mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling the growth of microorganisms in industrial process water comprising administering a sufficient amount of a composition for inhibiting the growth of microorganisms comprising effective amounts of: (a) chloro-hydantoin or hydantoin represented by formula: wherein: a) R 1 is the same or different; when different it independently represent H or OR 4, wherein R 4 is H, chlorine, or alkyl of 1 to 5 carbon atoms, and b) R 2 and R 3 are the same or different; when different they independently are H or alkyl of 1 to 5 carbon atoms; (b) a chlorine donor source; and (c) peracetic acid and salts thereof, with the proviso that when hydantoin is halogen based (b) is optional; wherein a composition comprising the peracetic acid is added consecutively to the industrial water with a composition comprising: hydantoin-stabilized hypochlorite; or chloro-hydantoin. (a) chloro-hydantoin or hydantoin represented by formula: wherein: a) R 1 is the same or different; when different it independently represent H or OR 4, wherein R 4 is H, chlorine, or alkyl of 1 to 5 carbon atoms, and b) R 2 and R 3 are the same or different; when different they independently are H or alkyl of 1 to 5 carbon atoms; a) R 1 is the same or different; when different it independently represent H or OR 4, wherein R 4 is H, chlorine, or alkyl of 1 to 5 carbon atoms, and b) R 2 and R 3 are the same or different; when different they independently are H or alkyl of 1 to 5 carbon atoms; (b) a chlorine donor source; and (c) peracetic acid and salts thereof, hydantoin-stabilized hypochlorite; or chloro-hydantoin.
Planting container for planting balconies, terraces, gardens or paved areas, comprising at least one interior tray with a bottom and at least four side walls (3a, 3b), wherein all side walls (3a, 3b) of the interior tray comprise fastening elements for fastening frame elements or side walls of other interior trays, wherein the planting container comprises at least one, in particular three or four, frame elements for limiting the planting container on the outside, wherein the fastening elements comprise holes in the side walls for fastening the at least one frame element, wherein the interior tray comprises an open top side opposite the bottom, characterized in that at least one reinforcing element is arranged at the Planting container, said reinforcing element being arranged in the interior tray, preferably 0-20 mm below the top side of the interior tray.
A collation of cigarettes extending in a first, second and third spatial direction (X, Y, Z), which are all perpendicular to each other, wherein the collation comprises a plurality of parallel cigarettes all arranged with their longitudinal axis parallel to the third spatial direction, wherein the cigarettes are arranged in at least six rows each comprising a defined number m of cigarettes and the rows extend in the first spatial direction and are arranged above each other in the second spatial direction forming the collation with a rectangular cross section in a sectional plane spanned by the first and second spatial direction (X, Y), wherein the centers of the cigarettes of each row with regard to the sectional plane are displaced in the first spatial direction with respect to the centers of the cigarettes of the directly adjacent rows in the second spatial direction, wherein at least two adjacent rows each comprising n cigarettes are arranged with the centers of their cigarettes directly above the centers of the cigarettes of the other of the two adjacent rows and in the second spatial direction the adjacent rows are arranged between at least two other cigarette rows characterized in that the total number of rows (4, 8, 12a, 12b) is lower than the number n of cigarettes in any of the adjacent rows.
Method for improving the antenna matching in a smart meter in the case of bidirectional close-range radio connections between a meter radio module of the smart meter and at least one concentrator radio module of a concentrator, wherein the meter radio module from time to time transmits a number of test packets in succession at a predefined transmission frequency with respectively different predefined antenna matchings, and this transmission of test packets is stopped if the receiving concentrator radio module signals a sufficiently high reception field strength to the smart meter, whereupon useful data packets are transmitted in future with the currently set antenna matching of the predefined antenna matchings.
A method of protecting a gas turbine engine, the method comprising the steps of: determining a flight condition of an aircraft; comparing the flight condition to a programmed condition; and moving a plurality of compressor vanes (62, 66, 68) of a compressor between a first position and a second position for deflecting foreign objects if the step of comparing the flight condition to the programmed flight condition determines the programmed flight condition is met, characterised in that the compressor includes a plurality of rotors, an outer flowpath exists between an outer diameter of the plurality of rotors and an outer casing of the gas turbine engine, wherein the step of deflecting any foreign objects with the plurality of vanes directs the foreign objects into the outer flowpath for extraction through a duct with a downstream bleed. determining a flight condition of an aircraft; comparing the flight condition to a programmed condition; and moving a plurality of compressor vanes (62, 66, 68) of a compressor between a first position and a second position for deflecting foreign objects if the step of comparing the flight condition to the programmed flight condition determines the programmed flight condition is met, characterised in that the compressor includes a plurality of rotors, an outer flowpath exists between an outer diameter of the plurality of rotors and an outer casing of the gas turbine engine, wherein the step of deflecting any foreign objects with the plurality of vanes directs the foreign objects into the outer flowpath for extraction through a duct with a downstream bleed.
