mhurhangee/ep-ind-claims huggingface dataset:
A time switch device comprising: a casing; a first electronic module having a first processing unit configured to manage a programming of the time switch device; and a second electronic module, distinct from the first electronic module and housed in the casing together with the first electronic module, having: a second processing unit, communicatively coupled to the first processing unit; a switching unit, comprising at least one switch element, coupled to the second processing unit and to a switching output of said time switch device; and a driving unit, coupled to the second processing unit and to a driving output of the time switch device, comprising analogue circuits designed to provide a number of driving signals (S 1, S 2), wherein said first processing unit is designed to generate, based on said programming, a control signal (S c) for said second processing unit, and said second processing unit is designed to manage the selective activation of said at least one switch element and the generation of said driving signals (S 1, S 2) based on said control signal (S c), said control signal (S c) being a digital signal encoding control information for the selective activation of said at least one switch element and the generation of said driving signals (S 1, S 2). a casing; a first electronic module having a first processing unit configured to manage a programming of the time switch device; and a second electronic module, distinct from the first electronic module and housed in the casing together with the first electronic module, having: a second processing unit, communicatively coupled to the first processing unit; a switching unit, comprising at least one switch element, coupled to the second processing unit and to a switching output of said time switch device; and a driving unit, coupled to the second processing unit and to a driving output of the time switch device, comprising analogue circuits designed to provide a number of driving signals (S 1, S 2), wherein said first processing unit is designed to generate, based on said programming, a control signal (S c) for said second processing unit, and said second processing unit is designed to manage the selective activation of said at least one switch element and the generation of said driving signals (S 1, S 2) based on said control signal (S c), said control signal (S c) being a digital signal encoding control information for the selective activation of said at least one switch element and the generation of said driving signals (S 1, S 2).
A device for connecting an Internet-capable display and input device, in particular a tablet computer or a mobile phone, to a working device which is to be open-loop and/or closed-loop controlled by way of a data bus, characterised in that the device has at least one first interface (6a, 6b) for data exchange with the Internet-capable display and input device, at least one second interface for data exchange with the working device which is to be open-loop and/or closed-loop controlled, a checking means for checking a proper function of the Internet-capable display and input device, and a transfer means in order to transfer the working device into a secure state when the checking means detects an improper function of the Internet-capable display and input device and wherein the transfer means prevents data exchange of security-relevant application-dependent data between the display and input device and the working device which is to be open-loop or closed-loop controlled when the checking means detects an improper function of the Internet-capable display and input device
Handling device for repositioning objects, with an adhesion gripping device having a support structure, at which a fastening interface is formed for fastening the adhesion gripping device at a positioning device, by means of which fastening interface the adhesion gripping device can be moved and positioned while performing a handling movement, with at least one gripping unit, which is located at the support structure and has a bendable adhesion tape, which extends in a main plane of the adhesion gripping device between two adjacent holding regions (25a, 25b) and has at least one adhesion surface, and which has a longitudinal section routed through a working region of the gripping unit and forming a gripping section, by means of which an object to be repositioned can be gripped and releasably held in the working region by the adhesion effect of the adhesion surface, wherein the adhesion gripping device comprises a releasing device designed for releasing an object gripped by the gripping section of the adhesion tape, which releasing device has at least one releasing deflection element located in the working region of the gripping unit, partially wrapped by the adhesion tape and capable of translational movement in the main plane relative to the support structure while performing a releasing movement, and which furthermore has a releasing drive device located at the support structure, characterised in that by means of the releasing drive device an orbital movement of the gripping section about the releasing deflection element can be caused, which orbital movement accompanies the releasing movement of the releasing deflection element and causes an active withdrawal of the adhesion tape from the gripped object.
