mhurhangee/ep-ind-claims huggingface dataset:
A rotary electric shaver, in which a plurality of blade units that include an outer blade having an annular shaving surface on an upper surface and an inner blade rotatable in sliding contact with a lower surface of the outer blade are arranged in a head unit held by a main body so as to be tiltable, within a predetermined angular range with respect to the main body, wherein a main drive shaft for outputting drive force of a motor accommodated in the main body and a rotary shaft of any one blade unit out of the plurality of blade units are connected by a movable joint, and wherein a position of the movable joint serves as a tilting fulcrum for tilting the head unit; characterised in that there is provided a biasing member which biases the head unit to be located at a position where a tilting angle of the head unit with respect to the main body is maximized.
A power generation device comprising, in a casing, an alternator that generates power through driving of an engine, an inverter case that houses an inverter of the alternator, and a fuel tank that stores fuel for the engine, the device comprising: an upper fixing part that fixes an upper part of the fuel tank to the casing, and a lower fixing part that fixes a lower part of the inverter case to the casing, wherein the casing includes a front plate located on a front side, a pair of side plates located on opposite right and left sides, a rear plate located on a rear side, and a bottom plate located on a downside, characterized by an intermediate fixing part that fixes a lower part of the fuel tank to an upper part of the inverter case, the intermediate fixing part comprises a lower fixing bracket attached in the lower part of the fuel tank, and a lower tank mount member attached to the lower fixing bracket and abutting on the upper part of the inverter case, the inverter case is configured to fasten and fix the front plate of the casing. an upper fixing part that fixes an upper part of the fuel tank to the casing, and a lower fixing part that fixes a lower part of the inverter case to the casing, wherein the casing includes a front plate located on a front side, a pair of side plates located on opposite right and left sides, a rear plate located on a rear side, and a bottom plate located on a downside, characterized by an intermediate fixing part that fixes a lower part of the fuel tank to an upper part of the inverter case, the intermediate fixing part comprises a lower fixing bracket attached in the lower part of the fuel tank, and a lower tank mount member attached to the lower fixing bracket and abutting on the upper part of the inverter case, the inverter case is configured to fasten and fix the front plate of the casing.
A power supply apparatus for supplying power to an electric load through a power supply line, the power supply apparatus comprising: power source means configured to supply electric power through the power supply line; a capacitor connected to the power supply line which extends from the power source means; a charge circuit configured to receive power from the power source means and to output a current value to charge the capacitor; detecting means configured to detect a voltage value of the capacitor; first determination means configured to determine whether charge of the capacitor is complete based on the voltage value detected by the detecting means; and second determination means configured to determine, in the case that the first determination means determines that the charge of the capacitor is complete, whether the voltage value detected by the detecting means is equal to or smaller than a threshold value to determine whether an error occurs, characterized in that, in the case that the first determination means determines that charge of the capacitor is complete, the charge circuit is further configured to change a first current value which is supplied before the charge of the capacitor is completed to a second current value which is smaller than the first current value, and the second determination means performs determination at a time that the second current value is supplied. power source means configured to supply electric power through the power supply line; a capacitor connected to the power supply line which extends from the power source means; a charge circuit configured to receive power from the power source means and to output a current value to charge the capacitor; detecting means configured to detect a voltage value of the capacitor; first determination means configured to determine whether charge of the capacitor is complete based on the voltage value detected by the detecting means; and second determination means configured to determine, in the case that the first determination means determines that the charge of the capacitor is complete, whether the voltage value detected by the detecting means is equal to or smaller than a threshold value to determine whether an error occurs, characterized in that, in the case that the first determination means determines that charge of the capacitor is complete, the charge circuit is further configured to change a first current value which is supplied before the charge of the capacitor is completed to a second current value which is smaller than the first current value, and the second determination means performs determination at a time that the second current value is supplied.