A side airbag device for a vehicle, the device comprising: a seat provided in a vehicle interior of the vehicle; a side airbag having a plurality of chambers (25, 27) each folded, the side airbag being stored in a side portion of a seat back of the seat; an inflator arranged together with the side airbag, the inflator being capable of supplying gas to the plurality of chambers when a side-impact crash of the vehicle is detected; a channel section for distributing the gas generated from the inflator to the plurality of chambers; a valve unit provided in the channel section, the valve unit being capable of reducing a distributed amount of the gas flowing from the channel section to a particular chamber among the plurality of chambers; and an actuator unit that allows the valve unit to operate to reduce the distributed amount of the gas flowing from the channel section to the particular chamber according to deployment behavior of any chamber among the plurality of chambers, characterized in that the valve unit is configured to include a valve body member capable of closing an outlet of the channel section opening to a side of the particular chamber, and the actuator unit is configured to include a cord-like member in which one end portion is connected with a circumference of another chamber other than the particular chamber, and another end portion is connected with the valve body member, the cord-like member being capable of displacing the valve body member to a closing side along with progress of deployment of the other chamber. a seat provided in a vehicle interior of the vehicle; a side airbag having a plurality of chambers (25, 27) each folded, the side airbag being stored in a side portion of a seat back of the seat; an inflator arranged together with the side airbag, the inflator being capable of supplying gas to the plurality of chambers when a side-impact crash of the vehicle is detected; a channel section for distributing the gas generated from the inflator to the plurality of chambers; a valve unit provided in the channel section, the valve unit being capable of reducing a distributed amount of the gas flowing from the channel section to a particular chamber among the plurality of chambers; and an actuator unit that allows the valve unit to operate to reduce the distributed amount of the gas flowing from the channel section to the particular chamber according to deployment behavior of any chamber among the plurality of chambers,
A gasification reactor comprising a gasifier having a tubular gastight wall with a discharge channel at its lower end leading into a lower slag collection bath, wherein the gastight wall and the slag collection bath are arranged within a pressure vessel, and wherein an annular space between the pressure vessel and the gasifier with the discharge channel is separated in a high pressure top section and a low pressure lower section by a sealing arrangement comprising a damper, wherein the sealing arrangement comprises an upper seal and the damper is formed by a lower seal at an axial distance below the upper seal.
Coplanar differential bi-strip delay line, comprising two conducting strips (32, 34) disposed on one and the same face of a dielectric substrate and each comprising a first and a second end (E'1, E'2, S'1, S'2), the two first ends (E'1, E'2) of the two conducting strips forming two conductors of a first bi-strip connecting port that can be connected to a first external differential device, the two second ends (S'1, S'2) of the two conducting strips forming two conductors of a second bi-strip connecting port that can be connected to a second external differential device, said delay line being devised in the form of a printed circuit so as to exhibit structural discontinuities (32B, 32C, 32D, 34B, 34C, 34D), where the structural discontinuities generate at least one impedance jump between its two conducting strips (32, 34) so as to reproduce a predetermined phase shift and include at least: - a first discontinuity (32B, 34B) of increase in the distance between the two conducting strips (32, 34), for producing at least one impedance jump, and a second discontinuity (32C, 34C) of reduction in the distance between the two conducting strips (32, 34), for producing at least one impedance jump, forming a zone of the substrate in which the bi-strip line exhibits a separation between its conducting strips which is greater than the separation between the two conductors (E'1, E'2, S'1, S'2) of each of its bi-strip connecting ports (38, 40), characterized in that the coplanar differential bi-strip delay line includes at least: - an interdigitated capacitance formed, by at least one pair of conducting fingers (32D, 34D) joined respectively by one of their ends to the two conducting strips, in the zone of the substrate in which the bi-strip line exhibits a greater separation between its conducting strips (32, 34), wherein the pair of conducting fingers (32D, 34D) extends laterally toward the interior of this zone from the two conducting strips. - a first discontinuity (32B, 34B) of increase in the distance between the two conducting strips (32, 34), for producing at least one impedance jump, and a second discontinuity (32C, 34C) of reduction in the distance between the two conducting strips (32, 34), for producing at least one impedance jump, forming a zone of the substrate in which the bi-strip line exhibits a separation between its conducting strips which is greater than the separation between the two conductors (E'1, E'2, S'1, S'2) of each of its bi-strip connecting ports (38, 40), characterized in that the coplanar differential bi-strip delay line includes at least: - an interdigitated capacitance formed, by at least one pair of conducting fingers (32D, 34D) joined respectively by one of their ends to the two conducting strips, in the zone of the substrate in which the bi-strip line exhibits a greater separation between its conducting strips (32, 34), wherein the pair of conducting fingers (32D, 34D) extends laterally toward the interior of this zone from the two conducting strips.
