mhurhangee/ep-ind-claims huggingface dataset:
An aluminum reduction cell, comprising: (a) a shell structure comprising a pair of longitudinally extending sidewalls, a pair of transversely extending endwalls, a bottom wall, and an open top having an upper edge; (b) a transverse support structure comprising a plurality of transverse bottom beams located under the shell structure and extending transversely between the sidewalls, each of the transverse bottom beams having a pair of opposed ends; and (c) a plurality of compliant binding elements fixed to the transverse support structure, each extending vertically along an outer surface of one of the sidewalls, for applying an inwardly directed force to said sidewall; wherein the compliant binding elements are in the form of cantilever springs, each comprising a metal member having a lower end, which is secured to the transverse support structure, and a compliant, upper free end, which maintains the inwardly directed force to said sidewall.. (a) a shell structure comprising a pair of longitudinally extending sidewalls, a pair of transversely extending endwalls, a bottom wall, and an open top having an upper edge; (b) a transverse support structure comprising a plurality of transverse bottom beams located under the shell structure and extending transversely between the sidewalls, each of the transverse bottom beams having a pair of opposed ends; and (c) a plurality of compliant binding elements fixed to the transverse support structure, each extending vertically along an outer surface of one of the sidewalls, for applying an inwardly directed force to said sidewall; wherein the compliant binding elements are in the form of cantilever springs, each comprising a metal member having a lower end, which is secured to the transverse support structure, and a compliant, upper free end, which maintains the inwardly directed force to said sidewall..
A method of operating a client electronic device, the method comprising: receiving, from a host electronic device, first information regarding a real device driver of the host electronic device, based on a first protocol; generating, based on the first information, a virtual device driver, which corresponds to the real device driver of the host electronic device, the virtual device driver used for an application which is stored in the client electronic device; transmitting, to the host electronic device, second information regarding an identifier, ID, of the virtual device driver or an ID of the application, based on the first protocol; receiving, from the host electronic device, third information regarding a second protocol, based on the first protocol, wherein the second protocol is determined based on the ID of the virtual device driver or the ID of the application; and receiving a resource from the host electronic device through the virtual device driver, based on the second protocol. receiving, from a host electronic device, first information regarding a real device driver of the host electronic device, based on a first protocol; generating, based on the first information, a virtual device driver, which corresponds to the real device driver of the host electronic device, the virtual device driver used for an application which is stored in the client electronic device; transmitting, to the host electronic device, second information regarding an identifier, ID, of the virtual device driver or an ID of the application, based on the first protocol; receiving, from the host electronic device, third information regarding a second protocol, based on the first protocol, wherein the second protocol is determined based on the ID of the virtual device driver or the ID of the application; and receiving a resource from the host electronic device through the virtual device driver, based on the second protocol.
A fluid pumping device, comprising: a pump housing comprising a base comprising a plurality of inlet ports (146a - 146f) and at least one outlet port (146g, 146h); and a pair of pistons (162, 164) movably associated with the base member, the pistons (162, 164) at least in part defining a pumping chamber of the fluid pumping device, and the pistons (162, 164) independently controlled such that any one of the plurality of inlet ports (146a-146f) or the at least one outlet port (146g, 146h) is independently selectable to be in fluid communication with the pumping chamber; characterized in that the pistons (162, 164) are opposing pistons.
Method for automated operation of a material extraction plant at a mining face of a material extraction site, wherein the material extraction plant comprises at least one mobile and movable mining device for producing bulk material and at least one conveyor device for transporting away the mined bulk material, wherein on the basis of sensor data obtained by means of a sensor system (200, 300 - 315), a model-based real-time simulation of the operation of the material extraction plant and of the corresponding process of mining material at the mining face of the material extraction site is performed and the material extraction plant is operated in an automated manner on the basis of the results of the real-time simulation, wherein, on the basis of the detected sensor data, suitable first control data for the automation of the process of mining at the mining face are generated in real time for the at least one mining device, characterised in that second control data are generated for plant parts or devices which are arranged in the vicinity of the mining face or in the vicinity of the at least one mining device and involved in the mining process. wherein on the basis of sensor data obtained by means of a sensor system (200, 300 - 315), a model-based real-time simulation of the operation of the material extraction plant and of the corresponding process of mining material at the mining face of the material extraction site is performed and the material extraction plant is operated in an automated manner on the basis of the results of the real-time simulation, wherein, on the basis of the detected sensor data, suitable first control data for the automation of the process of mining at the mining face are generated in real time for the at least one mining device, characterised in that second control data are generated for plant parts or devices which are arranged in the vicinity of the mining face or in the vicinity of the at least one mining device and involved in the mining process.
