mhurhangee/ep-ind-claims huggingface dataset:
A gateway device connected to a plurality of networks (10, 20, 30, 40, 50, 60, 70) used by a plurality of electronic control units (100, 101, 200, 201, 300, 301; 400, 401, 500, 600, 700) for communication, the gateway device comprising: a reception unit configured to receive a frame; and a transfer unit (906, 905, 901) configured to transfer one or more frames to a destination network, which is one of the plurality of networks (10, 20, 30, 40, 50, 60, 70); characterized in that the transfer unit (906, 905, 901) is further configured to remove or add verification information, which is used to verify the frame, from or to content of the frame received by the reception unit and to transfer a frame resulting from the removing or adding of said verification information to the destination network; wherein, if a first frame including verification information received by the reception unit satisfies a certain removal condition for removing the verification information, the transfer unit (906, 905, 901) is configured to perform the transfer by generating a second frame including information based on the content of the first frame other than the verification information and transmitting the second frame to the destination network, and wherein, if a network occupation rate of the destination network is higher than a certain value, the transfer unit (906, 905, 901) is configured to determine that the certain removal condition has been satisfied and transfer the second frame. a reception unit configured to receive a frame; and a transfer unit (906, 905, 901) configured to transfer one or more frames to a destination network, which is one of the plurality of networks (10, 20, 30, 40, 50, 60, 70); characterized in that the transfer unit (906, 905, 901) is further configured to remove or add verification information, which is used to verify the frame, from or to content of the frame received by the reception unit and to transfer a frame resulting from the removing or adding of said verification information to the destination network; wherein, if a first frame including verification information received by the reception unit satisfies a certain removal condition for removing the verification information, the transfer unit (906, 905, 901) is configured to perform the transfer by generating a second frame including information based on the content of the first frame other than the verification information and transmitting the second frame to the destination network, and wherein, if a network occupation rate of the destination network is higher than a certain value, the transfer unit (906, 905, 901) is configured to determine that the certain removal condition has been satisfied and transfer the second frame.
A porous formed composite material comprising: (i) a polymer selected from polyethylene and polypropylene, or a mixture thereof, and (ii) an insoluble sorbent material comprising a cross-linked vinyl lactam homopolymer or copolymer, said vinyl lactam homopolymer or copolymer being optionally mixed with silica gel; the porous formed composite material being formed into a desired shape by sintering the mixture of polymer and sorbent material at a temperature of 100 to 400°C to allow the polymer to fuse; the formation process causing the polymer (i) and insoluble sorbent material (ii) to be formed into a unitary body such that the insoluble sorbent material is immobilised into the structure of the unitary body; characterised in that the desired shape into which the composite material is formed into is selected from a sheet, a tube, a disc or a roll. (i) a polymer selected from polyethylene and polypropylene, or a mixture thereof, and (ii) an insoluble sorbent material comprising a cross-linked vinyl lactam homopolymer or copolymer, said vinyl lactam homopolymer or copolymer being optionally mixed with silica gel; the porous formed composite material being formed into a desired shape by sintering the mixture of polymer and sorbent material at a temperature of 100 to 400°C to allow the polymer to fuse; the formation process causing the polymer (i) and insoluble sorbent material (ii) to be formed into a unitary body such that the insoluble sorbent material is immobilised into the structure of the unitary body; characterised in that the desired shape into which the composite material is formed into is selected from a sheet, a tube, a disc or a roll. the porous formed composite material being formed into a desired shape by sintering the mixture of polymer and sorbent material at a temperature of 100 to 400°C to allow the polymer to fuse; the formation process causing the polymer (i) and insoluble sorbent material (ii) to be formed into a unitary body such that the insoluble sorbent material is immobilised into the structure of the unitary body; characterised in that the desired shape into which the composite material is formed into is selected from a sheet, a tube, a disc or a roll.
A method for transmitting uplink control information, comprising: receiving, by a terminal device, scheduling information and trigger information from an access network device, wherein the scheduling information is used to instruct the terminal device to transmit, in M uplink subframes, uplink data scheduled by the scheduling information, M is a positive integer not less than 2, and the trigger information is used to instruct the terminal device to send uplink control information; determining, by the terminal device, in the M uplink subframes, an uplink subframe for carrying the uplink control information; and sending, by the terminal device, the uplink control information in the determined uplink subframe; and characterized in that the scheduling information is received in a subframe n; and the last or penultimate uplink subframe is determined in a time sequence of an uplink burst included in the M uplink subframes as the uplink subframe for carrying the uplink control information, where the uplink burst refers to multiple uplink subframes that are occupied consecutively in time, and the uplink burst is after a downlink burst including the subframe n and is immediately adjacent to the downlink burst including the subframe n. receiving, by a terminal device, scheduling information and trigger information from an access network device, wherein the scheduling information is used to instruct the terminal device to transmit, in M uplink subframes, uplink data scheduled by the scheduling information, M is a positive integer not less than 2, and the trigger information is used to instruct the terminal device to send uplink control information; determining, by the terminal device, in the M uplink subframes, an uplink subframe for carrying the uplink control information; and sending, by the terminal device, the uplink control information in the determined uplink subframe; and characterized in that the scheduling information is received in a subframe n; and the last or penultimate uplink subframe is determined in a time sequence of an uplink burst included in the M uplink subframes as the uplink subframe for carrying the uplink control information, where the uplink burst refers to multiple uplink subframes that are occupied consecutively in time, and the uplink burst is after a downlink burst including the subframe n and is immediately adjacent to the downlink burst including the subframe n.
