mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a wind turbine, comprising the steps of: receiving multiple sensor signals being indicative of the state of the wind turbine; analyzing the multiple sensor signals in order to determine whether a specific alarm condition is met, as predefined in one of a plurality of different predefined alarm scenarios; further analyzing at least one of the multiple sensor signals in accordance with analyzing steps, as predefined in the alarm scenario for which the specific alarm condition is met, in order to determine whether the wind turbine is to be put into either a predefined safe mode, a shutdown mode or a continued operation mode; wherein the analyzing steps comprise the simulation of a theoretical state of the wind turbine, the method further comprising the step of controlling the wind turbine in the safe mode, based on the simulated theoretical state of the wind turbine, wherein the safe mode causes the wind turbine to be operated with a reduced power output. receiving multiple sensor signals being indicative of the state of the wind turbine; analyzing the multiple sensor signals in order to determine whether a specific alarm condition is met, as predefined in one of a plurality of different predefined alarm scenarios; further analyzing at least one of the multiple sensor signals in accordance with analyzing steps, as predefined in the alarm scenario for which the specific alarm condition is met, in order to determine whether the wind turbine is to be put into either a predefined safe mode, a shutdown mode or a continued operation mode; wherein the analyzing steps comprise the simulation of a theoretical state of the wind turbine, the method further comprising the step of controlling the wind turbine in the safe mode, based on the simulated theoretical state of the wind turbine, wherein the safe mode causes the wind turbine to be operated with a reduced power output.
Method for combining at least two flat products (2, 3) at least partly one above the other with adhesive, particularly printed products, with a further product supplied, sample, card, insert, label or similar, in which a first product pushed or dragged along a guiding line in a shingle stream is put together with a second product provided with adhesive on a surface facing towards the first product, supplied underneath the first product at the same time as it, after the shingle stream turns into a conveying stream of non-overlapping first products and leaves the guiding line when it then runs through an undershot conveying area, in which before reaching the guiding line the first product is diverted in the conveying direction for transport by pushing or against the conveying direction for transport by dragging along the guiding line.
An amorphous or semi-amorphous alloy for a brazing foil consisting of Ni bal Fe a Cr b P c S id B e Mo f with 38 atomic percent ≤ a ≤ 70 atomic percent; 0 atomic percent ≤ b ≤ 20 atomic percent; 9 atomic percent ≤ c ≤ 16 atomic percent; 0 atomic percent ≤ d ≤ 4 atomic percent; e ≤ 2 atomic percent; f ≤ 5 atomic percent; and the balance being Ni and other impurities; where c+d+e < 16 atomic percent.
A laundry dryer comprising a body; a drum wherein the laundry to be dried is placed; a compressor; an air circulation duct that provides the delivery of the drying air onto the laundry inside the drum; a drying fan that is disposed on the air circulation duct; a drying fan motor that actuates the drying fan; a heat exchanger that is disposed on the air circulation duct and that enables the temperature of the drying air to be changed; at least one cooling fan (13, 131) that provides the cooling of the compressor and/or a control unit that controls the compressor; and a thermoelectric element that has a hot side and a cold side, characterized by - the thermoelectric element the hot side of which is positioned on the drying fan motor, and - the cooling fan (13, 131) that is operated by utilizing the power generated on the thermoelectric element. - the thermoelectric element the hot side of which is positioned on the drying fan motor, and - the cooling fan (13, 131) that is operated by utilizing the power generated on the thermoelectric element.
A process for manufacturing a titanium dioxide pigment, the process comprising the steps of: (a) preparing an aqueous slurry of titanium dioxide particles; (b) milling the aqueous slurry of titanium dioxide particles; (c) after step (b), treating the titanium dioxide particles to deposit at least one hydrous metal oxide coating thereon; and (d) after step (c), deagglomerating the coated particles using ultrasonication. (a) preparing an aqueous slurry of titanium dioxide particles; (b) milling the aqueous slurry of titanium dioxide particles; (c) after step (b), treating the titanium dioxide particles to deposit at least one hydrous metal oxide coating thereon; and (d) after step (c), deagglomerating the coated particles using ultrasonication.
