mhurhangee/ep-ind-claims huggingface dataset:
A rotatable joint for a suspension arm having ends adapted to be rotatably secured to a machine and/or a control panel of such machine, comprising: - an outer cylindrical element defining a first longitudinal axis; - an inner cylindrical element defining a second longitudinal axis (X'); wherein said inner and outer cylindrical elements are mutually and rotatably coupled to rotate about a common longitudinal axis, with at least one first and one second axially offset ball bearings with substantially equal diameters interposed therebetween; wherein said inner cylindrical element and said outer cylindrical element have mutually facing surfaces, which are adapted to define a first raceway for a ball row of said first ball bearing; wherein said outer cylindrical element and said inner cylindrical element comprise respective tubular portions (9, 4) with mutually facing cylindrical surfaces (10, 5), said outer cylindrical element having an expanded bottom edge with an inner circular opening, there being provided an annular end element different from said inner and outer cylindrical elements, said annular element being accommodated within said circular opening and coupled to one end of said inner cylindrical element, said outer cylindrical element and said annular end element having mutually facing surfaces which are adapted to define a second raceway for a ball row of said ball bearing; characterized in that said annular end element is coupled to said inner cylindrical element via first screw connection means which are fitted into first series of angularly equispaced longitudinal holes (26, 26') formed in said inner cylindrical element and in said annular element. - an outer cylindrical element defining a first longitudinal axis; - an inner cylindrical element defining a second longitudinal axis (X');
Method for producing a series of capsules (1A; 10; 20; 30), wherein each capsule (1A; 10; 20; 30) comprises a core which is liquid or at least partially gelled or at least partially thixotropic, and a gelled envelope completely encapsulating the core and comprising at least two external phases (5A, 5B), wherein each external phase (5A, 5B) contains at least one gelled polyelectrolyte, and wherein the gelled envelope has an external surface having at least two distinct portions (7A, 7B) respectively formed by the two external phases (5A, 5B), wherein the method comprises the steps of: - conveying a first flow of one or more internal phases (3A, 3B) that are intended to form the core, and a second flow of at least the two phases (5A, 5B) that are intended to form the gelled envelope, wherein each external phase contains the liquid polyelectrolyte capable of gelling, at least one of the two external phases (5A, 5B) comprising at least one coloring agent, wherein the second flow surrounds the first flow about an axis; - successive formation, from the first flow and the second flow, of a plurality of liquid bodies, wherein each liquid body comprises a drop of the internal phase(s) (3A, 3B), and a peripheral film coating the drop and having the two external phases (5A, 5B), wherein the film has on its external surface at least two distinct portions (109A, 109B) formed respectively by the two external phases (5A, 5B); and - immersing each liquid body in a gelling solution containing a reagent adapted to react with the polyelectrolyte of each of the two external phases (5A, 5B) to form one of the capsules (1A; 10; 20; 30), and recovering the plurality of capsules (1A; 10; 20; 30). - conveying a first flow of one or more internal phases (3A, 3B) that are intended to form the core, and a second flow of at least the two phases (5A, 5B) that are intended to form the gelled envelope, wherein each external phase contains the liquid polyelectrolyte capable of gelling, at least one of the two external phases (5A, 5B) comprising at least one coloring agent, wherein the second flow surrounds the first flow about an axis; - successive formation, from the first flow and the second flow, of a plurality of liquid bodies, wherein each liquid body comprises a drop of the internal phase(s) (3A, 3B), and a peripheral film coating the drop and having the two external phases (5A, 5B), wherein the film has on its external surface at least two distinct portions (109A, 109B) formed respectively by the two external phases (5A, 5B); and - immersing each liquid body in a gelling solution containing a reagent adapted to react with the polyelectrolyte of each of the two external phases (5A, 5B) to form one of the capsules (1A; 10; 20; 30), and recovering the plurality of capsules (1A; 10; 20; 30).
A method of controlling a wind turbine in a partial load operation mode based on a tip-speed ratio tracking scheme which based on an estimated wind speed determines a power setpoint, the estimated wind speed being determined based on a power or torque balance between the aerodynamic power or torque of the rotor and the electrical power or torque of the generator, wherein the TSR tracking scheme ensures operation in accordance with an operating power coefficient, and wherein the operating power coefficient has been adjusted in an adjustment process, the method is characterized in that the adjustment process comprises: setting a scaled power coefficient as a predetermined power coefficient multiplied by a scaling factor; adding a time-varying perturbation signal to the power setpoint; determining a transfer function from the perturbation signal to a power error, the power error being determined as the difference between an operating rotor power and an estimated rotor power; evaluate the frequency response of the transfer function over a time period to determine the scaling factor which minimizes the gain of the transfer function; setting the operating power coefficient as the scaled power coefficient. setting a scaled power coefficient as a predetermined power coefficient multiplied by a scaling factor; adding a time-varying perturbation signal to the power setpoint; determining a transfer function from the perturbation signal to a power error, the power error being determined as the difference between an operating rotor power and an estimated rotor power; evaluate the frequency response of the transfer function over a time period to determine the scaling factor which minimizes the gain of the transfer function; setting the operating power coefficient as the scaled power coefficient.
