mhurhangee/ep-ind-claims huggingface dataset:
A working machine comprising: a ground engaging structure provided in the form of front and rear wheels; a body comprising an undercarriage supported on the ground engaging structure and a superstructure mounted to the undercarriage; a first working arm connected to the superstructure for performing work functions, the first working arm comprising a first implement mount at a distal end thereof; a second implement mount connected to the undercarriage; a milling device mounted to the first implement mount and configured to break up a surface, in use; and an apparatus mounted to the second implement mount for removing material from the surface, the apparatus comprising a collector having a first opening, and a sweeper trailing the collector in a preferred direction of operation of the apparatus, wherein the sweeper is configured and arranged to move surface material broken up by the milling device into the collector via the first opening. a ground engaging structure provided in the form of front and rear wheels; a body comprising an undercarriage supported on the ground engaging structure and a superstructure mounted to the undercarriage; a first working arm connected to the superstructure for performing work functions, the first working arm comprising a first implement mount at a distal end thereof; a second implement mount connected to the undercarriage; a milling device mounted to the first implement mount and configured to break up a surface, in use; and an apparatus mounted to the second implement mount for removing material from the surface, the apparatus comprising a collector having a first opening, and a sweeper trailing the collector in a preferred direction of operation of the apparatus, wherein the sweeper is configured and arranged to move surface material broken up by the milling device into the collector via the first opening.
Work top, characterized in that it comprises at least one extensible holding device which consists of an external bracket and at least one internal extensible U-shaped bracket (3, 4) and wherein the bracket ends of the extensible holding device are, at the same height, - introduced laterally into the work top or - introduced laterally into a retaining frame, which is installed to the work top in a fixed or detachable manner, or - introduced laterally into a drawer, which is installed beneath the work top in an extensible manner, or - guided through bracket holders, which are installed beneath the work top. - introduced laterally into the work top or - introduced laterally into a retaining frame, which is installed to the work top in a fixed or detachable manner, or - introduced laterally into a drawer, which is installed beneath the work top in an extensible manner, or - guided through bracket holders, which are installed beneath the work top.
A control device for an internal combustion engine, comprising: a particulate matter sensor, for measuring an amount of particulate matter in a gaseous body, that is placed in an exhaust path of the internal combustion engine and includes a pair of electrodes (8, 10) disposed at a distance from each other; and elimination means for burning and eliminating particulate matter attached to the particulate matter sensor, characterized by further comprising particulate matter amount judgment means for judging whether the amount of particulate matter attached to the particulate matter sensor is decreased to a reference particulate matter amount that meets the following conditions and: The amount of particulate matter that allows the particulate matter to form an electrically conductive path between the electrodes (8, 10) at one or more spots; The minimum amount of particulate matter that allows the sensor output to exhibit significant changes in accordance with changes in the amount of accumulated particulate matter even immediately after the elimination; and elimination process control means for causing the elimination means to terminate a process of eliminating the particulate matter when the amount of particulate matter is judged to be equal to the reference particulate matter amount. a particulate matter sensor, for measuring an amount of particulate matter in a gaseous body, that is placed in an exhaust path of the internal combustion engine and includes a pair of electrodes (8, 10) disposed at a distance from each other; and elimination means for burning and eliminating particulate matter attached to the particulate matter sensor, The amount of particulate matter that allows the particulate matter to form an electrically conductive path between the electrodes (8, 10) at one or more spots; The minimum amount of particulate matter that allows the sensor output to exhibit significant changes in accordance with changes in the amount of accumulated particulate matter even immediately after the elimination; and
A device for deicing a separator nose of an aviation turbine engine, the device comprising: a separator nose for positioning downstream from a fan of the engine to separate annular channels for passing a primary stream and a secondary stream coming from the engine; and a casing fastened to the separator nose so as to extend it downstream, the casing having an inner shroud defining the outside of the primary stream flow passage; the device being characterized in that the casing includes at least one air duct incorporated in the inner shroud so as to be formed integrally therewith, the air duct opening out downstream to an air feed and opening out upstream into the inside of the separator nose. a separator nose for positioning downstream from a fan of the engine to separate annular channels for passing a primary stream and a secondary stream coming from the engine; and a casing fastened to the separator nose so as to extend it downstream, the casing having an inner shroud defining the outside of the primary stream flow passage;