A method for producing an electronic part mounting substrate wherein a metal member (12, 121, 302, 402, 502) is bonded to one side of a ceramic substrate (10, 304, 404, 504), and one side of a metal plate (14, 306, 406, 506) is bonded to the other side of the ceramic substrate (10, 304, 404, 504), an electronic part (16, 161, 308, 408, 508) being mounted on the other side of the metal plate (14, 306, 406, 506), said method comprising the steps of: arranging a ceramic substrate (10, 304, 404, 504) and an electronic part (16, 161, 308, 408, 508) in a mold (100, 200, 400, 500) so that the ceramic substrate (10, 304, 404, 504) is spaced from the electronic part (16, 161, 308, 408, 508); injecting a molten metal into the mold (100, 200, 400, 500) so that the molten metal contacts both sides of the ceramic substrate (10, 304, 404, 504) and the electronic part (16, 161, 308, 408, 508); cooling the mold (100, 200, 400, 500) to solidify the molten metal, to form a metal member (12, 121, 302, 402, 502) on one side of the ceramic substrate (10, 304, 404, 504) so that the metal member (12, 121, 302, 402, 502) is bonded directly to the one side of the ceramic substrate (10, 304, 404, 504), and to form a metal plate (14, 306, 406, 506) on the other side of the ceramic substrate (10, 304, 404, 504) so that one side of the metal plate (14, 306, 406, 506) is bonded directly to the other side of the ceramic substrate (10, 304, 404, 504); and bonding the electronic part (16, 161, 308, 408, 508) directly to the other side of the metal plate (14, 306, 406, 506) when the metal plate (14, 306, 406, 506) is formed. arranging a ceramic substrate (10, 304, 404, 504) and an electronic part (16, 161, 308, 408, 508) in a mold (100, 200, 400, 500) so that the ceramic substrate (10, 304, 404, 504) is spaced from the electronic part (16, 161, 308, 408, 508); injecting a molten metal into the mold (100, 200, 400, 500) so that the molten metal contacts both sides of the ceramic substrate (10, 304, 404, 504) and the electronic part (16, 161, 308, 408, 508); cooling the mold (100, 200, 400, 500) to solidify the molten metal, to form a metal member (12, 121, 302, 402, 502) on one side of the ceramic substrate (10, 304, 404, 504) so that the metal member (12, 121, 302, 402, 502) is bonded directly to the one side of the ceramic substrate (10, 304, 404, 504), and to form a metal plate (14, 306, 406, 506) on the other side of the ceramic substrate (10, 304, 404, 504) so that one side of the metal plate (14, 306, 406, 506) is bonded directly to the other side of the ceramic substrate (10, 304, 404, 504); and bonding the electronic part (16, 161, 308, 408, 508) directly to the other side of the metal plate (14, 306, 406, 506) when the metal plate (14, 306, 406, 506) is formed.
Method for producing an infrared emitter from a continuous quartz glass body, whereby a reflector layer is applied to part of the surface of the body made of quartz glass, characterised in that the quartz glass body is divided into individual emitter tube sections after the application of the reflector layer, and in that the ends of the emitter tube sections are crimped by means of two burners which rotate about a rotation axis, whereby either the emitter tube sections have their symmetry axis appropriately offset with respect to the rotation axis such that their side coated with the reflector layer is arranged more closely to the rotating burners than their uncoated side, or in that the two rotating burners comprise a gas feed by means of which the burners are controlled independent of each other and independent of position.
An article of manufacture comprising a perimeter plate adapted to be located around a perimeter of an antenna, wherein: the perimeter plate comprises one or more concentric perimeter bands; each perimeter band comprises a plurality of truncated cones which extend out of a plane defined by the perimeter plate toward a forward direction of the antenna, the forward direction being defined as extending in a direction corresponding generally to an intended direction of transmission of antenna, each truncated cone has a rounded top and a metal surface; and the perimeter plate is designed to attenuate at least one of back-lobe and side-lobe radiation generated by the antenna. the perimeter plate comprises one or more concentric perimeter bands; each perimeter band comprises a plurality of truncated cones which extend out of a plane defined by the perimeter plate toward a forward direction of the antenna, the forward direction being defined as extending in a direction corresponding generally to an intended direction of transmission of antenna, each truncated cone has a rounded top and a metal surface; and the perimeter plate is designed to attenuate at least one of back-lobe and side-lobe radiation generated by the antenna.
