mhurhangee/ep-ind-claims huggingface dataset:
An optical rain sensor for sensing rain on a surface of a transparent substrate, the optical rain sensor comprising: a printed circuit board, PCB,; a central light emitting element disposed on the PCB;, a plurality of light detecting elements (113a-c) and a plurality of peripheral light emitting elements (112a-c), said light detecting elements and said peripheral light emitting elements being disposed on the PCB and surrounding the central light emitting element disposed on the PCB; and a controller operatively connected to the light detecting elements (113a-c), the peripheral light emitting elements (112a-c), and the central light emitting element and configured to control these elements to implement a first mode of operation and a second mode of operation, wherein, in the first mode of operation, the central light emitting element is activated by the controller to emit light beams through the transparent substrate toward a first plurality of sensing areas (124a-c) on the surface and wherein the plurality of light detecting elements (113a-c) are configured to receive the emitted light beams reflected off the first plurality of sensing areas, and wherein, in the second mode of operation, each of the peripheral light emitting elements (112a-c) is activated by the controller to emit light beams through the transparent substrate toward a second plurality of sensing areas (124d-i) on the surface and wherein the plurality of light detecting elements (113a-c) are configured to receive the emitted light beams reflected off the second plurality of sensing areas. a printed circuit board, PCB,; a central light emitting element disposed on the PCB;, a plurality of light detecting elements (113a-c) and a plurality of peripheral light emitting elements (112a-c), said light detecting elements and said peripheral light emitting elements being disposed on the PCB and surrounding the central light emitting element disposed on the PCB; and a controller operatively connected to the light detecting elements (113a-c), the peripheral light emitting elements (112a-c), and the central light emitting element and configured to control these elements to implement a first mode of operation and a second mode of operation, wherein, in the first mode of operation, the central light emitting element is activated by the controller to emit light beams through the transparent substrate toward a first plurality of sensing areas (124a-c) on the surface and wherein the plurality of light detecting elements (113a-c) are configured to receive the emitted light beams reflected off the first plurality of sensing areas, and wherein, in the second mode of operation, each of the peripheral light emitting elements (112a-c) is activated by the controller to emit light beams through the transparent substrate toward a second plurality of sensing areas (124d-i) on the surface and wherein the plurality of light detecting elements (113a-c) are configured to receive the emitted light beams reflected off the second plurality of sensing areas.
An aseptic dosing system for dispensing a micro-ingredient having a reconstitution ratio of 10:1 or higher with a diluent, comprising: a micro-ingredient source with the micro-ingredient therein and adapted to dispense the micro-ingredient; a sterilizer downstream of the micro-ingredient source; wherein the sterilizer is configured to sterilize the micro-ingredient; a nozzle (170; 250) downstream of the sterilizer whereby the micro-ingredient is in communication with the nozzle; a macro-ingredient source adapted to dispense a macro-ingredient, the macro-ingredient source being in communication with the nozzle, and a diluent source in communication with the nozzle; wherein the nozzle (170, 250) is configured to reconstitute the micro-ingredient therein with the diluent at said reconstitution ratio. a micro-ingredient source with the micro-ingredient therein and adapted to dispense the micro-ingredient; a sterilizer downstream of the micro-ingredient source; wherein the sterilizer is configured to sterilize the micro-ingredient; a nozzle (170; 250) downstream of the sterilizer whereby the micro-ingredient is in communication with the nozzle; a macro-ingredient source adapted to dispense a macro-ingredient, the macro-ingredient source being in communication with the nozzle, and a diluent source in communication with the nozzle; wherein the nozzle (170, 250) is configured to reconstitute the micro-ingredient therein with the diluent at said reconstitution ratio.
A pneumatic tire comprising a tread portion having an outboard tread edge to be positioned away from the center of a vehicle body and an inboard tread edge to be positioned close to the center of the vehicle body, and provided with main grooves extending continuously in the tire circumferential direction, the main grooves including an outboard shoulder main groove and an outboard crown main groove between which an outboard middle land region is defined, the outboard middle land region provided with outboard middle transverse grooves each comprising a shallow groove section and a deep groove section, the outboard middle transverse grooves including first outboard middle transverse grooves wherein their deep groove sections are is disposed on the outboard shoulder main groove side and their shallow groove sections are disposed on the outboard crown main groove side, and second outboard middle transverse grooves wherein their deep groove sections are disposed on the outboard crown main groove side and their shallow groove sections are disposed on the outboard shoulder main groove side, and the first outboard middle transverse grooves and the second outboard middle transverse grooves arranged alternately in the tire circumferential direction, wherein each of the outboard middle transverse grooves has one end connected to the outboard shoulder main groove and the other end connected to the outboard crown main groove, characterized in that the tread portion has an outboard shoulder land region which is defined on the axially outside of the outboard shoulder main groove and provided with outboard shoulder transverse grooves extending axially inwardly from the outboard tread edge, the outboard shoulder transverse grooves include first outboard shoulder transverse grooves whose axially inner ends are connected to the outboard shoulder main groove, the first outboard shoulder transverse grooves are aligned with the deep groove sections of the first outboard middle transverse grooves so as to be smoothly continuous therewith through the outboard shoulder main groove.
