mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for allowing modification of a region of original code of a computer program, the method comprising: annotating (S100) a region of original code for extraction with a compiler directive; and compiling (S110) code including the original code and the compiler directive, wherein the compiler directive causes the annotated region of the original code to be extracted, stored in a separate file, and linked to a function call at a position in the original code from which the extracted region was extracted; and wherein the compiler directive instruments (S140) the remaining original code to allow starting and ending working sets to be saved; further comprising performing a capture execution (S150) of the code including the original code and the extracted region to capture the starting and ending working sets for the extracted region and further comprising comparing an ending working set of the extracted region in a replay of the extracted region with the captured ending working set. annotating (S100) a region of original code for extraction with a compiler directive; and compiling (S110) code including the original code and the compiler directive, wherein the compiler directive causes the annotated region of the original code to be extracted, stored in a separate file, and linked to a function call at a position in the original code from which the extracted region was extracted; and wherein the compiler directive instruments (S140) the remaining original code to allow starting and ending working sets to be saved; further comprising performing a capture execution (S150) of the code including the original code and the extracted region to capture the starting and ending working sets for the extracted region and further comprising comparing an ending working set of the extracted region in a replay of the extracted region with the captured ending working set.
A folding photovoltaic (PV) panel, comprising: a first subpanel including first PV cells, wherein the first subpanel extends along a first lateral plane and comprises a plurality of mounting hooks extending laterally from and affixed to a backside of the first subpanel, the mounting hooks configured to be couplable to a mounting flashing, which is configured to be mounted to a mounting surface; a second subpanel including second PV cells, wherein the second subpanel extends along a second lateral plane, wherein the second subpanel comprises a front edge support configured to hold a front edge of the second subpanel away from the mounting surface; and a hinge assembly rotationally coupling the first subpanel and the second subpanel to allow an angle between the first lateral plane and the second lateral plane to change. a first subpanel including first PV cells, wherein the first subpanel extends along a first lateral plane and comprises a plurality of mounting hooks extending laterally from and affixed to a backside of the first subpanel, the mounting hooks configured to be couplable to a mounting flashing, which is configured to be mounted to a mounting surface; a second subpanel including second PV cells, wherein the second subpanel extends along a second lateral plane, wherein the second subpanel comprises a front edge support configured to hold a front edge of the second subpanel away from the mounting surface; and a hinge assembly rotationally coupling the first subpanel and the second subpanel to allow an angle between the first lateral plane and the second lateral plane to change.
A vehicle front structure comprising: a grille stay located behind a bumper panel having a grille opening , the grill stay facing an upper portion of the bumper panel from behind, and a stay cover disposed to cover a rear portion of the grille stay , wherein the grille stay comprises a front portion and a rear portion , the rear portion having a smaller cross sectional area than the front portion , the grill stay further comprises a step portion at a boundary between the front portion and the rear portion , and the stay cover includes a front end that is disposed to face a rear face of the step portion , characterized in that a radiator support is disposed behind the bumper panel , and a duct upper wall extends from an upper portion of the radiator support toward the bumper panel above the grille opening , the duct upper wall having a front end facing an abutting surface extending rearward on a rear surface of the bumper panel . a grille stay located behind a bumper panel having a grille opening , the grill stay facing an upper portion of the bumper panel from behind, and a stay cover disposed to cover a rear portion of the grille stay , wherein the grille stay comprises a front portion and a rear portion , the rear portion having a smaller cross sectional area than the front portion , the grill stay further comprises a step portion at a boundary between the front portion and the rear portion , and the stay cover includes a front end that is disposed to face a rear face of the step portion , characterized in that a radiator support is disposed behind the bumper panel , and a duct upper wall extends from an upper portion of the radiator support toward the bumper panel above the grille opening , the duct upper wall having a front end facing an abutting surface extending rearward on a rear surface of the bumper panel .