Process for the continuous polymerization of one or more α-olefin monomers of which at least one is ethylene or propylene comprising the steps of: a) introducing catalyst and/or polymer from at least one loop reactor to at least one second reactor b) withdrawing fluids from the at least one second reactor c) cooling fluids comprising the withdrawn fluids with a cooling unit d) introducing the cooled fluids to a separator to separate at least part of the liquid from these fluids to form a liquid phase and a gas/liquid phase e) introducing the gas/liquid phase below to the reactor below a distribution plate f) introducing the liquid phase to a settling tank to separate liquid from fines that settle down in the settling tank g) introducing liquid from the settling tank upstream of the cooling unit, h) introducing the slurry comprising solid polymer particles from the settling tank to the at least one loop reactor. a) introducing catalyst and/or polymer from at least one loop reactor to at least one second reactor b) withdrawing fluids from the at least one second reactor c) cooling fluids comprising the withdrawn fluids with a cooling unit d) introducing the cooled fluids to a separator to separate at least part of the liquid from these fluids to form a liquid phase and a gas/liquid phase e) introducing the gas/liquid phase below to the reactor below a distribution plate f) introducing the liquid phase to a settling tank to separate liquid from fines that settle down in the settling tank g) introducing liquid from the settling tank upstream of the cooling unit, h) introducing the slurry comprising solid polymer particles from the settling tank to the at least one loop reactor.
A magnetic sensor comprising: first and second magnetic layers (41, 42) opposed to each other through a first magnetic gap; a third magnetic layer opposed to the first magnetic layer through a second magnetic gap; a first magneto-sensitive element disposed on a magnetic path formed by the first magnetic gap; a second magneto-sensitive element disposed on a magnetic path formed by the second magnetic gap; an external magnetic member that collects external magnetic flux to be measured in the first magnetic layer; and a compensation coil for canceling magnetic flux to be applied to the first and second magneto-sensitive elements (R1, R2), characterized in that the first magnetic layer is disposed at a position overlapping an inner diameter area of the compensation coil in a plan view, the second and third magnetic layers (42, 43) are disposed at a position overlapping an outside area of the compensation coil in a plan view, the first to third magnetic layers (41, 42, 43), the first and second magneto-sensitive elements (R1, R2), and the compensation coil are all provided on a sensor substrate, the first and second magneto-sensitive elements (R1, R2) are formed between the compensation coil and the first to third magnetic layers (41, 42, 43) in a lamination direction on the sensor substrate, and each of the first and second magneto-sensitive elements (R1, R2) overlaps the compensation coil in a plan view. first and second magnetic layers (41, 42) opposed to each other through a first magnetic gap; a third magnetic layer opposed to the first magnetic layer through a second magnetic gap; a first magneto-sensitive element disposed on a magnetic path formed by the first magnetic gap; a second magneto-sensitive element disposed on a magnetic path formed by the second magnetic gap; an external magnetic member that collects external magnetic flux to be measured in the first magnetic layer; and a compensation coil for canceling magnetic flux to be applied to the first and second magneto-sensitive elements (R1, R2), characterized in that the first magnetic layer is disposed at a position overlapping an inner diameter area of the compensation coil in a plan view, the second and third magnetic layers (42, 43) are disposed at a position overlapping an outside area of the compensation coil in a plan view, the first to third magnetic layers (41, 42, 43), the first and second magneto-sensitive elements (R1, R2), and the compensation coil are all provided on a sensor substrate, the first and second magneto-sensitive elements (R1, R2) are formed between the compensation coil and the first to third magnetic layers (41, 42, 43) in a lamination direction on the sensor substrate, and each of the first and second magneto-sensitive elements (R1, R2) overlaps the compensation coil in a plan view.