An integrated process for the solution polymerization and subsequent halogenation of the rubber obtained thereby in a common aliphatic medium, the process comprising at least the steps of: a) providing a medium comprising - a common aliphatic medium comprising at least 50 wt.-% of one or more aliphatic hydrocarbons having a boiling point in the range of 45°C to 80°C at a pressure of 1013 hPa, and - a monomer mixture comprising at least one isoolefin monomer and at least one multiolefin monomer - in a mass ratio of monomer mixture to common aliphatic medium of from 40:60 to 95: 5, b) polymerizing the monomer mixture within the medium to form a rubber solution comprising a rubber polymer which is at least substantially dissolved in the medium comprising the common aliphatic medium and residual monomers of the monomer mixture; c) separating residual monomers of the monomer mixture from the rubber solution to form a separated rubber solution comprising the rubber polymer and the common aliphatic medium, d) halogenating the rubber polymer in the separated rubber solution. a) providing a medium comprising - a common aliphatic medium comprising at least 50 wt.-% of one or more aliphatic hydrocarbons having a boiling point in the range of 45°C to 80°C at a pressure of 1013 hPa, and - a monomer mixture comprising at least one isoolefin monomer and at least one multiolefin monomer - in a mass ratio of monomer mixture to common aliphatic medium of from 40:60 to 95: 5, - a common aliphatic medium comprising at least 50 wt.-% of one or more aliphatic hydrocarbons having a boiling point in the range of 45°C to 80°C at a pressure of 1013 hPa, and - a monomer mixture comprising at least one isoolefin monomer and at least one multiolefin monomer - in a mass ratio of monomer mixture to common aliphatic medium of from 40:60 to 95: 5, b) polymerizing the monomer mixture within the medium to form a rubber solution comprising a rubber polymer which is at least substantially dissolved in the medium comprising the common aliphatic medium and residual monomers of the monomer mixture; c) separating residual monomers of the monomer mixture from the rubber solution to form a separated rubber solution comprising the rubber polymer and the common aliphatic medium, d) halogenating the rubber polymer in the separated rubber solution.
Flange for the tower of a wind turbine, comprising at least one, in particular two annular members (9, 10), the annular members being oriented about an axis of the tower, wherein the at least one annular member (9, 10) is provided between a first structure (3, 6) of the tower positioned below the annular member (9, 10) and a second structure positioned above the annular member (9, 10), characterized in that, the annular member (9, 10) has a first surface (9a, 10a) and an opposing second surface (9b, 10b) respectively, the surfaces (9a, 9b, 10a, 10b) being in planes which are mutually inclined by an angle, wherein the at least one annular member (9, 10) can be rotatably positioned in order to adjust an inclination between the first structure (3, 6) and the second structure, and wherein the annular member (9, 10) is positioned between two flange rings (6a, 8a), the first flange ring being attached to the first structure (3, 6) and the second flange ring being attached to the second structure.
Agricultural working system for processing an agricultural work order with an agricultural working machine which has at least one front axle and one rear axle with ground engaging means (VR, HR) arranged thereon, wherein the working machine can be equipped with at least one implement by means of at least one implement interface which comprises a traction amplification device, wherein the working machine comprises a driver assistance system which optimises the operation of at least the working machine and which has a computing unit, a memory unit and at least one input interface, wherein the computing unit is configured to process information generated by internal machine sensor systems, external information and information which can be stored in the memory unit, and wherein the working machine and/or the at least one implement comprise a control device (22, 23, 24) for controlling and regulating the working machine and/or the implement, characterised in that in that the driver assistance system comprises a traction amplifier automaton which operates on the basis of a characteristic curve, the traction amplifier automaton being configured for an optimised setting of the at least one traction amplification device as a function of at least one selectable control strategy and/or optimisation target variable stored in the memory unit.
