mhurhangee/ep-ind-claims huggingface dataset:
Thermodynamic installation comprising a first compressor (1, C1), a second compressor (2, C2), a circuit with several circulation channels for a refrigerant fluid that connects them, lubricant containers (100, 200) provided to receive a lubricant from said compressors, means for selecting (3; 50, 51, 52) that allow for an operation of the installation according to some at least of the three configurations hereinafter: - a) with the refrigerant fluid passing through the first compressor without passing through the second compressor, - b) with the refrigerant fluid passing through the second compressor without passing through the first compressor, - c) with the two compressors operating in series, the second compressor then being arranged downstream of the first compressor according to the direction of circulation of the refrigerant fluid, the, or some of said means for selecting, which are able to create a loss of load, being located on the circuit of the refrigerant fluid: - upstream of the second compressor, in the configuration wherein the refrigerant fluid passes through it without passing through the first compressor, - and between said first and second compressors, when they are operating in series, characterised in that it comprises means (40, 55, 56, 57, 59) for the selective circulation of the lubricant comprising a duct that connects said containers and wherein is interposed a valve means, managed by a regulator, in order to selectively open and close the circulation of the lubricant between the compressors and in order to allow for a circulation of the lubricant from the container of the first compressor to that of the second in a situation wherein, with the installation operating according to the configuration b), the loss of load of said means for selecting (3; 50, 51, 52) creates a pressure difference between said lubricant containers. - a) with the refrigerant fluid passing through the first compressor without passing through the second compressor, - b) with the refrigerant fluid passing through the second compressor without passing through the first compressor, - c) with the two compressors operating in series, the second compressor then being arranged downstream of the first compressor according to the direction of circulation of the refrigerant fluid, the, or some of said means for selecting, which are able to create a loss of load, being located on the circuit of the refrigerant fluid: - upstream of the second compressor, in the configuration wherein the refrigerant fluid passes through it without passing through the first compressor, - and between said first and second compressors, when they are operating in series,
A system for making machine learning systems available to users of a design application of an industrial automation environment, the system comprising: a memory that stores executable components; and a processor, operatively coupled to the memory, that executes the executable components, the executable components comprising: a design component configured to: generate a control program configured for implementation by a Programmable Logic Controller, PLC, and receive a user input that selects a program tag (105; 311-316) that represents a target variable in an industrial automation process; in response to the user selection, identify one or more machine learning models (111-113; 376-378) associated with the target variable and display the one or more machine learning models (111-113; 376-378); and receive a user input that selects one of the one or more machine learning models (111-113; 376-378) characterised in that the design component is configured to responsively integrate a first new program tag that represents the selected machine learning model (111-113; 376-378) into the control program. a memory that stores executable components; and a processor, operatively coupled to the memory, that executes the executable components, the executable components comprising: a design component configured to: generate a control program configured for implementation by a Programmable Logic Controller, PLC, and receive a user input that selects a program tag (105; 311-316) that represents a target variable in an industrial automation process; in response to the user selection, identify one or more machine learning models (111-113; 376-378) associated with the target variable and display the one or more machine learning models (111-113; 376-378); and receive a user input that selects one of the one or more machine learning models (111-113; 376-378) characterised in that the design component is configured to responsively integrate a first new program tag that represents the selected machine learning model (111-113; 376-378) into the control program. generate a control program configured for implementation by a Programmable Logic Controller, PLC, and receive a user input that selects a program tag (105; 311-316) that represents a target variable in an industrial automation process; in response to the user selection, identify one or more machine learning models (111-113; 376-378) associated with the target variable and display the one or more machine learning models (111-113; 376-378); and receive a user input that selects one of the one or more machine learning models (111-113; 376-378) characterised in that the design component is configured to responsively integrate a first new program tag that represents the selected machine learning model (111-113; 376-378) into the control program.