A multi-contact terminal fitting in which a plurality of resilient contact pieces are to be brought into contact with the outer peripheral surface of a tab of a mating terminal fitting, said terminal fitting comprising a base portion folded into a rectangular or polygonal tube and end edges thereof are locked to each other to prevent opening, wherein: the plurality of resilient contact pieces extend from said base portion in a connecting direction with said mating terminal fitting, and, out of the resilient contact pieces, first resilient contact pieces extending from parts of the base portion near corners of the base portion having relatively high rigidity have a smaller width and second resilient contact pieces extending from middle parts of the base portion having relatively low rigidity have a larger width, wherein the second resilient contact pieces extend in a cantilever manner, characterized in that the first resilient contact pieces extend in a cantilever manner. the plurality of resilient contact pieces extend from said base portion in a connecting direction with said mating terminal fitting, and, out of the resilient contact pieces, first resilient contact pieces extending from parts of the base portion near corners of the base portion having relatively high rigidity have a smaller width and second resilient contact pieces extending from middle parts of the base portion having relatively low rigidity have a larger width, wherein the second resilient contact pieces extend in a cantilever manner, characterized in that the first resilient contact pieces extend in a cantilever manner.
A method for electronically counting votes with the aid of a portable voting device which is connected to a control centre by wireless or using a cable, with the following steps: a. prompting a voter to make a vote, b. registering the voter's choice by the voting device, c. transmitting the voter's choice from the voting device to the control centre, d. counting the votes and announcing the result of the voting, wherein after the voting, the outer appearance of the voting device changes in addition through a change of colour and brightness by means of an illumination device, in a way so as to be visible for other voters, so that a roughly estimated visual check of the voting result by the voters is possible besides to the electronic evaluation of the voting result, characterized in that a receipt signal of the control centre received by the voting device contains information concerning the colour that has to be displayed in the colour change. a. prompting a voter to make a vote, b. registering the voter's choice by the voting device, c. transmitting the voter's choice from the voting device to the control centre, d. counting the votes and announcing the result of the voting,
A device for increased safety during slow vehicle movement consisting of the ultrasonic sensors interconnected with the signal processing block, to which the block of the optical and/or acoustic signaling is connected, and further comprising a control unit for controlling the braking circuit and the engine characterized by the fact that the between the signal processing block and the control unit is inserted the interconnecting block formed by the memory (3.1), the block (3.2) for detection of moving obstacles, the block (3.3) for detection of imminent obstacle during the vehicle slow movement, the temporary deactivation block (3.4), and the automatic braking block (3.5), and these blocks are interconnected in such a way that the output of the block processing the signal from the ultrasonic sensors is connected to the input of the memory (3.1), to the first input of the block (3.2) for detection of moving obstacles, and to the first input of the block (3.3) for detection of imminent obstacle during the vehicle slow movement, while the output of the memory (3.1) is connected to the second input of the block (3.2) for detection of moving obstacles, and the third input of the block (3.2) for detection of moving obstacles is connected to the output (4.1) of the information about the current wheels rotations from the control unit, which is simultaneously connected to the second input of the block (3.3) for detection of imminent obstacle during the vehicle slow movement, where the output of the block (3.2) for detection of moving obstacles is connected to the first input of the automatic braking block (3.5), while to its second input the output of the block (3.3) for detection of imminent obstacle during the vehicle slow movement is connected and to its third input the output of the temporary deactivation block (3.4) is connected, and its input is connected to the output (4.3) of the information about temporary deactivation of the interconnecting block function from the control unit, while the output of the automatic braking block (3.5) is connected to the input (4.2) for controlling the braking circuit by the control unit.
A tire having a tread, wherein the surface of the tread is provided with independent blocks enclosed by a tread pattern (grooves), and wherein the tread is composed of a rubber composition, comprising: 20 to 38 parts by mass of carbon black having an iodine adsorption amount of 130 mg/g or more, based on 100 parts by mass of a rubber component, the rubber component comprising: 15 to 30% by mass of a styrene-butadiene rubber having a styrene content of 15% by mass or less and a vinyl content of 30 to 45 mol%; 40 to 58% by mass of an isoprene-based rubber; and 20 to 40% by mass of a butadiene rubber, wherein, when a content of the styrene-butadiene rubber is defined as X parts by mass, a content of the carbon black is 0.8X to 2.5X parts by mass, the rubber composition further comprising 0.2X parts by mass or less of a softening agent, wherein the softening agent means a component soluble in acetone. wherein the surface of the tread is provided with independent blocks enclosed by a tread pattern (grooves), and wherein the tread is composed of a rubber composition, comprising: 20 to 38 parts by mass of carbon black having an iodine adsorption amount of 130 mg/g or more, based on 100 parts by mass of a rubber component, the rubber component comprising: 15 to 30% by mass of a styrene-butadiene rubber having a styrene content of 15% by mass or less and a vinyl content of 30 to 45 mol%; 40 to 58% by mass of an isoprene-based rubber; and 20 to 40% by mass of a butadiene rubber, wherein, when a content of the styrene-butadiene rubber is defined as X parts by mass, a content of the carbon black is 0.8X to 2.5X parts by mass, the rubber composition further comprising 0.2X parts by mass or less of a softening agent, wherein the softening agent means a component soluble in acetone. 20 to 38 parts by mass of carbon black having an iodine adsorption amount of 130 mg/g or more, based on 100 parts by mass of a rubber component, the rubber component comprising: 15 to 30% by mass of a styrene-butadiene rubber having a styrene content of 15% by mass or less and a vinyl content of 30 to 45 mol%; 40 to 58% by mass of an isoprene-based rubber; and 20 to 40% by mass of a butadiene rubber, wherein, when a content of the styrene-butadiene rubber is defined as X parts by mass, a content of the carbon black is 0.8X to 2.5X parts by mass, the rubber composition further comprising 0.2X parts by mass or less of a softening agent, wherein the softening agent means a component soluble in acetone.