A thermoplastic composition comprising: a copolycarbonate comprising bisphenol A carbonate units and second carbonate units of formula wherein R is a C 1-25 hydrocarbyl, preferably a C 1-6 alkyl, a phenyl, or a phenyl substituted with up to five C 1-6 alkyl groups, more preferably a C 1-3 alkyl or a phenyl; each occurrence of R 2 and R 3 is independently a hydrogen, a halogen, or a C 1-25 hydrocarbyl, preferably a hydrogen, a halogen, or a C 1-6 alkyl, more preferably a hydrogen or a C 1-3 alkyl; and p is 0 to 4, preferably 0 or 1, more preferably 0; and each q is independently 0 to 3, preferably 0 or 1, more preferably 0; and optionally a bisphenol A homopolycarbonate. R is a C 1-25 hydrocarbyl, preferably a C 1-6 alkyl, a phenyl, or a phenyl substituted with up to five C 1-6 alkyl groups, more preferably a C 1-3 alkyl or a phenyl; each occurrence of R 2 and R 3 is independently a hydrogen, a halogen, or a C 1-25 hydrocarbyl, preferably a hydrogen, a halogen, or a C 1-6 alkyl, more preferably a hydrogen or a C 1-3 alkyl; and p is 0 to 4, preferably 0 or 1, more preferably 0; and each q is independently 0 to 3, preferably 0 or 1, more preferably 0; and optionally a bisphenol A homopolycarbonate.
A high frequency glass antenna for automobiles, comprising: an antenna conductor , a feeding portion for the antenna conductor, an electric heating defogger having a plurality of heating wires and a plurality of bus bars for feeding the heating wires , and a ground-side feeding portion , characterized in that - the electric heating defogger, - the antenna conductor , - the feeding portion , and - the ground-side feeding portion , are adapted to be disposed in or on a rear window glass sheet for automobiles in such a way that when a signal received by the antenna conductor is taken out from the feeding portion , the ground-side feeding portion is utilized as a ground reference, wherein the ground-side feeding portion is electrically connected to the defogger so as to serve as a grounding conductor; and wherein an adjusting element (3,13, 23,33, and 36) is connected to the defogger, whose length is set so as to adjust the reception sensitivity of the antenna conductor. an antenna conductor , a feeding portion for the antenna conductor, an electric heating defogger having a plurality of heating wires and a plurality of bus bars for feeding the heating wires , and a ground-side feeding portion , characterized in that - the electric heating defogger, - the antenna conductor , - the feeding portion , and - the ground-side feeding portion , - the electric heating defogger, - the antenna conductor , - the feeding portion , and - the ground-side feeding portion , are adapted to be disposed in or on a rear window glass sheet for automobiles in such a way that when a signal received by the antenna conductor is taken out from the feeding portion , the ground-side feeding portion is utilized as a ground reference, wherein the ground-side feeding portion is electrically connected to the defogger so as to serve as a grounding conductor; and wherein an adjusting element (3,13, 23,33, and 36) is connected to the defogger, whose length is set so as to adjust the reception sensitivity of the antenna conductor.
Non-therapeutic use of an oil-in-water emulsion in personal care applications, wherein the oil-in-water emulsion comprises: (a) a continuous aqueous phase; (b) a discontinuous phase comprising one or more emollients, and 0.1 to 35 wt.%, based on the amount of emulsion, of a saturated C 8 -C 14 alkyl N,N-dialkylamide and (c) a fragrance, characterized in that the discontinuous phase comprises a saturated C 12 -C 14 alkyl N,N-dialkylamide, wherein the emulsion is used for a cosmetic, face cream, lotion, or other skin-care product. (a) a continuous aqueous phase; (b) a discontinuous phase comprising one or more emollients, and 0.1 to 35 wt.%, based on the amount of emulsion, of a saturated C 8 -C 14 alkyl N,N-dialkylamide and (c) a fragrance, characterized in that the discontinuous phase comprises a saturated C 12 -C 14 alkyl N,N-dialkylamide, wherein the emulsion is used for a cosmetic, face cream, lotion, or other skin-care product.