A method for controlling a cooking apparatus, the method comprising: receiving an output level regarding each of a plurality of heating coils (110, 110-1, 110-2); determining a plurality of driving frequencies regarding a driving power of each of the plurality of heating coils (110, 110-1, 110-2) based on the output level of each of the plurality of heating coils (110, 110-1, 110-2); generating a plurality of driving powers alternately having the plurality of determined driving frequencies of each of the plurality of heating coils (110, 110-1, 110-2); and providing each of the plurality generated driving powers to each of the plurality of heating coils (110, 110-1, 110-2), characterised in that the determining the plurality of driving frequencies comprises determining a common driving frequency that is common for the plurality of heating coils (110, 110-1, 110-2), and determining an individual driving frequency corresponding to the determined common driving frequency and so that the driving power provides a target power corresponding to the output level of each of the plurality of heating coils (110, 110-1, 110-2), wherein the determined individual driving frequency of each of the plurality of heating coils (110, 110-1, 110-2) is different to the common driving frequency, and the generating the driving power of each of the plurality of heating coils (110, 110-1, 110-2) comprises generating a driving power alternately having the two determined driving frequencies which are the common driving frequency and the individual driving frequency of the heating coil (110, 110-1, 110-2). receiving an output level regarding each of a plurality of heating coils (110, 110-1, 110-2); determining a plurality of driving frequencies regarding a driving power of each of the plurality of heating coils (110, 110-1, 110-2) based on the output level of each of the plurality of heating coils (110, 110-1, 110-2); generating a plurality of driving powers alternately having the plurality of determined driving frequencies of each of the plurality of heating coils (110, 110-1, 110-2); and providing each of the plurality generated driving powers to each of the plurality of heating coils (110, 110-1, 110-2), characterised in that the determining the plurality of driving frequencies comprises determining a common driving frequency that is common for the plurality of heating coils (110, 110-1, 110-2), and determining an individual driving frequency corresponding to the determined common driving frequency and so that the driving power provides a target power corresponding to the output level of each of the plurality of heating coils (110, 110-1, 110-2), wherein the determined individual driving frequency of each of the plurality of heating coils (110, 110-1, 110-2) is different to the common driving frequency, and the generating the driving power of each of the plurality of heating coils (110, 110-1, 110-2) comprises generating a driving power alternately having the two determined driving frequencies which are the common driving frequency and the individual driving frequency of the heating coil (110, 110-1, 110-2).
A catalyst system for the catalytic combustion of ammonia to form nitrogen oxides in a medium-pressure plant, having a plurality of catalyst gauze layers (6; 7) weft-knitted, woven or warp-knitted from platinum-based noble metal wire, which, when arranged one behind the other in a fresh gas flow direction, form a catalyst pack, characterised in that the catalyst pack is formed from a front assembly with three catalyst gauzes having a first average weight per unit area, and a downstream assembly of catalyst gauze layers arranged after the front assembly, having a second average weight per unit area, wherein the average weight per unit area of the front assembly has a weight reduction ranging from 1.5% to 29% relative to the second average weight per unit area, and in that the first average weight per unit area is in the range of 410 to 530 g/m 2 and the second average weight per unit area is in the range of 540 to 790 g/m 2.
Process for producing and assembling an aseptic container (100; 200) suitable for containing and/or supplying medical liquids comprising a hollow body (2, 202), and a main access suitable for being traversed by an operating stem, comprising in sequence at least the following steps: - extruding plastic material for obtaining an intermediate tubular element made of plastic material at least partially in the molten and/or malleable state, said intermediate tubular element having a first end and a second end; - operating on said intermediate tubular element a blow moulding so as to obtain at least a hollow body (2, 202), the first end having a main access; said process being characterized in providing the following step - sealing said main access of said first end of said hollow body (2, 202) forming an openable and immovable tight closing device (1, 201), said tight closing device (1, 201) comprising at least a facilitated breakage portion (4, 4A, 4B; 204, 204A). - extruding plastic material for obtaining an intermediate tubular element made of plastic material at least partially in the molten and/or malleable state, said intermediate tubular element having a first end and a second end; - operating on said intermediate tubular element a blow moulding so as to obtain at least a hollow body (2, 202), the first end having a main access; - sealing said main access of said first end of said hollow body (2, 202) forming an openable and immovable tight closing device (1, 201), said tight closing device (1, 201) comprising at least a facilitated breakage portion (4, 4A, 4B; 204, 204A).