An Automatic Flight Control System comprising: a force gradient including: a shaft having a first end and a second end, wherein the second end includes an end plate; a spring contained between the first end and the second end; and a non-contact proximity sensor mounted on the second end; wherein the spring has a first position and is compressed to a second position so that the non-contact proximity sensor detects the position of the end plate to signal an AFCS to change state, wherein the state includes one of, AFCS on-to-off and AFCS off-to-on. a force gradient including: a shaft having a first end and a second end, wherein the second end includes an end plate; a spring contained between the first end and the second end; and a non-contact proximity sensor mounted on the second end; wherein the spring has a first position and is compressed to a second position so that the non-contact proximity sensor detects the position of the end plate to signal an AFCS to change state, wherein the state includes one of, AFCS on-to-off and AFCS off-to-on. a shaft having a first end and a second end, wherein the second end includes an end plate; a spring contained between the first end and the second end; and a non-contact proximity sensor mounted on the second end; wherein the spring has a first position and is compressed to a second position so that the non-contact proximity sensor detects the position of the end plate to signal an AFCS to change state, wherein the state includes one of, AFCS on-to-off and AFCS off-to-on.
A method of operating a node unit (130, 140, 150) of a distributed antenna system, the method comprising: transmitting, by the node unit (130, 140, 150), identification information for determining whether the node unit (130, 140, 150) interoperates with at least one radio service device of a spectrum shared system to a system controller of the spectrum shared system; receiving, by the node unit (130, 140, 150), allocation information including a result of allocating shared radio resources according to a result of the determining of interoperating from the system controller; and operating, by the node unit (130, 140, 150), according to the allocation information. transmitting, by the node unit (130, 140, 150), identification information for determining whether the node unit (130, 140, 150) interoperates with at least one radio service device of a spectrum shared system to a system controller of the spectrum shared system; receiving, by the node unit (130, 140, 150), allocation information including a result of allocating shared radio resources according to a result of the determining of interoperating from the system controller; and operating, by the node unit (130, 140, 150), according to the allocation information.
A method for producing smoking products from more than three rod-shaped article segments (1, 2, 3, 4), wherein a first article segment group is formed or provided with more than three rod-shaped article segments (1, 2, 3), wherein the first article segment group (1, 2, 3) will be or is conveyed transaxially and will be or is wrapped by a wrapping material strip, wherein the first wrapped article segment group (1, 2, 3) is cut in the middle and into two articles segment subgroups, each with the same number of rod-shaped article segments (1, 2, 3), and then the transaxially conveyed article segment subgroups (1, 2, 3) are each turned 180° by a turning device so that the ends of the wrapped article segment subgroups (1, 2, 3) initially lying to the outside before turning face each other after turning, wherein the article segment subgroups (1, 2, 3) are or will be at a distance from each other in a longitudinally axial direction after turning the article segment subgroups (1, 2, 3), and subsequently, a plurality of rod-shaped article segments are introduced between the article segment subgroups (1, 2, 3) at a distance from each other in a longitudinally axial direction, and the plurality of rod-shaped article segments with the article segment subgroups (1, 2, 3) lying to the outside are connected to a second article segment group by being wrapped with a wrapping material strip, and wherein at least one smoking product will be or is formed from the second article segment group.
Exhaust gas purification system for purifying exhaust gases of a predominantly stoichiometrically operated internal combustion engine having a TWC1 near the engine on a through-flow substrate, a GPF attached downstream of the TWC1 as a wall-flow filter, and another TWC2 on a through-flow substrate downstream of the GPF, the system additionally comprising materials for temporarily storing hydrocarbons, characterized in that these are located downstream of the TWC1 and behind the GPF. the system additionally comprising materials for temporarily storing hydrocarbons, characterized in that these are located downstream of the TWC1 and behind the GPF.
