mhurhangee/patent-ind-claim-en huggingface dataset:
A licence server for distributing licences for software applications to a plurality of user devices comprising: a processor and a memory , said memory containing instructions executable by said processor to cause the processor to: - communicate, via a receive/transmit unit , with at least one local interface device , and with at least one user device of said plurality of user devices; - authenticate the local interface device ; - receive a licence request, including an identifier or signature of the authenticated local interface device , wherein content of the received license request is confirming to the license server that the request has been accepted by the local interface device ; - characterised in that said processor is caused to issue a license towards the user device and operate an application under the issued license, in case the request is accepted by the license server and the local interface device , wherein the acceptance by the local interface device comprises a confirmation that the user device is located less than a predetermined maximum distance from the local interface device . a processor and a memory , said memory containing instructions executable by said processor to cause the processor to: - communicate, via a receive/transmit unit , with at least one local interface device , and with at least one user device of said plurality of user devices; - authenticate the local interface device ; - receive a licence request, including an identifier or signature of the authenticated local interface device , wherein content of the received license request is confirming to the license server that the request has been accepted by the local interface device ; - characterised in that said processor is caused to issue a license towards the user device and operate an application under the issued license, in case the request is accepted by the license server and the local interface device , wherein the acceptance by the local interface device comprises a confirmation that the user device is located less than a predetermined maximum distance from the local interface device . - communicate, via a receive/transmit unit , with at least one local interface device , and with at least one user device of said plurality of user devices; - authenticate the local interface device ; - receive a licence request, including an identifier or signature of the authenticated local interface device , wherein content of the received license request is confirming to the license server that the request has been accepted by the local interface device ; - characterised in that said processor is caused to issue a license towards the user device and operate an application under the issued license, in case the request is accepted by the license server and the local interface device , wherein the acceptance by the local interface device comprises a confirmation that the user device is located less than a predetermined maximum distance from the local interface device .
A rotor of an electric machine , extending along an axis of rotation (X-X') and comprising a short-circuit cage having at least one bar and at least one first electrical short-circuit ring , the or each bar having a first end portion , the first end portion being connected electrically to the first short-circuit ring by a first connection means and radially relative to the axis of rotation (X-X'), the rotor comprising: - the or each first connection means between a first respective end portion and the first short-circuit ring includes a plurality of flexible, electrically conductive strips ; - the short-circuit cage includes a second electrical short-circuit ring , the or each bar having a second end portion , the second end portion being connected electrically to the second short-circuit ring by a second connection means and radially relative to the axis of rotation (X-X'), the or each second connection means between a respective second end portion and the second short-circuit ring also including a plurality of electrically conductive flexible strips ; - the flexible strips of a respective connection means are disposed along at least half of the periphery, in a transverse plane perpendicular to the axis of rotation (X-X'), of the corresponding end portion , characterised in that : - the flexible strips of a respective connection means are mechanically and electrically connected together by at least one holding strip . - the or each first connection means between a first respective end portion and the first short-circuit ring includes a plurality of flexible, electrically conductive strips ; - the short-circuit cage includes a second electrical short-circuit ring , the or each bar having a second end portion , the second end portion being connected electrically to the second short-circuit ring by a second connection means and radially relative to the axis of rotation (X-X'), the or each second connection means between a respective second end portion and the second short-circuit ring also including a plurality of electrically conductive flexible strips ; - the flexible strips of a respective connection means are disposed along at least half of the periphery, in a transverse plane perpendicular to the axis of rotation (X-X'), of the corresponding end portion , characterised in that : - the flexible strips of a respective connection means are mechanically and electrically connected together by at least one holding strip . - the flexible strips of a respective connection means are mechanically and electrically connected together by at least one holding strip .
