mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a sawline for logs , which sawline comprises conveying means for conveying a log in the sawline , and a processing apparatus for processing the log , in which method - the log is fed into the sawline , - the log is conveyed onwards in the longitudinal direction in the sawline , - the overall length of the log is determined, and - the log is guided into the processing apparatus , with which the log is processed at the same time, when the log is conveyed onwards in the sawline , characterized in that the length of the part of the log that is outside the processing apparatus is determined with a camera apparatus , and the location of the end of the log in the processing apparatus is determined on the basis of the overall length of the log and on the basis of the length of the part of the log that is outside the processing apparatus . - the log is fed into the sawline , - the log is conveyed onwards in the longitudinal direction in the sawline , - the overall length of the log is determined, and - the log is guided into the processing apparatus , with which the log is processed at the same time, when the log is conveyed onwards in the sawline ,
Aircraft cooling system with: - a ram air duct ; - a nozzle disposed in the ram air duct and connected to a first water-carrying conduit ; and - a refrigeration device comprising: -- a heat exchanger thermally coupled to the cold generating device and adapted to release waste heat generated by the cold generating device to cooling air present in the ram air duct , -- a first water separator adapted to separate water from the air cooled by the refrigeration equipment , and -- a water outlet designed to discharge water obtained in the first water separator into the first water-carrying pipe , characterised in that the water outlet has an inlet adapted to be connected to a second water-carrying line , the water outlet being further adapted to create a negative pressure at the inlet . - a ram air duct ; - a nozzle disposed in the ram air duct and connected to a first water-carrying conduit ; and - a refrigeration device comprising: -- a heat exchanger thermally coupled to the cold generating device and adapted to release waste heat generated by the cold generating device to cooling air present in the ram air duct , -- a first water separator adapted to separate water from the air cooled by the refrigeration equipment , and -- a water outlet designed to discharge water obtained in the first water separator into the first water-carrying pipe , -- a heat exchanger thermally coupled to the cold generating device and adapted to release waste heat generated by the cold generating device to cooling air present in the ram air duct , -- a first water separator adapted to separate water from the air cooled by the refrigeration equipment , and -- a water outlet designed to discharge water obtained in the first water separator into the first water-carrying pipe ,
Autonomous field device for process automation having a sensor, a wireless module and a fastening device for fastening the field device on a wall , characterized in that the fastening device has at least a two-part design and is formed such that a first, sensor-side part of the fastening device can be installed from a first side of the wall and a second part of the fastening device can be installed from a second side of the wall , wherein the parts of the fastening device form a mechanical first interface penetrating the wall in order to fasten the field device on the wall in this manner, wherein at least one part of the fastening device is designed to penetrate the wall , wherein the first part has a bolt-shaped extension of circular cylindrical design to form the mechanical interface, wherein the second part of the fastening device is arranged on the side of the wall opposite the first part of the fastening device and can be mechanically connected to the bolt-shaped extension of the first part , wherein the parts of the fastening device form a second interface for signal and/or energy transmission. the fastening device has at least a two-part design and is formed such that a first, sensor-side part of the fastening device can be installed from a first side of the wall and a second part of the fastening device can be installed from a second side of the wall , wherein the parts of the fastening device form a mechanical first interface penetrating the wall in order to fasten the field device on the wall in this manner, wherein at least one part of the fastening device is designed to penetrate the wall , wherein the first part has a bolt-shaped extension of circular cylindrical design to form the mechanical interface, wherein the second part of the fastening device is arranged on the side of the wall opposite the first part of the fastening device and can be mechanically connected to the bolt-shaped extension of the first part , wherein the parts of the fastening device form a second interface for signal and/or energy transmission.
A method for interconnecting flashing members of a flashing element for use between a roof window and a surrounding roof structure , where a first flashing member and a second flashing member are each provided with a hem, said hem being defined by an edge section of the flashing member, which has been folded along a hem fold line so that a hem pocket is present between the edge section and an adjacent section of the flashing member, and where a free edge of the edge section of the first flashing member extending along its hem fold line is arranged in the hem pocket of the second flashing member , and a free edge of the edge section of the second flashing member extending along its hem fold line is arranged in the hem pocket of the first flashing member thereby forming a seam where the two edge sections extend in substantially parallel planes, characterized in that a local locking depression is formed at the seam , thereby deforming the material of both the first flashing member and the second flashing member so that they are prevented from moving in relation to each other and so that the total thickness of the first and second flashing member in the deformed state at the bottom of the depression, measured from the exterior side of the flashing element up to the deepest point of the depression on the opposite, interior side of the flashing element, is 0.8 - 1.3 mm.
