mhurhangee/ep-ind-claims huggingface dataset:
A steel for machine and structural use having excellent machinability, consisting of C: 0.1 to 1.2 mass %; Si: 0.03 to 2 mass %; Mn: 0.3 to 1.8 mass %; P: more than 0 and 0.03 mass % or less; S: more than 0 and 0.02 mass % or less; Cr: 0.3 to 2.5 mass %; Al: 0.0001 to 0.01 mass %; Ca: 0.0001 to 0.005 mass %; Mg: 0.0001 to 0.005 mass %; N: more than 0 and 0.009 mass % or less; O: more than 0 and 0.005 mass % or less; at least one of one or more elements selected from the group consisting of Li, Na, K, Ba and Sr: 0.00001 to 0.0050 mass % in total; and Ti: 0.01 to 0.5 mass %; and optionally, Mo: more than 0 and 0.5 mass % or less; B: more than 0 and 0.005 mass % or less; Bi: more than 0 and 0.1 mass % or less; Cu: more than 0 and 0.5 mass % or less; Ni: more than 0 and 2 mass % or less; at least one member selected from the group consisting of Zr: more than 0 and 0.02 mass % or less; V: more than 0 and 0.5 mass % or less; and W: more than 0 and 1.0 mass % or less; and a remainder being iron and inevitable impurities, which contains an oxide inclusion containing, wherein a total mass of an average composition of the oxide inclusion is 100 mass %: CaO: 10 to 55 mass %; SiO 2: 20 to 70 mass %; Al 2 O 3: more than 0 and 35 mass % or less; MgO: more than 0 and 20 mass % or less; MnO: more than 0 and 5 mass % or less; and one or more members selected from the group consisting of Li 2 O, Na 2 O, K 2 O, BaO, SrO and TiO 2: 0.5 to 20 mass % in total. C: 0.1 to 1.2 mass %; Si: 0.03 to 2 mass %; Mn: 0.3 to 1.8 mass %; P: more than 0 and 0.03 mass % or less; S: more than 0 and 0.02 mass % or less; Cr: 0.3 to 2.5 mass %; Al: 0.0001 to 0.01 mass %; Ca: 0.0001 to 0.005 mass %; Mg: 0.0001 to 0.005 mass %; N: more than 0 and 0.009 mass % or less; O: more than 0 and 0.005 mass % or less; at least one of one or more elements selected from the group consisting of Li, Na, K, Ba and Sr: 0.00001 to 0.0050 mass % in total; and Ti: 0.01 to 0.5 mass %; and optionally, Mo: more than 0 and 0.5 mass % or less; B: more than 0 and 0.005 mass % or less; Bi: more than 0 and 0.1 mass % or less; Cu: more than 0 and 0.5 mass % or less; Ni: more than 0 and 2 mass % or less; at least one member selected from the group consisting of Zr: more than 0 and 0.02 mass % or less; V: more than 0 and 0.5 mass % or less; and W: more than 0 and 1.0 mass % or less; and a remainder being iron and inevitable impurities, which contains an oxide inclusion containing, wherein a total mass of an average composition of the oxide inclusion is 100 mass %: CaO: 10 to 55 mass %; SiO 2: 20 to 70 mass %; Al 2 O 3: more than 0 and 35 mass % or less; MgO: more than 0 and 20 mass % or less; MnO: more than 0 and 5 mass % or less; and one or more members selected from the group consisting of Li 2 O, Na 2 O, K 2 O, BaO, SrO and TiO 2: 0.5 to 20 mass % in total.