A particulate filter ash loading prediction method in which it is determined if a particulate filter requires regeneration as a result of a soot build up, characterized by the steps of: regenerating the particulate filter using a first soot loading prediction model utilizing a pressure differential across the particulate filter or a second soot loading prediction model; determining whether the regeneration of the particulate filter was initiated by the first soot loading prediction model or the second soot loading prediction model; incrementing a first counter associated with the first soot loading prediction model or a second counter associated with the second soot loading prediction model, dependent on the determining step; comparing a ratio of the first counter and the second counter; and establishing whether the particulate filter requires servicing, dependent on the ratio. regenerating the particulate filter using a first soot loading prediction model utilizing a pressure differential across the particulate filter or a second soot loading prediction model; determining whether the regeneration of the particulate filter was initiated by the first soot loading prediction model or the second soot loading prediction model; incrementing a first counter associated with the first soot loading prediction model or a second counter associated with the second soot loading prediction model, dependent on the determining step; comparing a ratio of the first counter and the second counter; and establishing whether the particulate filter requires servicing, dependent on the ratio.
Drive circuit with a transmission circuit for transmitting a signal across a potential barrier, from a first potential side (Pri, Sek) having a first earth potential to a second potential side (Sek, Pri) having a second earth potential, with a capacitively acting transmission device (80, 90) having capacitive coupling between the first and second potential sides, wherein the transmission device (80, 90) has exactly one or two branches, thus only an ON transmission branch (82, 92) or an ON transmission branch and an OFF transmission branch, which for their part each have a first and a second partial branch, characterized in that the capacitive coupling between the first and second potential sides is formed in each partial branch by means of a series circuit comprising a plurality of first and second high-voltage capacitors (C1x, C3x, where x = 1...n or x = 1r....nr), which in turn each form a series circuit with an assigned capacitor (C2, C4 or C2r, C4r) on the second potential side, wherein, within the respective transmission branch (82, 83, 92) the signal is present directly at the first partial branch and is present at the second partial branch via a second inverter (INV2, INV2r), and wherein, in the case of two branches, a signal at the input is present directly at the ON transmission branch and is present at the OFF transmission branch via a first inverter and wherein a further capacitive voltage divider having the same number of balancing capacitors (C5, C6) as first and second high-voltage capacitors (C1x, C3x) is arranged in parallel with the first and second high-voltage capacitors (C1x, C3x) of a branch, wherein each of the intermediate potentials (X1x, X3x) of balancing capacitors (C5, C6) and assigned high-voltage capacitors (C1x, C3x) are connected by means of a zener diode compensation circuit.
A method of cleaning at least the portion of the interior surface of a container for storing a medicament or other ingestible non-pharmaceutical product, the method comprising the steps of: a) contacting the at least the portion of the interior surface of the container with an aqueous cleaning composiion, said aqueous cleaning composition comprising: i) an anionic surfactant selected from the group consisting of sodium dodecylbenzene sulfonate, alkyl phosphate, alkyl sulfonate, alkyl benzene sulfonate and sodium di(2-ethylhexyl)sulfosuccinate; ii) an emulsifier comprising tetrasodium phosphate; iii) optionally, an alkaline salt; iv) optionally, a buffer; and v) optionally, a metal chelating agent; b) rinsing the cleaned surfaces of the containers; and c) optionally, drying the cleaned and rinsed containers. a) contacting the at least the portion of the interior surface of the container with an aqueous cleaning composiion, said aqueous cleaning composition comprising: i) an anionic surfactant selected from the group consisting of sodium dodecylbenzene sulfonate, alkyl phosphate, alkyl sulfonate, alkyl benzene sulfonate and sodium di(2-ethylhexyl)sulfosuccinate; ii) an emulsifier comprising tetrasodium phosphate; iii) optionally, an alkaline salt; iv) optionally, a buffer; and v) optionally, a metal chelating agent; i) an anionic surfactant selected from the group consisting of sodium dodecylbenzene sulfonate, alkyl phosphate, alkyl sulfonate, alkyl benzene sulfonate and sodium di(2-ethylhexyl)sulfosuccinate; ii) an emulsifier comprising tetrasodium phosphate; iii) optionally, an alkaline salt; iv) optionally, a buffer; and v) optionally, a metal chelating agent; b) rinsing the cleaned surfaces of the containers; and c) optionally, drying the cleaned and rinsed containers.