A refillable fluid product dispenser comprising a dispensing head (T) comprising a dispensing member (D), such as a pump or a valve, a variable-volume reservoir (R) and a filling valve connected to the reservoir (R), wherein the dispensing member (D) is provided with a dip tube which passes through the reservoir, a sliding member comprising a movable piston sliding in sealed contact around the dip tube so as to vary the volume of the reservoir (R), the sliding member being movable between a depressed position in which the sliding member is located in the vicinity of the dispensing member (D) and an extended position in which the sliding member is at a distance from the dispensing member (D), the reservoir (R) defining a maximum volume in the depressed position and a minimum volume in the extended position, so that the volume of the reservoir (R) grows when the sliding member is depressed around the dip tube towards the dispensing member (D), characterized in that the dip tube is provided with a fixed piston which slides in sealed contact in a movable barrel formed by the sliding member , the movable piston sliding around the dip tube between the dispensing member (D) and the fixed piston , the reservoir (R) being axially delimited between the movable piston and the fixed piston and radially between the dip tube and the movable barrel .
A natural gas liquefaction installation , arranged at the surface of a body of water , including: - at least one air-cooled heat exchanger , the air-cooled heat exchanger including a tube bundle capable of receiving a flow to be cooled , and a fan capable of causing a flow of air to circulate across the bundle of tubes ; - a water spraying assembly ; - a desalination assembly including a salt water pickup in the body of water , the desalination assembly being coupled downstream to the water-spraying assembly , characterized by : the water-spraying assembly including at least one spray nozzle emerging in the tube bundle , the or each spray nozzle being directed towards the tubes of the tube bundle so as to spray liquid demineralized water coming from the desalination assembly into contact with the tubes of the tube bundle . the tube bundle having several levels of tubes, the water-spraying assembly including at least a first spray nozzle emerging across from the tubes of a first level of tubes and at least one second spray nozzle emerging across from the tubes of a second level of tubes. - at least one air-cooled heat exchanger , the air-cooled heat exchanger including a tube bundle capable of receiving a flow to be cooled , and a fan capable of causing a flow of air to circulate across the bundle of tubes ; - a water spraying assembly ; - a desalination assembly including a salt water pickup in the body of water , the desalination assembly being coupled downstream to the water-spraying assembly , the water-spraying assembly including at least one spray nozzle emerging in the tube bundle , the or each spray nozzle being directed towards the tubes of the tube bundle so as to spray liquid demineralized water coming from the desalination assembly into contact with the tubes of the tube bundle . the tube bundle having several levels of tubes, the water-spraying assembly including at least a first spray nozzle emerging across from the tubes of a first level of tubes and at least one second spray nozzle emerging across from the tubes of a second level of tubes.
A vehicle front portion structure comprising: a pair of front side members extending in a vehicle front-rear direction, the front side members being disposed at an interval in a vehicle width direction; an MC cross-member suspended between the front side members , the MC cross-member being provided with a front cross portion extending in the vehicle width direction and a rear cross portion provided behind the front cross portion and extending in the vehicle width direction, and an opening portion vertically penetrating the MC cross-member being formed in a central portion of the MC cross-member ; and motor mounts (28A, 28B; 28L, 28R) configured to connect a high-voltage component to the MC cross-member ; the vehicle front portion structure being characterized in that at least one motor mount (28A, 28B; 28L, 28R) is suspended between the front cross portion and the rear cross portion, with the opening portion of the MC cross-member interposed between front and rear end portions of said at least one motor mount (28A, 28B; 28L, 28R) in the vehicle front-rear direction. a pair of front side members extending in a vehicle front-rear direction, the front side members being disposed at an interval in a vehicle width direction; an MC cross-member suspended between the front side members , the MC cross-member being provided with a front cross portion extending in the vehicle width direction and a rear cross portion provided behind the front cross portion and extending in the vehicle width direction, and an opening portion vertically penetrating the MC cross-member being formed in a central portion of the MC cross-member ; and motor mounts (28A, 28B; 28L, 28R) configured to connect a high-voltage component to the MC cross-member ;
A method for candling eggs, consisting in examining the eggs by a visiometric process under illumination and image capture conditions that are sensitive to a luminous contrast being observed within each egg, between the liquid area within the egg shell and the complementary air area of the air chamber possibly existing in the shell, wherein the eggs travel in successive rows within a visiometric station including a capture camera for digital images , characterized in that the camera is sensitive to the light retrodiffused from the interior of each egg under illumination by a light beam focused on egg, without mechanical contact, and where the obtained image signals are submitted to an automatic treatment wherein it is determined, for several distinct points across each egg, if they present a contrast level representative of the presence of an air chamber by comparison of the contrast level with predetermined values.