A rail skirt system for a collapsible shelter having a plurality of legs, comprising: a rail skirt removably connected between an adjacent pair of said plurality of legs, said rail skirt including a top rail and a skirt removably attached to and depending from said top rail, said top rail being removably connected between said adjacent pair of said plurality of legs, said top rail comprising a middle connector tube, and first and second rail bar members having inner ends that are removably received in the middle connector tube, characterized in that: each of said rail bar members comprising an outer locking end with a pair of spring mounted outer detent pins (40a, 40b) extending from opposing sides (42a, 42b) of the outer locking end of the rail bar member, wherein said locking ends of the rail bar members are connected between adjacent legs of the shelter with fixed corner connecting brackets, each of said fixed corner connecting brackets having a pair of journal arms (58a, 58b) pivotally connected together by a pivot pin, and having an open configuration and a closed configuration that clamps to one of said plurality of legs of the shelter, and wherein said journal arms (58a, 58b) have outer ends (66a, 66b) that are forked and that include apertures (68a, 68b) that receive the outer detent pins (40a, 40b) of the outer locking ends of the rail bar members, allowing the rail bar members of the top rail to be clamped to the legs of the shelter. a rail skirt removably connected between an adjacent pair of said plurality of legs, said rail skirt including a top rail and a skirt removably attached to and depending from said top rail, said top rail being removably connected between said adjacent pair of said plurality of legs, said top rail comprising a middle connector tube, and first and second rail bar members having inner ends that are removably received in the middle connector tube, characterized in that: each of said rail bar members comprising an outer locking end with a pair of spring mounted outer detent pins (40a, 40b) extending from opposing sides (42a, 42b) of the outer locking end of the rail bar member, wherein said locking ends of the rail bar members are connected between adjacent legs of the shelter with fixed corner connecting brackets, each of said fixed corner connecting brackets having a pair of journal arms (58a, 58b) pivotally connected together by a pivot pin, and having an open configuration and a closed configuration that clamps to one of said plurality of legs of the shelter, and wherein said journal arms (58a, 58b) have outer ends (66a, 66b) that are forked and that include apertures (68a, 68b) that receive the outer detent pins (40a, 40b) of the outer locking ends of the rail bar members, allowing the rail bar members of the top rail to be clamped to the legs of the shelter.
Mobile portal installation for washing and/or drying vehicles, comprising: - a yard for a vehicle to be washed and/or dried; - a pair of parallel guides (17a,17b) arranged on the two sides of said yard; - a portal movable along said parallel guides (17a,17b) and provided with a pair of parallel vertical uprights (23a,23b), a top horizontal crossbeam and washing and/or drying fixtures, wherein both of said uprights (23a,23b) are equipped with a corresponding lighting device adapted to illuminate at least one portion (35a,35b) of the floor of said yard adjacent to a corresponding one of said parallel guides (17a,17b), characterized in that the installation is provided with safety lights for stepping in and out of the vehicle and in that said floor portion is corresponding to the floor portion occupied by the driver while stepping out of or in the vehicle which stands in the yard before and after the washing and/or drying operation, and in that each lighting device is adapted to illuminate the portion (35a,35b) of the floor of said yard extending aside the front and rear doors of the vehicle, when the vehicle has four doors and is properly positioned within the yard. - a yard for a vehicle to be washed and/or dried; - a pair of parallel guides (17a,17b) arranged on the two sides of said yard; - a portal movable along said parallel guides (17a,17b) and provided with a pair of parallel vertical uprights (23a,23b), a top horizontal crossbeam and washing and/or drying fixtures, wherein both of said uprights (23a,23b) are equipped with a corresponding lighting device adapted to illuminate at least one portion (35a,35b) of the floor of said yard adjacent to a corresponding one of said parallel guides (17a,17b),
A method for operating a mineral material crusher (100,410,420), wherein the crusher comprises a first crushing element (101,412,421) and a second crushing element (102,413,422), defining a crusher gap therebetween, and the crusher gap is maintained using at least one hydraulic cylinder (108-110,414,425), the hydraulic liquid pressure (P M) in at least one of the hydraulic cylinders is measured and hydraulic liquid is evacuated from the at least one hydraulic cylinder in case the hydraulic liquid pressure (340,350) in at least one of the hydraulic cylinders exceeds a set opening pressure limit, characterized by repeating during the crushing process the steps: generating, based on the hydraulic liquid pressure measurement, a representative value of a normal hydraulic liquid pressure in the at least one hydraulic cylinder (108-110,414,425) caused by the crushable material in that certain crushing application; comparing the generated representative value and the set opening pressure limit; and selecting an opening pressure limit (340,350,P Th) which is higher than the measured normal hydraulic liquid pressure. generating, based on the hydraulic liquid pressure measurement, a representative value of a normal hydraulic liquid pressure in the at least one hydraulic cylinder (108-110,414,425) caused by the crushable material in that certain crushing application; comparing the generated representative value and the set opening pressure limit; and selecting an opening pressure limit (340,350,P Th) which is higher than the measured normal hydraulic liquid pressure.
