mhurhangee/ep-ind-claims huggingface dataset:
A vehicle comprising: a frame; a straddle seat supported by the frame; a left front wheel and a right front wheel operatively connected to the frame; at least one rear wheel operatively connected to the frame; a motor operatively connected to at least one of the wheels (14, 16); a front cowling assembly supported by the frame; a storage bin disposed at least in part inside the front cowling assembly; and at least one radiator (206, 208) fluidly communicating with the motor for cooling the motor, at least a portion of at least one of the at least one radiator (206, 208) being longitudinally and vertically aligned with at least a portion of the storage bin, at least a portion of the at least one of the at least one radiator being disposed within a cylinder circumscribing the front wheels, with the front wheels in a straight ahead orientation. a frame; a straddle seat supported by the frame; a left front wheel and a right front wheel operatively connected to the frame; at least one rear wheel operatively connected to the frame; a motor operatively connected to at least one of the wheels (14, 16); a front cowling assembly supported by the frame; a storage bin disposed at least in part inside the front cowling assembly; and at least one radiator (206, 208) fluidly communicating with the motor for cooling the motor, at least a portion of at least one of the at least one radiator (206, 208) being longitudinally and vertically aligned with at least a portion of the storage bin, at least a portion of the at least one of the at least one radiator being disposed within a cylinder circumscribing the front wheels, with the front wheels in a straight ahead orientation.
A computer-implemented method comprising: determining, during a memory reallocation process, that a set of memory pages being reallocated are each enabled for a Direct Memory Access, DMA, operation; and performing, subsequent to completion of the memory reallocation process, prior to writing initial data to the set of memory pages, a pre-access delay, the pre-access delay performed concurrently for each memory page in the set of memory pages wherein the pre-access delay is performed by delaying program instruction execution for a predetermined amount of time. determining, during a memory reallocation process, that a set of memory pages being reallocated are each enabled for a Direct Memory Access, DMA, operation; and performing, subsequent to completion of the memory reallocation process, prior to writing initial data to the set of memory pages, a pre-access delay, the pre-access delay performed concurrently for each memory page in the set of memory pages wherein the pre-access delay is performed by delaying program instruction execution for a predetermined amount of time.
An apparatus comprising: a first signal line (366, 354) configurable to carry a first signal associated with a first set of carrier signals; a second signal line configurable to carry a second signal associated with a second set of carrier signals and located adjacent to the first signal line; a third signal line (352, 366) configurable to carry a third signal and located adjacent to the second signal line, the second signal line being located between the first and the third signal line; and a first switch coupled between the second signal line and alternating current, AC, ground, the second signal line configured to isolate the first and third signal lines when the first switch is closed, wherein the first switch comprises an N-channel metal oxide semiconductor, NMOS, transistor having a source coupled to the AC ground and a drain coupled to the second signal line, and wherein the first, second and third signal lines each coupled between a respective LNA and a respective downconverter, each LNA being for one or more bands in a carrier aggregation system. a first signal line (366, 354) configurable to carry a first signal associated with a first set of carrier signals; a second signal line configurable to carry a second signal associated with a second set of carrier signals and located adjacent to the first signal line; a third signal line (352, 366) configurable to carry a third signal and located adjacent to the second signal line, the second signal line being located between the first and the third signal line; and a first switch coupled between the second signal line and alternating current, AC, ground, the second signal line configured to isolate the first and third signal lines when the first switch is closed, wherein the first switch comprises an N-channel metal oxide semiconductor, NMOS, transistor having a source coupled to the AC ground and a drain coupled to the second signal line, and wherein the first, second and third signal lines each coupled between a respective LNA and a respective downconverter, each LNA being for one or more bands in a carrier aggregation system.
A photosemiconductor electrode comprising: a conductor; and a first semiconductor layer provided on the conductor, wherein the first semiconductor layer comprises a photosemiconductor and IrO 2, a Fermi level of the IrO 2 is more negative than a Fermi level of the photosemiconductor and is more negative than -4.44 eV, with respect to a vacuum level, the photosemiconductor is an n-type semiconductor composed of NbON or a Nb 3 N 5, the IrO 2 in the first semiconductor layer has a surface density of more than 0 and 2.00 μgcm -2 or less, and the first semiconductor layer comprises a photosemiconductor film containing the photosemiconductor and the IrO 2, the IrO 2 being supported on a surface of the photosemiconductor film. a conductor; and a first semiconductor layer provided on the conductor, wherein the first semiconductor layer comprises a photosemiconductor and IrO 2, a Fermi level of the IrO 2 is more negative than a Fermi level of the photosemiconductor and is more negative than -4.44 eV, with respect to a vacuum level, the photosemiconductor is an n-type semiconductor composed of NbON or a Nb 3 N 5, the IrO 2 in the first semiconductor layer has a surface density of more than 0 and 2.00 μgcm -2 or less, and the first semiconductor layer comprises a photosemiconductor film containing the photosemiconductor and the IrO 2, the IrO 2 being supported on a surface of the photosemiconductor film.
