mhurhangee/ep-ind-claims huggingface dataset:
A geographic data collecting system, comprising an image pickup unit for taking a digital image including a measuring point of an object to be measured, a GPS unit, an azimuth sensor for detecting an image pickup direction, a display unit for displaying the image taken, a receiving unit for receiving correction information to correct measurement result of said GPS unit, and a control arithmetic unit for obtaining corrected position data by correcting the measurement result based on the correction information and for associating the image acquired by said image pickup unit with the corrected position data and for storing the image and the corrected position data in a storage unit charcterized in that the GPS unit is provided for acquiring position data in the coordinate measurement, a moving detecting sensor is provided for integrally obtaining a moving direction and a moving distance, the receiving unit is provided for receiving a correction information for GPS measurement to be transmitted from a correction information transmitter/receiver and the correction information is outputted to the control arithmetic unit, the control arithmetic unit is provided for correcting the position data according to a measurement correcting program and the correction information, and for acquiring corrected position data, wherein said control arithmetic unit is arranged for suggesting a selection of a second point to take the image of the object to be measured from a first point for taking the image based on a detection result by said moving detecting sensor, is arranged for obtaining 3-dimensional coordinates of the object to be measured based on the two images obtained by taking images of the object to be measured from the two image pickup points, based on two position information obtained for the two image pickup points, and based on azimuth angles of two image pickup directions detected by said azimuth sensor.
A heated roller shade system comprising: a roller; a shade coupled to said roller, wherein said roller is configured to selectively move said shade between a deployed position and an open position; a heating mechanism coupled to at least one of said roller and said shade, wherein said heating mechanism facilitates increasing a temperature of at least one of said roller and said shade; and a sensor; and a controller coupled to the heating mechanism and to the sensor, wherein said controller is configured to: receive data indicating at least one of a current temperature, a current humidity, and a time associated with at least one of said roller and said shade from said sensor; compare the data with an activation threshold; activate the heating mechanism based on the comparison between the data and the activation threshold; compare the data to a deactivation threshold; and deactivate said heating mechanism based on the comparison between the data and the deactivation threshold. a roller; a shade coupled to said roller, wherein said roller is configured to selectively move said shade between a deployed position and an open position; a heating mechanism coupled to at least one of said roller and said shade, wherein said heating mechanism facilitates increasing a temperature of at least one of said roller and said shade; and a sensor; and a controller coupled to the heating mechanism and to the sensor, wherein said controller is configured to: receive data indicating at least one of a current temperature, a current humidity, and a time associated with at least one of said roller and said shade from said sensor; compare the data with an activation threshold; activate the heating mechanism based on the comparison between the data and the activation threshold; compare the data to a deactivation threshold; and deactivate said heating mechanism based on the comparison between the data and the deactivation threshold. receive data indicating at least one of a current temperature, a current humidity, and a time associated with at least one of said roller and said shade from said sensor; compare the data with an activation threshold; activate the heating mechanism based on the comparison between the data and the activation threshold; compare the data to a deactivation threshold; and deactivate said heating mechanism based on the comparison between the data and the deactivation threshold.
Fuel additivation device having a fuel container and a delivery line which is connected at its first end to the fuel container and via which the fuel can be conducted from the fuel container to an outlet opening at the second end of the delivery line, - wherein a first sensor system, which has a data connection to a metering apparatus, is arranged in or on the delivery line - wherein the metering apparatus is connected to the delivery line via a metering interface between the first sensor system and the outlet opening, - wherein the metering apparatus has at least one additive container (42, 43), characterised in that - a property of the fuel flowing through the delivery line can be measured with the first sensor system and the metering apparatus, - and the metering apparatus is configured to conduct a calculated feed quantity of additive (A1, A2) into the delivery line from the additive container(s) (42, 43) via the metering interface as a function of the measured properties. - wherein a first sensor system, which has a data connection to a metering apparatus, is arranged in or on the delivery line - wherein the metering apparatus is connected to the delivery line via a metering interface between the first sensor system and the outlet opening, - wherein the metering apparatus has at least one additive container (42, 43), characterised in that - a property of the fuel flowing through the delivery line can be measured with the first sensor system and the metering apparatus, - and the metering apparatus is configured to conduct a calculated feed quantity of additive (A1, A2) into the delivery line from the additive container(s) (42, 43) via the metering interface as a function of the measured properties.