A library of bidirectional expression cassettes comprising a repertoire of bidirectional promoter sequences, each expression cassette comprising a bidirectional promoter sequence operably linked to a first gene in one direction, and operably linked to an oppositely oriented second gene in the other direction which is different from the first gene, wherein the bidirectional promoter sequences are selected from the group consisting of (i) SEQ ID NO:39-78, (ii) SEQ ID NO:126-135, (iii) SEQ ID NO: 136-165, and (iv) SEQ ID NO: 166-181, and wherein the repertoire comprises at least 50 different bidirectional promoter sequences.
Method for ascertaining a position error for a linear drive, wherein the linear drive comprises runners (L*, L), at least one segment (Seg), at least one sensor and a control device, wherein the respective runner (L*, L) comprises a detection element, wherein the respective position (x-ist) of the respective runner is ascertained on the basis of the detection element by means of at least one sensor, wherein the method comprises at least the following steps: - determining the respective position and/or alignment of the detection element of a first runner (L*) and of further runners, - comparing (Ver) the respective position and/or the alignment of the detection element of the respective further runners with the position and/or alignment of the respective detection element of the first runner (L*) for the purposes of determining deviations (Δ) between the respective position and/or the respective alignment of the detection element of the respective further runner and the position and/or alignment of the detection element of the first runner (L*), - assigning the respective deviation (Δ) to the respective further runner, - determining a discrepancy of the respective sensor with the aid of the first runner (L*), wherein the discrepancy indicates how far away from its actual position or alignment the respective detection element is detected by the respective sensor, and wherein the discrepancy is composed of a non-linearity and an installation error, - assigning the respective discrepancy to the respective sensor, - determining the position error of the respective runner (L, L*) by linking the deviation (Δ) of the respective further runner and the discrepancy of the sensor. - determining the respective position and/or alignment of the detection element of a first runner (L*) and of further runners, - comparing (Ver) the respective position and/or the alignment of the detection element of the respective further runners with the position and/or alignment of the respective detection element of the first runner (L*) for the purposes of determining deviations (Δ) between the respective position and/or the respective alignment of the detection element of the respective further runner and the position and/or alignment of the detection element of the first runner (L*), - assigning the respective deviation (Δ) to the respective further runner, - determining a discrepancy of the respective sensor with the aid of the first runner (L*), wherein the discrepancy indicates how far away from its actual position or alignment the respective detection element is detected by the respective sensor, and wherein the discrepancy is composed of a non-linearity and an installation error, - assigning the respective discrepancy to the respective sensor, - determining the position error of the respective runner (L, L*) by linking the deviation (Δ) of the respective further runner and the discrepancy of the sensor.
An oil-based web-offset lithographic ink composition, comprising: a colorant; a varnish; and a water-soluble alkyl thioether surfactant or a water-soluble alkoxylated modified rosin or a combination thereof. a colorant; a varnish; and a water-soluble alkyl thioether surfactant or a water-soluble alkoxylated modified rosin or a combination thereof.
