mhurhangee/ep-ind-claims huggingface dataset:
A gear transmission system for a vehicle, said vehicle being equipped with front and rear wheels, said rear wheel being fixedly attached to a series of parallel drive sprockets driven by a drive member, comprising: a controller in force transmitting communication with a derailleur, said controller being located remote from said derailleur; said derailleur comprising a mount for attaching said derailleur proximate the drive sprockets of said vehicle, a shaft (13,15) having first and second ends, said mount fixedly supporting said shaft (13,15) at an angle substantially parallel to an angle created by said series of parallel drive sprockets, and at least one pulley wheel assembly translatable along said shaft (13,15) in response to a force transmitted by said controller; a gear centering device for biasing said pulley wheel and said drive means toward a position characterized by said drive member being aligned with one of said drive sprockets; said gear centering device comprising a plurality of tapered features (50,52) defining a plurality of positions characterized by said drive member being aligned with one of said drive sprockets, and at least one biased member for biasing said pulley wheel assembly toward one of said plurality of positions, and a single setting mechanism positioned on the derailleur that controls and limits starting and ending positions of the gear centering device. a controller in force transmitting communication with a derailleur, said controller being located remote from said derailleur; said derailleur comprising a mount for attaching said derailleur proximate the drive sprockets of said vehicle, a shaft (13,15) having first and second ends, said mount fixedly supporting said shaft (13,15) at an angle substantially parallel to an angle created by said series of parallel drive sprockets, and at least one pulley wheel assembly translatable along said shaft (13,15) in response to a force transmitted by said controller; a gear centering device for biasing said pulley wheel and said drive means toward a position characterized by said drive member being aligned with one of said drive sprockets; said gear centering device comprising a plurality of tapered features (50,52) defining a plurality of positions characterized by said drive member being aligned with one of said drive sprockets, and at least one biased member for biasing said pulley wheel assembly toward one of said plurality of positions, and a single setting mechanism positioned on the derailleur that controls and limits starting and ending positions of the gear centering device.
Polyamide molding material, having the following composition: (a) 20 to 85% by weight of at least one semi-crystalline polyamide, (b) 4 to 18% by weight of carbon fibers having a fiber diameter in the range of 2 to 10 μm, (c) 10 to 60% by weight of at least one particulate mineral or salt-like filler, (d) 3 to 30% by weight of at least one amorphous polymer having a glass transition temperature of at least 45°C as determined according to ISO 11357; if the at least one amorphous polymer comprises polyphenylene ether, the polyamide molding material contains 5 to 9% by weight of polyphenylene ether, (e) 0 to 20% by weight of carbon black, (f) 0 to 20% by weight of at least one further additive and/or adjuvant, wherein the components (a) to (f) add up in total to 100% by weight. (a) 20 to 85% by weight of at least one semi-crystalline polyamide, (b) 4 to 18% by weight of carbon fibers having a fiber diameter in the range of 2 to 10 μm, (c) 10 to 60% by weight of at least one particulate mineral or salt-like filler, (d) 3 to 30% by weight of at least one amorphous polymer having a glass transition temperature of at least 45°C as determined according to ISO 11357; if the at least one amorphous polymer comprises polyphenylene ether, the polyamide molding material contains 5 to 9% by weight of polyphenylene ether, (e) 0 to 20% by weight of carbon black, (f) 0 to 20% by weight of at least one further additive and/or adjuvant, wherein the components (a) to (f) add up in total to 100% by weight.
Industrial truck, in particular forklift truck or reach truck, with a driver's workstation and a driver's protective roof, which comprises an impact-resistant, transparent roof panel for protecting the driver, characterized in that the roof panel is provided with a display device, configured as a transparent display, for displaying information for the driver, wherein the display is connected to an electronic control device of the industrial truck and is configured for displaying vehicle and/or load and/or assistance and/or navigation information, including one or more of the following items of information: • load weight of a load picked up • overload indication • vehicle information, in particular momentary lifting height and/or momentary travelling speed and/or momentary tilting angle of the load pick-up means • restrictive vehicle responses • directional or turning indication of a warehouse navigation system • order information of a warehouse management system • product information of a consignment transported • Internet browser • symbols of an assistance system, in particular of a lifting-height assistance system and/or a tilting-angle assistance system of the load pick-up means. • load weight of a load picked up • overload indication • vehicle information, in particular momentary lifting height and/or momentary travelling speed and/or momentary tilting angle of the load pick-up means • restrictive vehicle responses • directional or turning indication of a warehouse navigation system • order information of a warehouse management system • product information of a consignment transported • Internet browser • symbols of an assistance system, in particular of a lifting-height assistance system and/or a tilting-angle assistance system of the load pick-up means.
