mhurhangee/ep-ind-claims huggingface dataset:
A method for vehicle-to-vehicle communication, comprising: receiving sensor data from one or more sensors (420, 520, 704); categorizing the sensor data into common information and detailed information; broadcasting the common information to at least one vehicle (124, 300, 310, 320, 610, 612, 614) in a vehicle-to-vehicle (V2V) network, the common information indicating the availability of the detailed information; determining that at least one portion of the detailed information is desired by the at least one vehicle; and transmitting the at least one portion of the detailed information to the at least one vehicle. receiving sensor data from one or more sensors (420, 520, 704); categorizing the sensor data into common information and detailed information; broadcasting the common information to at least one vehicle (124, 300, 310, 320, 610, 612, 614) in a vehicle-to-vehicle (V2V) network, the common information indicating the availability of the detailed information; determining that at least one portion of the detailed information is desired by the at least one vehicle; and transmitting the at least one portion of the detailed information to the at least one vehicle.
Common-rail injector (10; 10a) having an injector housing in which a nozzle needle, which is disposed so as to be able to perform reciprocating stroke movements in a high-pressure chamber for releasing or blocking, respectively, at least one injection opening that is configured in the injector housing, is disposed, wherein an end region of the nozzle needle that faces away from the at least one injection opening plunges into an element in order for a control chamber to be configured, and wherein the nozzle needle interacts with an installation for restricting the maximum opening stroke of the nozzle needle, wherein the installation has a first, preferably sleeve-shaped, element which, in axial terms, is preferably disposed so as to be locationally fixed on the nozzle needle and which, by means of a restoring spring, is impinged with a force in the closing direction of the nozzle needle, and a second, preferably likewise sleeve-shaped, element (35; 35a) which radially encompasses the nozzle needle and, in axial terms, is disposed so as to be locationally fixed on that side in the injector housing that faces away from the first element, wherein the nozzle needle, in axial terms, completely penetrates the second element (35; 35a), and the end region of the nozzle needle that plunges into the control chamber is disposed so as to be axially spaced apart from the second element (35; 35a), and characterized in that a further housing element, by way of an end face that faces the nozzle body, configures an axial detent face for the second element (35; 35a) of the installation, and the high-pressure chamber in the nozzle body and in the further housing element is formed on mutually facing sides of, in each case, one bore portion (46, 48), wherein the bore portion configured in the further housing element for configuring the detent face for the second element (35; 35a) has a smaller diameter than the bore portion configured in the nozzle body, and in that the second element (35; 35a), between the two bore portions (46, 48), has at least one passage for fuel.
A method for synchronizing Multimedia Broadcast Multicast Service, MBMS, comprising: receiving, by a network device, a synchronous control frame from a Broadcast/Multicast Service Center, BM-SC, wherein the synchronous control frame carries therein load distribution of data frames transmitted within one or more synchronous sequences; determining, by the network device, constructing information of Radio Link Control Protocol Data Unit, RLC PDU, according to the load distribution of the data frames within the one or more synchronous sequences; and determining, by the network device, the missed data frames which are needed to be stopped from sending by the BM-SC according to the constructing information of the RLC PDU, when the data frames are missed from receiving by the network device, wherein the load distribution of the data frames within the one or more synchronous sequences includes: load distribution of all data frames within all synchronous sequences; load distribution of even-numbered data frames within the synchronous sequences; or load distribution of odd-numbered data frames within the synchronous sequences, the method is characterized by further comprising: stopping, by the network device, from sending data frames until a next synchronous cycle, when the network device fails to receive the synchronous control frame. receiving, by a network device, a synchronous control frame from a Broadcast/Multicast Service Center, BM-SC, wherein the synchronous control frame carries therein load distribution of data frames transmitted within one or more synchronous sequences; determining, by the network device, constructing information of Radio Link Control Protocol Data Unit, RLC PDU, according to the load distribution of the data frames within the one or more synchronous sequences; and determining, by the network device, the missed data frames which are needed to be stopped from sending by the BM-SC according to the constructing information of the RLC PDU, when the data frames are missed from receiving by the network device, wherein the load distribution of the data frames within the one or more synchronous sequences includes: load distribution of all data frames within all synchronous sequences; load distribution of even-numbered data frames within the synchronous sequences; or load distribution of odd-numbered data frames within the synchronous sequences, the method is characterized by further comprising: stopping, by the network device, from sending data frames until a next synchronous cycle, when the network device fails to receive the synchronous control frame. load distribution of all data frames within all synchronous sequences; load distribution of even-numbered data frames within the synchronous sequences; or load distribution of odd-numbered data frames within the synchronous sequences, the method is characterized by further comprising: stopping, by the network device, from sending data frames until a next synchronous cycle, when the network device fails to receive the synchronous control frame.
