mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for autonomous vehicle control, the method comprising: sending, by a third-party entity (410; 510), one or more vehicle commands to a first autonomous vehicle to select the first autonomous vehicle, wherein in response to receiving the one or more vehicle commands, the first autonomous vehicle is configured as being selected controlling, by one or more computing devices, the first autonomous vehicle (104; 411; 512) to provide a vehicle service, the first autonomous vehicle being associated with a first convoy (105; 411-414; 511-514) that includes one or more second autonomous vehicles (412-414; 511, 513, 514), the vehicle service being associated with a service provider entity; receiving, by the one or more computing devices, one or more communications from a remote computing system associated with the third-party entity (410; 510) that is separate from the service provider entity, the one or more communications including one or more vehicle instructions and an associated priority level that is associated with the one or more vehicle instructions; coordinating, by the one or more computing, with the one or more second autonomous vehicles to determine one or more vehicle actions to perform in response to receiving the one or more vehicle instructions from the remote computing system associated with the third-party entity and based at least in part on the associated priority level; and controlling, by the one or more computing devices, the first autonomous vehicle to implement the one or more vehicle actions. sending, by a third-party entity (410; 510), one or more vehicle commands to a first autonomous vehicle to select the first autonomous vehicle, wherein in response to receiving the one or more vehicle commands, the first autonomous vehicle is configured as being selected controlling, by one or more computing devices, the first autonomous vehicle (104; 411; 512) to provide a vehicle service, the first autonomous vehicle being associated with a first convoy (105; 411-414; 511-514) that includes one or more second autonomous vehicles (412-414; 511, 513, 514), the vehicle service being associated with a service provider entity; receiving, by the one or more computing devices, one or more communications from a remote computing system associated with the third-party entity (410; 510) that is separate from the service provider entity, the one or more communications including one or more vehicle instructions and an associated priority level that is associated with the one or more vehicle instructions; coordinating, by the one or more computing, with the one or more second autonomous vehicles to determine one or more vehicle actions to perform in response to receiving the one or more vehicle instructions from the remote computing system associated with the third-party entity and based at least in part on the associated priority level; and controlling, by the one or more computing devices, the first autonomous vehicle to implement the one or more vehicle actions.
A method for crosslinking a copolymer of ethylene and at least one other monomer using an organic peroxide represented by Formula: wherein R1 is either a methyl or an ethyl group and wherein - if R1 is a methyl group, R2 is an alkyl group having 1 to 8 carbon atoms optionally substituted with groups containing O, Si, P, S, SO- or SO 2 functionalities; - if R1 is an ethyl group, R2 is an alkyl group having 2 to 8 carbon atoms optionally substituted with groups containing O, Si, P, S, SO- or SO 2 functionalities. - if R1 is a methyl group, R2 is an alkyl group having 1 to 8 carbon atoms optionally substituted with groups containing O, Si, P, S, SO- or SO 2 functionalities; - if R1 is an ethyl group, R2 is an alkyl group having 2 to 8 carbon atoms optionally substituted with groups containing O, Si, P, S, SO- or SO 2 functionalities.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein: R is C 2-4 alkyl; W is selected from NR A, O, and S; Z is selected from a single bond, -C -, NR A, O, and S; X 1 and X 2 are each independently selected from -OH, -NHR A, and -C OH; R A is H or C 1 - 3 alkyl; m is 1, 2, 3, or 4; and n is 1, 2, 3, or 4. R is C 2-4 alkyl; W is selected from NR A, O, and S; Z is selected from a single bond, -C -, NR A, O, and S; X 1 and X 2 are each independently selected from -OH, -NHR A, and -C OH; R A is H or C 1 - 3 alkyl; m is 1, 2, 3, or 4; and n is 1, 2, 3, or 4.
Device for monitoring the surroundings of a vehicle, having a first sensor for a detection of the surroundings of a vehicle, having a second sensor for the detection of the surroundings of the vehicle and having an evaluating unit, the first sensor for the detection of the surroundings of a vehicle having a first detection range, characterized in that the first sensor and the second sensor are arranged on a vehicle, and the second sensor for the detection of the surroundings of a vehicle is arranged inside the first detection range, the first sensor being a camera and the camera detecting the second sensor optically and means for image processing being provided in order to find changes to the external state of the second sensor compared with a reference state and to evaluate whether the second sensor is soiled or has been externally damaged.