An image processing apparatus comprising: • an information acquisition section configured to acquire setting information to set a motion vector to a second prediction unit in a second layer corresponding to a first prediction unit in a first layer of a scalable-video-decoded image containing the first layer and the second layer, which is higher than the first layer, the setting information being related to a motion vector set to the first prediction unit, wherein the setting information includes merge information showing whether the motion vector common to the first prediction unit and a prediction unit adjacent to the first prediction unit is set; and • a motion vector setting section configured to set the motion vector to the second prediction unit using the setting information acquired by the information acquisition section, • wherein the motion vector setting section is configured to set the motion vector common to the second prediction unit and a prediction unit adjacent to the second prediction unit according to the merge information, and • a compensation section configured to generate predicted image data of the second prediction unit using the motion vector set to the second prediction unit by the motion vector setting section and reference image data input from a frame memory. • an information acquisition section configured to acquire setting information to set a motion vector to a second prediction unit in a second layer corresponding to a first prediction unit in a first layer of a scalable-video-decoded image containing the first layer and the second layer, which is higher than the first layer, the setting information being related to a motion vector set to the first prediction unit, wherein the setting information includes merge information showing whether the motion vector common to the first prediction unit and a prediction unit adjacent to the first prediction unit is set; and • a motion vector setting section configured to set the motion vector to the second prediction unit using the setting information acquired by the information acquisition section, • wherein the motion vector setting section is configured to set the motion vector common to the second prediction unit and a prediction unit adjacent to the second prediction unit according to the merge information, and • a compensation section configured to generate predicted image data of the second prediction unit using the motion vector set to the second prediction unit by the motion vector setting section and reference image data input from a frame memory.
A method for determining an installation position for a rotary drive in a wind turbine, which has an adjustment device with a gear ring and with at least one rotary drive working together with the gear ring, which performs the following steps: - Approaching a rotary position of the gear ring with at least one of the rotary drives of the adjustment device, - Immobilizing the gear ring in the approached rotary position, - Applying a torque to the gear ring in a first rotational direction with a rotary drive, - Capturing of a value for a tooth flank backlash ZS for a tooth of a drive pinion of the rotary drive and saving the captured value for the tooth flank backlash ZS for the rotational direction, the rotary drive and the rotary position, - Repeating the procedure for several rotary positions and/or further rotary drives, - Determining a minimum tooth flank backlash Z fmin from the captured values for the tooth flank backlash, - Determining an installation position for the rotary drive, in which the minimum tooth flank backlash Z fmin is greater than or equal to a predetermined tooth flank backlash Z f. - Approaching a rotary position of the gear ring with at least one of the rotary drives of the adjustment device, - Immobilizing the gear ring in the approached rotary position, - Applying a torque to the gear ring in a first rotational direction with a rotary drive, - Capturing of a value for a tooth flank backlash ZS for a tooth of a drive pinion of the rotary drive and saving the captured value for the tooth flank backlash ZS for the rotational direction, the rotary drive and the rotary position, - Repeating the procedure for several rotary positions and/or further rotary drives, - Determining a minimum tooth flank backlash Z fmin from the captured values for the tooth flank backlash, - Determining an installation position for the rotary drive, in which the minimum tooth flank backlash Z fmin is greater than or equal to a predetermined tooth flank backlash Z f.
A refrigerant compressor (1; 20), comprising: compressor parts (2-17; 21-27) having sliding portions slidable relative to each other; and a lubricant applied to the sliding portions of the compressor parts (2-17; 21-27), characterized in that at least one of the sliding portions of the compressor parts (2-17; 21-27) has a hard carbon coating formed with a hydrogen content of 0.5 atomic% or less; and the lubricant is predominantly composed of a hydroxyl group containing compound. compressor parts (2-17; 21-27) having sliding portions slidable relative to each other; and a lubricant applied to the sliding portions of the compressor parts (2-17; 21-27), characterized in that at least one of the sliding portions of the compressor parts (2-17; 21-27) has a hard carbon coating formed with a hydrogen content of 0.5 atomic% or less; and the lubricant is predominantly composed of a hydroxyl group containing compound.