A trans-loading system for solid particulates, comprising a trough (110, 110a, 110b, 110c) having an open top, sides (120, S) and a bottom, at least one vacuum pipe extending into the trough near the bottom, wherein the sides extend from end panels on either end of the trough, and the end panels (130, 131) are either generally vertical or are angled, characterized by at least one aerator located on the trough, wherein the at least one aerator is configured to be connected to a supply of pressurised gas, the system further comprising one or more doors (170, 171) sized to at least partially cover the open top of the trough, slidably positioned within grooves along tops of the end panels, which doors are slidable to vary an opening width of the trough.
A combustible element comprising: fuel; and oxidizer; wherein the fuel and the oxidizer are interspersed in discrete separate regions (12, 14) within a single solid element; wherein the combustible element defines a combustion chamber therewithin where combustion of the fuel and the oxidizer occurs upon ignition of the fuel and the oxidizer; wherein the separate regions make up a matrix of regularly-ordered fuel regions and oxidizer regions, with alternating fuel and oxidizer regions; and wherein the element is produced by an additive manufacturing process with the fuel and oxidizer regions laid down in a number of layers. fuel; and oxidizer; wherein the fuel and the oxidizer are interspersed in discrete separate regions (12, 14) within a single solid element; wherein the combustible element defines a combustion chamber therewithin where combustion of the fuel and the oxidizer occurs upon ignition of the fuel and the oxidizer; wherein the separate regions make up a matrix of regularly-ordered fuel regions and oxidizer regions, with alternating fuel and oxidizer regions; and wherein the element is produced by an additive manufacturing process with the fuel and oxidizer regions laid down in a number of layers.
An electronic device for parallel image processing using multiple processors, comprising: a plurality of image sensor-processor modules, each image sensor-processor module comprising an image sensor (104a, 104b,..., 104n;604a, 604b,..., 604m), for providing image data to one or more processors in the image sensor-processor module and one or more processors (120a, 120b,..., 120n; 620a, 620b,..., 620n), each processor of each image sensor-processor module configured to receive and process image data from the image sensor of the image sensor-processor module to which the processor belongs; characterized by at least two of the image sensor-processor modules having different clock rates (656a, 656b,..., 656n); and a multiple processor interface (108; 608) configured to combine the processing capability of the plurality of image sensor-processor modules by partitioning image data from one image sensor-processor to allow the partitioned image data to be distributed between processors of a plurality of image sensor-processor modules; mapping at least a portion of partitioned image data from one image sensor-processor module to a processor of a different image-sensor processor module, and synchronizing partitioned image data to the clock rate of the processor to which it is mapped. a plurality of image sensor-processor modules, each image sensor-processor module comprising an image sensor (104a, 104b,..., 104n;604a, 604b,..., 604m), for providing image data to one or more processors in the image sensor-processor module and one or more processors (120a, 120b,..., 120n; 620a, 620b,..., 620n), each processor of each image sensor-processor module configured to receive and process image data from the image sensor of the image sensor-processor module to which the processor belongs; characterized by at least two of the image sensor-processor modules having different clock rates (656a, 656b,..., 656n); and a multiple processor interface (108; 608) configured to combine the processing capability of the plurality of image sensor-processor modules by partitioning image data from one image sensor-processor to allow the partitioned image data to be distributed between processors of a plurality of image sensor-processor modules; mapping at least a portion of partitioned image data from one image sensor-processor module to a processor of a different image-sensor processor module, and synchronizing partitioned image data to the clock rate of the processor to which it is mapped.
An ear muff, comprising: a gasket comprising a mounting surface with two side edges opposite to each other; a covering piece comprising a plurality of mounting portions and a plurality of spacing portions, each mounting portion and each spacing portion being arranged alternatively, the plurality of mounting portions being fixed to any of the two side edges; and a soft cushion covered in the covering piece, the plurality of spacing portions being configured to be separated from any of the two side edges fixing the plurality of mounting portions when the soft cushion is deformed. a gasket comprising a mounting surface with two side edges opposite to each other; a covering piece comprising a plurality of mounting portions and a plurality of spacing portions, each mounting portion and each spacing portion being arranged alternatively, the plurality of mounting portions being fixed to any of the two side edges; and a soft cushion covered in the covering piece, the plurality of spacing portions being configured to be separated from any of the two side edges fixing the plurality of mounting portions when the soft cushion is deformed.
