mhurhangee/ep-ind-claims huggingface dataset:
Honeycomb body for exhaust-gas aftertreatment, having a first end side, having a second end side, having a central axis that extends through both end sides, and having a length, the honeycomb body comprising at least one at least partially structured metallic layer that is arranged around the central axis, wherein the structure of the at least one metallic layer has elevations and depressions which extend at least over a part of the length of the honeycomb body and run obliquely with respect to the central axis, and furthermore, at least one metallic connecting strip is provided between adjacent regions of the at least one at least partially structured metallic layer, said at least one metallic connecting strip being shorter than the length of the honeycomb body and forming a brazed connection or welded connection to said adjacent regions, characterized in that the structure is implemented such that the elevations and depressions in adjacent regions, as viewed in the radial direction in relation to the central axis, are inclined differently and/or have a different orientation than one another, such that the elevations and depressions at least partially do not lie linearly against one another, but rather cross one another and thus form substantially only punctiform abutment points with one another.
A method performed by a user equipment, UE, supporting registration using third generation partnership project, 3GPP, access and using non-3GPP access, the method comprising: storing, by the UE, first emergency information received, using first registration procedures with a first public land mobile network, PLMN, the first emergency information comprising a first extended local emergency number list, and the first emergency information received from the first PLMN; receiving, by the UE, a REGISTRATION ACCEPT message using second registration procedures with a second PLMN via non-3GPP access, wherein the REGISTRATION ACCEPT message does not contain an extended local emergency number list; and discarding, by the UE, the first emergency information after receiving the REGISTRATION ACCEPT message from the second PLMN if at least one condition of one or more conditions is met, wherein a first condition of the one or more conditions comprises the UE having received the REGISTRATION ACCEPT message from the second PLMN that is in a country different from the country of the first PLMN. storing, by the UE, first emergency information received, using first registration procedures with a first public land mobile network, PLMN, the first emergency information comprising a first extended local emergency number list, and the first emergency information received from the first PLMN; receiving, by the UE, a REGISTRATION ACCEPT message using second registration procedures with a second PLMN via non-3GPP access, wherein the REGISTRATION ACCEPT message does not contain an extended local emergency number list; and discarding, by the UE, the first emergency information after receiving the REGISTRATION ACCEPT message from the second PLMN if at least one condition of one or more conditions is met, wherein a first condition of the one or more conditions comprises the UE having received the REGISTRATION ACCEPT message from the second PLMN that is in a country different from the country of the first PLMN.
A ring for a fine spinning machine, wherein the ring is used in the fine spinning machine for winding a yarn through a traveler sliding on a sliding surface of the ring in a dry state, characterized in that the sliding surface of the ring is covered by chrome plating, wherein in the chrome plating, a ratio of emission intensity of hydrogen atoms to emission intensity of chromium atoms (Cr), determined by glow discharge optical emission spectrometry (GD-OES) is 0.1 or more, when the emission intensity is determined as the average value in the region in which the respective element amounts are stable, in the chrome plating, a half-value width of a peak of a plane, determined by X-ray diffraction analysis according to item under the headline "Basic test for manufacturing samples" of the description is 3° or more, and in the chrome plating, a ratio of emission intensity of carbon atoms to the emission intensity of chromium atoms (Cr), determined by the glow discharge optical emission spectrometry (GD-OES) is 0.01 or more, when the emission intensity is determined as the average value in the region in which the respective element amounts are stable. characterized in that the sliding surface of the ring is covered by chrome plating, wherein in the chrome plating, a ratio of emission intensity of hydrogen atoms to emission intensity of chromium atoms (Cr), determined by glow discharge optical emission spectrometry (GD-OES) is 0.1 or more, when the emission intensity is determined as the average value in the region in which the respective element amounts are stable, in the chrome plating, a half-value width of a peak of a plane, determined by X-ray diffraction analysis according to item under the headline "Basic test for manufacturing samples" of the description is 3° or more, and in the chrome plating, a ratio of emission intensity of carbon atoms to the emission intensity of chromium atoms (Cr), determined by the glow discharge optical emission spectrometry (GD-OES) is 0.01 or more, when the emission intensity is determined as the average value in the region in which the respective element amounts are stable.