Display arrangement, comprising - a display , - a ferrite layer and - a conducting line of an antenna , characterized in that the display arrangement comprises a conductive shield arranged at the display , wherein the conductive shield covers a first area of a first main surface of the display at which the conducting line is arranged, and wherein the ferrite layer is arranged between the conducting line and the conductive shield . - a display , - a ferrite layer and - a conducting line of an antenna ,
A method for encoding a video stream using a neural network, the method comprising: a) determining video encoding parameters for a section from an unencoded video stream with a video encoder; b) providing the video encoding parameters for the section to one or more trained neural networks wherein the one or more trained neural networks are trained to predict other video encoding parameters; c) predicting other video encoding parameters from the provided video encoding parameters with the one or more trained neural networks; d) determining a prediction error of the predicted other video encoding parameters from the one or more neural networks and actual encoding parameters from the video encoder, and encoding the prediction error for sections of the video stream that have errors in prediction; e) encoding the unencoded video stream without encoding parameters for sections that have no prediction error. a) determining video encoding parameters for a section from an unencoded video stream with a video encoder; b) providing the video encoding parameters for the section to one or more trained neural networks wherein the one or more trained neural networks are trained to predict other video encoding parameters; c) predicting other video encoding parameters from the provided video encoding parameters with the one or more trained neural networks; d) determining a prediction error of the predicted other video encoding parameters from the one or more neural networks and actual encoding parameters from the video encoder, and encoding the prediction error for sections of the video stream that have errors in prediction; e) encoding the unencoded video stream without encoding parameters for sections that have no prediction error.
Orthopedic shoe sole or insole for persons with hallux valgus, wherein the orthopedic shoe sole or insole supports at least the Digitis Pedis I to V and the ball of the foot when walking or in a static state, in particular the entire foot from the Digitis Pedis I to V to the heel, wherein the orthopedic shoe sole or insole comprises a main part and an element movably connected thereto, the movable element being located under and supporting the Digitis Pedis I and the main part being located at least under and supporting the Digitis Pedis II to V and the ball of the foot, wherein the movable element is movably connected to the main part so as to rotate about an axis in a horizontal plane within the limits of the joint of the Digitis Pedis I and the ball of the foot, characterized by the fact that there is a cavity in the main part of the shoe sole or insole under the Digitis Pedis II to V and/or the transverse arch of the foot, in which cavity a hydraulic, mechanical, pneumatic, electric or other device is installed, which is connected to the movable element and causes the rotary movement in the horizontal plane laterally away from the main part during a walking movement, in particular caused by the pressure force caused by the patient's own weight on the orthopedic shoe sole or insole. wherein the orthopedic shoe sole or insole comprises a main part and an element movably connected thereto, the movable element being located under and supporting the Digitis Pedis I and the main part being located at least under and supporting the Digitis Pedis II to V and the ball of the foot, wherein the movable element is movably connected to the main part so as to rotate about an axis in a horizontal plane within the limits of the joint of the Digitis Pedis I and the ball of the foot, characterized by the fact that there is a cavity in the main part of the shoe sole or insole under the Digitis Pedis II to V and/or the transverse arch of the foot, in which cavity a hydraulic, mechanical, pneumatic, electric or other device is installed, which is connected to the movable element and causes the rotary movement in the horizontal plane laterally away from the main part during a walking movement, in particular caused by the pressure force caused by the patient's own weight on the orthopedic shoe sole or insole.