A method for detecting and processing measurement values of at least one capacitive proximity sensor arranged in the rear area of a motor vehicle near the floor for triggering an actuating function of a tailgate by a preset foot movement of an operator, wherein periodically after a scanning interval in each case a measurement value of the capacitive proximity sensor is captured and a digital measurement value corresponding to the measurement value is stored in a FIFO memory, wherein in a first energy-saving evaluation mode after every storing of a preset first number of digital measurement values a filter value is calculated from the currently stored digital measurement value and a preset second number of previously stored digital measurement values in that each of these stored digital measurement values is multiplied in each case with an associated first factor and the results are added, the filter value is compared with a threshold value and in particular when the filter value exceeds the threshold value, a second evaluation mode is activated, wherein in the second, normal evaluation mode in each case following the storing of a preset third number of digital measurement values, which are lower than the first number, a filter value is calculated from the currently stored digital measurement value and a preset fourth number of previously stored digital measurement values in that each of these stored digital measurement values is multiplied in each case with an associated second factor and the results are added, and the filter value is supplied to an algorithm for detecting a signal path corresponding to the preset foot movement of an operator. a filter value is calculated from the currently stored digital measurement value and a preset second number of previously stored digital measurement values in that each of these stored digital measurement values is multiplied in each case with an associated first factor and the results are added, the filter value is compared with a threshold value and in particular when the filter value exceeds the threshold value, a second evaluation mode is activated,
A method of handling a branch misprediction in a pipelined processor, comprising: detecting that a branch instruction was mispredicted; determining whether said mispredicted branch instruction is the last uncommitted instruction in the pipelines, wherein an instruction is committed when that instruction and all older instructions in the pipeline are known to be able to complete execution; if said mispredicted branch instruction is the last uncommitted instruction in the pipelines, committing said mispredicted branch instruction and flushing all uncommitted instructions from the pipelines; if said mispredicted branch instruction is not the last uncommitted instruction in the pipelines, determining if an instruction older than said mispredicted branch instruction is stalled in a pipeline due to a long latency operation; if an instruction older than said mispredicted branch instruction is stalled in a pipeline due to a long latency operation, flushing said branch instruction and all other uncommitted instructions from the pipelines, otherwise waiting for all older instructions to commit. detecting that a branch instruction was mispredicted; determining whether said mispredicted branch instruction is the last uncommitted instruction in the pipelines, wherein an instruction is committed when that instruction and all older instructions in the pipeline are known to be able to complete execution; if said mispredicted branch instruction is the last uncommitted instruction in the pipelines, committing said mispredicted branch instruction and flushing all uncommitted instructions from the pipelines; if said mispredicted branch instruction is not the last uncommitted instruction in the pipelines, determining if an instruction older than said mispredicted branch instruction is stalled in a pipeline due to a long latency operation; if an instruction older than said mispredicted branch instruction is stalled in a pipeline due to a long latency operation, flushing said branch instruction and all other uncommitted instructions from the pipelines, otherwise waiting for all older instructions to commit.
A luminaire (600, 700) comprising a luminaire housing (660, 770) accommodating a driver housing assembly (1000, 100), the driver housing assembly comprising a driver housing (1001, 10) and a cable (1002, 30); the driver housing comprising: - a driver compartment comprising a driver, wherein the driver compartment is sealed and protected against exposure to the environment; - a terminal block for connecting the cable to the driver; - a compartment (1003, 12) arranged for receiving the cable, said compartment being separate from the driver compartment; - a first housing wall (1014, 14) adjacent and transverse to a second housing wall (1024, 24), wherein the first housing wall comprises a first entrance (1, 15) arranged for receiving the cable and the second housing wall comprises a second entrance (2, 25) arranged for receiving the cable, and wherein said first housing wall and said second housing wall enclose a part of the compartment; - a lid for only closing the compartment and not the driver compartment, wherein the lid is arranged for in closed position confining the cable in the first entrance or the second entrance; wherein the cable is connected to the terminal block, and wherein the cable is received by the driver housing via either the first entrance or the second entrance the driver housing comprising: - a driver compartment comprising a driver, wherein the driver compartment is sealed and protected against exposure to the environment; - a terminal block for connecting the cable to the driver; - a compartment (1003, 12) arranged for receiving the cable, said