A nuclear reactor comprising: a reactor vessel enclosing a reactor core immersed in coolant; a containment vessel surrounding the reactor vessel; a containment region located between the containment vessel and the reactor vessel, wherein the containment region is substantially dry prior to a high pressure event within the reactor vessel; and means for releasing the coolant as steam from the reactor vessel into the containment region in response to the high pressure event, wherein the containment vessel comprises an inner wall for transferring a decay heat outside of the containment vessel, and wherein a condensation of the steam on the inner wall maintains a pressure of the steam released into the containment region. a reactor vessel enclosing a reactor core immersed in coolant; a containment vessel surrounding the reactor vessel; a containment region located between the containment vessel and the reactor vessel, wherein the containment region is substantially dry prior to a high pressure event within the reactor vessel; and means for releasing the coolant as steam from the reactor vessel into the containment region in response to the high pressure event, wherein the containment vessel comprises an inner wall for transferring a decay heat outside of the containment vessel, and wherein a condensation of the steam on the inner wall maintains a pressure of the steam released into the containment region.
A milking arrangement for an animal including a support structure for a milking cluster, wherein the milking cluster is moveable between an upper position (U P) and a lower position (L P) in relation to the support structure, the support structure including a stationary support arm having a projecting length (4 L) as seen in a horizontal direction with a suspension point from which the milking cluster is arranged to be suspended in a cord as it moves between the upper and lower positions (U P, L P), the support structure includes an inclined cluster slide surface, which is situated below the stationary support arm, the inclined cluster slide surface having a horizontal extension (7 H), as seen in the horizontal direction underneath the stationary support arm, towards a position vertically below the suspension point, so that the milking cluster will slide along the inclined cluster slide surface as the milking cluster moves between the upper position (U P) and the lower position (L P), wherein the support structure is forming a cabinet with a cleaning device for the milking cluster arranged inside the cabinet, wherein the inclined cluster slide surface is forming a cabinet door, which is turnable between a first position in which the cabinet is closed and a second position in which the cabinet is open for accessing the cleaning device for the milking cluster.
An underwater craft equipped with a winch for deploying a wideband-reception wired antenna (20; 40), the winch being equipped with a radiofrequency technology rotating collector, for connecting the antenna to the rest of the underwater craft, characterized in that the antenna is an optical fiber technology antenna whose end associated with the winch includes means for interfacing with the radiofrequency technology rotating connector of this winch, comprising means (26; 45) forming a converter for converting the signal coming from the optical fiber (24; 44) into a radiofrequency signal, whose output is connected by way of means forming a coaxial cable (29; 48) to the radiofrequency technology rotating collector of the winch.
A computer-implemented method comprising: defining a mark in point that designates a position in a file before which frames of the file are to be discarded, the file containing a plurality of frames; locating in the file the previous and the next independently-decodable key frame relative to the mark in point, the previous and next independently-decodable frames defining a range of frames corresponding to a portion of the plurality of frames of the file; decoding each frame of the range of frames in the file starting at the previous independently-decodable key frame through the next independently-decodable key frame; re-encoding a frame associated with the mark in point as a new independently-decodable key frame; calculating buffer fullness information associated with frames that have been decoded and ascertaining whether a constant bit rate condition will be violated when re-encoding the remaining frames in the file up to the next independently-decodable key frame and, if so, re-encoding the frames in the file up to the second next independently-decodable key frame relative to the mark in point, wherein the next independently-decodable key frame and the subsequent intermediate frames are decoded and re-encoded to comply with the constant bit rate condition, and otherwise, re-encoding the remaining frames in the file up to the next independently-decodable key frame. defining a mark in point that designates a position in a file before which frames of the file are to be discarded, the file containing a plurality of frames; locating in the file the previous and the next independently-decodable key frame relative to the mark in point, the previous and next independently-decodable frames defining a range of frames corresponding to a portion of the plurality of frames of the file; decoding each frame of the range of frames in the file starting at the previous independently-decodable key frame through the next independently-decodable key frame; re-encoding a frame associated with the mark in point as a new independently-decodable key frame; calculating buffer fullness information associated with frames that have been decoded and ascertaining whether a constant bit rate condition will be violated when re-encoding the remaining frames in the file up to the next independently-decodable key frame and, if so, re-encoding the frames in the file up to the second next independently-decodable key frame relative to the mark in point, wherein the next independently-decodable key frame and the subsequent intermediate frames are decoded and re-encoded to comply with the constant bit rate condition, and otherwise, re-encoding the remaining frames in the file up to the next independently-decodable key frame. if so, re-encoding the frames in the file up to the second next independently-decodable key frame relative to the mark in point, wherein the next independently-decodable key frame and the subsequent intermediate frames are decoded and re-encoded to comply with the constant bit rate condition, and otherwise, re-encoding the remaining frames in the file up to the next independently-decodable key frame.