A connector assembly (20, 60) for electrically connecting poles (12a, 12b) of two adjacent battery cells, the connector assembly (20, 60) comprising: - an electrically conductive bus bar having a first connection area and a second connection area distal from each other; - electrically conductive pole-mating components having a pole-mating face and a bar-mating face, the pole-mating face adapted for mating with one of the poles (12a, 12b) of one of the two adjacent battery cells, and the bar-mating face for mating with one of the first connection area and the second connection area; and - fastening components each for attaching the electrically conductive bus bar and one of the pole-mating components to one of the poles (12a, 12b) of the two adjacent battery cells, characterized in that the bar-mating face and the first and the second connection areas have complementary concave/convex arched shapes for optimizing a contact surface over a range of relative positioning of the two adjacent battery cells. - an electrically conductive bus bar having a first connection area and a second connection area distal from each other; - electrically conductive pole-mating components having a pole-mating face and a bar-mating face, the pole-mating face adapted for mating with one of the poles (12a, 12b) of one of the two adjacent battery cells, and the bar-mating face for mating with one of the first connection area and the second connection area; and - fastening components each for attaching the electrically conductive bus bar and one of the pole-mating components to one of the poles (12a, 12b) of the two adjacent battery cells,
Instant opening mechanism of facade claddings that being installed in an anchoring structure fixed on the wall that forms the facade and wherein said mechanism comprises a guide installed in the anchoring structure and accessible through the same; and wherein said guide is configured for obtaining a minimum value of tensile strength of 200 Kg; and obtaining a minimum value of shear resistance of 31 Kg wherein it comprises a guiding claw that includes a first end with a step adapted to receive and house the latch in closed position and the opposite end of which is a rectangular body configured to be integrally joined to the cladding and that, in its closed position protrudes with respect to the guide; and a central body substantially rectangular and elongated, separated from the end by means of a first stop with triangular profile and a second trapezoidal stop; both stops (104 d, 104e) being configured, in the closed position, as stop of the claw against the guide, and more specifically against the elastic joint of the guide; and wherein the guiding claw is attached by a first end to the facade cladding and cooperating by its opposite end with a latch integral with the axis of an electromagnet; wherein said guiding claw, electromagnet and latch are aligned horizontally and housed inside said guide, which is installed in the anchoring structure at right angles to the axis defined by the facade; wherein the guiding claw is housed inside the guide 101 in the closed position and it is held firmly in the closed position by the presence of the latch 103 in the step 104b, while when it is released it can be extracted from the guide; the mechanism being also configured so that by actuating the electromagnet, this moves horizontally by said axis perpendicular to the axis defined by the facade, releasing the latch and as a result the guiding claw, such that the guiding claw moves towards the exterior of the facade, enabling the complete extraction of the protection through said perpendicular guide.
A method for forming a communication group of entities for content distribution related to an event, the method comprising: receiving a resource manager state generated for an emergency event; extracting, based on the resource manager state, a plurality of parameters that indicate resource availability, wherein the plurality of parameters comprise a device characteristics parameter and a user characteristics parameter associated with entities to which to distribute content related to the event; and applying a set of rules to the resource manager state and to the plurality of parameters to select multiple resources to form at least one communication group in response to the emergency event, wherein the at least one communication group comprises a plurality of entities to distribute content related to the event and wherein each entity of the plurality of entities is selected based on the device characteristics parameter and the user characteristics parameter associated with that entity. receiving a resource manager state generated for an emergency event; extracting, based on the resource manager state, a plurality of parameters that indicate resource availability, wherein the plurality of parameters comprise a device characteristics parameter and a user characteristics parameter associated with entities to which to distribute content related to the event; and applying a set of rules to the resource manager state and to the plurality of parameters to select multiple resources to form at least one communication group in response to the emergency event, wherein the at least one communication group comprises a plurality of entities to distribute content related to the event and wherein each entity of the plurality of entities is selected based on the device characteristics parameter and the user characteristics parameter associated with that entity.