Process for preparing a hydrophobic acrylic polymer material for the production of an ophthalmic device, which process includes at least: a) a step of providing a mixture of at least an aromatic acrylate monomer, an aromatic methacrylate monomer and an alkoxyalkyl methacrylate monomer; b) a step of degassing the mixture obtained in step a); c) a step of introducing said mixture into an intraocular lens mould; d) a step of thermally induced free radical polymerization in the presence of an initiator; e) a step of polymerization by irradiation with gamma rays; and f) a step of vacuum ventilation after step e) of polymerization by irradiation with gamma rays. a) a step of providing a mixture of at least an aromatic acrylate monomer, an aromatic methacrylate monomer and an alkoxyalkyl methacrylate monomer; b) a step of degassing the mixture obtained in step a); c) a step of introducing said mixture into an intraocular lens mould; d) a step of thermally induced free radical polymerization in the presence of an initiator; e) a step of polymerization by irradiation with gamma rays; and f) a step of vacuum ventilation after step e) of polymerization by irradiation with gamma rays.
A water-soluble polymer comprising a copolyhydroxyaminoether having side-chains of polyalkylene oxides; wherein the water soluble polymer is represented by the formula: wherein R is hydrogen or C 1 -C 20 alkyl; R 1 is individually an aromatic or substituted aromatic moiety; Y is an organic moiety that does not contain an epoxy group and Z is an organic moiety; and n is 5-400; each A is individually an amino group represented by one of the formulas: wherein R 2 is hydrocarbyl or substituted hydrocarbyl; R 3 is C 2 -C 10 hydrocarbylene or substituted hydrocarbylene; R 4 is C 2 -C 20 hydrocarbylene or substituted hydrocarbylene, wherein the substituent(s) is hydroxyl, cyano, halo, aryloxy alkylamido, arylamido, alkylcarbonyl, or arylcarbonyl; and each B is represented by the formula: wherein R 5 is hydrocarbyl; each R 6 is individually hydrogen, hydrocarbyl or combinations thereof; q is 1-1000; and x is 0-0.99 when q is greater than 40, but 0 to less than 0.2 or greater than 0.8 to 0.99 when q is less than 40.
System for liquefying a gas comprising: - a gas intake for connection to a gas source; - at least one gas compressor connected for being fed with gas from the gas intake; - a gas expansion device connected for being fed with compressed gas produced by the at least one gas compressor, and adapted to produce both liquefied gas and expanded gas from the compressed gas; and - a return duct connected for driving the expanded gas from a gas outlet of the gas expansion device to a duct node situated between the gas intake and the at least one compressor, characterized in that the at least one gas compressor comprises a liquid piston gas multistage compressor having at least two compressor stages (21-23; 21-25) connected serially in an ordered chain between the gas intake and an end gas outlet, each compressor stage comprising at least one cylinder supplied with driving liquid, a dummy piston between the driving liquid and the gas being compressed and also comprising a liquid high-pressure supply device arranged for alternately increasing and decreasing a driving liquid quantity contained within the cylinder, so as to load, compress and discharge gas at the compressor stage, each compressor stage (22-23; 22-25) other than the first one in the chain, and called higher compressor stage, being connected to process gas which is outputted by a preceding compressor stage situated in the chain just before said higher compressor stage, through an intermediate gas duct connecting said preceding compressor stage to said higher