A method, comprising: attaching a partially processed CMOS wafer to a second wafer (24, 24a, 64) to produce a combined wafer, the partially processed CMOS wafer having been partially processed in a front end process of a CMOS process prior to the attaching of the partially processed CMOS wafer to the second wafer (24, 24a, 64), wherein the partially processed CMOS wafer comprises a CMOS device region including transistors, wherein the second wafer (24, 24a, 64) comprises a silicon substrate and a first region (41, 72) comprising a material different from silicon disposed over the silicon substrate, wherein the attaching of the partially processed CMOS wafer to the second wafer (24, 24a, 64) is performed such that the combined wafer has the first region (41, 72) positioned between the CMOS device region of the partially-processed CMOS wafer and the silicon substrate; forming devices (52, 74) in the first region (41, 72) or in a second region that is formed over the first region of the combined wafer comprising a material different from silicon; and after forming the devices (52, 74) and attaching the partially processed CMOS wafer to the second wafer (24, 24a, 64), and in a back end process of a CMOS process, forming interconnects that interconnect the transistors of the CMOS device region and interconnects that interconnect the transistors of the CMOS device region and the devices (52, 74) of the first region (41, 72). attaching a partially processed CMOS wafer to a second wafer (24, 24a, 64) to produce a combined wafer, the partially processed CMOS wafer having been partially processed in a front end process of a CMOS process prior to the attaching of the partially processed CMOS wafer to the second wafer (24, 24a, 64), wherein the partially processed CMOS wafer comprises a CMOS device region including transistors, wherein the second wafer (24, 24a, 64) comprises a silicon substrate and a first region (41, 72) comprising a material different from silicon disposed over the silicon substrate, wherein the attaching of the partially processed CMOS wafer to the second wafer (24, 24a, 64) is performed such that the combined wafer has the first region (41, 72) positioned between the CMOS device region of the partially-processed CMOS wafer and the silicon substrate; forming devices (52, 74) in the first region (41, 72) or in a second region that is formed over the first region of the combined wafer comprising a material different from silicon; and after forming the devices (52, 74) and attaching the partially processed CMOS wafer to the second wafer (24, 24a, 64), and in a back end process of a CMOS process, forming interconnects that interconnect the transistors of the CMOS device region and interconnects that interconnect the transistors of the CMOS device region and the devices (52, 74) of the first region (41, 72).
Protection shield, which can be worn by one person and which includes two concentric hollow semi-cylindrical or conical or semi-cylindrical with conical top, halves (1,2, 19, 20), which are in one configuration nested on top of each other and the outer half of which can be rotated about 180 degrees in such a way that a closed compartment is created, so that the wearer's upper body is completely enclosed and these halves can be made of unbreakable material like plastic such as polycarbonate or a bullet-resistant material.
Frame for a simulator, particularly a vehicle or aircraft simulator, comprising at least one first guide and/or at least one second guide, a subframe for a seat slidable in the frame along the at least one first guide and a subframe for a control member, such as a steering wheel, slidable in the frame along the at least one second guide, wherein the subframe for the seat and/or the subframe for the control member comprise(s) a fixation device, characterized in that the fixation device comprises at least one fixation member which extends on either side of the respective guide and which has a recess through which the guide protrudes, wherein the at least one fixation member is pivotable about an axis ("A") oriented substantially perpendicularly of the guide between a release position, in which mutually opposite edges (49, 50) of the recess lie at a distance from the guide, and a fixation position in which the edges engage on mutually opposite sides of the guide.
Use of an organic polymer film, that can be obtained by grafting at least one aryl diazonium salt alone or combined with at least one radically polymerisable monomer, as an adhesion primer for paint on a metal surface.
A work string for conducting a downhole operation within a wellbore, the work string comprising: a running string which defines a flowbore; a bottom hole assembly having at least one electrically powered sensor or tool; a hybrid cable within the flowbore, the hybrid cable including at least one electrical conductor and at least one optic fiber; a connector which interconnects the bottom hole assembly with the running string; wherein the electrical conductor passes through the connector and is interconnected with the electrically powered sensor or tool within the bottom hole assembly; and the optic fiber terminates within the connector. a running string which defines a flowbore; a bottom hole assembly having at least one electrically powered sensor or tool; a hybrid cable within the flowbore, the hybrid cable including at least one electrical conductor and at least one optic fiber; a connector which interconnects the bottom hole assembly with the running string; wherein the electrical conductor passes through the connector and is interconnected with the electrically powered sensor or tool within the bottom hole assembly; and the optic fiber terminates within the connector.
A method (300, 400, 500) for estimating radial force variation of a tire, comprising: obtaining a measured radial run out parameter for a plurality of measurement points about the tire; obtaining a measured lateral force variation parameter for the plurality of measurement points about the tire; accessing a model correlating radial force variation of the tire with radial run out and lateral force variation of the tire; and determining, with a computing device, an estimated radial force variation parameter for at least one discrete measurement point for the tire using the model. obtaining a measured radial run out parameter for a plurality of measurement points about the tire; obtaining a measured lateral force variation parameter for the plurality of measurement points about the tire; accessing a model correlating radial force variation of the tire with radial run out and lateral force variation of the tire; and determining, with a computing device, an estimated radial force variation parameter for at least one discrete measurement point for the tire using the model.