A drilling rig substructure, comprising: a base; a fixed drill floor mounted on said base, wherein an upper surface of said fixed drill floor is adapted to be positioned at an operating height level that is a same first distance above said base during both transportation of said drilling rig substructure to a drilling site and while performing drilling operations at a wellbore location of said drilling site; and a raisable floor mounted on said base, said raisable floor being adapted to be positioned in a lowered transportation position during said transportation of said drilling rig substructure to said drilling site and raised from said lowered transportation position to an operating position adjacent to said fixed drill floor for performing said drilling operations, wherein a height level of an upper surface of said raisable floor is adapted to be positioned at a transportation height level that is a second distance (361 d) above said base when said raisable floor is positioned in said lowered transportation position, said second distance (361 d) being less than said first distance, and characterized in that said raisable floor is further adapted to support a drawworks while in said lowered transportation position during said transportation of said drilling rig substructure to said drilling site. a base; a fixed drill floor mounted on said base, wherein an upper surface of said fixed drill floor is adapted to be positioned at an operating height level that is a same first distance above said base during both transportation of said drilling rig substructure to a drilling site and while performing drilling operations at a wellbore location of said drilling site; and a raisable floor mounted on said base, said raisable floor being adapted to be positioned in a lowered transportation position during said transportation of said drilling rig substructure to said drilling site and raised from said lowered transportation position to an operating position adjacent to said fixed drill floor for performing said drilling operations, wherein a height level of an upper surface of said raisable floor is adapted to be positioned at a transportation height level that is a second distance (361 d) above said base when said raisable floor is positioned in said lowered transportation position, said second distance (361 d) being less than said first distance, and characterized in that said raisable floor is further adapted to support a drawworks while in said lowered transportation position during said transportation of said drilling rig substructure to said drilling site.
Actuating device, especially for actuating valves, with a housing and a coil form arranged in said housing with a coil winding, said coil form enclosing at least parts of a pole tube and a pole core of the actuating device which is connected at one end of the pole tube, with a solenoid armature, which can be displaced longitudinally in an armature housing located at least partially inside the pole tube by the action of magnetic force against a resetting force, and with an actuating rod, which extends outwards away from one axial end of the solenoid armature to actuate a component, especially a valve, the longitudinal displacement of the solenoid armature being guided by means of bearing positions (60, 76), at least one of these being positioned outside each axial end of the solenoid armature and all being positioned outside the armature housing, a coaxially protruding shaft portion (64, 74) of the actuating device being provided to guide the solenoid armature during its axial movements at both axial ends of said solenoid armature, a sliding bearing position (60, 76) forming a said bearing position being formed on each of said shaft portions, wherein the shaft portion for one of the sliding bearing positions is formed on a bearing pin of the actuating device, said pin extending coaxially from one axial end of the solenoid armature into a bearing hole in the pole core, characterised in that the solenoid armature comprises a hole in the form of a blind hole, in which the bearing pin engages with one end portion.
A lifting arrangement, intended for the launch, retrieval and storage of small floating units on a boat, by carrying out at the same time a pivoting and a translational motion from the railing of the boat when seen in a forwards or in a backwards direction down towards a water surface that surrounds the boat, comprising a lifting arrangements that act in pairs, where each such lifting arrangement comprises a frame intended to be fixed attached to the boat, a link arm system supported by the frame and including a lever, one end of which is united with the frame through a joint in a manner that allows pivoting and arranged to, through the influence of a control and actuator means, carry out a tipping action forwards and backwards in a vertical plane, an angled lifting arm with a first and a second (12") shank where the first shank is united in a manner that allows pivoting though a joint with the second end of the lever and where the second shank (12") forms a load-bearing part for the floating unit, whereby the lifting arm is guided during the tipping motion through interaction between a guide that protrudes from the frame and a guide surface formed as a cam curve formed from a downwardly facing surface of the lifting arm, characterised in that, the cam curve comprises a curved transport section that is so designed relative to the guide that the lifting arm executes a parallel motion during the backwards tipping motion of the lever in which the load-bearing part of the second shank (12") is horizontally oriented during the complete tipping motion, or arranged to be oriented in a somewhat upwardly angled position in order to retain the floating unit.
A container having a thermoplastic body provided with a neck fitted with a closure which incorporates a dispensing valve and which is engaged with the neck to retain pressurised contents within the container, characterised in that the neck of the container incorporates a pressure relief valve which is configured to release gas from within the container in the event that an internal pressure limit is exceeded.