Multi-stage gearbox of planetary design, in particular splitter gearbox of a mobile machine, having a housing, in which three planetary sets (4, 5, 6; 20, 21, 6) and a plurality of shafts are accommodated, and having shifting elements which are formed by at least one brake (7; 7, 16) and clutches (8, 9, 10; 8, 9, 10, 18; 8, 9, 10, 18, 24; 8, 9, 10, 18, 27) and by means of the targeted actuation of which different transmission ratios can be produced between a drive shaft (2; 19) and an output shaft (3; 22; 26), a third shaft connecting an internal gear of a first planetary set (4; 20) to an internal gear of a second planetary set (5; 21) and being capable of being coupled releasably via a first clutch to the output shaft (3; 22; 26), a fourth shaft being coupled to a sun gear of the first planetary set (4; 20) and firstly being capable of being fixed by means of a first brake on the housing, characterized in that, furthermore, the fourth shaft can be connected via a second clutch to a fifth shaft, the said fifth shaft, furthermore, being connected to a sun gear of the second planetary set (5; 21) and being capable of being coupled by means of a third clutch to a sixth shaft (14; 17; 23) which is connected to a spider of the first planetary set (4; 20), and the drive shaft (2; 19) being connected to a spider of the second planetary set (5; 21).
An electronic device, comprising: a display; a housing including a transparent front side plate through which the display can be viewed, a rear side plate spaced apart from the front side plate and disposed to be parallel thereto, and a side surface member connected to the front side plate and the rear side plate; at least one camera; at least one electronic component located inside the housing; a conductive wall formed between the at least one camera and the at least one electronic component; a side key located in at least one opening formed in a part of the side surface member; and a side key flexible printed circuit board, FPCB, for detecting a depression of the side key, and to generate and transmit an electrical signal in response to a detection of the depression of the side key, wherein a first portion of the side surface member adj acent to the side key is a first antenna, wherein the side key FPCB includes a first connector connected to the first antenna to transmit a first radio frequency, RF, signal to the first antenna, wherein the side key FPCB includes an extended part extending into an inside of the electronic device, wherein the extended part is disposed between the camera and the conductive wall, and wherein the conductive wall includes at least one hole formed in a partial region of the conductive wall corresponding to the extended part. a display; a housing including a transparent front side plate through which the display can be viewed, a rear side plate spaced apart from the front side plate and disposed to be parallel thereto, and a side surface member connected to the front side plate and the rear side plate; at least one camera; at least one electronic component located inside the housing; a conductive wall formed between the at least one camera and the at least one electronic component; a side key located in at least one opening formed in a part of the side surface member; and a side key flexible printed circuit board, FPCB, for detecting a depression of the side key, and to generate and transmit an electrical signal in response to a detection of the depression of the side key, wherein a first portion of the side surface member adj acent to the side key is a first antenna, wherein the side key FPCB includes a first connector connected to the first antenna to transmit a first radio frequency, RF, signal to the first antenna, wherein the side key FPCB includes an extended part extending into an inside of the electronic device, wherein the extended part is disposed between the camera and the conductive wall, and wherein the conductive wall includes at least one hole formed in a partial region of the conductive wall corresponding to the extended part.
A method of synthesizing a molecular sieve having the structure of SSZ-63, the method comprising: (a) providing a reaction mixture comprising: a source of silicon oxide; a source of aluminum oxide; a source of a Group 1 or Group 2 metal; a structure directing agent comprising di(cyclopentylmethyl)dimethylammonium cations; a source of hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve. (a) providing a reaction mixture comprising: a source of silicon oxide; a source of aluminum oxide; a source of a Group 1 or Group 2 metal; a structure directing agent comprising di(cyclopentylmethyl)dimethylammonium cations; a source of hydroxide ions; and water; and a source of silicon oxide; a source of aluminum oxide; a source of a Group 1 or Group 2 metal; a structure directing agent comprising di(cyclopentylmethyl)dimethylammonium cations; a source of hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve.
A method for attenuating multiple reflections in ocean bottom cable seismic data using Wavefield Extrapolation Multiples Modeling (WEMM) in geophysics exploration, comprising: (a) separating an acquired wavefield into a source-side up-going wavefield and a source-side down-coming wavefield and discarding the source-side up-going wavefield; (b) separating the source side downgoing wavefield into a receiver-side up-going wavefield and a receiver-side down-coming wavefield; (c) muting a direct arrival in the receiver-side down-going wavefield; (d) extrapolating the receiver-side down-going wavefield for a round trip through a subsurface to form a prediction of multiples using Wavefield Extrapolation Multiples Modeling; and (e) determining a first primary reflection by adaptively subtracting the prediction of multiples in step (d) from the receiver-side up-going wavefield in step (b). (a) separating an acquired wavefield into a source-side up-going wavefield and a source-side down-coming wavefield and discarding the source-side up-going wavefield; (b) separating the source side downgoing wavefield into a receiver-side up-going wavefield and a receiver-side down-coming wavefield; (c) muting a direct arrival in the receiver-side down-going wavefield; (d) extrapolating the receiver-side down-going wavefield for a round trip through a subsurface to form a prediction of multiples using Wavefield Extrapolation Multiples Modeling; and (e) determining a first primary reflection by adaptively subtracting the prediction of multiples in step (d) from the receiver-side up-going wavefield in step (b).