A refrigerant compressor which reserves lubricating oil in a sealed container , and accommodates therein an electric component , and a compression component which is driven by the electric component and compresses a refrigerant, wherein at least one of slide members included in the compression component is made of an iron-based material, and wherein an oxide coating film is provided on a slide surface of the iron-based material, the oxide coating film comprising: a composition A portion containing diiron trioxide (Fe 2 O 3 ) which is more in quantity than other substances; a composition B portion containing triiron tetraoxide (Fe 3 O 4 ) which is more in quantity than other substances and containing a silicon (Si) compound; and a composition C portion containing triiron tetraoxide (Fe 3 O 4 ) which is more in quantity than other substances and containing silicon (Si) which is more in quantity than silicon (Si) of the composition B portion, wherein the oxide coating film comprises at least an outermost portion which is the composition A portion, an intermediate portion which is the composition B portion, and an inner portion which is the composition C portion, the outermost portion , the intermediate portion , and the inner portion being arranged in this order from an outermost surface of the oxide coating film . a composition A portion containing diiron trioxide (Fe 2 O 3 ) which is more in quantity than other substances; a composition B portion containing triiron tetraoxide (Fe 3 O 4 ) which is more in quantity than other substances and containing a silicon (Si) compound; and a composition C portion containing triiron tetraoxide (Fe 3 O 4 ) which is more in quantity than other substances and containing silicon (Si) which is more in quantity than silicon (Si) of the composition B portion,
Medical fastening device for a sensor with a clamping element and with a sensor mount , wherein the clamping element has a counterpiece and a pressing piece movable relative to the counterpiece , wherein the counterpiece has a lateral opening , which frees a free mounting area , wherein the counterpiece encloses the mounting area at least partially in a framelike manner, wherein the counterpiece has a depression , which points towards the mounting area and which is arranged opposite the pressing piece , wherein the counterpiece is provided with an opening arranged opposite the depression , and wherein the pressing piece is movable in the opening in the direction of the depression of the counterpiece , wherein the fastening device is configured for receiving an electromagnetic sensor, wherein a sensor mount is provided, the pressing piece has a carriage and a screwed part , characterized in that the carriage is connected to the screwed part in a positive-locking manner and is mounted rotatably at the screwed part and that moreover, the carriage has a groove having a circle segment-shaped section on its end face facing the depression of the counterpiece .
A system for protecting rotating electromechanical systems against damages , comprising: - a rotatable coupling configured to rotatably connect a moment provider with a load , said coupling comprising: - first wireless communication means ; - first CPU ; - first energy providing means; and - at least one first sensor ; - a control unit connected with said moment provider , said control unit comprising: - second wireless communication means ; - second energy providing means; - at least one second sensor ; - a cutoff switch ; and - second CPU ; said coupling and said control unit configured to communicate with each other via said first and second wireless communication means; said control unit configured to cutoff said moment provider's power when at least one predetermined threshold is exceeded based on measurements taken by at least one of said at least one first sensor and said at least one second sensor . - a rotatable coupling configured to rotatably connect a moment provider with a load , said coupling comprising: - first wireless communication means ; - first CPU ; - first energy providing means; and - at least one first sensor ; - first wireless communication means ; - first CPU ; - first energy providing means; and - at least one first sensor ; - a control unit connected with said moment provider , said control unit comprising: - second wireless communication means ; - second energy providing means; - at least one second sensor ; - a cutoff switch ; and - second CPU ; - second wireless communication means ; - second energy providing means; - at least one second sensor ; - a cutoff switch ; and - second CPU ;
A method of managing content delivery at a network element to a client device , wherein the content comprises a plurality of segments, said method comprising: i) receiving one or more segments over multicast at a first network element , and caching the one or more segments at the first network element ; ii) determining the bit rate at which the one or more segments is received; iii) receiving unicast requests for segments from a client device at the first network element; and iv) transmitting the requested segments from the first network element to the client device over unicast at a transmission rate no greater than the determined rate. i) receiving one or more segments over multicast at a first network element , and caching the one or more segments at the first network element ; ii) determining the bit rate at which the one or more segments is received; iii) receiving unicast requests for segments from a client device at the first network element; and iv) transmitting the requested segments from the first network element to the client device over unicast at a transmission rate no greater than the determined rate.
A tensioner comprising: a base having a base aperture , the base aperture disposed to receive a driven component; a rotary arm pivotally engaged with the base , an axis of rotation of the rotary arm aligned with a base aperture center, a first pulley journalled to the rotary arm ; a swing arm pivotally engaged with the rotary arm about a shaft , a torsion spring biasing the swing arm , a second pulley journalled to the swing arm ; and a first damping ring frictionally engaged between the rotary arm and the base , a Belleville spring in pressing engagement whereby a normal force is applied to the first damping ring ; and characterised by : the shaft and swing arm each having cooperating frustoconical portions , and further comprising: a bushing having a frustoconical portion in frictional engagement with the swing arm frustoconical portion , the bushing in fixed relation to the shaft or swing arm . a base having a base aperture , the base aperture disposed to receive a driven component; a rotary arm pivotally engaged with the base , an axis of rotation of the rotary arm aligned with a base aperture center, a first pulley journalled to the rotary arm ; a swing arm pivotally engaged with the rotary arm about a shaft , a torsion spring biasing the swing arm , a second pulley journalled to the swing arm ; and a first damping ring frictionally engaged between the rotary arm and the base , a Belleville spring in pressing engagement whereby a normal force is applied to the first damping ring ; and characterised by : the shaft and swing arm each having cooperating frustoconical portions , and further comprising: a bushing having a frustoconical portion in frictional engagement with the swing arm frustoconical portion , the bushing in fixed relation to the shaft or swing arm .