A method for constructing a polar coding sequence, wherein the method is performed by a terminal or a network device, and the method comprises: storing a reliability sequence corresponding to a basic sequence, wherein a length of the reliability sequence corresponding to the basic sequence is less than a length of a reliability sequence corresponding to a mother code sequence; storing a reliability reference sequence, wherein the reliability reference sequence comprises at least one element remaining after the reliability sequence corresponding to the basic sequence is excluded from the reliability sequence corresponding to the mother code sequence; and constructing a polar coding sequence by using the reliability sequence corresponding to the basic sequence and an element in the reliability reference sequence, wherein the length of the reliability sequence corresponding to the mother code sequence is N max = 2 l max, and the length of the reliability sequence corresponding to the basic sequence is N s = 2 ls, wherein 1≤l s <lmax; and wherein an i th element in the reliability sequence corresponding to the basic sequence is PW i = ∑ j = 0 n − 1 B j β j, and ( i) dec @( B n -1 B n -2... B 0) bin, wherein ( i) dec indicates that i is a decimal number, ( B n -1 B n -2... B 0) bin indicates a binary number; and β is an exponent base; and wherein a length of the reliability reference sequence is l max - l s, and the reliability reference sequence is a quantized representation of PW 2 l s = β l s, PW 2 l s + 1 = β l s + 1,..., PW 2 l max − 1 = β l max − 1. storing a reliability sequence corresponding to a basic sequence, wherein a length of the reliability sequence corresponding to the basic sequence is less than a length of a reliability sequence corresponding to a mother code sequence; storing a reliability reference sequence, wherein the reliability reference sequence comprises at least one element remaining after the reliability sequence corresponding to the basic sequence is excluded from the reliability sequence corresponding to the mother code sequence; and constructing a polar coding sequence by using the reliability sequence corresponding to the basic sequence and an element in the reliability reference sequence, wherein the length of the reliability sequence corresponding to the mother code sequence is N max = 2 l max, and the length of the reliability sequence corresponding to the basic sequence is N s = 2 ls, wherein 1≤l s <lmax; and wherein an i th element in the reliability sequence corresponding to the basic sequence is PW i = ∑ j = 0 n − 1 B j β j, and ( i) dec @( B n -1 B n -2... B 0) bin, wherein ( i) dec indicates that i is a decimal number, ( B n -1 B n -2... B 0) bin indicates a binary number; and β is an exponent base; and wherein a length of the reliability reference sequence is l max - l s, and the reliability reference sequence is a quantized representation of PW 2 l s = β l s, PW 2 l s + 1 = β l s + 1,..., PW 2 l max − 1 = β l max − 1.
A method for the purification and improvement of organoleptic indicators of treatment liquids, including drinking water, ethanol and alcoholic beverages, comprising the steps of: providing a single housing containing in sequence a multi-stage cavitation device and a filter module; pumping a treatment liquid under pressure into the multi-stage cavitation device; processing the treatment liquid in the multi-stage cavitation device to form a processed liquid, wherein the processing step comprises generating hydrodynamic cavitation in the treatment liquid; purifying the processed liquid through the filter module to form a purified liquid, wherein the purifying step comprises reducing a concentration of contaminants, solid particles, and colloidal particles in the processed liquid; and discharging the purified liquid from the filter module, characterized in that, the multi-stage cavitation device comprises at least two cavitation stages, each cavitation stage comprising a helical plate and a cylinder body defining a central channel having a constriction and an expansion; and the filter module comprises an annular cylindrical insert surrounding a cylindrical filter element, wherein the annular cylindrical insert defines a plurality of annular bulges forming contractions and expansions in a gap between the annular cylindrical insert and the cylindrical filter element. providing a single housing containing in sequence a multi-stage cavitation device and a filter module; pumping a treatment liquid under pressure into the multi-stage cavitation device; processing the treatment liquid in the multi-stage cavitation device to form a processed liquid, wherein the processing step comprises generating hydrodynamic cavitation in the treatment liquid; purifying the processed liquid through the filter module to form a purified liquid, wherein the purifying step comprises reducing a concentration of contaminants, solid particles, and colloidal particles in the processed liquid; and discharging the purified liquid from the filter module, characterized in that, the multi-stage cavitation device comprises at least two cavitation stages, each cavitation stage comprising a helical plate and a cylinder body defining a central channel having a constriction and an expansion; and the filter module comprises an annular cylindrical insert surrounding a cylindrical filter element, wherein the annular cylindrical insert defines a plurality of annular bulges forming contractions and expansions in a gap between the annular cylindrical insert and the cylindrical filter element.
