative of the determination; f) comparing the identification of the replacement fluid in the tubing segment to the proper replacement fluid for the identified therapeutic procedure to determine whether there is a match; and g) permitting further automatic operation of the system to perform the identified therapeutic procedure only if there is a match.
A method of protecting sensitive data comprising the steps of: generating a build-time hash during build-time of a program by applying a hash function to a combination of the program image and a vinegar to generate the build-time hash, wherein the program image corresponds to a portion of the program and wherein the vinegar comprises a sequence of bytes, which, when combined with the program image, cause a modified hash value; computing a salt during build-time of the program based at least in part on a portion of sensitive data, the program image, and the build-time hash, wherein the salt comprises a value that, when combined with a hash value via a logical operation, produces the portion of sensitive data; storing the salt; generating a run-time hash during run-time of the program by applying the hash function to a combination of the program image and the vinegar to generate the run-time hash; retrieving the salt during run-time of the program; and combining the run-time hash with the salt during run-time of the program to recover the portion of sensitive data. generating a build-time hash during build-time of a program by applying a hash function to a combination of the program image and a vinegar to generate the build-time hash, wherein the program image corresponds to a portion of the program and wherein the vinegar comprises a sequence of bytes, which, when combined with the program image, cause a modified hash value; computing a salt during build-time of the program based at least in part on a portion of sensitive data, the program image, and the build-time hash, wherein the salt comprises a value that, when combined with a hash value via a logical operation, produces the portion of sensitive data; storing the salt; generating a run-time hash during run-time of the program by applying the hash function to a combination of the program image and the vinegar to generate the run-time hash; retrieving the salt during run-time of the program; and combining the run-time hash with the salt during run-time of the program to recover the portion of sensitive data.