compartment being separate from the driver compartment; - a first housing wall (1014, 14) adjacent and transverse to a second housing wall (1024, 24), wherein the first housing wall comprises a first entrance (1, 15) arranged for receiving the cable and the second housing wall comprises a second entrance (2, 25) arranged for receiving the cable, and wherein said first housing wall and said second housing wall enclose a part of the compartment; - a lid for only closing the compartment and not the driver compartment, - a driver compartment comprising a driver, wherein the driver compartment is sealed and protected against exposure to the environment; - a terminal block for connecting the cable to the driver; - a compartment (1003, 12) arranged for receiving the cable, said compartment being separate from the driver compartment; - a first housing wall (1014, 14) adjacent and transverse to a second housing wall (1024, 24), wherein the first housing wall comprises a first entrance (1, 15) arranged for receiving the cable and the second housing wall comprises a second entrance (2, 25) arranged for receiving the cable, and wherein said first housing wall and said second housing wall enclose a part of the compartment; - a lid for only closing the compartment and not the driver compartment, wherein the lid is arranged for in closed position confining the cable in the first entrance or the second entrance; wherein the cable is connected to the terminal block, and wherein the cable is received by the driver housing via either the first entrance or the second entrance
A mobility management method, characterized in that, the method comprises: acquiring, by a working Mobility Management Equipment, MME, service information from a service instruction after receiving the service instruction; determining a wireless network accessed by each terminal in a terminal group according to the acquired service information; and invoking a terminal in the terminal group to execute a service requested by a user according to the wireless network accessed by each terminal in the terminal group; wherein the method further comprises: when the working MME has a single-point failure, the working MME sending a replacement request to at least one backup MME and switching a current service and the terminal executing the service requested by the user to the at least one backup MME. acquiring, by a working Mobility Management Equipment, MME, service information from a service instruction after receiving the service instruction; determining a wireless network accessed by each terminal in a terminal group according to the acquired service information; and invoking a terminal in the terminal group to execute a service requested by a user according to the wireless network accessed by each terminal in the terminal group; wherein the method further comprises: when the working MME has a single-point failure, the working MME sending a replacement request to at least one backup MME and switching a current service and the terminal executing the service requested by the user to the at least one backup MME.
A cold-rolled high strength steel sheet, having a tensile strength of 780 MPa or more, having a Young's modulus of 205 GPa or more in the rolling direction and in a direction at an angle of 45° to the rolling direction, a Young's modulus of 220 GPa or more in a direction at a right angle to the rolling direction, an average r value of 1.05 or more, calculated as (r L + 2r D + r C)/4, wherein plastic strain ratios r L, r D, and r C are determined by using JIS No. 5 test pieces prescribed in JIS Z 2201, which have been respectively taken from the steel sheet in accordance with JIS Z 2254, and a limiting drawing ratio of 2.03 or more, the steel sheet having a chemical composition consisting of, by mass%, C: 0.060% or more and 0.150% or less, Si: 0.50% or more and 2.20% or less, Mn: 1.00% or more and 3.00% or less, P: 0.100% or less, S: 0.0100% or less, Al: 0.010% or more and 2.500% or less, N: 0.0100% or less, one or both of Ti: 0.001% or more and 0.200% or less and Nb: 0.001% or more and 0.200% or less, optionally at least one chemical element selected from among Cr: 0.05% or more and 1.00% or less, Mo: 0.05% or more and 1.00% or less, Ni: 0.05% or more and 1.00% or less, and Cu: 0.05% or more and 1.00% or less, optionally B: 0.0003% or more and 0.0050% or less, optionally at least one chemical element selected from among Ca: 0.0010% or more and 0.0050% or less, Mg: 0.0005% or more and 0.0100% or less, and REM: 0.0003% or more and 0.0050% or less, optionally Ta: 0.0010% or more and 0.1000% or less, optionally at least one chemical element selected from among Sn: 0.0020% or more and 0.2000% or less and Sb: 0.0020% or more and 0.2000% or less, and the balance being Fe and inevitable impurities, wherein the contents of C, N, S, Ti, and Nb satisfy relational expression below or, in the case where Ta is present, the contents of C, N, S, Ti, Nb, and Ta satisfy relational expression below, and a microstructure including, in terms of area ratio, ferrite in an amount of 20% or more, martensite in an amount of 5% or more, and phases other than ferrite and martensite in an amount of 10% or less, wherein the average grain size of the ferrite is 20.0 μm or less, and wherein the inverse intensity ratio of γ-fiber for α-fiber is 1.00 or more in each of the ferrite and the martensite: 500 ≤ C * ≤ 1300 where C * = C − 12.0 / 47.9 × Ti − 47.9 / 14.0 × N − 47.9 / 32.1 × S − 12.0 / 92.9 × Nb × 10000, 500 ≤ C * ≤ 1300 where C * = C − 12.0 / 47.9 × Ti − 47.9 / 14.0 × N − 47.9 / 32.1 × S − 12.0 / 92.9 × Nb − 12.0 / 180.9 × Ta × 1000, where atomic symbols in the relational expression respectively represent the contents (mass%) of the corresponding chemical elements, and where C* is represented in units of mass ppm.