Fastening element (3, 11) for use in a system with a further fastening element (2, 19) which is provided with a screw thread profile (4, 20) with resulting forming of a screw thread connection between the two fastening elements (2,19; 3,11), one of which is a nut (3,11) and the other a coupling rod (2,19), which fastening element comprises a base body (9,14) and is provided with a plurality of resilient tongues (7, 17) adapted for co-action with the screw thread profile (4, 20), wherein at least a number of the plurality of tongues (7, 17) are distributed substantially uniformly over a peripheral side, wherein the tongues (7, 17) are attached to the fastening element (3, 11) such that rotationless translation of the nut (3,11) arranged round the coupling rod (2,19) is possible in one longitudinal direction of the coupling rod (2,19) and is prevented in an opposite longitudinal direction, wherein the fastening element (3,11) comprises a substantially annular support structure connected to the base body and provided with the resilient tongues (7,17), wherein the resilient tongues (7,17) are situated on an inner side of the support structure, which plurality of resilient tongues (7,17) enclose in an unloaded state an angle with a longitudinal axis of the fastening element (3,11), this angle being between 0 and 90 degrees, characterized in that in a clamping state the plurality of tongues (7, 17) engage under bias on the screw thread profile (4, 20) of the further fastening element (2,19), and a first tongue of the resilient tongues (7,17) encloses substantially a right angle with the longitudinal axis of the fastening element (3,11), and an outer side of the support structure, at least where it is connected to the first tongue (7,17), fixes itself into the base body.
A retroreflective sheet comprising: a retroreflective layer including a plurality of retroreflective elements on one surface; a back face layer provided to face the surface of the retroreflective layer on the side of retroreflective elements and including a bonding portion bonded to the retroreflective elements; and a plurality of particles disposed between the retroreflective elements and the back face layer, a plurality of capsule portions, where voids are formed between the retroreflective elements and the back face layer, and where partial bonding portions are intermittently formed, wherein a part of the retroreflective elements and a part of the back face layer are bonded to each other in the partial bonding portions, wherein the bonding portion is continuously formed to surround the plurality of capsule portions in plan view. a retroreflective layer including a plurality of retroreflective elements on one surface; a back face layer provided to face the surface of the retroreflective layer on the side of retroreflective elements and including a bonding portion bonded to the retroreflective elements; and a plurality of particles disposed between the retroreflective elements and the back face layer, a plurality of capsule portions, where voids are formed between the retroreflective elements and the back face layer, and where partial bonding portions are intermittently formed, wherein a part of the retroreflective elements and a part of the back face layer are bonded to each other in the partial bonding portions, wherein the bonding portion is continuously formed to surround the plurality of capsule portions in plan view.
Method for laser engraving of clothing starting with a digital image, in which each pixel of the image has a pixel value, comprised between a minimum pixel value and a maximum pixel value, and in which for each pixel a laser burns a point in said clothing corresponding to said pixel, with a laser energy level which is a function of said pixel value, characterised in that said function has a first region with a first mean gradient and a second region with a second mean gradient, in which said first region corresponds to lower laser energy values than said second region; the absolute value of said second mean gradient being higher than the absolute value of said first mean gradient.
A nozzle for spraying coating material, particularly coating powder, wherein the nozzle comprises a housing having a first, inlet-side opening and a second, outlet-side opening, with the openings being connected together by means of a through-channel, wherein the housing comprises an inner housing part which defines the through-channel and an outer housing part which is designed to detachably connect the nozzle to a coating mechanism, wherein the inner housing part and the outer housing part are formed as separate individual component parts, characterized in that the inner housing part is formed from a different material than the outer housing part, and that the inner housing part is formed from polytetrafluoroethylene.
A system for bone transport comprising: an adjustable length implant configured for intramedullary placement and comprising: a first end configured to be coupled to bone and a second end configured to be coupled to bone, wherein the first end and the second end are displaceable relative to each other along a longitudinal axis; and a driving element configured to be non-invasively activated to displace the first and second ends relative to one another along the longitudinal axis; and a support member having distal and proximal ends, wherein the support member includes a longitudinal slot disposed between the distal and proximal ends of the support member, the longitudinal slot having opposing ends, wherein the longitudinal slot is configured to pass an elongate anchor such that the elongate anchor is slidable between the first end and the second end of the longitudinal slot. a first end configured to be coupled to bone and a second end configured to be coupled to bone, wherein the first end and the second end are displaceable relative to each other along a longitudinal axis; and a driving element configured to be non-invasively activated to displace the first and second ends relative to one another along the longitudinal axis; and a support member having distal and proximal ends, wherein the support member includes a longitudinal slot disposed between the distal and proximal ends of the support member, the longitudinal slot having opposing ends, wherein the longitudinal slot is configured to pass an elongate anchor such that the elongate anchor is slidable between the first end and the second end of the longitudinal slot.