A process for the preparation of an organic-inorganic hybrid chiral sorbent comprising N-methylaminopropyl or aminopropyl alcohol covalently bonded to the surface of mesoporous silica material, the said process comprising the steps of: a) silylating a chiral epoxide with a silylating agent in an organic solvent with a molar ratio of chiral epoxide to silylating agent of 1:1 to 1:2.5 in the presence of an inorganic base, b) refluxing, the above said reaction mixture obtained in step (a) under an inert atmosphere for a period of 8 to 16 hours, followed by filtration to obtain the resultant filtrate, c) refluxing, the above said filtrate obtained in step (b) with mesoporous silica, under an inert atmosphere for a period of 35 to 55 hours, followed by filtration and washing of the resultant solid product with toluene, d) reacting the resultant washed product obtained in step (c) with aniline or substituted aniline in toluene, under reflux, under an inert atmosphere for a period of 8 to 16 hours, followed by filtration and washing of the resultant product with toluene and extracting the chiral sorbent in a solution mixture of toluene and isopropanol to obtain the product of organic-inorganic hybrid chiral sorbent. a) silylating a chiral epoxide with a silylating agent in an organic solvent with a molar ratio of chiral epoxide to silylating agent of 1:1 to 1:2.5 in the presence of an inorganic base, b) refluxing, the above said reaction mixture obtained in step (a) under an inert atmosphere for a period of 8 to 16 hours, followed by filtration to obtain the resultant filtrate, c) refluxing, the above said filtrate obtained in step (b) with mesoporous silica, under an inert atmosphere for a period of 35 to 55 hours, followed by filtration and washing of the resultant solid product with toluene, d) reacting the resultant washed product obtained in step (c) with aniline or substituted aniline in toluene, under reflux, under an inert atmosphere for a period of 8 to 16 hours, followed by filtration and washing of the resultant product with toluene and extracting the chiral sorbent in a solution mixture of toluene and isopropanol to obtain the product of organic-inorganic hybrid chiral sorbent.
Hollow rotor, having an outside surface surrounding a hollow space and having supporting walls that extend across the longitudinal axis of the hollow rotor and support the outside surface, where in deviation from a round contour the hollow rotor incorporates a polygonal cross-section and the outside surface is made up of flat metal plate sections, characterised in that the outside surface is pierced by narrow holes referred to as mounting slots, and that the supporting walls are likewise made from metal sheet and incorporate mounting brackets that protrude radially outwards and that the mounting brackets extend into the mounting slots and that the supporting walls are connected to the outside surface by welding the mounting brackets to the metal plate sections of the outside surface that incorporate mounting slots.
A method for performing wireless communication by a first device, the method comprising: transmitting sidelink control information including resource allocation information and resource reservation period information; performing re-evaluation for a first transmission resource for performing sidelink communication; reselecting the first transmission resource based on the re-evaluation; and reselecting a second transmission resource based on the reselection of the first transmission resource, wherein the second transmission resource is a resource selected by the first device before the first transmission resource is reselected, wherein the second transmission resource is a resource not reserved by the first device, and wherein a third transmission resource in only one subsequent period that has already been signaled by the sidelink control information is not subject to the re-evaluation. transmitting sidelink control information including resource allocation information and resource reservation period information; performing re-evaluation for a first transmission resource for performing sidelink communication; reselecting the first transmission resource based on the re-evaluation; and reselecting a second transmission resource based on the reselection of the first transmission resource, wherein the second transmission resource is a resource selected by the first device before the first transmission resource is reselected, wherein the second transmission resource is a resource not reserved by the first device, and wherein a third transmission resource in only one subsequent period that has already been signaled by the sidelink control information is not subject to the re-evaluation.
A method comprising: transferring, by a network node, from a first subscription for a first terminal apparatus associated with a first network operator to a second subscription associated with a second network operator, wherein transferring from the first subscription to the second subscription comprises modifying a device identifier; and causing, by the network node, one or more other terminal apparatuses identified in a connection map, associated with the first terminal apparatus, to be updated with the modified device identifier, wherein the connection map is maintained by the network node and comprises at least one of contact details and information associated with the one or more other terminal apparatuses listed therein. transferring, by a network node, from a first subscription for a first terminal apparatus associated with a first network operator to a second subscription associated with a second network operator, wherein transferring from the first subscription to the second subscription comprises modifying a device identifier; and causing, by the network node, one or more other terminal apparatuses identified in a connection map, associated with the first terminal apparatus, to be updated with the modified device identifier, wherein the connection map is maintained by the network node and comprises at least one of contact details and information associated with the one or more other terminal apparatuses listed therein.