A system, comprising: a base structure ; an intermediate structure rotatably coupled with the base structure about a first axis ; a positioning system coupled with the intermediate structure and configured to orient an antenna boresight about at least two angular degrees of freedom with respect to the intermediate structure ; and an actuator between the base structure and the intermediate structure , the actuator comprising a rotating element configured to rotate about a second axis , a drive element configured to drive rotation of the rotating element about the second axis, and an eccentric element coupled with the rotating element and the intermediate structure and configured to change a relative angle between the base structure and the intermediate structure about the first axis when a position of the eccentric element is changed relative to the base structure in response to a rotation of the rotating element caused by the drive element. a base structure ; an intermediate structure rotatably coupled with the base structure about a first axis ; a positioning system coupled with the intermediate structure and configured to orient an antenna boresight about at least two angular degrees of freedom with respect to the intermediate structure ; and an actuator between the base structure and the intermediate structure , the actuator comprising a rotating element configured to rotate about a second axis , a drive element configured to drive rotation of the rotating element about the second axis, and an eccentric element coupled with the rotating element and the intermediate structure and configured to change a relative angle between the base structure and the intermediate structure about the first axis when a position of the eccentric element is changed relative to the base structure in response to a rotation of the rotating element caused by the drive element.
A radiation protection apparatus for shielding surroundings around the periphery of a region of interest located inside an object from radiation emitted by an X-ray system towards the object, the radiation protection apparatus comprising: at least one radiation shield assembly (11; 13) including a support base operatively connectable to a radiation source or a radiation detector of the X ray system, and a plurality of radiation shield segments sequentially positioned relative to said support base, thereby forming a contiguous radiopaque screen configured for spanning at least partially around the region of interest periphery with an edge of said radiopaque screen opposing the object wherein each radiation shield segment is longitudinally extendible or contractible along a common longitudinal axis and has a free end which is positionable relative to free ends of adjacent radiation shield segments along said common longitudinal axis; wherein at least one of said radiation shield segments is individually controllable to extend or contract to a selected length to position a respective free end thereof in a direction away from or towards said support base and against said opposing portion of the object, so as to locally change contour of said radiopaque screen edge. at least one radiation shield assembly (11; 13) including a support base operatively connectable to a radiation source or a radiation detector of the X ray system, and a plurality of radiation shield segments sequentially positioned relative to said support base, thereby forming a contiguous radiopaque screen configured for spanning at least partially around the region of interest periphery with an edge of said radiopaque screen opposing the object wherein each radiation shield segment is longitudinally extendible or contractible along a common longitudinal axis and has a free end which is positionable relative to free ends of adjacent radiation shield segments along said common longitudinal axis; wherein at least one of said radiation shield segments is individually controllable to extend or contract to a selected length to position a respective free end thereof in a direction away from or towards said support base and against said opposing portion of the object, so as to locally change contour of said radiopaque screen edge.
A method for formation of an optoelectronic device comprising: providing a workpiece bearing a layer of additional material; introducing a plurality of particles through the additional material to form a cleave region in the workpiece; applying energy to cleave a detached thickness of workpiece material including the layer of additional material, from a remainder of the workpiece, and forming a free standing intermediate structure that includes only the detached workpiece material and the layer of additional material; processing the layer of additional material of the intermediate structure; and bonding the processes layer of additional material to a substrate having a coefficient of thermal expansion approximately equal to a coefficient of thermal expansion of the layer of additional material. providing a workpiece bearing a layer of additional material; introducing a plurality of particles through the additional material to form a cleave region in the workpiece; applying energy to cleave a detached thickness of workpiece material including the layer of additional material, from a remainder of the workpiece, and forming a free standing intermediate structure that includes only the detached workpiece material and the layer of additional material; processing the layer of additional material of the intermediate structure; and bonding the processes layer of additional material to a substrate having a coefficient of thermal expansion approximately equal to a coefficient of thermal expansion of the layer of additional material.