A big telematics data communication fault determination method for a system comprising at least one mobile device connected to a vehicular telemetry hardware system and at least one remote device (19, 20), the method comprising at least one first concurrent process and at least one second concurrent process, said first concurrent process, via said at least one mobile device, determining an active mode or an inactive mode of said at least one mobile device by detecting a vehicle status, setting a communication period for communicating with said at least one remote device (19, 20), and communicating at least one of a signal, data or message to said at least one remote device (19, 20) within said communication period, said at least one second concurrent process, via said at least one remote device (19, 20), receiving from said at least one mobile device said at least one signal, data or message and determining therefrom an active mode or an inactive mode and a corresponding communication period for each of said at least one mobile device, and comparing, within a communication fault determination time frame, the number of said at least one mobile device expected communications with the number of said at least one mobile device actual communications to indicate the presence of a communication fault when the expected number is different from the actual number for each of said least one mobile device that communicated.
A machining center of a compact construction, in particular for milling, drilling and/or turning machining by cutting, comprising: a machine frame configured to receive a tool-carrying assembly and a workpiece-carrying assembly, a machine enclosure which encloses the machining center at the peripheral sides, and supply and disposal units, characterized in that all supply and disposal units (5, 6, 7, 8, 10, 11, 12) are exclusively arranged on a first side wall of the machine enclosure, that a second side wall of the machine enclosure that is opposite to the first side wall is configured as a free lining wall and comprises neither supply and disposal units (5, 6, 7, 8, 10, 11, 12) nor access doors to the maintenance stations in the machining center, nor loading and unloading doors (13, 18) to the work stations in the machining center, and that an automatic workpiece changing device can be attached via the second side wall to the machining center, and that the first side wall is provided with the fluid and cooling lubricant assembly, the disposal unit for exhaust gases and the supply units for cooling energy and electrical energy.
A compound of formula or a pharmaceutically acceptable salt thereof, wherein n is 1, 2, or 3; R 2 is selected from hydrogen, alkenyl, alkyl, and cycloalkyl, wherein the alkenyl, the alkyl, and the cycloalkyl are optionally substituted with one, two, or three substituents independently selected from alkoxy, carboxy, cyano, dialkylamino, and halo; R 3 is selected from alkyl, haloalkyl, cyanoalkyl, alkenyl, aryl, arylalkyl, cycloalkyl, and (cycloalkyl)alkyl; R 4 is selected from hydrogen, alkenyl, alkyl, and haloalkyl; R 5 is selected from alkoxycarbonyl, alkylcarbonyl, (NR a R b)carbonyl, and (NR c R d)carbonyl; R 6 is selected from alkyl, aryl, cycloalkyl, (cycloalkyl)alkyl, heterocyclyl, -NR a R b, and -NR c R d; wherein the cycloalkyl and the cycloalkyl part of the (cycloalkyl)alkyl can be optionally substituted with one substituent selected from alkoxy, alkyl, amino, cyano, halo, haloalkyl, and nitro; R a and R b are independently selected from hydrogen and alkyl; and R c and R d together with the nitrogen atom to which they are attached form a five or six-membered monocyclic heterocyclic ring optionally containing one additional heteroatom selected from NH, O, and S; wherein the aryl groups can be optionally substituted with one, two, three, four, or five substituents independently selected from alkoxy, alkoxycarbonyl, alkyl, a second aryl group, cyano, halo, haloalkoxy, haloalkyl, heterocyclyl, heterocyclylalkyl, hydroxy, hydroxyalkyl, nitro, -NR x R y, (NR x R y)alkoxy, (NR x R y)alkyl, (NR x R y)carbonyl, and oxo, wherein R x and R y are independently selected from hydrogen and alkyl.
A refrigerator comprising: one or more image capturing units (18a, 18b) configured to capture an image of an interior of the refrigerator; a mist generator unit (80, 90) configured to generate mist to be fed to the interior of the refrigerator; a plurality of spray ports (29a, 29c) configured to feed the mist generated by the mist generator unit (80, 90) in the interior of the refrigerator; characterized by further comprising a control unit configured to operate the mist generator unit (80, 90) and the one or more image capturing units (18a, 18b)in synchronism, so as to make an adjustment so that the driving of the mist generator device and the image capturing by the one or more image capturing units (18a and 18b) are not performed at the same time. one or more image capturing units (18a, 18b) configured to capture an image of an interior of the refrigerator; a mist generator unit (80, 90) configured to generate mist to be fed to the interior of the refrigerator; a plurality of spray ports (29a, 29c) configured to feed the mist generated by the mist generator unit (80, 90) in the interior of the refrigerator; characterized by further comprising a control unit configured to operate the mist generator unit (80, 90) and the one or more image capturing units (18a, 18b)in synchronism, so as to make an adjustment so that the driving of the mist generator device and the image capturing by the one or more image capturing units (18a and 18b) are not performed at the same time.