A method for manufacturing a phosphor by Czochralski method, the method comprising: mixing a CeO 2 powder as a raw material of Ce, a Y 2 O 3 powder as a raw material of Y, an Al 2 O 3 powder as a raw material of Al, and a Gd 2 O 3 powder as a raw material of Gd, so as to obtain a mixed powder; melting the mixed powder, so as to obtain a melt, and bringing a seed crystal into contact with the melt, so as to pull up a single crystal phosphor comprising YAG crystals as a mother crystal and containing Ce and Gd at a pull up speed of not more than 1mm/h and at a pull up temperature of not less than 1960°C. mixing a CeO 2 powder as a raw material of Ce, a Y 2 O 3 powder as a raw material of Y, an Al 2 O 3 powder as a raw material of Al, and a Gd 2 O 3 powder as a raw material of Gd, so as to obtain a mixed powder; melting the mixed powder, so as to obtain a melt, and bringing a seed crystal into contact with the melt, so as to pull up a single crystal phosphor comprising YAG crystals as a mother crystal and containing Ce and Gd at a pull up speed of not more than 1mm/h and at a pull up temperature of not less than 1960°C.
A method for sending voice messages comprising: recording a voice message using a mobile communication device; receiving at the mobile communication device a specification of an association between an event previously entered into the mobile communication device and the voice message; wherein occurrence of the event triggers sending of the voice message; characterised by evaluating capabilities of one or more servers to determine if the one or more servers are capable of storing the voice message and evaluating whether the event has occurred, wherein upon determining that no server of the one or more servers is so capable, the mobile device determines if the event has occurred and when the event occurs the mobile device sends the voice message to a recipient, and wherein when a server is so capable the mobile device sends the voice message and event to the server. recording a voice message using a mobile communication device; receiving at the mobile communication device a specification of an association between an event previously entered into the mobile communication device and the voice message; wherein occurrence of the event triggers sending of the voice message; characterised by evaluating capabilities of one or more servers to determine if the one or more servers are capable of storing the voice message and evaluating whether the event has occurred, wherein upon determining that no server of the one or more servers is so capable, the mobile device determines if the event has occurred and when the event occurs the mobile device sends the voice message to a recipient, and wherein when a server is so capable the mobile device sends the voice message and event to the server.
Process for manufacturing high molecular weight polyethylene fibers, comprising subjecting a polyethylene tape with a weight average molecular weight of at least 500 000 gram/mole, an Mw/Mn ratio of at most 6, and a 200/110 uniplanar orientation parameter of at least 3 to a force in the direction of the thickness of the tape over the whole width of the tape, wherein the 200/110 uniplanar orientation parameter is defined as the ratio between the 200 and the 110 peak areas in an X-ray diffraction pattern as determined in reflection geometry, as specified in the description.
A method for diagnosing a processor processing a stream of instructions comprising: (i) controlling said processor to execute in a single step mode wherein a single instruction from said instruction stream is executed, said processor determines if said single instruction is one of at least one predetermined type of instruction and stores a type indicator in a data storage location and a diagnostic exception is taken after said processor has processed said single instruction and an exception handler followed by a diagnostic code is executed; (ii) performing by executing said diagnostic code diagnostic operations following said diagnostic exception including: accessing said type indicator stored in said data storage location; and (iiia) in response to said type indicator indicating said single instruction was not one of said predetermined type, said executed diagnostic code controlling said processor to continue executing instructions in said single step mode such that a next single instruction is executed on return from said diagnostic exception; (iiib) in response to said type indicator indicating said single instruction was one of said at least one predetermined type, said executed diagnostic code controlling said processor to exit said single step mode and not execute said next instruction within said instruction stream as a single instruction followed by a diagnostic exception, wherein said predetermined type of instruction is such that the taking of the diagnosis exception and the execution of the exception handler for said instruction causes a change in the execution path taken by subsequent instructions within the instruction stream. (i) controlling said processor to execute in a single step mode wherein a single instruction from said instruction stream is executed, said processor determines if said single instruction is one of at least one predetermined type of instruction and stores a type indicator in a data storage location and a diagnostic exception is taken after said processor has processed said single instruction and an exception handler followed by a diagnostic code is executed; (ii) performing by executing said diagnostic code diagnostic operations following said diagnostic exception including: accessing said type indicator stored in said data storage location; and accessing said type indicator stored in said data storage location; and (iiia) in response to said type indicator indicating said single instruction was not one of said predetermined type, said executed diagnostic code controlling said processor to continue executing instructions in said single step mode such that a next single instruction is executed on return from said diagnostic exception; (iiib) in response to said type indicator indicating said single instruction was one of said at least one predetermined type, said executed diagnostic code controlling said processor to exit said single step mode and not execute said next instruction within said instruction stream as a single instruction followed by a diagnostic exception,
A nucleic acid that comprises the nucleic acid sequence identified as SEQ ID No. 1, or that encodes for a polypeptide that comprises a) the amino acid sequence identified as SEQ ID No. 6, or b) an amino acid sequence with at least 60 % identity with SEQ. ID No.6 and maintains its properties of controlling the infection of phytopathogenic fungi or bacteria.