A compound of formula selected from: wherein x = 0-6; wherein y = 3 or 4 or 5; wherein z = 3 or 4 or 5; or a pharmaceutically acceptable salt thereof; wherein x = 0-6; wherein y = 3 or 4 or 5; and wherein z = 3 or 4 or 5; R= acyl, or alkyl, or a pharmaceutically acceptable salt thereof; and wherein x = 1; wherein y = 3; R= acetyl, methyl or ethyl, or a pharmaceutically acceptable salt thereof. wherein x = 0-6; wherein y = 3 or 4 or 5; wherein z = 3 or 4 or 5; wherein x = 0-6; wherein y = 3 or 4 or 5; and wherein z = 3 or 4 or 5; R= acyl, or alkyl, wherein x = 1; wherein y = 3; R= acetyl, methyl or ethyl,
A computer-implemented method of identifying and classifying a plurality of digital systems' and/or their components' vulnerabilities to one or more of a plurality of attack types, the method including: - receiving system information data representing configurations of a plurality of digital systems, - receiving attack information data associated with attacks on individual ones of the plurality of digital systems, characterised by - analysing the system information data and the associated attack information data, for identifying one or more attack types associated with individual ones of the digital systems, - identifying, for each of the identified attack types, correlations and/or causalities between individual system constituents or combinations thereof in the digital systems associated with attacks, - determining and assigning, based on the identified correlations and/or causalities, an attack vulnerability value, for each attack, to each of the systems and/or systems' constituents and/or combinations thereof, and - retrievably storing attack vulnerability values associated with the systems, system constituents and/or combinations thereof. - receiving system information data representing configurations of a plurality of digital systems, - receiving attack information data associated with attacks on individual ones of the plurality of digital systems, - analysing the system information data and the associated attack information data, for identifying one or more attack types associated with individual ones of the digital systems, - identifying, for each of the identified attack types, correlations and/or causalities between individual system constituents or combinations thereof in the digital systems associated with attacks, - determining and assigning, based on the identified correlations and/or causalities, an attack vulnerability value, for each attack, to each of the systems and/or systems' constituents and/or combinations thereof, and - retrievably storing attack vulnerability values associated with the systems, system constituents and/or combinations thereof.
A retractable lighting fixture, comprising: an elongated drum (120,120',120") rotatable over a length axis; and a flexible multilayer lighting sheet movable between a retracted position and a protracted position more than the retracted position, with the multilayer lighting sheet in the retracted position being at least partially retracted in one or more windings around the drum and with the multilayer lighting sheet in the protracted position being fully unwound from the drum; the multilayer lighting sheet being composed of at least one LED layer and at least one diffusing optical layer, the at least one LED layer having a first LED layer edge mounted at a first mounting position of the drum characterised the at least one diffusing optical layer having a first optical layer edge mounted at a second mounting position (120-2 to 120-6) of the drum, the first mounting position being located at an arc length (s 1-2) from the second mounting position an elongated drum (120,120',120") rotatable over a length axis; and a flexible multilayer lighting sheet movable between a retracted position and a protracted position more than the retracted position, with the multilayer lighting sheet in the retracted position being at least partially retracted in one or more windings around the drum and with the multilayer lighting sheet in the protracted position being fully unwound from the drum; the multilayer lighting sheet being composed of at least one LED layer and at least one diffusing optical layer, the at least one LED layer having a first LED layer edge mounted at a first mounting position of the drum characterised the at least one diffusing optical layer having a first optical layer edge mounted at a second mounting position (120-2 to 120-6) of the drum, the first mounting position being located at an arc length (s 1-2) from the second mounting position
A process for catalytic dehydrogenation comprising: mixing a fluidization gas which comprises methane, natural gas, ethane, hydrogen, nitrogen or any combination thereof with a fluidized catalyst stream in a reactor recycle catalyst fluidization section to form a catalyst recycle stream, the fluidized catalyst stream having passed through a catalytic dehydrogenation reactor and exited a catalyst separation zone; passing a portion of the fluidized catalyst stream to a catalyst regeneration process; and recycling the catalyst recycle stream either directly or indirectly into a catalytic dehydrogenation reactor. mixing a fluidization gas which comprises methane, natural gas, ethane, hydrogen, nitrogen or any combination thereof with a fluidized catalyst stream in a reactor recycle catalyst fluidization section to form a catalyst recycle stream, the fluidized catalyst stream having passed through a catalytic dehydrogenation reactor and exited a catalyst separation zone; passing a portion of the fluidized catalyst stream to a catalyst regeneration process; and recycling the catalyst recycle stream either directly or indirectly into a catalytic dehydrogenation reactor.