A method of treating heavy metal and halogen salt-containing solid waste material mainly from flue gas cleaning systems, the method comprising i) treating said solid waste material with acidic scrubber liquid to obtain a suspension with a pH of from 3 to 7 in the liquid phase, ii) separating solid and liquid material obtained in step i), iii) treating the solid material from step ii) with water to obtain a pH in the aqueous phase ranging from about 7 to about 11 followed by separation of the thus washed solid material from the liquid to obtain treated solid waste, iv) treating the liquid material from step ii) with one or more alkaline agent(s) and/or sulfides to obtain a pH of from about 9 to 11 to precipitate heavy metals, v) optionally, separating the heavy metals from step iv) from the liquid to obtain a heavy metal fraction and a halogen salt solution, wherein pH in step i) initially is from about 11 to about 13 and then gradually decreases to a pH of from 3 to 4 over a period of from 15 to 90 minutes as the scrubber liquid is added and reacts with the waste. i) treating said solid waste material with acidic scrubber liquid to obtain a suspension with a pH of from 3 to 7 in the liquid phase, ii) separating solid and liquid material obtained in step i), iii) treating the solid material from step ii) with water to obtain a pH in the aqueous phase ranging from about 7 to about 11 followed by separation of the thus washed solid material from the liquid to obtain treated solid waste, iv) treating the liquid material from step ii) with one or more alkaline agent(s) and/or sulfides to obtain a pH of from about 9 to 11 to precipitate heavy metals, v) optionally, separating the heavy metals from step iv) from the liquid to obtain a heavy metal fraction and a halogen salt solution,
Pressure compensation ring for arrangement between two end ring surfaces , facing one another, of two jacking pipes for underground pipe jacking, which has a pressure ring composed of an elastomer, the pressure ring having a peripheral collar ring at the inside and/or outside, wherein end ring surfaces of the pressure ring are situated at the inside at end walls of the collar rings , characterized in that the end ring surfaces are, in the radial direction, each connected to the collar ring only at one location .
A method for acquiring an image, comprising: controlling a structured light camera to receive structured light that is diffracted by a display area of a display screen when exiting from a structured light projector, then reflected by a target object, and diffracted by the display area again when entering to acquire a speckle image, the speckle image including a plurality of measurement spots, the plurality of measurement spots including first measurement spots formed when the structured light is diffracted by a diffractive optical element of the structured light projector and reflected by the target object, second measurement spots formed when the structured light is diffracted by the diffractive optical element, then diffracted by the display screen, and reflected by the target object, and third measurement spots formed when the structured light is diffracted by the diffractive optical element, diffracted by the display screen, then reflected by the target object, and diffracted by the display screen again; and acquiring a depth image based on the first measurement spots, the second measurement spots, and the third measurement spots and reference spots in a reference image. controlling a structured light camera to receive structured light that is diffracted by a display area of a display screen when exiting from a structured light projector, then reflected by a target object, and diffracted by the display area again when entering to acquire a speckle image, the speckle image including a plurality of measurement spots, the plurality of measurement spots including first measurement spots formed when the structured light is diffracted by a diffractive optical element of the structured light projector and reflected by the target object, second measurement spots formed when the structured light is diffracted by the diffractive optical element, then diffracted by the display screen, and reflected by the target object, and third measurement spots formed when the structured light is diffracted by the diffractive optical element, diffracted by the display screen, then reflected by the target object, and diffracted by the display screen again; and acquiring a depth image based on the first measurement spots, the second measurement spots, and the third measurement spots and reference spots in a reference image.