A node scheduling method, comprising: Configuring, for a node, a working period matched with a performance indicator of the node, wherein duration of the working period is an integer multiple of duration of a super frame, and the super frame is a super frame corresponding to a beacon frame in a network in which the node is located; and Sending, to the node, an updated beacon frame that comprises information about the working period, so that the node acquires the information about the working period from the updated beacon frame, receives a working beacon frame, establishes a super frame corresponding to the working beacon frame, wherein when said super frame ends, timing is continued until the working period ends, and then repeats the receiving a working beacon frame and establishing a super frame corresponding to the working beacon frame until the updated beacon frame is received again, wherein the working beacon frame is a beacon frame broadcast in the network at a start moment of the working period; characterised in that the performance indicator comprises an alarm delay and a longer alarm delay of the node indicates a longer duration of the working period. Configuring, for a node, a working period matched with a performance indicator of the node, wherein duration of the working period is an integer multiple of duration of a super frame, and the super frame is a super frame corresponding to a beacon frame in a network in which the node is located; and Sending, to the node, an updated beacon frame that comprises information about the working period, so that the node acquires the information about the working period from the updated beacon frame, receives a working beacon frame, establishes a super frame corresponding to the working beacon frame, wherein when said super frame ends, timing is continued until the working period ends, and then repeats the receiving a working beacon frame and establishing a super frame corresponding to the working beacon frame until the updated beacon frame is received again, wherein the working beacon frame is a beacon frame broadcast in the network at a start moment of the working period; characterised in that the performance indicator comprises an alarm delay and a longer alarm delay of the node indicates a longer duration of the working period.
Secondary electrochemical generator with zinc electrode, characterised in that it comprises a) an electrolyte which is an alkaline aqueous solution with a molarity of between 4 M and 15 M of hydroxyl anions, comprising soluble silicates whose concentration expressed as silica (SiO 2) is between 0.15 g/l and 80 g/l; and b) a zinc electrode containing a conductive ceramic at least partly consisting of hafnium nitride and/or carbide and/or magnesium carbide and/or nitride and/or silicide and/or niobium carbide and/or nitride and/or titanium carbide and/or nitride and/or silicide and/or vanadium nitride and/or double carbides and/or nitrides of any two metals selected from hafnium, magnesium, niobium, titanium and vanadium. a) an electrolyte which is an alkaline aqueous solution with a molarity of between 4 M and 15 M of hydroxyl anions, comprising soluble silicates whose concentration expressed as silica (SiO 2) is between 0.15 g/l and 80 g/l; and b) a zinc electrode containing a conductive ceramic at least partly consisting of hafnium nitride and/or carbide and/or magnesium carbide and/or nitride and/or silicide and/or niobium carbide and/or nitride and/or titanium carbide and/or nitride and/or silicide and/or vanadium nitride and/or
A neutron shielding material composition comprising: a polymerization initiator; a polymerization component; a refractory material having higher density than that of a resin component comprising said polymerization initiator and said polymerization component; a density increasing agent having higher density than that of said refractory material; and a boron compound, wherein the density of the neutron shielding material composition is from 1.62 g/cm 3 to 1.72 g/cm 3. a polymerization initiator; a polymerization component; a refractory material having higher density than that of a resin component comprising said polymerization initiator and said polymerization component; a density increasing agent having higher density than that of said refractory material; and a boron compound, wherein the density of the neutron shielding material composition is from 1.62 g/cm 3 to 1.72 g/cm 3.