A method for treating water located in a water reservoir, for example in a swimming pool, pond or aquarium, in particular for cleaning and disinfecting the water, comprising: - removing a pre-settable quantity of water per unit of time from the water reservoir via one or more extraction line(s) of a recirculation means; - filtering the removed partial quantity of water by means of a membrane filtration means disposed in the recirculation means, the membrane filtration means comprising a plurality of filter modules fluidically connected in a parallel arrangement; - returning the water to the water reservoir via one or more return line(s) of the recirculation means; - cleaning the membranes of the filter modules, periodically or when required, by backwashing with a backwashing liquid by reversing the direction of flow through the filter modules compared with that of the filtration operation and discharging the dirty liquid occurring during backwashing via a discharge, characterized in that in order to clean the membranes of the filter modules of the membrane filtration means, gas is introduced by a gas supply means into the filter modules on the intake side or the gas is introduced into the water reservoir at one or more locations by the gas supply means, periodically or when required, to circulate the water in the water reservoir, the gas supply means being used either to flush the filter modules with gas or to circulate and mix the water in the water reservoir. - removing a pre-settable quantity of water per unit of time from the water reservoir via one or more extraction line(s) of a recirculation means; - filtering the removed partial quantity of water by means of a membrane filtration means disposed in the recirculation means, the membrane filtration means comprising a plurality of filter modules fluidically connected in a parallel arrangement; - returning the water to the water reservoir via one or more return line(s) of the recirculation means; - cleaning the membranes of the filter modules, periodically or when required, by backwashing with a backwashing liquid by reversing the direction of flow through the filter modules compared with that of the filtration operation and discharging the dirty liquid occurring during backwashing via a discharge,
A torque transmission system for transmitting a torque from at least one drive unit, comprising a torque transmission element and a support element supporting the torque transmission element by means of pivot bearings (30, 40), wherein the torque transmission element is a ring gear and has a first connection device, formed as a first toothing, for non-rotatable coupling of the torque transmission element to a first unit, and a second connection device, configured as an internal toothing, for coupling the torque transmission element to a second unit, and one of the two elements, torque transmission element and support element, forms a substantially hollow cylindrical shoulder, and the respective other element forms an outside of a cylinder and, radially to the outside relative thereto, forms an inside of a hollow cylinder, wherein the shoulder is arranged in the radial direction between the outside of the cylinder and the inside of the hollow cylinder, and a first pivot bearing is arranged between the outside of the cylinder and the shoulder and a second pivot bearing is arranged between the shoulder and the inside of the hollow cylinder, and wherein moreover the torque transmission element has a radially extending web, wherein the torque transmission element forms the first connection device on a first axial side of the web and the second connection device on a second axial side of the web.
A device for regulating the height of a gripping and transport device for gripping, holding, guiding and transporting in particular bottle-like containers, having at least one first positioning plate, to or on which at least one first gripper arm pair with pincer-like gripping sections for gripping, holding and guiding a container is mounted on at least one, preferably two, bearing pins (3, 4) seated so as to be horizontally pivotable, a supporting plate arranged below the first positioning plate, to or on which at least one second gripping arm pair with pincer-like gripping sections for gripping, holding and guiding the container is in turn mounted on least one, preferably two bearing pins (3, 4) seated so as to be horizontally pivotable, and a drive shaft for horizontally rotating the first positioning plate and the supporting plate for transporting grasped containers, wherein the first positioning plate is vertically displaceable along the drive shaft, characterized in that the at least one first gripper arm pair and the at least one second gripper arm pair can move back and forth together between a receiving position and a gripping or transport position on at least one, preferably two bearing pin(s) (3, 4) seated so as to be horizontally pivotable via a common switching axis, wherein the length of the bearing pin(s) (3, 4) and the length of the switching axis allow an adjusting of the height of at least one of the gripper arm pairs (5, 25).
