mhurhangee/ep-ind-claims huggingface dataset:
A shock absorber comprising a damping-medium-filled damping cylinder divided into a first and a second damping chamber (C1, C2) by a main piston device made up of a first and a second main piston having continuous ducts (9, 10; 13, 14) which are delimited in a direction of flow by first and second flow limiters (11, 12; 15, 16), in which the first and the second main piston are disposed on a fastening device fixed in a piston rod having an axially extending and continuous cavity, through which damping medium can flow between a pressurized chamber into a pressurization reservoir and a respective damping chamber (C1/C2) via an interspace, delimited by the first and the second main piston (4, 5), in the main piston device, in which a first damping medium flow from the interspace to the first and the second damping chamber is designed to flow through pressurization ducts (9, 10) delimited by a first flow limiter (11, 12), whereby in the opening process the first flow limiter (11, 12) lifts axially from the main piston (4, 5) with substantially maintained external form, so that a flow path is created both between the main piston and the whole or parts of the inner periphery (11b1, 12b1; 11b2, 12b2) of the first flow limiter (11, 12), as well as between the main piston (4, 5) and the outer periphery (11a, 12a) of the flow limiter.
A packaging method for an egg-formed hollow chocolate food product which encircles a capsule wherein a product is kept, characterized by comprising the process steps of providing a foil element on a die which is wider than the egg area; forming a main cavity and an auxiliary cavity placed into said main cavity which is in longitudinal half form of the egg by means of printing on the foil element by a corresponding core of the die; alignment to the auxiliary cavity with the main cavity within a figurative area border defined by the projection of the capsule and releasing the egg towards the main cavity and engaging a figurative element in the form of protrusion thereon to the corresponding auxiliary cavity; coupling thereof to the main cavity and closing the package.
A pressure damper for a liquid jet head, comprising: a main body portion including a recess portion for storing liquid; a flexible film provided on the main body portion so as to cover the recess portion; a liquid inflow port and a liquid outflow port which are communicated to the recess portion; a control circuit adapted to output a control signal based on a pressure value output from a pressure detecting portion; and a pressure adjusting portion connected to the control circuit and adapted to adjust pressure in the recess portion by deforming the flexible film in dependence on the control signal output from the control circuit; characterized in that: the pressure detecting portion is provided for detecting a pressure value of the liquid flowing into the liquid inflow port or flowing out from the liquid outflow port; the pressure adjusting portion comprises two paired elements (41, 42), the two paired elements comprising one element which is attached to the flexible film; and the two paired elements being adapted to generate at least one of attraction force and repulsive force between the two paired elements in dependence on the control signal. a main body portion including a recess portion for storing liquid; a flexible film provided on the main body portion so as to cover the recess portion; a liquid inflow port and a liquid outflow port which are communicated to the recess portion; a control circuit adapted to output a control signal based on a pressure value output from a pressure detecting portion; and a pressure adjusting portion connected to the control circuit and adapted to adjust pressure in the recess portion by deforming the flexible film in dependence on the control signal output from the control circuit; characterized in that: the pressure detecting portion is provided for detecting a pressure value of the liquid flowing into the liquid inflow port or flowing out from the liquid outflow port; the pressure adjusting portion comprises two paired elements (41, 42), the two paired elements comprising one element which is attached to the flexible film; and the two paired elements being adapted to generate at least one of attraction force and repulsive force between the two paired elements in dependence on the control signal. the pressure detecting portion is provided for detecting a pressure value of the liquid flowing into the liquid inflow port or flowing out from the liquid outflow port; the pressure adjusting portion comprises two paired elements (41, 42), the two paired elements comprising one element which is attached to the flexible film; and the two paired elements being adapted to generate at least one of attraction force and repulsive force between the two paired elements in dependence on the control signal.