A method of reconstructing an image of a colon, comprising: receiving scan data of a colon taken by an imaging capsule that traverses the colon from the inside; wherein said imaging capsule emits X-ray radiation inside the colon and includes detectors that detect photons that are returned toward the imaging capsule from X-ray fluorescence interactions and Compton back scattering interactions responsive to the X-ray radiation; and wherein the scan data includes counts of photons detected by each detector from X-ray fluorescence interactions and Compton back scattering interactions with soft tissue and particles of a contrast agent; characterized by: defining an initial guess of a geometry of a contour of a slice of the colon; calculating count values for each detector responsive to the defined geometry using a forward model; comparing the calculated count values of each detector with the values from the scan data; if the results of the comparison do not indicate reaching an optimal match then adjust the defined geometry and repeat the calculating and comparing; otherwise if an optimal match is achieved store the geometry to represent the slice. receiving scan data of a colon taken by an imaging capsule that traverses the colon from the inside; wherein said imaging capsule emits X-ray radiation inside the colon and includes detectors that detect photons that are returned toward the imaging capsule from X-ray fluorescence interactions and Compton back scattering interactions responsive to the X-ray radiation; and wherein the scan data includes counts of photons detected by each detector from X-ray fluorescence interactions and Compton back scattering interactions with soft tissue and particles of a contrast agent; characterized by: defining an initial guess of a geometry of a contour of a slice of the colon; calculating count values for each detector responsive to the defined geometry using a forward model; comparing the calculated count values of each detector with the values from the scan data; if the results of the comparison do not indicate reaching an optimal match then adjust the defined geometry and repeat the calculating and comparing; otherwise if an optimal match is achieved store the geometry to represent the slice. defining an initial guess of a geometry of a contour of a slice of the colon; calculating count values for each detector responsive to the defined geometry using a forward model; comparing the calculated count values of each detector with the values from the scan data; if the results of the comparison do not indicate reaching an optimal match then adjust the defined geometry and repeat the calculating and comparing; otherwise if an optimal match is achieved store the geometry to represent the slice.
A device (104, 202), comprising: a transmitter configured to wirelessly communicate with one or more stations that are partitioned into a plurality of groups; and a processor configured to: generate a message that identifies one or more time periods during which each station of a first group of the plurality of groups is permitted to contend for a communication channel or restricted from contending for the communication channel, instruct the transmitter to transmit the message; and characterized in that the processor is further configured to generate a plurality of messages for the plurality of groups, wherein the plurality of messages for the plurality of groups collectively communicate a plurality of time periods, wherein the plurality of messages are configured such that during each time period only a portion of the plurality of stations are permitted to contend for the communication channel, generate a second message which communicates an end time of the one or more time periods, and cause the second message to be transmitted. a transmitter configured to wirelessly communicate with one or more stations that are partitioned into a plurality of groups; and a processor configured to: generate a message that identifies one or more time periods during which each station of a first group of the plurality of groups is permitted to contend for a communication channel or restricted from contending for the communication channel, instruct the transmitter to transmit the message; and characterized in that the processor is further configured to generate a plurality of messages for the plurality of groups, wherein the plurality of messages for the plurality of groups collectively communicate a plurality of time periods, wherein the plurality of messages are configured such that during each time period only a portion of the plurality of stations are permitted to contend for the communication channel, generate a second message which communicates an end time of the one or more time periods, and cause the second message to be transmitted. generate a message that identifies one or more time periods during which each station of a first group of the plurality of groups is permitted to contend for a communication channel or restricted from contending for the communication channel, instruct the transmitter to transmit the message; and characterized in that the processor is further configured to generate a plurality of messages for the plurality of groups, wherein the plurality of messages for the plurality of groups collectively communicate a plurality of time periods, wherein the plurality of messages are configured such that during each time period only a portion of the plurality of stations are permitted to contend for the communication channel, generate a second message which communicates an end time of the one or more time periods, and