A differential signature object detection system, the system comprising: at least one target sensor, wherein the at least one target sensor is configured to measure acoustical signals within a first band around a target frequency, the target frequency corresponding to a signature frequency emitted by a target object; at least one offset sensor, wherein the at least one offset sensor is configured to measure acoustical signals within a second band around an offset frequency, the offset frequency being offset from the target frequency, wherein the second band is narrow such that the target frequency is not within the second band; and a controller coupled to the at least one target sensor and the at least one offset sensor, wherein the controller is configured to: compare a signal output of the at least one target sensor with an output of the signal output of the at least one offset sensor to calculate a differential measurement that comprises a difference in signal peak intensity; compare the differential measurement to a reference signal, wherein the reference signal comprises a threshold indicative of a presence of a characteristic signature peak associated with the target object; and produce an output based on the comparison between the differential measurement and the reference signal. at least one target sensor, wherein the at least one target sensor is configured to measure acoustical signals within a first band around a target frequency, the target frequency corresponding to a signature frequency emitted by a target object; at least one offset sensor, wherein the at least one offset sensor is configured to measure acoustical signals within a second band around an offset frequency, the offset frequency being offset from the target frequency, wherein the second band is narrow such that the target frequency is not within the second band; and a controller coupled to the at least one target sensor and the at least one offset sensor, wherein the controller is configured to: compare a signal output of the at least one target sensor with an output of the signal output of the at least one offset sensor to calculate a differential measurement that comprises a difference in signal peak intensity; compare the differential measurement to a reference signal, wherein the reference signal comprises a threshold indicative of a presence of a compare a signal output of the at least one target sensor with an output of the signal output of the at least one offset sensor to calculate a differential measurement that comprises a difference in signal peak intensity; compare the differential measurement to a reference signal, wherein the reference signal comprises a threshold indicative of a presence of a characteristic signature peak associated with the target object; and
Method for producing a printed circuit board with at least one optoelectronic component, having the following steps: a) Applying a transparently curable adhesive layer to a carrier layer, b) Placing at least one optoelectronic component with an optically relevant side of the component on the adhesive layer, c) Curing the adhesive layer to form a window element, d) Embedding the component in a printed circuit board composite, e) Structuring the carrier layer in order to at least partially expose the window element and for contacting the component. a) Applying a transparently curable adhesive layer to a carrier layer, b) Placing at least one optoelectronic component with an optically relevant side of the component on the adhesive layer, c) Curing the adhesive layer to form a window element, d) Embedding the component in a printed circuit board composite, e) Structuring the carrier layer in order to at least partially expose the window element and for contacting the component.
A solution of a pressure sensitive adhesive comprising an acrylic pressure sensitive polymer, a solvent or mixture of solvents, said solvent or mixture of solvents having a solubility parameter of a) less than 17.1 but not less than 12, or, greater than or equal to 21.1 but not greater than 40 MPa 1⁄2, or b) a solubility parameter of less than 17.8, but not less than 12, or greater than or equal to 21.1 but not greater than 40 MPa 1⁄2 and optionally an aromatic hydrocarbon, said aromatic hydrocarbon being present at not more than about 10 wt.-% on total solvents, and an active ingredient, wherein the solubility parameter δ is calculated as δ = (E coh /V m) 1⁄2 where V m is the molar volume and E coh is the cohesive energy density which is computed from the equation E coh = ΔH vap - pΔV ≈ ΔH vap - RT where ΔH vap is the enthalpy of vaporization, R is the Universal Gas Constant and T is the absolute temperature, and wherein the solubility parameters are calculated from ΔH at 25 °C, the acrylic pressure sensitive adhesive polymer comprises an alkyl acrylate monomer having a homopolymer Tg of less than 0°C, which has up to 18 carbon atoms in the alkyl group and wherein the active ingredient is selected from oxybutinin, methylphenidate, estradiol, testosterone, progestin, progesterone, levonorgestrel, nitroglycerin, clonidine, pain management or anti-inflammatory agents, benzoyl peroxide, salicylic acid, vitamin C, vitamin E, aromatic oils, antinauseants, nicotine, antiinflammatory agents including hydrocortisone, prednisolone, triamcinolone, naproxen and piroxicam, antibacterials, antiprotazoals, antifungals, calcium channel blockers, bronchodilators, collagenase inhibitors, protease inhibitors, elastase inhibitors, lipoxygenase inhibitors, and angiotensin converting enzyme inhibitors, antihypertensives, leukotriene antagonists, anti-ulceratives, antivirals and/or immunomodulators, local anesthetics, antitussives, antihistamines, narcotic analgesics, atriopeptides, anticonvulsants, immunosuppressives, psychotherapeutics, sedatives, anticoagulants, analgesics, antimigrane agents, antiarrhythmic agents, antiemetics, anticancer agents, neurologic agents, hemostatics, anti-obesity agents, and pharmaceutically acceptable salts, esters, solvates and clathrates thereof. a) less than 17.1 but not less than 12, or, greater than or equal to 21.1 but not greater than 40 MPa 1⁄2, or b) a solubility parameter of less than 17.8, but not less than 12, or greater than or equal to 21.1 but not greater than 40 MPa 1⁄2 and optionally an aromatic hydrocarbon, said aromatic hydrocarbon being present at not more than about 10 wt.-% on total solvents,