A support device for a press brake, comprising a base frame, at least one connecting plate arranged on the base frame for securing the support device on the press brake, by means of which connecting plate a perpendicular connecting plane is formed, a support plate with a bearing surface, which can be positioned between a base position and a maximum position, wherein the support plate is arranged on a lever linkage system, which is connected to a drive unit and is designed as a parallel kinematic system, and wherein the lever linkage system comprises a first main lever arm with a first and a second rotary joint and second main lever arm with a third and a fourth rotary joint, which are arranged parallel to one another and are mounted on the base frame by means of the first and the third rotary joint, which lie in a main bearing plane, and on which two main lever arms (37, 40) a support arm is mounted by means of the second and fourth rotary joint, wherein a normal distance between the first and second rotary joint is the same as a normal distance between the third and fourth rotary joint and the second and fourth rotary joint are spaced apart further from the connecting plane like the first and third rotary joint, and on which support arm the support plate is mounted by means of a fifth rotary joint, which fifth rotary joint is arranged on a part of the support arm projecting over the fourth rotary joint, wherein the support plate is connected by means of a sixth rotary joint to a support arm, which support arm is connected parallel to the support arm by means of a seventh rotary joint to the first or the second main lever arm and the seventh rotary joint is arranged in extension of a straight line between the first and second rotary joint or between the third and fourth rotary joint, wherein the support device comprises a positioning drive, which is designed as a rotary drive, characterized in that the drive unit comprises a crank connected to the positioning drive and a rocker connected by articulation to the latter, which rocker is connected by means of an eighth rotary joint to the crank and is connected by means of a ninth rotary joint to the lever linkage system.
Building brick having a cellular structure comprising porous matter, said porous matter being obtained by a method comprising the following successive steps: - a step a) of synthesizing quicklime via calcination, at a temperature greater than or equal to 800°C, of blocks of limestone having an average size between 1mm and 15mm and having a purity of at least 90% by weight and an open porosity greater than 0% to less than or equal to 25%, in order to obtain particles of quicklime; - a step b) of mixing said quicklime obtained in step a), water and silica with a molar ratio of CaO/SiO 2 between 0.5 and 3 in order to obtain a cream of said components; - a step c) of introducing a nucleating agent into the cream prepared in step b); - a step d) of hydrothermal synthesis via heating of said cream from step c) at a saturation water vapour pressure between 2.10 5 Pa and 20.10 5 Pa and at a temperature between 130°C and 200°C for a time between 15 hours and 30 hours, in order to obtain a ceramic mass, and - a step e) of drying said ceramic mass obtained in step d) at a temperature between 100°C and 400°C for a time between 5 and 24 hours, with the nucleating agent chosen from: - lime and/or silica in nanometric form in the form of a colloidal suspension or - a colloidal suspension of one of the following crystalline phases: Gyrolite, Tobermorite, Xonotlite, Foshagite, Jennite, Afwillite, Hillebrandite or a mixture of one or more of these crystalline phases, or - a powder or a suspension of magnesium oxide, aluminium, barium, iron, sodium, titanium or a zeolite. - a step a) of synthesizing quicklime via calcination, at a temperature greater than or equal to 800°C, of blocks of limestone having an average size between 1mm and 15mm and having a purity of at least 90% by weight and an open porosity greater than 0% to less than or equal to 25%, in order to obtain particles of quicklime; - a step b) of mixing said quicklime obtained in step a), water and silica with a molar ratio of CaO/SiO 2 between 0.5 and 3 in order to obtain a cream of said components; - a step c) of introducing a nucleating agent into the cream prepared in step b); - a step d) of hydrothermal synthesis via heating of said cream from step c) at a saturation water vapour pressure between 2.10 5 Pa and 20.10 5 Pa and at a temperature between 130°C and 200°C for a time between 15 hours and 30 hours, in order to obtain a ceramic mass, and - a step e) of drying said ceramic mass obtained in step d) at a temperature between 100°C and 400°C for a time between 5 and 24 hours, - lime and/or silica in nanometric form in the form of a colloidal suspension or - a colloidal suspension of one of the following crystalline phases: Gyrolite, Tobermorite, Xonotlite, Foshagite, Jennite, Afwillite, Hillebrandite or a mixture of one or more of these crystalline phases, or - a powder or a suspension of magnesium oxide, aluminium, barium, iron, sodium, titanium or a zeolite.