An oven comprising: a main body; a cooking chamber provided inside the main body, wherein a front side of the cooking chamber opens; a door installed on the main body to open or close the cooking chamber; a camera positioned above the cooking chamber, and configured to photograph an inside of the cooking chamber; characterized in that the oven comprises a barrier module configured to allow or block an inflow of outside air to the camera according to opening or closing of the door or according to a temperature of a passage formed by an air guide in the barrier module rising to or above or falling to or below a predetermined temperature, the passage communicating the camera with an outside of the main body such that outside air flows to the camera. a main body; a cooking chamber provided inside the main body, wherein a front side of the cooking chamber opens; a door installed on the main body to open or close the cooking chamber; a camera positioned above the cooking chamber, and configured to photograph an inside of the cooking chamber; characterized in that the oven comprises a barrier module configured to allow or block an inflow of outside air to the camera according to opening or closing of the door or according to a temperature of a passage formed by an air guide in the barrier module rising to or above or falling to or below a predetermined temperature, the passage communicating the camera with an outside of the main body such that outside air flows to the camera.
A patient interface comprising: a plenum chamber pressurisable to a therapeutic pressure of at least 6cmH2O above ambient air pressure, said plenum chamber including a plenum chamber inlet port, said plenum chamber inlet port being sized and structured to receive a flow of air at the therapeutic pressure for breathing by a patient; a sealing structure comprising a support structure and a textile portion joined to the support structure, the sealing structure being constructed and arranged to have a shape to form a seal with a region of the patient's face surrounding an entrance to the patient's airways such that the flow of air at said therapeutic pressure is delivered to at least an entrance to the patient's nares, said seal being formed to prevent air exiting from the plenum chamber between the sealing structure and said region of the patient's face, the sealing structure structured and arranged to maintain said therapeutic pressure in the plenum chamber throughout the patient's respiratory cycle in use; a positioning and stabilising structure to hold the sealing structure in a therapeutically effective position on the patient's head; and, wherein the sealing structure comprises a sealing surface to form the seal against the patient's face in use, characterised in that the textile portion of the sealing structure comprises a tie that extends between a first interior surface region of the sealing structure that is opposite the sealing surface and a second interior surface region of the patient interface such that the tie resists deformation of the sealing structure to prevent blowout. a plenum chamber pressurisable to a therapeutic pressure of at least 6cmH2O above ambient air pressure, said plenum chamber including a plenum chamber inlet port, said plenum chamber inlet port being sized and structured to receive a flow of air at the therapeutic pressure for breathing by a patient; a sealing structure comprising a support structure and a textile portion joined to the support structure, the sealing structure being constructed and arranged to have a shape to form a seal with a region of the patient's face surrounding an entrance to the patient's airways such that the flow of air at said therapeutic pressure is delivered to at least an entrance to the patient's nares, said seal being formed to prevent air exiting from the plenum chamber between the sealing structure and said region of the patient's face, the sealing structure structured and arranged to maintain said therapeutic pressure in the plenum chamber throughout the patient's respiratory cycle in use; a positioning and stabilising structure to hold the sealing structure in a therapeutically effective position on the patient's head; and, wherein the sealing structure comprises a sealing surface to form the seal against the patient's face in use, characterised in that the textile portion of the sealing structure comprises a tie that extends between a first interior surface region of the sealing structure that is opposite the sealing surface and a second interior surface region of the patient interface such that the tie resists deformation of the sealing structure to prevent blowout.