An optical wireless communication module, comprising: a plurality of optical transceivers (11, 16), each configured to receive and transmit information via optical communication, wherein the plurality of optical transceivers (11, 16) is set to directions different from each other; and a controller configured to independently control the plurality of optical transceivers (11, 16); characterized in that the controller is configured to: determine a first set of optical transceivers of the plurality of optical transceivers to be used to receive and transmit information, based on movement information of a user equipment, UE, associated to said module, wherein remainder of the plurality of optical transceivers not belonging to the first set forms a second set of optical transceivers; activate the first set of optical transceivers for receiving and transmitting information; and deactivate at least one optical transceiver of the second set of optical transceivers. a plurality of optical transceivers (11, 16), each configured to receive and transmit information via optical communication, wherein the plurality of optical transceivers (11, 16) is set to directions different from each other; and a controller configured to independently control the plurality of optical transceivers (11, 16); characterized in that the controller is configured to: determine a first set of optical transceivers of the plurality of optical transceivers to be used to receive and transmit information, based on movement information of a user equipment, UE, associated to said module, wherein remainder of the plurality of optical transceivers not belonging to the first set forms a second set of optical transceivers; activate the first set of optical transceivers for receiving and transmitting information; and deactivate at least one optical transceiver of the second set of optical transceivers. determine a first set of optical transceivers of the plurality of optical transceivers to be used to receive and transmit information, based on movement information of a user equipment, UE, associated to said module, wherein remainder of the plurality of optical transceivers not belonging to the first set forms a second set of optical transceivers; activate the first set of optical transceivers for receiving and transmitting information; and deactivate at least one optical transceiver of the second set of optical transceivers.
A method of generating and post-processing a 3D object with an additive manufacturing system comprising: generating the 3D object by an additive manufacturing apparatus which generates the 3D object corresponding to a prepared digital 3D model, attached to a platform by gradually moving upwards, out of a liquid photocurable resin in a vat; and post-processing the 3D object by least one post-processing apparatus which performs at least one of washing, drying and curing the 3D object received and maintained in the state attached to the platform during the post-processing, the method being characterized by comprising: a step of preparing the digital 3D model through determining fluid-collecting, basin-like, open regions and fluid-sucking, dome-like, open regions of the digital 3D model orientated in said state relative to the platform, and including at least one drain channel and at least one vent channel into the fluid-collecting, basin-like, open region and the fluid-sucking, dome-like, open region in the digital 3D model respectively for preventing collection of fluid (5a, 5b) and suction of fluid (5a,5b) during the generation process and the post-processing process. a step of preparing the digital 3D model through determining fluid-collecting, basin-like, open regions and fluid-sucking, dome-like, open regions of the digital 3D model orientated in said state relative to the platform, and including at least one drain channel and at least one vent channel into the fluid-collecting, basin-like, open region and the fluid-sucking, dome-like, open region in the digital 3D model respectively for preventing collection of fluid (5a, 5b) and suction of fluid (5a,5b) during the generation process and the post-processing process.
A heating installation for the productive zone of the reservoir of a well for the extraction of hydrocarbons through the well linking the surface to this reservoir, comprising a substantially cylindrical casing consolidating said well and a hydrocarbon extraction means housed inside said casing and means enabling a hot heat-transfer fluid to be circulated from the surface to the reservoir, said installation comprising through the well a first thermally insulated tubing of injection of the hot fluid from the surface to the reservoir, a second tubing closed at its distal end and surrounding the first tubing to return the hot fluid to the surface and a third tubing of extraction of the hydrocarbons independent from the first and second tubing (8, 11), said tubings extending from the surface to the reservoir, the first tubing is open at its distal end, characterised in that said first tubing is constituted by a first inner pipe surrounded by a second concentric outer pipe and by an insulation housed in the space between the two pipes and in that the said first tubing is provided with an electrical heating wire arranged against the outer wall of the inner pipe.
A tire, comprising: a tire frame; and a reinforcing metal cord member that is wound on at least an outer circumference of the tire frame, wherein at least a portion of the reinforcing metal cord member is coated with a coating composition comprising at least one thermoplastic material selected from a polyamide-based thermoplastic resin having a melting point of from 160°C to 240°C or a polyamide-based thermoplastic elastomer having a melting point of from 160°C to 240°C, and characterised in that the at least a portion of the reinforcing metal cord member is coated with the coating composition via an adhesion layer having a melting point of from 160°C to 200°C and comprising a polyamide-based adhesive. a tire frame; and a reinforcing metal cord member that is wound on at least an outer circumference of the tire frame, wherein at least a portion of the reinforcing metal cord member is coated with a coating composition comprising at least one thermoplastic material selected from a polyamide-based thermoplastic resin having a melting point of from 160°C to 240°C or a polyamide-based thermoplastic elastomer having a melting point of from 160°C to 240°C, and characterised in that the at least a portion of the reinforcing metal cord member is coated with the coating composition via an adhesion layer having a melting point of from 160°C to 200°C and comprising a polyamide-based adhesive.