Method for mixing viscosity index improvers in base oils in an arrangement for mixing viscosity index improvers in base oils, comprising the steps: a) filling a boiler with base oil and repeatedly purging a gas space of the boiler with inert gas by means of alternately producing a rough vacuum by means of a suction device and filling the gas with inert gas by means of an inert gas supply; b) filling a liquefaction chamber, shut off from a main circuit, with a defined mass of a viscosity index improver and a defined mass of base oil corresponding to the composition of a desired concentrate (m 1) under atmospheric conditions and at laboratory temperature; c) repeatedly purging inert gas out of a gas space of the liquefaction chamber by alternately producing a rough vacuum by means of a suction device and filling the gas space with inert gas by means of an inert gas supply; d) then filling the gas space of the liquefaction chamber with inert gas as far as a defined positive pressure ( p m1); e) liquefying the viscosity index improver in the liquefaction chamber and simultaneously purging with the base oil introduced into the liquefaction chamber in a continuous circulation of the base oil via a secondary circuit by means of the introduction of heat at a temperature ( T m1) above a solubility temperature until the desired concentrate (m 1) is reached; f) mixing the concentrate (m 1) into the base oil from the boiler via the main circuit until a target mixture (m 2) is reached, g) returning the arrangement to normal pressure without any supply of oxygen and degassing the target mixture (m 2) in the boiler by applying a suitable rough vacuum. a) filling a boiler with base oil and repeatedly purging a gas space of the boiler with inert gas by means of alternately producing a rough vacuum by means of a suction device and filling the gas with inert gas by means of an inert gas supply; b) filling a liquefaction chamber, shut off from a main circuit, with a defined mass of a viscosity index improver and a defined mass of base oil corresponding to the composition of a desired concentrate (m 1) under atmospheric conditions and at laboratory temperature; c) repeatedly purging inert gas out of a gas space of the liquefaction chamber by alternately producing a rough vacuum by means of a suction device and filling the gas space with inert gas by means of an inert gas supply; d) then filling the gas space of the liquefaction chamber with inert gas as far as a defined positive pressure ( p m1); e) liquefying the viscosity index improver in the liquefaction chamber and simultaneously purging with the base oil introduced into the liquefaction chamber in a continuous circulation of the base oil via a secondary circuit by means of the introduction of heat at a temperature ( T m1) above a solubility temperature until the desired concentrate (m 1) is reached; f) mixing the concentrate (m 1) into the base oil from the boiler via the main circuit until a target mixture (m 2) is reached, g) returning the arrangement to normal pressure without any supply of oxygen and degassing the target mixture (m 2) in the boiler by applying a suitable rough vacuum.
An ionic conductance measuring device comprising a voltage/current detection part and a test electrode; characterized in that the test electrode consists of: a block of substrate, four linearly arranged through holes in the block of substrate, four platinum wires inserted in the holes with upper tips of the platinum wires extended outside the block of substrate, and opposite tips of the platinum wires withdrawn inside the block of substrate, an ion conductive polymer that fills the gaps between the lower end surfaces of the platinum wires and the block of substrate, wherein axes of the mentioned through holes, as well as the platinum wires, are aligned parallel in the same plane, the upper tips of the second and third platinum wires counted from the left in the test electrode are connected with a voltage control terminal of the voltage/current detection part, and the upper tips of the first and fourth platinum wires counted from the left in the test electrode are connected with a current control terminal of the voltage/current detection part, a distance between a lower end surface of the platinum wires and a bottom surface of the block of substrate is 0.1-2 mm, and such that in use a sample may be measured by pressing the sample on a bottom end of the test electrode block of substrate. a block of substrate, four linearly arranged through holes in the block of substrate, four platinum wires inserted in the holes with upper tips of the platinum wires extended outside the block of substrate, and opposite tips of the platinum wires withdrawn inside the block of substrate, an ion conductive polymer that fills the gaps between the lower end surfaces of the platinum wires and the block of substrate, wherein axes of the mentioned through holes, as well as the platinum wires, are aligned parallel in the same plane, the upper tips of the second and third platinum wires counted from the left in the test electrode are connected with a voltage control terminal of the voltage/current detection part, and the upper tips of the first and fourth platinum wires counted from the left in the test electrode are connected with a current control terminal of the voltage/current detection part, a distance between a lower end surface of the platinum wires and a bottom surface of the block of substrate is 0.1-2 mm, and such that in use a sample may be measured by pressing the sample on a bottom end of the test electrode block of substrate.