An antenna (100, 300, 400) comprising at least one first resonant cavity (110, 310, 410) and a second resonant cavity (120, 320, 420), each resonant cavity (110, 120, 310, 320, 420) being closed by a base (112, 122, 312, 322, 422) at one end and comprising a radiating element (111, 121, 311, 321, 421) superimposed on the base of the resonant cavity, the radiating element (111, 311, 411) of the first cavity (110, 310, 410) being able to transmit a signal on a first frequency band and the radiating element (121, 321, 421) of the second cavity (120, 320, 420) being able to transmit a signal on a second frequency band separate from the first frequency band, a first distance between the base and the radiating element of the first cavity differs from a second distance between the base and the radiating element of the second cavity, the antenna also comprising a third resonant cavity (130, 330, 430) closed by a base (132, 332, 432) at one end and comprising a radiating element (131, 331, 431) superimposed on the base of the third resonant cavity, the radiating element of the third cavity being able to transmit a signal on a third frequency band separate from the first and second frequency bands, and a third distance between the base and the radiating element of the third cavity differing at least from the first or second distance, characterized in that the different resonant cavities of the first cavity being distributed over the circumference of the first cavity with minimum angular spacing θ min = 360 x (1 - 0.25)/n, and maximum angular spacing θ max = 360 x (1 + 0.25)/n between two consecutive cavities, with n the number of different resonant cavities of the first cavity.
Method for the unification of differing designations (TUnit; TempUnit; etc.) of physically identical parameters of different field devices (2a, 2b) of the same type in an automation system, which are parameterized via a communication network from at least one central control unit, characterized in that by means of the control unit, in the different field devices (2a, 2b) of the same type, the physically identical parameters are identified by semantic analysis of the differing designations (TUnit; TempUnit; etc.), after which an in each case identical identification (processvalue.unit) is attached to the differing designations (TUnit; TempUnit; etc.).
Sealing system for nuclear containers, sealing a container lid of a nuclear container to a container body of said nuclear container, said sealing system comprising: at least three tags (30, 32, 34) adapted to be mounted to one of said container lid or said container body, each tag (30, 32, 34) having a unique ID and comprising a first RF transceiver configured to transmit, in use, a respective first RF signal; at least three anchors (14, 16, 18) adapted to be mounted to the other one of said container lid or said container body, each anchor (14, 16, 18) having a unique ID and comprising a second RF transceiver configured to receive, in use, the first RF signals; and a master unit, coupled for communication with the at least three anchors (14, 16, 18); wherein the master unit is adapted to (i) determine, associated with the ID for each tag (30, 32, 34), a respective current 3D position, based on the received first RF signals, (ii) store previously determined 3D positions for each tag (30, 32, 34), and (iii) generate an alert and/or a timestamp and/or a log entry if it determines that separation between the current 3D position of one or more of the tags (30, 32, 34) and a respective previously determined 3D position is greater than a predetermined distance threshold. at least three tags (30, 32, 34) adapted to be mounted to one of said container lid or said container body, each tag (30, 32, 34) having a unique ID and comprising a first RF transceiver configured to transmit, in use, a respective first RF signal; at least three anchors (14, 16, 18) adapted to be mounted to the other one of said container lid or said container body, each anchor (14, 16, 18) having a unique ID and comprising a second RF transceiver configured to receive, in use, the first RF signals; and a master unit, coupled for communication with the at least three anchors (14, 16, 18); wherein the master unit is adapted to (i) determine, associated with the ID for each tag (30, 32, 34), a respective current 3D position, based on the received first RF signals, (ii) store previously determined 3D positions for each tag (30, 32, 34), and (iii) generate an alert and/or a timestamp and/or a log entry if it determines that separation between the current 3D position of one or more of the tags (30, 32, 34) and a respective previously determined 3D position is greater than a predetermined distance threshold. (i) determine, associated with the ID for each tag (30, 32, 34), a respective current 3D position, based on the received first RF signals, (ii) store previously determined 3D positions for each tag (30, 32, 34), and (iii) generate an alert and/or a timestamp and/or a log entry if it determines that separation between the current 3D position of one or more of the tags (30, 32, 34) and a respective previously determined 3D position is greater than a predetermined distance threshold.