An engine control device that controls a spark ignition engine equipped with an EGR device to recirculate an exhaust to a combustion chamber, and detects an air-fuel ratio (Rabf) of each cylinder, wherein, when the air-fuel ratio (Rabf) of each cylinder varies between a rich air-fuel ratio and a lean air-fuel ratio due to a variation in exhaust recirculation amount at the time when the exhaust is recirculated by the EGR device, an ignition timing (Advl, Adv2, Adv3, Adv4) of a cylinder having the rich air-fuel ratio is corrected to be advanced, or an ignition energy of the cylinder having the rich air-fuel ratio is increased, wherein, when a combustion stability of the cylinder having the rich air-fuel ratio departs from a predetermined range, the ignition timing (Advl, Adv2, Adv3, Adv4) of the cylinder having the rich air-fuel ratio is corrected to be advanced, or the ignition energy of the cylinder having the rich air-fuel ratio is increased, and wherein, when an angular acceleration of the cylinder having the rich air-fuel ratio is equal to or less than a predetermined value, the ignition timing (Advl, Adv2, Adv3, Adv4) of the cylinder having the rich air-fuel ratio is corrected to be advanced, or the ignition energy of the cylinder having the rich air-fuel ratio is increased.
A compressor rotor assembly mounted for rotation about a central axis of a gas turbine engine, comprising an anti-vortex device mounted to a compressor rotor having a peripheral rim surface defining an inner boundary of a primary gas path of the engine, the anti-vortex device defining circumferentially spaced-apart radial passageways extending from respective axially extending central passages to an outer peripheral rim surface of the device, each said radial passageway receiving bleed air from the primary gas path and directing it to an associated one of said axially extending passages, characterized in that said axially extending passages extend in opposite axial directions from the radial passageways.
Module for aircraft passenger(s) comprising: - two seats arranged alongside one another and oriented in the same direction, each of these seats being a seat that can be converted into a berth, - a lateral wall surrounding the two seats, and - a partition intended to produce a separation between the two seats, this partition being able to be moved from a first position in which it produces the separation of the two seats to a stowed-away second position in which it does not form an obstacle between the two seats, characterised in that a single opening is produced in the lateral wall to allow access to the module, this opening being arranged facing the seats and in the median position relative thereto. - two seats arranged alongside one another and oriented in the same direction, each of these seats being a seat that can be converted into a berth, - a lateral wall surrounding the two seats, and - a partition intended to produce a separation between the two seats, this partition being able to be moved from a first position in which it produces the separation of the two seats to a stowed-away second position in which it does not form an obstacle between the two seats,
An automatic impedance matching method for a radiofrequency transmission channel comprising at least one amplifier, an antenna, a calculation processor, and an impedance matching network between the amplifier and the antenna, this network comprising several impedances some of which have adjustable numerical values, the amplifier having a nominal load impedance (Z opt) for which the channel has the desired performance, and the method comprising the following steps: - measurement of the output current and voltage of the amplifier, - calculation of the complex impedance (Zm) defined by the ratio between this voltage and this current taking into account their phase difference, this impedance representing a current load impedance of the amplifier, - calculation of the impedance of the antenna Z ant as a function of this current load impedance and as a function of the known current values of the adjustable impedances of the matching network, - calculation of new values for the adjustable impedances of the matching network which allow an overall load impedance of the amplifier to be obtained as close as possible to the nominal load impedance, based on the calculated value of antenna impedance, - control of the matching network for adjusting the adjustable impedances to these new values, the method being characterized in that the current is measured by means of a variable measurement impedance (C a) placed in series between the output of the amplifier and the impedance matching network, and this measurement impedance is controlled by the processor as a function of the operating frequency and of the nominal load impedance of the amplifier. - measurement of the output current and voltage of the amplifier, - calculation of the complex impedance (Zm) defined by the ratio between this voltage and this current taking into account their phase difference, this impedance representing a current load impedance of the amplifier, - calculation of the impedance of the antenna Z ant as a function of this current load impedance and as a function of the known current values of the adjustable impedances of the matching network, - calculation of new values for the adjustable impedances of the matching network which allow an overall load impedance of the amplifier to be obtained as close as possible to the nominal load impedance, based on the calculated value of antenna impedance, - control of the matching network for adjusting the adjustable impedances to these new values,