A method comprising: receiving, by a computer node in a network including a plurality of computer nodes , a plurality of data values, each of the plurality of computer nodes creating a data value of the plurality of data values based on a computation time that a corresponding computer node in the plurality of computer nodes takes to perform a function; receiving (S302), by the computer node from a remote computer , interaction data; processing (S304A), by the computer node , the interaction data in parallel with performing the function (S304B); determining (S306), by the computer node , a computation time that the computer node takes to perform the function; determining (S312), by the computer node , a difference between the time that the computer node takes to perform the function and each data value of the plurality of data values; providing (S320), by the computer node , the differences between the first data value and each of the plurality of data values or derivatives thereof as random values to an entropy pool of random values; selecting (S324), by the computer node , a selected random value from the entropy pool ; and initiating (S326), by the computer node , use of the selected random value in an operation. receiving, by a computer node in a network including a plurality of computer nodes , a plurality of data values, each of the plurality of computer nodes creating a data value of the plurality of data values based on a computation time that a corresponding computer node in the plurality of computer nodes takes to perform a function; receiving (S302), by the computer node from a remote computer , interaction data; processing (S304A), by the computer node , the interaction data in parallel with performing the function (S304B); determining (S306), by the computer node , a computation time that the computer node takes to perform the function; determining (S312), by the computer node , a difference between the time that the computer node takes to perform the function and each data value of the plurality of data values; providing (S320), by the computer node , the differences between the first data value and each of the plurality of data values or derivatives thereof as random values to an entropy pool of random values; selecting (S324), by the computer node , a selected random value from the entropy pool ; and initiating (S326), by the computer node , use of the selected random value in an operation.
Method for producing a component from a hardenable aluminium alloy, comprising the steps: - heating a blank to a predetermined temperature, - forming the heated blank in a first forming tool to form a semifinished product , - cooling the semifinished product , wherein the cooling is effected during the forming, - forming the cooled semifinished product in a second forming tool to form a component , wherein the cooled semifinished product is in a W state prior to the forming in the second forming tool . - heating a blank to a predetermined temperature, - forming the heated blank in a first forming tool to form a semifinished product , - cooling the semifinished product , wherein the cooling is effected during the forming, - forming the cooled semifinished product in a second forming tool to form a component , wherein the cooled semifinished product is in a W state prior to the forming in the second forming tool .
A method for wireless communication, wherein the method is performed by a first mobile user equipment, UE, and comprises: determining a location of the first mobile UE; determining a maximum travel speed of a region corresponding to the location of the first mobile UE based on a speed limit of the region; determining a travel speed of the first UE based on the maximum travel speed; determining , based on the travel speed of the first UE, a transmission configuration of the first UE for device-to-device communication; and transmitting the device-to-device communication based on the transmission configuration to a second mobile UE. determining a location of the first mobile UE; determining a maximum travel speed of a region corresponding to the location of the first mobile UE based on a speed limit of the region; determining a travel speed of the first UE based on the maximum travel speed; determining , based on the travel speed of the first UE, a transmission configuration of the first UE for device-to-device communication; and transmitting the device-to-device communication based on the transmission configuration to a second mobile UE.
A shovel comprising: a traveling undercarriage ; an upper turning structure turnably mounted on the traveling undercarriage ; an attachment attached to the upper turning structure ; an end attachment position detecting part (S1, S2, S3, 16) configured to detect a position of an end attachment ; an object detecting device configured to detect a position of an object ; characterized by a control part configured to control a movement of at least one of the attachment and the upper turning structure , based on a relative positional relationship between an excavation completion position of the end attachment and the position of the object . a traveling undercarriage ; an upper turning structure turnably mounted on the traveling undercarriage ; an attachment attached to the upper turning structure ; an end attachment position detecting part (S1, S2, S3, 16) configured to detect a position of an end attachment ; an object detecting device configured to detect a position of an object ; characterized by a control part configured to control a movement of at least one of the attachment and the upper turning structure , based on a relative positional relationship between an excavation completion position of the end attachment and the position of the object .