A method for producing a reinforcement bar by a modified process of pultrusion, the method comprising the steps of: a) providing a source of filaments; b) assembling filaments into a bundle; c) impregnating the bundle with a thermosetting resin; d) removing excess resin from the bundle; e) compressing the bundle in a radial manner; f) exposing the bundle to a source of radiant energy; g) projecting particles onto the bundle; and h) exposing the bundle to a radiation in order to initiate on its surface a polymerization of the resin; such that steps a) to h) are carried out in order, and thus, step c) of impregnating the bundle with a thermosetting resin is followed by step d) of removing excess resin from the bundle, and step g) of projecting particles onto the bundle is preceded by step f) of exposing the bundle to a source of radiant energy. a) providing a source of filaments; b) assembling filaments into a bundle; c) impregnating the bundle with a thermosetting resin; d) removing excess resin from the bundle; e) compressing the bundle in a radial manner; f) exposing the bundle to a source of radiant energy; g) projecting particles onto the bundle; and h) exposing the bundle to a radiation in order to initiate on its surface a polymerization of the resin;
A method of switching capacitance, the method comprising: providing a first capacitor and a second capacitor; providing a first transistor and a second transistor coupled in series between the first capacitor and the second capacitor; biasing gates of the first and second transistors (205, 210) at substantially a supply voltage V DD and biasing sources and drains of the first and second transistors (205, 210) at substantially ground potential to connect the first capacitor to the second capacitor; and biasing the gates of the first and second transistors (205, 210) at substantially one half of the supply voltage V DD and biasing the sources and drains of the first and second transistors (205, 210) at substantially the supply voltage V DD to disconnect the first capacitor from the second capacitor. providing a first capacitor and a second capacitor; providing a first transistor and a second transistor coupled in series between the first capacitor and the second capacitor; biasing gates of the first and second transistors (205, 210) at substantially a supply voltage V DD and biasing sources and drains of the first and second transistors (205, 210) at substantially ground potential to connect the first capacitor to the second capacitor; and biasing the gates of the first and second transistors (205, 210) at substantially one half of the supply voltage V DD and biasing the sources and drains of the first and second transistors (205, 210) at substantially the supply voltage V DD to disconnect the first capacitor from the second capacitor.
A ceramic heater comprising: a ceramic base; a heating resistor embedded in the ceramic base; an external electrode that is disposed on side face of the ceramic base and is electrically connected to the heating resistor; and a lead brazed onto the external electrode, wherein a distance between an one point in a brazed portion of a periphery of the lead and a center axis of the lead is smaller than a distance between another point in the brazed portion and the center axis, in a section of the lead that is parallel to a longitudinal direction of the lead and includes the center axis of the lead, wherein the lead comprises a recess in the brazed portion in the section that is parallel to the longitudinal direction and includes the center axis, characterized in that the recess is filled with a brazing material. a ceramic base; a heating resistor embedded in the ceramic base; an external electrode that is disposed on side face of the ceramic base and is electrically connected to the heating resistor; and a lead brazed onto the external electrode, wherein a distance between an one point in a brazed portion of a periphery of the lead and a center axis of the lead is smaller than a distance between another point in the brazed portion and the center axis, in a section of the lead that is parallel to a longitudinal direction of the lead and includes the center axis of the lead, wherein the lead comprises a recess in the brazed portion in the section that is parallel to the longitudinal direction and includes the center axis, characterized in that the recess is filled with a brazing material.