Detergent formulation for textiles, comprising a mono- and di-rhamnolipid mixture composition, characterized in that the weight ratio of di-rhamnolipids to mono-rhamnolipids is greater than 97:3, particularly preferably greater than 98:2.
Method for generating a yaw moment for controlling the driving dynamics of a vehicle, a target yaw moment of the vehicle being determined from a target yaw rate specified by a specified steering angle, so that the vehicle can traverse the specified steering angle at the current vehicle speed (v), the target yaw moment being divided into a steering yaw moment LGM generated by the steering, a roll yaw moment (M z,dg) and a drive yaw moment AGM, characterized in that the roll yaw moment (M z,dg) is divided into individual roll yaw moments (M z,d1, M z,d2, M z,d3, M z,d4) of the individual wheels, which can be variably set, the already present drive yaw moment (VAGM) and a maximum possible roll yaw moment (M z,dmax) being taken into account in ascertaining the distribution of the target yaw moment, the individual roll yaw moments (M z,d1, M z,d2, M z,d3, M z,d4) of the individual wheels being caused by controlling the dampers of the wheels, the individual roll yaw moments (M z,d1, M z,d2, M z,d3, M z,d4) of the individual wheels being caused by individual current supply to the dampers, and the damping force of the dampers being ascertained by modeling the rolling behavior of the vehicle and determining the roll angle (φ) and its derivatives, as a result of which the damping force is distributed variably to the wheels by controlling the dampers, the rolling behavior of the vehicle being described by a linear model in which the front and rear axles of the vehicle are combined, the roll axis extending in the longitudinal direction of the vehicle is combined in a roll pole, and the lateral acceleration acts at the structural center of gravity. the roll yaw moment (M z,dg) is divided into individual roll yaw moments (M z,d1, M z,d2, M z,d3, M z,d4) of the individual wheels, which can be variably set, the already present drive yaw moment (VAGM) and a maximum possible roll yaw moment (M z,dmax) being taken into account in ascertaining the distribution of the target yaw moment, the individual roll yaw moments (M z,d1, M z,d2, M z,d3, M z,d4) of the individual wheels being caused by controlling the dampers of the wheels, the individual roll yaw moments (M z,d1, M z,d2, M z,d3, M z,d4) of the individual wheels being caused by individual current supply to the dampers, and the damping force of the dampers being ascertained by modeling the rolling behavior of the vehicle and determining the roll angle (φ) and its derivatives, as a result of which the damping force is distributed variably to the wheels by controlling the dampers, the rolling behavior of the vehicle being described by a linear model in which the front and rear axles of the vehicle are combined, the roll axis extending in the longitudinal direction of the vehicle is combined in a roll pole, and the lateral acceleration acts at the structural center of gravity.
A curable composition, comprising a linear organic polymer having a reactive silyl group represented by the following formula at only one terminal and having 0.5 to 1.0 reactive silyl groups per molecule on average, and an organic polymer containing a reactive silyl group represented by the following formula, the organic polymer and the organic polymer being mixed at a mixing ratio:, in terms of parts by weight, of 60:40 to 5:95, the organic polymer having a number average molecular weight larger than that of the organic polymer, the formula being: -V-SiX 3 wherein V represents a C1 to C8 divalent hydrocarbon group, Xs each represent a hydroxyl or hydrolyzable group, and when there are a plurality of Xs, Xs may be the same as or different from one another, the formula being: -V-SiR 1 d X 3-d wherein R 1 represents a C1 to C20 hydrocarbon group, a C6 to C20 aryl group, a C7 to C20 aralkyl group, or a triorganosiloxy group represented by R 0 3 SiO- where the three R 0 s each represent a C1 to C20 hydrocarbon group and may be the same as or different from one another; V represents a C1 to C8 divalent hydrocarbon group; X represents a hydroxyl or hydrolyzable group; d represents 1 or 2; when there are a plurality of R 1 s, R 1 s may be the same as or different from one another; and when there are a plurality of Xs, Xs may be the same as or different from one another.