An electronic device, comprising: a display panel; a display controller, configured to control displaying of the display panel; and a host, electrically connected to the display controller, wherein the host comprises a central processing unit and a graphics processing unit, wherein the GPU performs graphics processing of an application executed by the CPU to render a display image, and transmits the display image to the display controller through an image-transmission channel between the host and the display controller, wherein the electronic device is characterized in that the display controller detects whether pixels in a specific area of the display image satisfy a predetermined condition, wherein in response to the pixels in the specific area satisfying the predetermined condition, the display controller triggers a virtual input signal, and transmits the virtual input signal to the host through a data-transmission channel between the host and the display controller, so that the CPU executes a specific operation corresponding to the virtual input signal. a display panel; a display controller, configured to control displaying of the display panel; and a host, electrically connected to the display controller, wherein the host comprises a central processing unit and a graphics processing unit, wherein the GPU performs graphics processing of an application executed by the CPU to render a display image, and transmits the display image to the display controller through an image-transmission channel between the host and the display controller, wherein the electronic device is characterized in that the display controller detects whether pixels in a specific area of the display image satisfy a predetermined condition, wherein in response to the pixels in the specific area satisfying the predetermined condition, the display controller triggers a virtual input signal, and transmits the virtual input signal to the host through a data-transmission channel between the host and the display controller, so that the CPU executes a specific operation corresponding to the virtual input signal.
A work stealer apparatus comprising: a determination module to determine whether or not to steal work from a first hardware computation unit (101-1; 401-1; 601-1; 701-1) of a first type for a second hardware computation unit (101-2; 401-2; 601-2; 701-2) of a second type that is to be different than the first type, wherein the work is to be queued in a first work queue (104-1; 204-1; 404-1; 604-1; 704-1), which is to correspond to the first hardware computation unit, and which is to be stored in a shared memory (102; 202; 402; 602; 702) that is to be shared by the first and second hardware computation units; and a synchronized work stealer module (105-2; 221; 605-2; 705-2) to steal the work through a synchronized memory access (110; 210) to the first work queue when the determination module determines to steal the work, the synchronized memory access to be synchronized relative to memory accesses to the first work queue from the first hardware computation unit, characterized in that the synchronized work stealer module is further to add the work to a second work queue (104-2; 204-2; 404-2; 604-2; 704-2) stored in the shared memory and in that the determination module is to determine to steal the work when the second work queue is either empty or is filled below a threshold level, wherein the second work queue corresponds to the second hardware computation unit. a determination module to determine whether or not to steal work from a first hardware computation unit (101-1; 401-1; 601-1; 701-1) of a first type for a second hardware computation unit (101-2; 401-2; 601-2; 701-2) of a second type that is to be different than the first type, wherein the work is to be queued in a first work queue (104-1; 204-1; 404-1; 604-1; 704-1), which is to correspond to the first hardware computation unit, and which is to be stored in a shared memory (102; 202; 402; 602; 702) that is to be shared by the first and second hardware computation units; and a synchronized work stealer module (105-2; 221; 605-2; 705-2) to steal the work through a synchronized memory access (110; 210) to the first work queue when the determination module determines to steal the work, the synchronized memory access to be synchronized relative to memory accesses to the first work queue from the first hardware computation unit, characterized in that the synchronized work stealer module is further to add the work to a second work queue (104-2; 204-2; 404-2; 604-2; 704-2) stored in the shared memory and in that the determination module is to determine to steal the work when the second work queue is either empty or is filled below a threshold level, wherein the second work queue corresponds to the second hardware computation unit.
A heat exchanger comprising: at least one tube array in which refrigerant flows, wherein the tube array comprises: a plurality of tubes each having a channel formed therein, the plurality of tubes disposed to be vertically stacked; connection members coupled to opposite ends of the tubes so as to interconnect the tubes, wherein the tubes are injection molded integrally with the connection members; headers (30a, 30b) coupled to opposite ends of the tube array, the heat exchanger being characterized in that the headers (30a, 30b) comprise: main headers injection molded so as to be respectively coupled to the opposite ends of the tube array; and sub-headers coupled to an outer side of a corresponding one of the main headers so as to form a refrigerant flow passage and including an inflow header having an inlet through which the refrigerant is introduced toward the tubes and an outflow header having an outlet through which the refrigerant is discharged, and in that a plurality of cooling fins are provided at an outer peripheral surface of each tube, wherein the cooling fins are injection molded integrally with the tube and the connection members, and the tubes, the connection members, the sub-headers and the cooling fins are made of a polymeric material. a plurality of tubes each having a channel formed therein, the plurality of tubes disposed to be vertically stacked; connection members coupled to opposite ends of the tubes so as to interconnect the tubes, wherein the tubes are injection molded integrally with the connection members; headers (30a, 30b) coupled to opposite ends of the tube array, the heat exchanger being characterized in that the headers (30a, 30b) comprise: main headers injection molded so as to be respectively coupled to the opposite ends of the tube array; and sub-headers coupled to an outer side of a corresponding one of the main headers so as to form a refrigerant flow passage and including an inflow header having an inlet through which the refrigerant is introduced toward the tubes and an outflow header having an outlet through which the refrigerant is discharged, and in that a plurality of cooling fins are provided at an outer peripheral surface of each tube, wherein the cooling fins are injection molded integrally with the tube and the connection members, and the tubes, the connection members, the sub-headers and the cooling fins are made of a polymeric material. main headers injection molded so as to be respectively coupled to the opposite ends of the tube array; and sub-headers coupled to an outer side of a corresponding one of the main headers so as to form a refrigerant flow passage and including an inflow header having an inlet through which the refrigerant is introduced toward the tubes and an outflow header having an outlet through which the refrigerant is discharged, and in that a plurality of cooling fins are provided at an outer peripheral surface of each tube, wherein the cooling fins are injection molded integrally with the tube and the connection members, and the tubes, the connection members, the sub-headers and the cooling fins are made of a polymeric material.