A hairspray comprising a pressurized container and an aerosol composition located therein that contains, based on the weight thereof, a) 20 to 80 wt.% at least one propellant; b) 0.1 to 20 wt. % at least one setting polymer; c) 0.01 to 5 wt.% esters of formula in which R1 represents -H or-CH 3, R2 represents a straight-chain or branched alkyl functional group having 7 to 15 carbon atoms, n represents an integer from the group of 1, 2, 3, 4, 5, 6, 7 and 8, with the proviso that the aerosol composition contains, based on the weight thereof, 0.1 to 10 wt.% copolymer(s) of N-octylacrylamide/acrylic acid/tert-butylaminoethyl methacrylate (INCl names: octylacrylamide/acrylates/butylaminoethyl methacrylate copolymer). a) 20 to 80 wt.% at least one propellant; b) 0.1 to 20 wt. % at least one setting polymer; c) 0.01 to 5 wt.% esters of formula in which R1 represents -H or-CH 3, R2 represents a straight-chain or branched alkyl functional group having 7 to 15 carbon atoms, n represents an integer from the group of 1, 2, 3, 4, 5, 6, 7 and 8, with the proviso that the aerosol composition contains, based on the weight thereof, 0.1 to 10 wt.% copolymer(s) of N-octylacrylamide/acrylic acid/tert-butylaminoethyl methacrylate (INCl names: octylacrylamide/acrylates/butylaminoethyl methacrylate copolymer). R1 represents -H or-CH 3, R2 represents a straight-chain or branched alkyl functional group having 7 to 15 carbon atoms, n represents an integer from the group of 1, 2, 3, 4, 5, 6, 7 and 8,
Dosing container, of the type that comprises a reservoir body, wherein a liquid, cream or gel product is stored to be expelled outside, which defines on its top an upper opening, a cover that closes said upper opening and which comprises a foam-producing pump that ends with a nozzle, comprising a tube that connects the product from inside the body to the foam-producing pump, which mixes the product with air to turn it into foam and transfers it to the nozzle, characterised in that it comprises a support that is fixed to the end of the nozzle, with silicone tips defining a brush, with orifices that let the product pass throughout the nozzle to the outside, wherein the perimeter tips being rectangular and the interior ones being cylindrical, with the rectangular ones having a thickness of 0.80 - 0.90 mm and the cylindrical ones having diameters of 0.80 - 0.90 mm and the spacing between the tips being between 0,85 mm and 1.20 mm.
A glass flake being characterized in that the glass flake is formed from a glass base material having a composition expressed in percent by mass of: 60≤SiO 2 ≤75; 5<Al 2 O 3 ≤15; 3≤CaO≤20; 6≤Na 2 O≤20; and 9≤(Li 2 O+Na 2 O+K 2 O)≤20, wherein the content of Fe 2 O 3 is 0.5 percent by mass or less, the content of ZnO is 2 percent mass or less, wherein a temperature difference ΔT obtained by subtracting a devitrification temperature of the glass base material from a working temperature of the glass base material is 0°C to 200°C. 60≤SiO 2 ≤75; 5<Al 2 O 3 ≤15; 3≤CaO≤20; 6≤Na 2 O≤20; and 9≤(Li 2 O+Na 2 O+K 2 O)≤20,
An inverter apparatus for an electric vehicle having an electromotor and a battery, comprising: a case; a switching element disposed within the case; a first heat sink provided with a cooling fluid passage therein and disposed at a lower portion of the case to exchange heat with the switching element; and a second heat sink disposed at an upper region of the inner space of the case to cool the upper region of the inner space of the case, the second heat sink being separated from the first heat sink, wherein a cooling fluid passage is formed at the second heat sink, wherein a passage of the second heat sink is communicated with a passage of the first heat sink, wherein the case is formed of an insulating material or has an insulating material surrounding an outer surface thereof, wherein the cooling fluid passages of the first and second heat sinks are connected to a cooling fluid circulation circuit for allowing a cooling fluid to be circulated while passing through an inverter apparatus, and wherein the cooling fluid circulation circuit includes a pump for pumping a cooling fluid to be circulated, a fluid pipe for forming a passage to move the cooling fluid, and a heater core disposed at a region communicated with a passenger space of a car body of the electric vehicle to use heat collected from the first heat sink and the second heat sink while the cooling fluid passes through the inverter apparatus. a case; a switching element disposed within the case; a first heat sink provided with a cooling fluid passage therein and disposed at a lower portion of the case to exchange heat with the switching element; and a second heat sink disposed at an upper region of the inner space of the case to cool the upper region of the inner space of the case, the second heat sink being separated from the first heat sink, wherein a cooling fluid passage is formed at the second heat sink, wherein a passage of the second heat sink is communicated with a passage of the first heat sink, wherein the case is formed of an insulating material or has an insulating material surrounding an outer surface thereof, wherein the cooling fluid passages of the first and second heat sinks are connected to a cooling fluid circulation circuit for allowing a cooling fluid to be circulated while passing through an inverter apparatus, and wherein the cooling fluid circulation circuit includes a pump for pumping a cooling fluid to be circulated, a fluid pipe for forming a passage to move the cooling fluid, and a heater core disposed at a region communicated with a passenger space of a car body of the electric vehicle to use heat collected from the first heat sink and the second heat sink while the cooling fluid passes through the inverter apparatus.