Opto-electronic measuring device for point cloud acquisition by scanning measuring of an object's surface with a measuring rate of at least one thousand object points per second, in particular laser scanner or laser tracker, having a base and a targeting unit defining a target axis for targeting the object to be measured, the targeting unit being rotatable in relation to the base, a light source (4, 4a) for generation of a measurement beam, an exit aperture for emitting the measurement beam as a free beam in direction of the target axis towards a point (P, Px, P1, P2, P3) on the object's surface to be measured and with an internal emitting measurement beam path, characterized by a high-speed autofocus optical module, situated in the internal emitting measurement beam path, the high-speed autofocus optical module being designed for a real-time measurement focus adaption within a single object point measurement period and comprising at least one variable focal length lens (2, 2a) or reconfigurable optical phase plate having a response time of under 1ms, in particular of under 10us. a base and a targeting unit defining a target axis for targeting the object to be measured, the targeting unit being rotatable in relation to the base, a light source (4, 4a) for generation of a measurement beam, an exit aperture for emitting the measurement beam as a free beam in direction of the target axis towards a point (P, Px, P1, P2, P3) on the object's surface to be measured and with an internal emitting measurement beam path, characterized by a high-speed autofocus optical module, situated in the internal emitting measurement beam path, the high-speed autofocus optical module being designed for a real-time measurement focus adaption within a single object point measurement period and comprising at least one variable focal length lens (2, 2a) or reconfigurable optical phase plate having a response time of under 1ms, in particular of under 10us.
A method for feeding carbon dioxide to an oxyfuel combustion boiler wherein air is separated-by an air separation unit into oxygen and the other nitrogen-rich gas; the oxygen obtained by the air separation unit and fuel are burned by a burner of a combustion furnace; at least dust removal is conducted for resultant exhaust gas from the combustion furnace; and then, a portion of the exhaust gas is recirculated as a recirculating gas to said combustion furnace and the remaining non-recirculating exhaust gas is discharged, a carbon dioxide gas is taken out from the remaining non-recirculating exhaust gas and is introduced into an equipment of an oxyfuel combustion boiler facility for purging, characterized in that remaining non-recirculating exhaust gas is separated by cooling into a highly-purified carbon dioxide gas not containing impurities and a carbon dioxide gas containing impurities, said highly-purified carbon dioxide gas not containing impurities being used for purging a flame detector of the combustion furnace, said carbon dioxide gas containing impurities being used for purging an insulator of an electrostatic precipitator or backwashing a filter of a bag filter.
A method of controlling or preventing infestation of okra, melon, tomato and potato plants by phytopathogenic microorganisms selected from Sphaerotheca fuliginea, Leveillula taurica, Sclerotinia sclerotiorum, Cercospora, Fusarium oxysporum, Fusarium solani, Helminthosporium solani, Phoma tuberosa, Rhizoctonia solani, Phytophthora infestans, Verticillium dahlia, Didymella bryoniae, Botrytis cinerea and Alternaria solani, comprising applying to a crop of plants, the locus thereof, or propagation material thereof, a compound of formula (Ic) wherein R11 and R12 are independently selected from halogen; A is pyridyl which is substituted by one or two substituents independently selected from halogen, C 1 -C 4 -alkyl and C 1 -C 4 -haloalkyl. R11 and R12 are independently selected from halogen; A is pyridyl which is substituted by one or two substituents independently selected from halogen, C 1 -C 4 -alkyl and C 1 -C 4 -haloalkyl.