A digital lock comprising at least two magnets, one magnet is a semi-hard magnet and other magnet is a hard magnet and the hard magnet is configured to move to open or close the digital lock, - the semi hard magnet is inside a magnetization coil, and has a coercivity less than the coercivity of the hard magnet, optionally at least 5 times less than the coercivity of the hard magnet, and - the semi-hard magnet and the hard magnets are configured adjacent to each other, and a change in the magnetization polarization of the semi-hard magnet is configured to push or pull the hard magnet to open or close the digital lock, characterized in that - the digital lock body comprises a first axle and a second axle and a user interface connected to the first axle, and the semi-hard magnet and the hard magnet are inside the first axle, and in the locked state the hard magnet is configured to be inside the first axle, and the second axle does not rotate, and the user interface rotates. - the semi hard magnet is inside a magnetization coil, and has a coercivity less than the coercivity of the hard magnet, optionally at least 5 times less than the coercivity of the hard magnet, and - the semi-hard magnet and the hard magnets are configured adjacent to each other, and a change in the magnetization polarization of the semi-hard magnet is configured to push or pull the hard magnet to open or close the digital lock, characterized in that - the digital lock body comprises a first axle and a second axle and a user interface connected to the first axle, and the semi-hard magnet and the hard magnet are inside the first axle, and
An image sensor, comprising: a photodiode within a semiconductor substrate, the photodiode configured to sense light in an infrared wavelength spectrum of light; a photoelectric conversion device on the semiconductor substrate, the photoelectric conversion device configured to sense light in a visible wavelength spectrum of light, the photoelectric conversion device including a pair of electrodes (121, 122) facing each other, and a photoelectric conversion layer between the pair of electrodes, the photoelectric conversion layer configured to selectively absorb light in the visible wavelength spectrum of light, wherein the photoelectric conversion layer is an organic photoelectric conversion layer that includes at least one organic light absorbing material;; transparent insulating layer formed between the semiconductor substrate and the photoelectric conversion device; and a plurality of color filters on the photoelectric conversion device, such that the photoelectric conversion device is between the plurality of color filters and the semiconductor substrate, wherein at least one color filter of the plurality of color filters has an average light transmittance of greater than or equal to 70 % in an infrared wavelength spectrum of light of 800 nm to 1000 nm; and a visible light blocking film between the semiconductor substrate and the transparent insulation layer and formed on the whole surface of the semiconductor substrate, wherein the visible light blocking film is a black matrix which absorbs light in a visible wavelength and transmits the infrared light to the photodiode. a photodiode within a semiconductor substrate, the photodiode configured to sense light in an infrared wavelength spectrum of light; a photoelectric conversion device on the semiconductor substrate, the photoelectric conversion device configured to sense light in a visible wavelength spectrum of light, the photoelectric conversion device including a pair of electrodes (121, 122) facing each other, and a photoelectric conversion layer between the pair of electrodes, the photoelectric conversion layer configured to selectively absorb light in the visible wavelength spectrum of light, wherein the photoelectric conversion layer is an organic photoelectric conversion layer that includes at least one organic light absorbing material;; transparent insulating layer formed between the semiconductor substrate and the photoelectric conversion device; and a plurality of color filters on the photoelectric conversion device, such that the photoelectric conversion device is between the plurality of color filters and the semiconductor substrate, wherein at least one color filter of the plurality of color filters has an average light transmittance of greater than or equal to 70 % in an infrared wavelength spectrum of light of 800 nm to 1000 nm; and a visible light blocking film between the semiconductor substrate and the transparent insulation layer and formed on the whole surface of the semiconductor substrate, wherein the visible light blocking film is a black matrix which absorbs light in a visible wavelength and transmits the infrared light to the photodiode.
A communication method comprising the steps of: collectively transmitting from a first communication apparatus (1, 11) a first operation request (A, B) to a second communication apparatus (2, 12) together with a second operation response to a second operation request (M, N) previously received from the second communication apparatus; and the method being characterized by: collectively transmitting from the second communication apparatus (2, 12) a third operation request (C, D) to the first communication apparatus (1, 11) together with a first operation response (A, B) to the first operation request received from the first communication apparatus. collectively transmitting from a first communication apparatus (1, 11) a first operation request (A, B) to a second communication apparatus (2, 12) together with a second operation response to a second operation request (M, N) previously received from the second communication apparatus; and the method being characterized by: collectively transmitting from the second communication apparatus (2, 12) a third operation request (C, D) to the first communication apparatus (1, 11) together with a first operation response (A, B) to the first operation request received from the first communication apparatus. collectively transmitting from the second communication apparatus (2, 12) a third operation request (C, D) to the first communication apparatus (1, 11) together with a first operation response (A, B) to the first operation request received from the first communication apparatus.