A textile machine comprising: a plurality of fiber processing units that are arranged side by side; a shared device that is commonly provided for the plurality of fiber processing units; a condition acquiring device configured to acquire information related to at least one of a condition of a fiber processing unit and a condition of the shared device; and a plurality of attachment bases (90A, 90B, 90C) provided on a plurality of parts of at least one of the fiber processing units and the shared device, wherein the condition acquiring device is attached to one of the attachment bases (90A, 90B, 90C), characterized in that the condition acquiring device includes: a plurality of information acquiring units (77, 78, 79) each of which is configured to acquire a different type of information related to the condition; a casing that houses the information acquiring units (77, 78, 79); and an attaching portion provided on the casing and configured to be attached to one of the attachment bases (90A, 90B, 90C) in a removable manner. a plurality of fiber processing units that are arranged side by side; a shared device that is commonly provided for the plurality of fiber processing units; a condition acquiring device configured to acquire information related to at least one of a condition of a fiber processing unit and a condition of the shared device; and a plurality of attachment bases (90A, 90B, 90C) provided on a plurality of parts of at least one of the fiber processing units and the shared device, wherein the condition acquiring device is attached to one of the attachment bases (90A, 90B, 90C), characterized in that the condition acquiring device includes: a plurality of information acquiring units (77, 78, 79) each of which is configured to acquire a different type of information related to the condition; a casing that houses the information acquiring units (77, 78, 79); and an attaching portion provided on the casing and configured to be attached to one of the attachment bases (90A, 90B, 90C) in a removable manner. a plurality of information acquiring units (77, 78, 79) each of which is configured to acquire a different type of information related to the condition; a casing that houses the information acquiring units (77, 78, 79); and an attaching portion provided on the casing and configured to be attached to one of the attachment bases (90A, 90B, 90C) in a removable manner.
Method of treating the wastewater from isophorone production by A) neutralization of the alkaline wastewater from isophorone production to a pH of 6.5 to 8.5; B) filtration of the mixture of liquid and solids obtained from the neutralization; C) oxidation of the filtrate obtained from the filtration; D) reduction of the oxidant in the wastewater from the oxidation C). A) neutralization of the alkaline wastewater from isophorone production to a pH of 6.5 to 8.5; B) filtration of the mixture of liquid and solids obtained from the neutralization; C) oxidation of the filtrate obtained from the filtration; D) reduction of the oxidant in the wastewater from the oxidation C).
A coated biosensor device comprising at least one coating, wherein the coating comprises a composition comprising a hydrogel matrix and a protein covalently attached to the hydrogel matrix, said matrix comprising poly(ethylene glycol) dimethyacrylate (PEGDMA) with a molecular weight of about 1000, 2-hydroxy-2-methyl propiophenone (HMPP) and at least one acrylate, wherein the acrylate is selected from the group consisting of methacrylic acid and methyl methacrylate, wherein the ratio of PEGDMA:Acrylate is from 10:90 mol% to 90:10 mol%, and said HMPP is at a concentration of from 0.2% to 0.6%, total weight, wherein the composition is cured onto the device, and wherein the coated device is implantable in a subject.
Method of operating a metallurgical plant in which a monitoring device with at least a first camera is used, characterised in that the monitoring device is mobile, is driven by a compressed-air motor and in the region of the metallurgical plant is freely movable on a substantially planar surface, and that at least one required operating process of the metallurgical plant is remotely controlled on the basis of the set image range of the first camera, by which a region of the metallurgical plant is monitored.