A driver upgrade method for a network functions virtualization NFV architecture comprising at least a virtual network function VNF corresponding to a software implementation of network element functions and a network function virtualization infrastructure NFVI that is configured to convert a physical computing resource pool to a virtual computing resource pool in the NFV architecture, wherein the VNF further comprises a virtual function VF driver and the NFVI comprises a physical function PF driver that needs to be matched with VF driver of the VNF and the NFVI and the VNF are configured to evolve independently, the method comprising: receiving, by network functions virtualization management and orchestration MANO (700, 900), first information from the virtualized network function VNF during an upgrade of the VNF, wherein the first information is used to indicate version information of the VNF after the upgrade; determining, by the MANO (700, 900), that a network functions virtualization infrastructure NFVI is not upgraded; and sending, by the MANO (700, 900), second information to the VNF, wherein the second information is used to indicate the VNF not to upgrade the virtual function VF driver installed in the VNF so that the upgrade of the VNF can be independent of that of the VF driver, wherein, after the receiving, by MANO (700, 900), first information from a VNF, the method further comprises: updating, by the MANO (700, 900), a matching relationship between a virtualized network function descriptor VNFD and the VNF, wherein the VNFD matches the VNF in the updated matching relationship. receiving, by network functions virtualization management and orchestration MANO (700, 900), first information from the virtualized network function VNF during an upgrade of the VNF, wherein the first information is used to indicate version information of the VNF after the upgrade; determining, by the MANO (700, 900), that a network functions virtualization infrastructure NFVI is not upgraded; and sending, by the MANO (700, 900), second information to the VNF, wherein the second information is used to indicate the VNF not to upgrade the virtual function VF driver installed in the VNF so that the upgrade of the VNF can be independent of that of the VF driver, wherein, after the receiving, by MANO (700, 900), first information from a VNF, the method further comprises: updating, by the MANO (700, 900), a matching relationship between a virtualized network function descriptor VNFD and the VNF, wherein the VNFD matches the VNF in the updated matching relationship.
An apparatus, comprising: - a soft error rate monitor that produces an indication (111, 211, 311) of a soft error rate occurring in a variable sensitivity soft error sensor (110, 210, 310), said variable sensitivity soft error sensor (110, 210, 310) receiving a supply voltage (121, 221, 321) that affects said soft error rate occurring in said variable sensitivity soft error sensor (110, 210, 310), said supply voltage being the power supply voltage which supplies power to the variable sensitivity soft error sensor (110, 210, 310); and - a supply voltage control (120, 220, 320) that receives said indication (111, 211, 311) of said soft error rate and sets said supply voltage (121, 221, 321), said supply voltage control (120, 220, 320) setting said supply voltage (121, 221, 321) to satisfy a criteria soft error rate occurring in said variable sensitivity soft error sensor (110, 210, 310), the amplitude of the supply voltage (121, 221, 321) to be adjusted in a closed-loop feedback manner to adjust the sensitivity of said variable sensitivity soft error sensor in response to changes in a monitored soft error rate in order to keep said monitored soft error rate below a threshold soft error rate. - a soft error rate monitor that produces an indication (111, 211, 311) of a soft error rate occurring in a variable sensitivity soft error sensor (110, 210, 310), said variable sensitivity soft error sensor (110, 210, 310) receiving a supply voltage (121, 221, 321) that affects said soft error rate occurring in said variable sensitivity soft error sensor (110, 210, 310), said supply voltage being the power supply voltage which supplies power to the variable sensitivity soft error sensor (110, 210, 310); and - a supply voltage control (120, 220, 320) that receives said indication (111, 211, 311) of said soft error rate and sets said supply voltage (121, 221, 321), said supply voltage control (120, 220, 320) setting said supply voltage (121, 221, 321) to satisfy a criteria soft error rate occurring in said variable sensitivity soft error sensor (110, 210, 310), the amplitude of the supply voltage (121, 221, 321) to be adjusted in a closed-loop feedback manner to adjust the sensitivity of said variable sensitivity soft error sensor in response to changes in a monitored soft error rate in order to keep said monitored soft error rate below a threshold soft error rate.