A vehicle comprising at least one filter for trapping particles in a vehicle's outside surrounding air, the filter comprises a first part and a second part, wherein an air inlet is arranged in one end of the filter, and wherein the filter is connected to a vehicle chassis and such that one of the first and second parts (201, 203) faces the vehicle chassis and the other part (201, 203) faces ground, characterized in that the first part comprises a first cilia layer, the first cilia layer is arranged to trap at least some particles in the air flowing into the filter via the air inlet when the first cilia layer is electrostatically charged by an electromagnetic field, and that the particles trapped in the filter can be removed when the filter is in an open position, wherein the filter is arranged to be in a closed position when the first and second parts (201, 203) are arranged on top of each other and such that the first cilia layer faces the second part, and wherein the filter is arranged to be in an open position when the first and second parts (201, 203) are arranged such that they are relatively offset by an angle larger than zero. the filter comprises a first part and a second part, wherein an air inlet is arranged in one end of the filter, and wherein the filter is connected to a vehicle chassis and such that one of the first and second parts (201, 203) faces the vehicle chassis and the other part (201, 203) faces ground, characterized in that the first part comprises a first cilia layer, the first cilia layer is arranged to trap at least some particles in the air flowing into the filter via the air inlet when the first cilia layer is electrostatically charged by an electromagnetic field, and that the particles trapped in the filter can be removed when the filter is in an open position, wherein the filter is arranged to be in a closed position when the first and second parts (201, 203) are arranged on top of each other and such that the first cilia layer faces the second part, and wherein the filter is arranged to be in an open position when the first and second parts (201, 203) are arranged such that they are relatively offset by an angle larger than zero.
Method for generating an infectious RNA virus comprising the following steps: a) introduction of a promoter of DNA-dependent RNA polymerase in position 5' and optionally a terminator and a RNA polyadenylation sequence in position 3' of the entire genome of a RNA virus; b) amplification of the entire viral genome as prepared in step a) including said promoter and optionally said terminator and RNA polyadenylation sequence, in at least 2, preferably at least 3, 4, 5 or 6 overlapping cDNA fragments; c) transfection of said cDNA fragments into a host cell, d) incubation of the host cell of step c); and e) recovery of the infectious RNA virus from said incubated host cell; wherein said virus is a single stranded positive RNA virus. a) introduction of a promoter of DNA-dependent RNA polymerase in position 5' and optionally a terminator and a RNA polyadenylation sequence in position 3' of the entire genome of a RNA virus; b) amplification of the entire viral genome as prepared in step a) including said promoter and optionally said terminator and RNA polyadenylation sequence, in at least 2, preferably at least 3, 4, 5 or 6 overlapping cDNA fragments; c) transfection of said cDNA fragments into a host cell, d) incubation of the host cell of step c); and e) recovery of the infectious RNA virus from said incubated host cell;
A solid formulation which is in a compression-molded form of coated particles, each coated particle comprising: a core particle; and a coating layer covering the core particle wherein the coating layer contains a hydroxyalkyl cellulose that has a viscosity of 1.10 mPa·s to 1.95 mPa·s in a 2%-concentration aqueous solution at 20°C, and has a content of hydroxyalkyl group in a range of 40% by weight to 80% by weight. a core particle; and a coating layer covering the core particle wherein the coating layer contains a hydroxyalkyl cellulose that has a viscosity of 1.10 mPa·s to 1.95 mPa·s in a 2%-concentration aqueous solution at 20°C, and has a content of hydroxyalkyl group in a range of 40% by weight to 80% by weight.