A water-based metal fine particle dispersion, comprising metal fine particles (a) dispersed with a dispersant B, in which: the dispersant B comprises a vinyl-based polymer (b) comprising a constitutional unit derived from a hydrophobic monomer (b-1), a constitutional unit derived from a carboxy group-containing monomer (b-2) and a constitutional unit derived from a polyalkylene glycol segment-containing monomer (b-3), in an amount of not less than 85% by mass; the metal fine particles (a) have a cumulant average particle size of not less than 2 nm and not more than 50 nm wherein cumulant average particle size is measured using a laser particle analyzing system, where the measurement is conducted at 25°C using an angle between incident light and detector of 90° and a cumulative number of 100 times, wherein the refractive index of water (1.333) is input to the analyzing system as the refractive index of the dispersing medium, and wherein the concentration of the sample to be measured is controlled to be 5 x 10 -3 % by mass in terms of a solid content thereof; a concentration of metal in the water-based metal fine particle dispersion is not less than 30% by mass and not more than 80% by mass; and a mass ratio of the dispersant B to a sum of the dispersant B and the metal [dispersant B/(dispersant B + metal)] is not less than 0.01 and not more than 0.3. the dispersant B comprises a vinyl-based polymer (b) comprising a constitutional unit derived from a hydrophobic monomer (b-1), a constitutional unit derived from a carboxy group-containing monomer (b-2) and a constitutional unit derived from a polyalkylene glycol segment-containing monomer (b-3), in an amount of not less than 85% by mass; the metal fine particles (a) have a cumulant average particle size of not less than 2 nm and not more than 50 nm wherein cumulant average particle size is measured using a laser particle analyzing system, where the measurement is conducted at 25°C using an angle between incident light and detector of 90° and a cumulative number of 100 times, wherein the refractive index of water (1.333) is input to the analyzing system as the refractive index of the dispersing medium, and wherein the concentration of the sample to be measured is controlled to be 5 x 10 -3 % by mass in terms of a solid content thereof; a concentration of metal in the water-based metal fine particle dispersion is not less than 30% by mass and not more than 80% by mass; and a mass ratio of the dispersant B to a sum of the dispersant B and the metal [dispersant B/(dispersant B + metal)] is not less than 0.01 and not more than 0.3.
Steam engine with rotating piston, comprising a box with openings for intake and outlet duct and for running a shaft out, wherein at least one piston placed on the shaft and conduits of a cooling and lubricating circuit are provided and the box consists of at least one middle part with inner profile of shortened epitrochoid shape, a front part, a rear part, and further of a front cover and of a rear cover, which are mutually connected and the interconnection of the front part and the front cover creates an intake chamber inside the box, the interconnection of the rear part and the rear cover creates an outlet chamber, the shaft is placed in the box and one of its ends protrudes through a shaft opening of the rear cover outside of the box and its second end freely stretches into an area of the intake chamber and a set of shaft conduits of the cooling and lubricating circuit leading into bearings is provided in the shaft, and wherein at least one balancing and timing member comprising one timing element complemented with at least one securing element and a balancing element is provided, characterized in that the timing element is placed on the part of the shaft located in an area of at least one of the intake or outlet chambers (242, 252), and the timing element has at any of its walls at least one slit for alternate supply of propellant medium at least between the intake chamber and the working chamber of the middle part or also between the working chamber of the middle part and the outlet chamber.