A signal generation device comprising: a filtering unit (2-0 to 2-(L-1), 4) that performs sampling frequency conversion with respect to an input signal of a predetermined sampling frequency, and generates a signal obtained after the sampling frequency conversion as an output signal; and a control unit that selects, based on a sampling-frequency setting value indicating a sampling frequency of the output signal, a combination of tap coefficients used by the filtering unit (2-0 to 2-(L-1), 4) from a plurality of combinations of tap coefficients determined in advance, wherein the filtering unit (2-0 to 2-(L-1), 4) performs the sampling frequency conversion based on a result of the selection by the control unit, the signal generation device further comprising an averaging processing unit that averages the sampling-frequency setting value, wherein the control unit designates a sampling-frequency setting value averaged by the averaging processing unit as the sampling-frequency setting value used to select tap coefficients to be used by the filtering unit (2-0 to 2-(L-1), 4). a filtering unit (2-0 to 2-(L-1), 4) that performs sampling frequency conversion with respect to an input signal of a predetermined sampling frequency, and generates a signal obtained after the sampling frequency conversion as an output signal; and a control unit that selects, based on a sampling-frequency setting value indicating a sampling frequency of the output signal, a combination of tap coefficients used by the filtering unit (2-0 to 2-(L-1), 4) from a plurality of combinations of tap coefficients determined in advance, wherein the filtering unit (2-0 to 2-(L-1), 4) performs the sampling frequency conversion based on a result of the selection by the control unit, the signal generation device further comprising an averaging processing unit that averages the sampling-frequency setting value, wherein the control unit designates a sampling-frequency setting value averaged by the averaging processing unit as the sampling-frequency setting value used to select tap coefficients to be used by the filtering unit (2-0 to 2-(L-1), 4).
A support pin for supporting an electrically heatable heating body on a support body of a catalytic converter, the support pin comprising an outer sleeve and a pin body insertable therein, the pin body being surrounded inside the outer sleeve at least in some regions by at least one inner sleeve which consists of electrically non-conductive material, characterised in that the pin body has a thickened region, in which the pin body has a cross section that is larger than an inner cross section of the inner sleeve, the inner sleeve being arranged in the axial direction between this thickened region and an end of the outer sleeve where the pin body protrudes out from the outer sleeve.
Air vent with a control element and a frame-shaped air guide element, which is mounted, in the region of the air outlet opening of a housing of the air vent, to be pivotable about its longitudinal axis, wherein - the control element is mounted in the frame-shaped air guide element to be pivotable for setting the direction of exiting air, - the control element extends parallel to opposite first side walls of the frame-shaped air guide element, - the control element extends over the opening, which is formed by the frame-shaped air guide element, between opposite second side walls, which are orthogonal to the first side walls, of the frame-shaped air guide element, - the first side walls have a greater length than the second side walls, - the first side walls extend parallel to the pivot axis of the frame-shaped air guide element, - the pivot axis of the control element extends in the frame-shaped air guide element orthogonally to the pivot axis of the frame-shaped air guide element, - the control element is coupled with a group of slats (60, 61), the pivot axles of which extend parallel to the pivot axis of the control element in the frame-shaped air guide element and are pivotably mounted in the housing upstream of the frame-shaped air guide element in the air flow direction, and - the control element is formed as air guide element. - the control element is mounted in the frame-shaped air guide element to be pivotable for setting the direction of exiting air, - the control element extends parallel to opposite first side walls of the frame-shaped air guide element, - the control element extends over the opening, which is formed by the frame-shaped air guide element, between opposite second side walls, which are orthogonal to the first side walls, of the frame-shaped air guide element, - the first side walls have a greater length than the second side walls, - the first side walls extend parallel to the pivot axis of the frame-shaped air guide element, - the pivot axis of the control element extends in the frame-shaped air guide element orthogonally to the pivot axis of the frame-shaped air guide element, - the control element is coupled with a group of slats (60, 61), the pivot axles of which extend parallel to the pivot axis of the control element in the frame-shaped air guide element and are pivotably mounted in the housing upstream of the frame-shaped air guide element in the air flow direction, and - the control element is formed as air guide element.
A method for treating soybean rust in a host leguminous plant, wherein the method comprises treating the plant at the locus of the infection with mancozeb; and concurrently, prior or subsequently to mancozeb with: (i) trifloxystrobin and prothioconazole; or (ii) picoxystrobin and tebuconazole; or (iii) picoxystrobin and cyproconazole; or (iv) azoxystrobin and cyproconazole. (i) trifloxystrobin and prothioconazole; or (ii) picoxystrobin and tebuconazole; or (iii) picoxystrobin and cyproconazole; or (iv) azoxystrobin and cyproconazole.