A pump assembly comprising - a rotor axle extending along a rotor axis (R), - an impeller fixed to the rotor axle , - a pump housing accommodating the impeller , wherein the pump housing defines a first radial inner reference surface , - a drive motor comprising a stator and a rotor , wherein the rotor is fixed to the rotor axle for driving the impeller , - a rotor can accommodating the rotor , wherein the rotor can comprises a rotor can flange , - a stator housing accommodating the stator , - a first radial bearing ring being in sliding contact with the rotor axle , and - a bearing retainer embracing the first radial bearing ring and centring the first radial bearing ring with respect to the first radial inner reference surface of the pump housing , wherein the rotor can flange has a radial distance (H) to the pump housing , and wherein the rotor can flange comprises an annular contact surface facing towards the impeller , characterised in that the rotor can comprises a radial inner centring surface being centred by radially abutting against a radial outer centring surface of the bearing retainer , the bearing retainer comprises an annular biasing surface facing away from the impeller , wherein the bearing retainer is resiliently preloaded for biasing the annular biasing surface of the bearing retainer against the annular contact surface of the rotor can flange , and wherein the annular contact surface of the rotor can flange and/or the annular biasing surface of the bearing retainer have at least three axial projections . - a rotor axle extending along a rotor axis (R), - an impeller fixed to the rotor axle , - a pump housing accommodating the impeller , wherein the pump housing defines a first radial inner reference surface , - a drive motor comprising a stator and a rotor , wherein the rotor is fixed to the rotor axle for driving the impeller , - a rotor can accommodating the rotor , wherein the rotor can comprises a rotor can flange , - a stator housing accommodating the stator , - a first radial bearing ring being in sliding contact with the rotor axle , and - a bearing retainer embracing the first radial bearing ring and centring the first radial bearing ring with respect to the first radial inner reference surface of the pump housing , wherein the rotor can flange has a radial distance (H) to the pump housing , and wherein the rotor can flange comprises an annular contact surface facing towards the impeller ,
A process for in-situ removal of sulfur, oxygen transfer media production, and sour gas combustion using calcium looping combustion while producing a product stream, comprising the steps of: calcining CaCO 3 in an air reactor to produce a calcium-based transfer media; transferring the calcium-based transfer media from the air reactor to a fuel reactor; delivering sour gas into the fuel reactor, wherein the sour gas has an H2S concentration of 0.1 to 75 wt %; reducing the calcium-based transfer media disposed within the fuel reactor to provide gas-phase oxygen; oxidizing the reduced calcium-based transfer media with air in the air reactor to produce a calcium-based oxygen transfer media; delivering the calcium-based oxygen transfer media from the air reactor to a riser; transferring the clean sour gas from the fuel reactor to the riser; combusting the sour gas within the riser to produce the product stream which includes the reduced calcium-based transfer media; removing the reduced calcium-based transfer media from the product stream; re-oxidizing the reduced calcium-based transfer media with air in the air reactor to produce the calcium-based oxygen transfer media; and delivering the calcium-based oxygen transfer media back to the riser. calcining CaCO 3 in an air reactor to produce a calcium-based transfer media; transferring the calcium-based transfer media from the air reactor to a fuel reactor; delivering sour gas into the fuel reactor, wherein the sour gas has an H2S concentration of 0.1 to 75 wt %; reducing the calcium-based transfer media disposed within the fuel reactor to provide gas-phase oxygen; oxidizing the reduced calcium-based transfer media with air in the air reactor to produce a calcium-based oxygen transfer media; delivering the calcium-based oxygen transfer media from the air reactor to a riser; transferring the clean sour gas from the fuel reactor to the riser; combusting the sour gas within the riser to produce the product stream which includes the reduced calcium-based transfer media; removing the reduced calcium-based transfer media from the product stream; re-oxidizing the reduced calcium-based transfer media with air in the air reactor to produce the calcium-based oxygen transfer media; and delivering the calcium-based oxygen transfer media back to the riser.