A curable resin composition comprising an epoxy resin, blocked urethane, and an amine-based latent curing agent, wherein the blocked urethane is obtained by reacting a urethane polymer having a terminal isocyanate group with a blocking agent (C-4), the urethane polymer being obtained by reacting a polyisocyanate (C-1), a diol (C-2), and a branching agent (C-3) containing at least three groups that react with an isocyanate group, the ratio (number of NCO groups / number of NCO reactive groups) between the number of moles of isocyanate groups in the component (C-1) (number of NCO groups) and the total number of moles of hydroxyl groups in the component (C-2) and groups that react with an isocyanate group in the component (C-3) (number of NCO reactive groups) is from 1.4 to 1.6, and the proportion of the number of moles of groups that react with an isocyanate group in the component (C-3) is from 1 to 50% of the total number of moles of hydroxyl groups in the component (C-2) and groups that react with an isocyanate group in the component (C-3). wherein the blocked urethane is obtained by reacting a urethane polymer having a terminal isocyanate group with a blocking agent (C-4), the urethane polymer being obtained by reacting a polyisocyanate (C-1), a diol (C-2), and a branching agent (C-3) containing at least three groups that react with an isocyanate group, the ratio (number of NCO groups / number of NCO reactive groups) between the number of moles of isocyanate groups in the component (C-1) (number of NCO groups) and the total number of moles of hydroxyl groups in the component (C-2) and groups that react with an isocyanate group in the component (C-3) (number of NCO reactive groups) is from 1.4 to 1.6, and the proportion of the number of moles of groups that react with an isocyanate group in the component (C-3) is from 1 to 50% of the total number of moles of hydroxyl groups in the component (C-2) and groups that react with an isocyanate group in the component (C-3).
A method for processing a strip consisting of a synthetic material and containing a desiccant during the course of the production of a frame-shaped spacer for an insulating glass pane, which spacer has an inner side, an outer side, and two flanks, which are to adhere in the insulating glass pane to two glass panels (2, 3) of the insulating glass pane, wherein a film serving as a vapour barrier adheres on the side of the strip forming the outer side of the spacer and referred to hereinafter as the outer side of the strip, said method comprising the following steps: the strip is provided with a notch on its side averted from the outer side and referred to hereinafter as the strip inner side, at least at one location provided in order to form a corner of the frame-shaped spacer, a length of the strip adapted to the circumference of the insulating glass pane is cut off from a supply of the strip, characterised in that when the strip is cut off, a cutting edge (28; 29) is moved through the film in a direction such that the force exerted by the cutting edge (28; 29) onto the film is directed from the outer side of the strip, at an incline relative to the outer side of the strip, in the direction of the strip inner side, and the cutting edge (28; 29) makes a cut that advances on the outer side of the strip at a right angle to the longitudinal direction of the strip. the strip is provided with a notch on its side averted from the outer side and referred to hereinafter as the strip inner side, at least at one location provided in order to form a corner of the frame-shaped spacer, a length of the strip adapted to the circumference of the insulating glass pane is cut off from a supply of the strip, characterised in that when the strip is cut off, a cutting edge (28; 29) is moved through the film in a direction such that the force exerted by the cutting edge (28; 29) onto the film is directed from the outer side of the strip, at an incline relative to the outer side of the strip, in the direction of the strip inner side, and the cutting edge (28; 29) makes a cut that advances on the outer side of the strip at a right angle to the longitudinal direction of the strip.
A tubular welding wire comprising: a core and a sheath disposed around the core, wherein the core of the tubular welding wire comprises a first agglomerate comprising lithium oxide, iron oxides, sodium oxide and silicon dioxide, and a second agglomerate comprising lithium oxide, lithium fluoride, iron oxides, sodium oxide, silicon dioxide, and manganous oxide, wherein the tubular welding wire comprises greater than 2.4% glassy slag promoter by weight, wherein the glassy slag promoter comprises one or more of silicon dioxide, titanium dioxide, a borate, or sodium oxide. a core and a sheath disposed around the core, wherein the core of the tubular welding wire comprises a first agglomerate comprising lithium oxide, iron oxides, sodium oxide and silicon dioxide, and a second agglomerate comprising lithium oxide, lithium fluoride, iron oxides, sodium oxide, silicon dioxide, and manganous oxide, wherein the tubular welding wire comprises greater than 2.4% glassy slag promoter by weight, wherein the glassy slag promoter comprises one or more of silicon dioxide, titanium dioxide, a borate, or sodium oxide.