A shower system with a control, a panel and a functional element, more particularly a shower head, wherein the functional element is connected to a first holding element which is arranged on a first side of the panel and is magnetically held there, wherein on a rear side of the panel opposite the first side, a second holding element is arranged, and wherein the magnetic force required for holding the functional element is produced between the first holding element and the second holding element, wherein the second holding element is arranged on an adjusting mechanism and borne so as to be displaceable by means of the adjusting mechanism, characterised in that the adjusting mechanism is adjustable by means of the control, so that the position of the functional element is horizontally, or simultaneously vertically and horizontally changeable through corresponding adjustment of the second holding element.
A method for multi-rate synchronization of a sensor (101, 201, 401) that provides a digital sensor output signal (103, 203, 404), and a processor arrangement (105, 205, 403, 501, 1002, 1101, 1102) that processes the sensor output signal (103, 203, 404) according to a processing algorithm and that provides a processor output signal, the method comprising: operating the digital sensor (101, 201, 401) to provide the sensor output signal (103, 203, 404) with a first sample rate, and operating the processor arrangement (105, 205, 403, 501, 1002, 1101, 1102) to provide a processor output signal with a second sample rate, wherein the second sample rate is an integer multiple of the first sample rate, characterized in generating in the processor arrangement (105, 205, 403, 501, 1002, 1101, 1102) a trigger signal (104, 204, 405) that triggers processing of the sensor output signal (103, 203, 404) when a new sample of the sensor output signal (103, 203, 404) is available, and inputting the new sample of the sensor output signal (103, 203, 404) into the processor arrangement (105, 205, 403, 501, 1002, 1101, 1102) for processing of the sensor output signal (103, 203, 404). operating the digital sensor (101, 201, 401) to provide the sensor output signal (103, 203, 404) with a first sample rate, and operating the processor arrangement (105, 205, 403, 501, 1002, 1101, 1102) to provide a processor output signal with a second sample rate, wherein the second sample rate is an integer multiple of the first sample rate, characterized in generating in the processor arrangement (105, 205, 403, 501, 1002, 1101, 1102) a trigger signal (104, 204, 405) that triggers processing of the sensor output signal (103, 203, 404) when a new sample of the sensor output signal (103, 203, 404) is available, and inputting the new sample of the sensor output signal (103, 203, 404) into the processor arrangement (105, 205, 403, 501, 1002, 1101, 1102) for processing of the sensor output signal (103, 203, 404).
A mobile audio reproducing apparatus comprising earphones and a body connected to the earphones, the earphones comprising a sound pickup unit which is operable to collect a surrounding sound around the audio reproducing apparatus and supply resultant audio signals to the body; and the body comprising: discrimination means for determining whether the sound pickup unit has been tapped by a user of the audio reproducing apparatus using a maximum value and effective values of the sound collected by the sound pickup unit; and execution means for executing a predetermined process to control the audio reproducing apparatus when it is determined that the sound pickup unit has been tapped. discrimination means for determining whether the sound pickup unit has been tapped by a user of the audio reproducing apparatus using a maximum value and effective values of the sound collected by the sound pickup unit; and execution means for executing a predetermined process to control the audio reproducing apparatus when it is determined that the sound pickup unit has been tapped.
System for storing energy, comprising a heat accumulator which has a storage region and an outer wall (2, 11) surrounding the storage region, the storage region having a solid heat storage medium (1, 10), an intermediate region (3, 13) between the storage region and the outer wall (2, 11) being at least partially filled with a gaseous medium and a support material, and the intermediate region (3, 13) being coupled to a pump device such that a pressure of the gaseous medium can be regulated, characterized in that the heat accumulator has only the outer wall (2, 11) and is free of inner walls and further outer walls.
A method for transmitting a pilot sequence from a transmitting end to a receiving end in a multi-antenna wireless communication system, the method comprising: setting a same pilot pattern to each of a plurality of transmitting antennas; allocating different pilot sequences to the set pilot patterns; and transmitting the allocated pilot sequences to the receiving end, wherein at least one of the transmitting antennas forms a valid communication link with one of the receiving antennas, characterized in that when a number of data streams intended to be transmitted is equal to a number of the pilot sequences, the different pilot sequences are generated by cyclic shifting a basic pilot sequence, and in that when a number of data streams intended to be transmitted is greater than the number of the pilot sequences the different pilot sequences include pilot sequences selected from cyclically shifted pilot sequences of the basic pilot sequence and from permuted and cyclically shifted pilot sequences of the basic pilot sequence such that the number of the different pilot sequences is equal to the number of data streams. setting a same pilot pattern to each of a plurality of transmitting antennas; allocating different pilot sequences to the set pilot patterns; and transmitting the allocated pilot sequences to the receiving end, wherein at least one of the transmitting antennas forms a valid communication link with one of the receiving antennas, characterized in that when a number of data streams intended to be transmitted is equal to a number of the pilot sequences, the different pilot sequences are generated by cyclic shifting a basic pilot sequence, and in that when a number of data streams intended to be transmitted is greater than the number of the pilot sequences the different pilot sequences include pilot sequences selected from cyclically shifted pilot sequences of the basic pilot sequence and from permuted and cyclically shifted pilot sequences of the basic pilot sequence such that the number of the different pilot sequences is equal to the number of data streams.