compressor stage, so that gas flowing from the gas intake is pressure-increased each time it is processed by one of the compressor stages, and gas outputted at the end gas outlet has been processed successively by all the compressor stages of the chain, the gas expansion device being connected for receiving compressed gas from the end gas outlet of the liquid piston gas multistage compressor, or from an intermediate gas outlet situated at one intermediate gas duct between two compressor stages (21-23; 21-25) successive in the chain. - a gas intake for connection to a gas source; - at least one gas compressor connected for being fed with gas from the gas intake; - a gas expansion device connected for being fed with compressed gas produced by the at least one gas compressor, and adapted to produce both liquefied gas and expanded gas from the compressed gas; and - a return duct connected for driving the expanded gas from a gas outlet of the gas expansion device to a duct node situated between the gas intake and the at least one compressor,
An exhaust pipe structure of an internal combustion engine in which four exhaust pipes (21, 22, 23, 24) are respectively connected to four cylinders (11, 12, 13, 14) of a four-cylinder internal combustion engine, wherein two exhaust pipes (21, 22) of the four exhaust pipes (21, 22, 23, 24) are formed as long exhaust pipes having a long pipe length while other two exhaust pipes (23, 24) thereof are formed as short exhaust pipes having a short pipe length, wherein the exhaust pipes (21, 23), (22, 24) are collected in order to independently provide two exhaust systems (19, 20), and characterized in that a difference in a pipe length between the long exhaust pipes and the short exhaust pipes is set to 150 mm or more, and one of the two pipes (23, 24) collected in each exhaust system (19, 20) is formed as a short exhaust pipe and the other exhaust pipe (21, 22) in each exhaust system (19, 20) is formed as a long exhaust pipe, wherein an explosion sound of the cylinders connected with the long exhaust pipes is attenuated, and an explosion sound of the cylinders connected with the short exhaust pipes creates a sound envelope of the exhaust sound to output an exhaust sound relating to a two-cylinder internal combustion engine.
A reactive resin having the structure: B- 2-10 where: a) B is selected from an oleaginous polymer unit derived from a plant or animal source; b) Q is [(U-L-U-A) y -U-L-] x -U-F; c) U is selected from the group consisting of a urethane linkage, a urea linkage and a thiourea linkage and may be the same or different in each occurrence; d) L is a residue unit of a diisocyanate, said residue unit having a molar mass of from 60 to 500 g/mol; e) A is the residue of a reactive accelerator, said accelerator including at least one O, N or S bearing group which is reactive with NCO groups to form one of a urethane linkage, a urea linkage or a thiourea linkage; f) F is a (meth) acrylate-containing group or an alkoxysilane group; g) x is 1-100; and h) y is 1-10. a) B is selected from an oleaginous polymer unit derived from a plant or animal source; b) Q is [(U-L-U-A) y -U-L-] x -U-F; c) U is selected from the group consisting of a urethane linkage, a urea linkage and a thiourea linkage and may be the same or different in each occurrence; d) L is a residue unit of a diisocyanate, said residue unit having a molar mass of from 60 to 500 g/mol; e) A is the residue of a reactive accelerator, said accelerator including at least one O, N or S bearing group which is reactive with NCO groups to form one of a urethane linkage, a urea linkage or a thiourea linkage; f) F is a (meth) acrylate-containing group or an alkoxysilane group; g) x is 1-100; and h) y is 1-10.