A radiation detector apparatus, suitable for use in a level measurement apparatus, comprising an elongate, radiation-permeable housing having a cross-sectional area which is substantially uniform along the length of the housing and two or more detector assemblies, each comprising: a) at least one scintillation detector for detecting radiation; b) electronic apparatus for controlling the at least one detector and processing the electronic signals produced by the at least one detector; and c) a photodetector; wherein said detector assemblies are contained in said housing, wherein said housing has a circular cross section and said scintillation detectors have a square cross section, having a largest dimension which is sized to enable the scintillation detector to fit inside the circular cross-section housing, wherein at least one cable, capable of carrying electrical signals and power to and from at least one of the detector assemblies, passes between at least one of said scintillation detectors and said housing along at least a portion of the length of the scintillation detector. a) at least one scintillation detector for detecting radiation; b) electronic apparatus for controlling the at least one detector and processing the electronic signals produced by the at least one detector; and c) a photodetector;
A ferromagnetic thin-film based magnetic field sensor, said sensor comprising a first common base electrode (11',12,13) having therein a nonmagnetic, electrically conductive support; and a plurality of junction structures (12,13; 14; 15,16,17; 18) electrically interconnected through said first common base electrode, said junction structures comprising (12,13; 14; 15,16,17; 18): a first electrically insulative intermediate layer, said intermediate layer having two major surfaces on opposite sides thereof; a first base magnetizable film (12,13) of an anisotropic ferromagnetic material in said first common base electrode (11',12,13) and on a said major surface on a first common base electrode (11',12,13) side of said first intermediate layer, said base magnetizable film (12,13) having a magnetization for a selected external field present thereat; and a first plurality of separated magnetizable films (15,17) of an anisotropic ferromagnetic material at least one of which is on that remaining one of said major surfaces of said first intermediate layer, said separated magnetizable films (15,17) having magnetizations which each rotate to an angle for said selected external magnetic field present thereat differing from that angle to which said magnetization of said first base magnetizable film (12,13) rotates for said selected external magnetic field present thereat, and wherein the separated magnetizable films (15, 17) and the first base magnetizable film each have a lateral extent and wherein the lateral extent of the separated magnetizable films (15, 17) is smaller than the lateral extent of the first base magnetisable film (12, 13), by at least a curling distance of said first base magnetizable film (12,13). a first electrically insulative intermediate layer, said intermediate layer having two major surfaces on opposite sides thereof; a first base magnetizable film (12,13) of an anisotropic ferromagnetic material in said first common base electrode (11',12,13) and on a said major surface on a first common base electrode (11',12,13) side of said first intermediate layer, said base magnetizable film (12,13) having a magnetization for a selected external field present thereat; and a first plurality of separated magnetizable films (15,17) of an anisotropic ferromagnetic material at least one of which is on that remaining one of said major surfaces of said first intermediate layer, said separated magnetizable films (15,17) having magnetizations which each rotate to an angle for said selected external magnetic field present thereat differing from that angle to which said magnetization of said first base magnetizable film (12,13) rotates for said selected external magnetic field present thereat, and wherein the separated magnetizable films (15, 17) and the first base magnetizable film each have a lateral extent and wherein the lateral extent of the separated magnetizable films (15, 17) is smaller than the lateral extent of the first base magnetisable film (12, 13), by at least a curling distance of said first base magnetizable film (12,13).
An electronic device, comprising; a page walker module to receive a page request generated by a work item executed by a graphics processing unit, GPU, the page request indicating a virtual address, and to detect a page fault associated with the page request; a page request queue, wherein the page walker module is to provide the page request to the page request queue when the page fault is detected; a page miss handler to receive the page request having the page fault from the page request queue, wherein to service the page request, the page miss handler is to allocate a physical address of a memory to the virtual address, therewith dynamically mapping said physical address to said virtual address, and to provide the physical address to the page walker module; and a controller, at least partially comprising hardware logic, to monitor execution of the page request having the page fault, and to determine whether to suspend execution of a work item at the GPU associated with the page request having the page fault, or to continue execution of the work item at the GPU, characterized in that: the controller is to continue execution of the work item if a ratio of the number of page requests associated with the work item that have been serviced by the page miss handler and the number of page requests associated with the work item that are pending in the page request queue is at least equal to a predetermined threshold value.
An integrated circuit comprising: a digital core configured to output a first voltage signal; an IO ring or block comprising a first input/output cell and a second input/output cell, wherein the first input/output cell is configured to convert the first voltage signal to a first current signal and provide the first current signal to a first circuitry external to the integrated circuit, the first circuitry comprising a transimpedance amplifier configured to convert the current signal back to a voltage signal corresponding to a third voltage; and wherein the second input/output cell is configured to provide level shifting to convert the first voltage signal to a second voltage signal and provide the second voltage signal to a second circuitry external to the integrated circuit. a digital core configured to output a first voltage signal; an IO ring or block comprising a first input/output cell and a second input/output cell, wherein the first input/output cell is configured to convert the first voltage signal to a first current signal and provide the first current signal to a first circuitry external to the integrated circuit, the first circuitry comprising a transimpedance amplifier configured to convert the current signal back to a voltage signal corresponding to a third voltage; and wherein the second input/output cell is configured to provide level shifting to convert the first voltage signal to a second voltage signal and provide the second voltage signal to a second circuitry external to the integrated circuit.