A method for ultrasound elastography using a continuously vibrated ultrasound transducer, the steps of the method comprising: (a) providing a continuous vibration to an ultrasound transducer, whereby vibration of the ultrasound transducer induces a shear wave in an object; (b) acquiring signal data from the object using the ultrasound transducer, wherein the signal data are indicative of the shear wave propagating within the object; (c) processing the signal data by: converting the signal data to a complex representation of motion at a single temporal frequency by applying a Fourier transform to the signal data along a time dimension, generating output as complex-valued signal data; and using an empirical mode decomposition to extract an intrinsic mode function, IMF, from the complex-valued signal data, wherein the IMF represents motion of the shear wave in the object that has been separated from motion associated with the vibration provided to the ultrasound transducer; and (d) storing the IMF as shear wave signal data indicative of shear wave motion at the single temporal frequency. (a) providing a continuous vibration to an ultrasound transducer, whereby vibration of the ultrasound transducer induces a shear wave in an object; (b) acquiring signal data from the object using the ultrasound transducer, wherein the signal data are indicative of the shear wave propagating within the object; (c) processing the signal data by: converting the signal data to a complex representation of motion at a single temporal frequency by applying a Fourier transform to the signal data along a time dimension, generating output as complex-valued signal data; and using an empirical mode decomposition to extract an intrinsic mode function, IMF, from the complex-valued signal data, wherein the IMF represents motion of the shear wave in the object that has been separated from motion associated with the vibration provided to the ultrasound transducer; and converting the signal data to a complex representation of motion at a single temporal frequency by applying a Fourier transform to the signal data along a time dimension, generating output as complex-valued signal data; and using an empirical mode decomposition to extract an intrinsic mode function, IMF, from the complex-valued signal data, wherein the IMF represents motion of the shear wave in the object that has been separated from motion associated with the vibration provided to the ultrasound transducer; and (d) storing the IMF as shear wave signal data indicative of shear wave motion at the single temporal frequency.
Separator device for separating a light fraction, such as gas bubbles, and/or a heavy fraction, such as debris, from a liquid flow, including a tubular member having a wall with an inlet and an outlet forming an internal space forming a liquid flow channel, the internal space including a helical member for imparting a tangential velocity to liquid flowing through the tubular member, wherein the separator device further includes at least one separator channel for removing debris and/or gas bubbles from the liquid flow channel, the at least one separator channel being in communication with the liquid flow channel along at least part of a length of the helical member, wherein a) the wall of the tubular member includes at least one debris opening at said at least part of the length of the helical member for allowing debris to leave the liquid flow channel, and/or b) the internal space includes a hollow body, the helical member being disposed between the hollow body and the wall, wherein the hollow body includes at least one bubble opening at said at least part of the length of the helical member for allowing bubbles to leave the liquid flow channel, wherein the tubular member includes a return opening separate from the at least one debris opening and/or the at least one bubble opening for allowing liquid that exited the liquid flow channel via the at least one separator channel to re-enter the liquid flow channel, wherein the return opening is provided as a circumferential slit in the tubular member, wherein the tubular member includes a tapered section upstream of the slit. a tubular member having a wall with an inlet and an outlet forming an internal space forming a liquid flow channel, the internal space including a helical member for imparting a tangential velocity to liquid flowing through the tubular member, wherein the separator device further includes at least one separator channel for removing debris and/or gas bubbles from the liquid flow channel, the at least one separator channel being in communication with the liquid flow channel along at least part of a length of the helical member, wherein a) the wall of the tubular member includes at least one debris opening at said at least part of the length of the helical member for allowing debris to leave the liquid flow channel, and/or b) the internal space includes a hollow body, the helical member being disposed between the hollow body and the wall, wherein the hollow body includes at least one bubble opening at said at least part of the length of the helical member for allowing bubbles to leave the liquid flow channel, wherein the tubular member includes a return opening separate from the at least one debris opening and/or the at least one bubble opening for allowing liquid that exited the liquid flow channel via the at least one separator channel to re-enter the liquid flow channel, wherein the return opening is provided as a circumferential slit in the tubular member, wherein the tubular member includes a tapered section upstream of the slit.
Isochronous clockwork oscillator mechanism of the tuning fork type comprising a fixed support, a principal elastic connection and a cross-piece carrying a plurality of primary resonators, each carrying at least one mass supported by a spiral constituting an elastic return means and that is arranged to function in bending and that is embedded in said cross-piece, in which said primary resonators have at least one identical resonant mode, and are arranged to vibrate with a relative phase shift equal to 2π/n where n is the number of said primary resonators and are arranged with a symmetry in space such that the resultant of forces and torques applied by said primary resonators on said cross-piece is zero, and in which said primary resonators are arranged in space such that the resultant of their functioning errors due to gravity is zero, and in which the number of said primary resonators is even, characterised in that said cross-piece is fixed to said fixed support by said elastic principal connection, the stiffness of which is greater than the stiffness of each said spiral.