A fastener member for mechanical affixation to a structure, comprising: a base having first and second sides; at least one affixation element extend from the second side of the base and is arranged to mechanically affix to an attachment opening of a structure characterized by: a plurality of fastening elements integrally formed and extending from a first side of the base; a base having first and second sides; at least one affixation element extend from the second side of the base and is arranged to mechanically affix to an attachment opening of a structure a plurality of fastening elements integrally formed and extending from a first side of the base;
Automation device having at least two processors, wherein - a processor monitoring apparatus is assigned to each processor, - a trigger signal can be transferred to the processor monitoring apparatus assigned thereto by each processor, - the processor monitoring apparatuses are provided with at least a first and a second monitoring unit and a coupling unit, - each monitoring unit comprises a triggerable timer, - the trigger signal within each processor monitoring apparatus can be fed in a configurable manner to precisely one of the monitoring units included in the processor monitoring apparatus, in order to trigger the timer of the respective processor monitoring apparatus, - the trigger signal within each processor monitoring apparatus can be fed to a transmitter of the coupling unit of the respective processor monitoring apparatus, - a trigger signal fed to the transmitter of one of the at least two processor monitoring apparatuses can be received by a receiver of the coupling unit of another of the at least two processor monitoring apparatuses and can be forwarded by this in a configurable manner to precisely one of the monitoring units included in this processor monitoring apparatus, in order to trigger the timer. - a processor monitoring apparatus is assigned to each processor, - a trigger signal can be transferred to the processor monitoring apparatus assigned thereto by each processor, - the processor monitoring apparatuses are provided with at least a first and a second monitoring unit and a coupling unit, - each monitoring unit comprises a triggerable timer, - the trigger signal within each processor monitoring apparatus can be fed in a configurable manner to precisely one of the monitoring units included in the processor monitoring apparatus, in order to trigger the timer of the respective processor monitoring apparatus, - the trigger signal within each processor monitoring apparatus can be fed to a transmitter of the coupling unit of the respective processor monitoring apparatus, - a trigger signal fed to the transmitter of one of the at least two processor monitoring apparatuses can be received by a receiver of the coupling unit of another of the at least two processor monitoring apparatuses and can be forwarded by this in a configurable manner to precisely one of the monitoring units included in this processor monitoring apparatus, in order to trigger the timer.
A method for fabricating a curved preform of fiber reinforced material, the method comprising: laying up multiple plies onto a carrier of flexible material at a lamination station; loading the carrier onto a rail system; routing the carrier to a particular Ply-By-Ply, PBP, forming station at the rail system based on a characteristic of at least one ply carried by the carrier; separating the at least one ply from the carrier; making the at least one ply into the curved preform via the particular PBP forming station; and routing the carrier to different ones of PBP forming stations at the rail system based on the characteristic of at least one ply carried by the carrier. laying up multiple plies onto a carrier of flexible material at a lamination station; loading the carrier onto a rail system; routing the carrier to a particular Ply-By-Ply, PBP, forming station at the rail system based on a characteristic of at least one ply carried by the carrier; separating the at least one ply from the carrier; making the at least one ply into the curved preform via the particular PBP forming station; and routing the carrier to different ones of PBP forming stations at the rail system based on the characteristic of at least one ply carried by the carrier.
A display panel free of a liquid crystal layer, comprising a base substrate, and an array of a plurality of pixels on the base substrate, each of the plurality of pixels comprising at least one subpixel; wherein each subpixel comprises: an electroactive layer on the base substrate; and a light transmission layer on the base substrate configured to be actuated by the electroactive layer, characterized in that, the electroactive layer comprises a first portion and a second portion, the light transmission layer being sandwiched between the first portion and the second portion, and the first portion and the second portion are configured to exert a force to the light transmission layer for changing a thickness of the light transmission layer in response to a change in an electrical signal applied to the electroactive layer,so that light transmittance of the light transmission layer in the at least one subpixel changes in response to the change in the electrical signal applied to the electroactive layer to achieve levels of gray scale; wherein the light transmission layer is reversibly deformable, and the light transmission layer is spaced apart from the base substrate by a gap distance variable based on a deformation of the light transmission layer. an electroactive layer on the base substrate; and a light transmission layer on the base substrate configured to be actuated by the electroactive layer, the electroactive layer comprises a first portion and a second portion, the light transmission layer being sandwiched between the first portion and the second portion, and the first portion and the second portion are configured to exert a force to the light transmission layer for changing a thickness of the light transmission layer in response to a change in an electrical signal applied to the electroactive layer,so that light transmittance of the light transmission layer in the at least one subpixel changes in response to the change in the electrical signal applied to the electroactive layer to achieve levels of gray scale; wherein the light transmission layer is reversibly deformable, and the light transmission layer is spaced apart from the base substrate by a gap distance variable based on a deformation of the light transmission layer.
System for the controlled release of an active principle comprising at least (a) one hydrolytically degradable polymer matrix forming acid compounds and (b) at least one complex of an active principle having at least one electrostatic charge and a polyelectrolytic partner which complexes with the active principle, of opposite charge, said complexing agent being acid-sensitive stable at a pH of 7.4 and degradable at a pH less than 7, the solid complex being formed by means of stoichiometric pairing of charges.