Method for controlling a machining process in which ultrasonic machining is carried out using a sonotrode which can be placed against a workpiece, comprising the following steps: - recording the progression (G) of the process parameter (P) during the ultrasonic machining, - repeatedly determining a first gradient (m1) and a second gradient (m2) of the progression during the machining process, the two gradients (m1, m2) being determined one after the other with a predetermined time offset (Δt), characterised by - defining a first reference gradient (mlref) and a second reference gradient (m2ref) for the progression (G) of a process parameter (P) over time (t), - comparing the first gradient (m1) with the first reference gradient (mlref) and comparing the second gradient (m2) with the second reference gradient (m2ref) during the machining process, in each case using a predetermined comparison criterion (V1, V2), - transitioning to a subsequent step of the machining process, in particular termination of the ultrasonic machining, if the predetermined comparison criterion (V1, V2) is met for both comparisons simultaneously. - recording the progression (G) of the process parameter (P) during the ultrasonic machining, - repeatedly determining a first gradient (m1) and a second gradient (m2) of the progression during the machining process, the two gradients (m1, m2) being determined one after the other with a predetermined time offset (Δt), characterised by - defining a first reference gradient (mlref) and a second reference gradient (m2ref) for the progression (G) of a process parameter (P) over time (t), - comparing the first gradient (m1) with the first reference gradient (mlref) and comparing the second gradient (m2) with the second reference gradient (m2ref) during the machining process, in each case using a predetermined comparison criterion (V1, V2), - transitioning to a subsequent step of the machining process, in particular termination of the ultrasonic machining, if the predetermined comparison criterion (V1, V2) is met for both comparisons simultaneously.
A method comprising: clustering (S102), by one or more processors of a computing device, feature vectors of training data to obtain clustered feature vectors of training data; performing adaptive training of a speech recognition model using the clustered feature vectors of training data to obtain the speech recognition model after obtaining the clustered feature vectors of training data; performing (S104) interpolation calculation on the feature vectors of test data to be recognized using the clustered feature vectors of training data, wherein the performing interpolation calculation on the feature vectors of test data to be recognized using the clustered feature vectors of training data comprises: calculating a cosine distance between the feature vectors of test data to be recognized and the clustered feature vectors of training data; and performing interpolation calculation on the feature vectors of test data to be recognized using a predetermined number of clustered feature vectors of training data of which cosine distances are greater than a preset value; and inputting (S106) the feature vectors of test data to be recognized resulting from the interpolation calculation into the speech recognition model to adaptively adjust the speech recognition model. clustering (S102), by one or more processors of a computing device, feature vectors of training data to obtain clustered feature vectors of training data; performing adaptive training of a speech recognition model using the clustered feature vectors of training data to obtain the speech recognition model after obtaining the clustered feature vectors of training data; performing (S104) interpolation calculation on the feature vectors of test data to be recognized using the clustered feature vectors of training data, wherein the performing interpolation calculation on the feature vectors of test data to be recognized using the clustered feature vectors of training data comprises: calculating a cosine distance between the feature vectors of test data to be recognized and the clustered feature vectors of training data; and performing interpolation calculation on the feature vectors of test data to be recognized using a predetermined number of clustered feature vectors of training data of which cosine distances are greater than a preset value; and calculating a cosine distance between the feature vectors of test data to be recognized and the clustered feature vectors of training data; and performing interpolation calculation on the feature vectors of test data to be recognized using a predetermined number of clustered feature vectors of training data of which cosine distances are greater than a preset value; and inputting (S106) the feature vectors of test data to be recognized resulting from the interpolation calculation into the speech recognition model to adaptively adjust the speech recognition model.
A solid-state image sensor for detecting one or more photons (F), of the type comprising a plurality of pixels sensitive to said photons (F), each of said pixels comprising a logic unit and an avalanche photodiode operatively connected to said logic unit , the logic unit of each pixel being operatively connected to the logic unit of at least an adjacent pixel , characterized in that the logic unit of each pixel is configured to output an electrical signal (S) relative to the captured information by the same pixel to the image sensor through a specific output channel , said electrical signal (S) being different from the electrical signals (S) provided by the logic units of the remaining pixels , the logic unit of each pixel outputting said electric signal (S) when the avalanche photodiode belonging to the same pixel and the avalanche photodiode belonging to at least an adjacent pixel each detect at least one photon (F) within a time window (W T ).