A process for producing an anti-corrosion resin, said process comprising the steps of: A1) reacting a mixture comprising: (a) a monomer selected from the group consisting of pyrrole, substituted pyrrole, aniline, substituted aniline, thiophene, substituted thiophene, and a combination thereof; (b) a primer comprising a resin selected from the group consisting of acrylic, polyester, epoxy, melamin/formaldehyde, polyurethane resins, and a combination thereof; (c) potassium tetraoxalate; and (d) ammonium persulfate to form a modified resin. A1) reacting a mixture comprising: (a) a monomer selected from the group consisting of pyrrole, substituted pyrrole, aniline, substituted aniline, thiophene, substituted thiophene, and a combination thereof; (b) a primer comprising a resin selected from the group consisting of acrylic, polyester, epoxy, melamin/formaldehyde, polyurethane resins, and a combination thereof; (c) potassium tetraoxalate; and (d) ammonium persulfate (a) a monomer selected from the group consisting of pyrrole, substituted pyrrole, aniline, substituted aniline, thiophene, substituted thiophene, and a combination thereof; (b) a primer comprising a resin selected from the group consisting of acrylic, polyester, epoxy, melamin/formaldehyde, polyurethane resins, and a combination thereof; (c) potassium tetraoxalate; and (d) ammonium persulfate
A method of producing poly(3-hydroxybutyrate-co-3-hydroxyhexanoate), which method comprises transforming, by homologous recombination, the -form-specific enoyl CoA hydratase gene into the chromosome of a recombinant Cupriavidus necator strain to which a poly(3-hydroxybutyrate-co-3-hydroxyhexanoate)-producing ability has been conferred, or transforming by introducing into said strain an autonomous replicating vector having said gene integrated therein, and growing the transformant in a medium containing a vegetable oil as a carbon source, wherein the fraction of 3-hydroxyhexanoate is 5-20 mol% and the accumulation rate of poly(3-hydroxybutyrate-co-3-hydroxyhexanoate) in the transformant is 50-90% by weight.
A display device comprising: - a lower cover; - a circuit substrate disposed on the lower cover; - a plurality of light sources disposed on the circuit substrate; - a reflection layer disposed on the circuit substrate; - a light regulator disposed at an edge of the reflection layer at an angle with respect to the reflection layer; and - an optical sheet disposed on the light sources, wherein the light regulator includes absorber portions and reflector portions located between the absorber portions, wherein the absorber portions are respectively located in portions of the light regulator corresponding to outermost light sources, and wherein the reflector portions are respectively located in portions of the light regulator corresponding to inner light sources inwardly located than the outermost light sources. - a lower cover; - a circuit substrate disposed on the lower cover; - a plurality of light sources disposed on the circuit substrate; - a reflection layer disposed on the circuit substrate; - a light regulator disposed at an edge of the reflection layer at an angle with respect to the reflection layer; and - an optical sheet disposed on the light sources, wherein the light regulator includes absorber portions and reflector portions located between the absorber portions, wherein the absorber portions are respectively located in portions of the light regulator corresponding to outermost light sources, and wherein the reflector portions are respectively located in portions of the light regulator corresponding to inner light sources inwardly located than the outermost light sources.
A device for conditioning and processing fibrous material waste, such as for example mineral wool waste, in particular glass or rock wool waste, asbestos fibers or carbon fibers, comprising at least one crushing device for mechanically crushing the fibers and/or fiber groups of the fibrous material waste, wherein the device includes at least one extraction device and this one includes at least one extraction hood and/or at least one extraction wall, wherein the extraction device is arranged with respect to the crushing device such that the dusts and/or fibers arising during crushing of the fibrous material waste in the crushing device are sucked by the extraction device and can be supplied to at least one filter device connected to the extraction device or integrated in the extraction device, wherein the device comprises at least one pressing device for pressing the fibrous material waste crushed in the crushing device, and wherein the device comprises at least one mixing device for mixing and blending the pressed and crushed fibrous material waste with at least one liquid or flowable additive, such that after mixing the crushed fibrous material waste with the at least one liquid or flowable additive, the resulting mixture is castable into a mold for curing or into a transport container for further transport.