A method for line-connected bidirectional communication between subscribers (1, 1a) in a position measuring system of a coordinate measuring device (98, 99), particularly having measurement sensors as subscribers (1, 1a), having in an arrangement of the subscribers (1, 1a) in a chain-shaped serial structure in which, apart from a first and a last of the subscribers in the serial structure, each of the subscribers is connected by means of a first communication interface to one of the subscribers (1, 1a) in front and by means of a second communication interface to one of the subscribers (1, 1a) behind, wherein each subscriber (1, 1a) has a message processing unit that can be used for controlling the first and second communication interfaces to send and/or receive a message independently of one another, and the communication by the message processing unit are effected by means of ▪ reception of the message as a digital data structure via the first communication interface, ▪ evaluation of an identifier region of the message, which region contains information about the message handling by the subscriber (1, 1a), by means of comparison of a content of the identifier region with prescribed setpoint criteria, and, ▪ on the basis of the comparison result, ∘ modification of the content of the identifier region of the message using a prescribed mapping function that uses the received content of the identifier region to determine a content that needs to be sent for the identifier region, with subsequent forwarding of the message that has had its identifier region modified via the second communication interface and/or ∘ processing of the message in the subscriber (1, 1a). ▪ reception of the message as a digital data structure via the first communication interface, ▪ evaluation of an identifier region of the message, which region contains information about the message handling by the subscriber (1, 1a), by means of comparison of a content of the identifier region with prescribed setpoint criteria, and, ▪ on the basis of the comparison result, ∘ modification of the content of the identifier region of the message using a prescribed mapping function that uses the received content of the identifier region to determine a content that needs to be sent for the identifier region, with subsequent forwarding of the message that has had its identifier region modified via the second communication interface and/or ∘ processing of the message in the subscriber (1, 1a). ∘ modification of the content of the identifier region of the message using a prescribed mapping function that uses the received content of the identifier region to determine a content that needs to be sent for the identifier region, with subsequent forwarding of the message that has had its identifier region modified via the second communication interface and/or ∘ processing of the message in the subscriber (1, 1a).
A reduced pressure generating assembly, comprising: a suction chamber with a longitudinal axis comprising a proximal end, a distal end, a distal end wall, a collection chamber and a working chamber; a piston assembly separating the collection chamber and the working chamber and configured to traverse the longitudinal axis of the suction chamber while maintaining a substantially airtight seal; a force exerting member within the working chamber, wherein a distal end of the force exerting member is attached to the piston assembly; characterised in that: the distal end wall comprises a distal opening and a conduit; the conduit comprises a conduit lumen with a conduit opening, which are in fluid communication with the collection chamber via the distal opening; the conduit further comprises an inner conduit located in the conduit lumen, in which the inner conduit comprises an inner conduit lumen and an inner conduit opening; and a chamber slit seal is located about the inner conduit opening, wherein the chamber slit seal is configured with a normally closed configuration to block fluid communication through the conduit lumen. a suction chamber with a longitudinal axis comprising a proximal end, a distal end, a distal end wall, a collection chamber and a working chamber; a piston assembly separating the collection chamber and the working chamber and configured to traverse the longitudinal axis of the suction chamber while maintaining a substantially airtight seal; a force exerting member within the working chamber, wherein a distal end of the force exerting member is attached to the piston assembly; characterised in that: the distal end wall comprises a distal opening and a conduit; the conduit comprises a conduit lumen with a conduit opening, which are in fluid communication with the collection chamber via the distal opening; the conduit further comprises an inner conduit located in the conduit lumen, in which the inner conduit comprises an inner conduit lumen and an inner conduit opening; and a chamber slit seal is located about the inner conduit opening, wherein the chamber slit seal is configured with a normally closed configuration to block fluid communication through the conduit lumen. the distal end wall comprises a distal opening and a conduit; the conduit comprises a conduit lumen with a conduit opening, which are in fluid communication with the collection chamber via the distal opening; the conduit further comprises an inner conduit located in the conduit lumen, in which the inner conduit comprises an inner conduit lumen and an inner conduit opening; and a chamber slit seal is located about the inner conduit opening, wherein the chamber slit seal is configured with a normally closed configuration to block fluid communication through the conduit lumen.