A transmission system for hybrid propulsion vehicles, comprising: a. a torque convertor which includes: • an input for connection to a drive shaft from which a pump of the convertor receives a rotational movement; and • an output in fluid-dynamic connection with the input via a turbine of the convertor which is operated by the pump; b. an external output shaft of the torque convertor which is rigidly connected to the output of the torque convertor and an internal output shaft of the convertor which is rigidly connected to the input of the torque convertor, the external output shaft and the internal output shaft being coaxial with respect to each other; c. a gearbox which can be selectively connected to drive wheels of the vehicle; d. a main coupling member for selectively transmitting the movement of the external shaft to the gearbox; e. an electric motor which can be selectively operated as a motor and as an electrical generator, the electric motor comprising a rotor element, characterized in that it further comprises a downstream coupling member and an upstream coupling member which are arranged upstream and downstream of the torque convertor, respectively, and which are capable of selectively connecting the rotor element to the external shaft and the internal shaft, respectively, and in that the rotor element is arranged at an opposite distal end of the external shaft with respect to the torque convertor, the main coupling member being arranged in an intermediate position between the torque convertor and the distal end. a. a torque convertor which includes: • an input for connection to a drive shaft from which a pump of the convertor receives a rotational movement; and • an output in fluid-dynamic connection with the input via a turbine of the convertor which is operated by the pump; • an input for connection to a drive shaft from which a pump of the convertor receives a rotational movement; and • an output in fluid-dynamic connection with the input via a turbine of the convertor which is operated by the pump; b. an external output shaft of the torque convertor which is rigidly connected to the output of the torque convertor and an internal output shaft of the convertor which is rigidly connected to the input of the torque convertor, the external output shaft and the internal output shaft being coaxial with respect to each other; c. a gearbox which can be selectively connected to drive wheels of the vehicle; d. a main coupling member for selectively transmitting the movement of the external shaft to the gearbox; e. an electric motor which can be selectively operated as a motor and as an electrical generator, the electric motor comprising a rotor element,
Device for the fluid-tight sealing of two partially overlapping packaging components (11, 12), one being a tubular base member, in particular formed from a blank of composite cardboard/plastics material, and an additional packaging component forming the upper packaging portion or packaging base, having at least one mandrel and one die, the mandrel having at least two expansion elements (1A, 1B, 1C, 1D) which are moved from the operating position thereof towards each other into a rest position to reduce the cross-section in order to allow ease of sliding-on of the tubular base member, the expansion elements (1A, 1B, 1C, 1D) having sealing jaws (2A, 2B, 2C, 2D) which, in the operating position thereof, form a closed circumferential outer contour, which corresponds to an inner contour formed by an opening in the die, there remaining between the inner contour and outer contour a narrow annular gap in order to apply a pressing force from the inner side to the overlap region of the packaging components (11, 12), characterised in that the expansion elements (1A, 1B, 1C, 1D) each being pivotably arranged on a common base element and that, each expansion element (1A, 1B, 1C, 1D) is secured to at least one torsion-resistant leaf spring element (4A, 4B, 4C, 4D) which enables precise pivoting of the respective expansion element (1A, 1B, 1C, 1D) between the rest position and operating position.
A part-conical section, for use as part of a separation chamber of a hydrocyclone, the part-conical section comprising: an upper end defining internal and external diameters and including an upper mount for coupling the part-conical section to a cylindrical fluid input portion of the hydrocyclone; a lower end including a lower mount for coupling the part-conical section to either another part-conical section or a spigot of the hydrocyclone; a sidewall defining an internal passageway along a fluid transport axis and an external surface, the sidewall thickness at the upper end being narrower than the sidewall thickness at the lower end; wherein the internal passageway extends from the upper end to the lower end and defines a radially-inward tapering portion with respect to the fluid transport axis, and a non-inwardly-tapering portion with respect to the fluid transport axis, the tapering portion extending from the upper end to thenon-inwardly-tapering portion, and the non-inwardly-tapering portion extending from a narrow end of the tapering portion to the lower end; characterised in that the part-conical section is not a spigot, and the lower end defines smaller internal and external diameters than the upper end. an upper end defining internal and external diameters and including an upper mount for coupling the part-conical section to a cylindrical fluid input portion of the hydrocyclone; a lower end including a lower mount for coupling the part-conical section to either another part-conical section or a spigot of the hydrocyclone; a sidewall defining an internal passageway along a fluid transport axis and an external surface, the sidewall thickness at the upper end being narrower than the sidewall thickness at the lower end; wherein the internal passageway extends from the upper end to the lower end and defines a radially-inward tapering portion with respect to the fluid transport axis, and a non-inwardly-tapering portion with respect to the fluid transport axis, the tapering portion extending from the upper end to thenon-inwardly-tapering portion, and the non-inwardly-tapering portion extending from a narrow end of the tapering portion to the lower end; characterised in that the part-conical section is not a spigot, and the lower end defines smaller internal and external diameters than the upper end.