A robot protecting jacket (12-14, 22) for a coating robot, in particular a painting robot, with a a) connecting element (15, 20, 21) for form-fittingly fastening the robot protecting jacket (12-14, 22), in particular a1) for fastening the robot protecting jacket (12-14, 22) to the coating robot, or a2) for connecting two adjacent portions of the robot protecting jacket (12-14, 22) to each other, characterised in that b) the connecting element (15, 20, 21) is part of a beaded connection. a) connecting element (15, 20, 21) for form-fittingly fastening the robot protecting jacket (12-14, 22), in particular a1) for fastening the robot protecting jacket (12-14, 22) to the coating robot, or a2) for connecting two adjacent portions of the robot protecting jacket (12-14, 22) to each other, characterised in that a1) for fastening the robot protecting jacket (12-14, 22) to the coating robot, or a2) for connecting two adjacent portions of the robot protecting jacket (12-14, 22) to each other, b) the connecting element (15, 20, 21) is part of a beaded connection.
A setup with a conveying installation and a device for the transfer of piece goods to the conveying installation, characterised in that the conveying installation comprises at least one holding clip which is movable along a conveying path and is for conveying a goods piece, wherein the device comprises at least one goods piece receiver, which is arranged in a transfer zone below the at least one holding clip for positioning and providing at least one goods piece in the transfer zone of the conveying installation, wherein the goods piece receiver forms a rest, and wherein the at least one goods piece is able to lie on the rest due to gravity, and the device comprises a slide mechanism with at least one slide element, by way of which the at least one goods piece can be moved in a transfer movement out of the goods piece receiver to the holding clip and be transferred to the holding clip.
A road surfacing composition for the preparation of a silent and water-permeable road surfacing comprising: a) 80 - 98 wt% of hard particles A, b) 2 - 20 wt% of a two-component polyurethane binder system comprising a polyol P1 selected from polymeric polyols such as polyester or polyether polyols, polyesteramides polyols, polycarbonate polyols, polyacetal polyols, polyolefin polyols, acrylic polyols and hydroxy functional ketone resins, or selected from natural polyols including naturally occurring vegetable oils that contain unreacted OH functional groups, or a chemically modified natural oil polyols, a polyisocyanate P2 and optionally polyurethane precursors, which after curing has a crosslink density X, defined as the number of moles of elastically effective network chains per volume, between 0.1 and 2, preferably between 0.1 and 1.7 and more preferably between 0.1 and 1.5 mmoles/cm 3, c) 0 - 10 wt% additives other than a) or b), the sum of wt% of a) to c) being 100 wt%. said road surfacing composition having a porosity of at least 10, preferably at least 15, more preferably at least 20 % defined as open volume relative to the total volume of the composition. a) 80 - 98 wt% of hard particles A, b) 2 - 20 wt% of a two-component polyurethane binder system comprising a polyol P1 selected from polymeric polyols such as polyester or polyether polyols, polyesteramides polyols, polycarbonate polyols, polyacetal polyols, polyolefin polyols, acrylic polyols and hydroxy functional ketone resins, or selected from natural polyols including naturally occurring vegetable oils that contain unreacted OH functional groups, or a chemically modified natural oil polyols, a polyisocyanate P2 and optionally polyurethane precursors, which after curing has a crosslink density X, defined as the number of moles of elastically effective network chains per volume, between 0.1 and 2, preferably between 0.1 and 1.7 and more preferably between 0.1 and 1.5 mmoles/cm 3, c) 0 - 10 wt% additives other than a) or b), the sum of wt% of a) to c) being 100 wt%.
A metal article comprising a composite metal powder compressed to a solid mass, said composite metal powder comprising a homogeneous dispersion of molybdenum and molybdenum disulfide sub-particles fused together to form generally spherically- shaped individual particles of said composite metal powder in which each particle contains the same amount of molybdenum disulfide.
A method for production of safety/rupture discs, comprising the steps of: providing a foil element realized in a metal material or graphite or a plastic material or a glass-ceramic material, characterized by selecting a wavelength for a laser beam of a puls laser within a range of between 800 nanometers and 1800 nanometers; selecting a pulse repetition rate for the laser beam within a range of between 15 KHz and 800 KHz; selecting a pulse duration for the laser beam less than 10 nanosecond and ablating at least one non-through cut in the foil element by directly applying said laser beam on the surface of the foil element to remove material from the foil element thereby obtaining a safety/rupture disc.
An exfoliated graphite-resin composite material in which exfoliated graphite and a resin form a composite, wherein when an amount of methylene blue adsorbed per g of the exfoliated graphite-resin composite material (μmol/g) is y, the amount of methylene blue adsorbed as measured based on a difference between an absorbance of a methanol solution of methylene blue at a concentration of 10 mg/L and an absorbance of a supernatant liquid obtained by introducing the exfoliated graphite-resin composite material into the methanol solution of methylene blue and performing centrifugation, and a BET specific surface area (m 2 /g) of the exfoliated graphite-resin composite material is x, a ratio y/x is 0.15 or more, and the BET specific surface area is 25 m 2 /g or more.