mhurhangee/ep-ind-claims huggingface dataset:
A method for generating either a scroll command or an up-down-left-right, UDLR, command using a control element of a three-dimensional, 3D, pointing device, wherein the control element is a control pad configured to detect motion of an object across a surface of the control pad and to generate a set of input information according to the detected motion, the method comprising: selecting an operational mode for the 3D pointing device, the operational mode being one of a scroll mode and an UDLR mode, for generating any of a scroll command or an UDLR command; detecting, by the control pad, a motion of an object across the surface of the control pad; and determining a set of input information associated with the detected motion, the set of information including information indicating a direction, a distance, and a rate for the detected motion; and based on the input information for the detected motion: generating a scroll command corresponding to the input information on condition that the scroll mode is selected, and generating an UDLR command corresponding to the input information on condition that the UDLR mode is selected. selecting an operational mode for the 3D pointing device, the operational mode being one of a scroll mode and an UDLR mode, for generating any of a scroll command or an UDLR command; detecting, by the control pad, a motion of an object across the surface of the control pad; and determining a set of input information associated with the detected motion, the set of information including information indicating a direction, a distance, and a rate for the detected motion; and based on the input information for the detected motion: generating a scroll command corresponding to the input information on condition that the scroll mode is selected, and generating an UDLR command corresponding to the input information on condition that the UDLR mode is selected. generating a scroll command corresponding to the input information on condition that the scroll mode is selected, and generating an UDLR command corresponding to the input information on condition that the UDLR mode is selected.
An infrared imaging lens system comprising in order from an object side: a first lens formed of silicon whose minimum transmittance of infrared rays with a wavelength of 8μm to 13μm is at least 40% for a thickness of 1mm; and a second lens formed of chalcogenide glass, wherein the infrared imaging lens system further comprises an aperture stop disposed between the first lens and the second lens, wherein the first lens is a meniscus lens convex to the object side and wherein the second lens is a meniscus lens convex to the image side; wherein an object side surface of the first lens is spherical, and an image side surface of the first lens is spherical; wherein an object side surface of the second lens is aspherical, and an image side surface of the second lens is aspherical; and wherein a following formula is satisfied where f represents a focal length of the entire system, and f1 represents a focal length of the first lens: 1.1 ≤ f 1 / f ≤ 1.6. a first lens formed of silicon whose minimum transmittance of infrared rays with a wavelength of 8μm to 13μm is at least 40% for a thickness of 1mm; and a second lens formed of chalcogenide glass, wherein the infrared imaging lens system further comprises an aperture stop disposed between the first lens and the second lens, wherein the first lens is a meniscus lens convex to the object side and wherein the second lens is a meniscus lens convex to the image side; wherein an object side surface of the first lens is spherical, and an image side surface of the first lens is spherical; wherein the first lens is a meniscus lens convex to the object side and wherein the second lens is a meniscus lens convex to the image side; wherein an object side surface of the first lens is spherical, and an image side surface of the first lens is spherical; wherein an object side surface of the second lens is aspherical, and an image side surface of the second lens is aspherical; and wherein a following formula is satisfied where f represents a focal length of the entire system, and f1 represents a focal length of the first lens: 1.1 ≤ f 1 / f ≤ 1.6.
A system for personnel at readily accessible locations comprising: one or more electrical, mechanical, transmitting and receiving devices, microprocessors and controllers configured to relay and/or switch on from a normally open configuration or off from a normally closed configuration, the source or line supply of all potentially hazardous equipment or energized/charged systems in a facility; a visible and/or audible indicator configured to allow a first responder or system maintenance crew to have definitive on or off status of the source or line supply; said system configured to require a lockout code sequence and/or mechanical lock out apparatus to re-energize the source or line supply; and wherein a modular main control panel enclosure containing a communications module is configured to: transmit and receive data to/from junction boxes/enclosures that are paired to the devices, and a processor board handling all front panel peripherals, displays, devices, and interaction, interfacing the main control box to external devices, and for supporting protocols for remote operation and telemetry, data logging for performance and forensic applications, and interaction with security and/or fire systems. one or more electrical, mechanical, transmitting and receiving devices, microprocessors and controllers configured to relay and/or switch on from a normally open configuration or off from a normally closed configuration, the source or line supply of all potentially hazardous equipment or energized/charged systems in a facility; a visible and/or audible indicator configured to allow a first responder or system maintenance crew to have definitive on or off status of the source or line supply; said system configured to require a lockout code sequence and/or mechanical lock out apparatus to re-energize the source or line supply; and wherein a modular main control panel enclosure containing a communications module is configured to: transmit and receive data to/from junction boxes/enclosures that are paired to the devices, and a processor board handling all front panel peripherals, displays, devices, and interaction, interfacing the main control box to external devices, and for supporting protocols for remote operation and telemetry, data logging for performance and forensic applications, and interaction with security and/or fire systems.
A method, comprising: receiving a predetermined object pattern representing a portion of a three-dimensional object, wherein said predetermined object pattern includes voxel data organized into a bitmap pattern of pixels and which includes a grayscale value and/or an exposure time for each pixel; generating a predetermined pattern generator calibration pattern; receiving an image of the generated predetermined pattern generator calibration pattern (412,414); determining the difference of said predetermined calibration pattern (412, 414) and said image; generating a pattern correction map for said pattern generator (102,104) based on said difference, and generating a modified pattern using said correction map by modifying said pattern utilizing said correction map to correct for geometric distortion, said generated pattern interacting with a reactive material to form the reactive material into said portion of said three-dimensional object defined by said predetermined object pattern, wherein the reactive material reacts with an electromagnetic radiation from said pattern generator, wherein the reaction is a solidification or partial solidification of the reactive material. receiving a predetermined object pattern representing a portion of a three-dimensional object, wherein said predetermined object pattern includes voxel data organized into a bitmap pattern of pixels and which includes a grayscale value and/or an exposure time for each pixel; generating a predetermined pattern generator calibration pattern; receiving an image of the generated predetermined pattern generator calibration pattern (412,414); determining the difference of said predetermined calibration pattern (412, 414) and said image; generating a pattern correction map for said pattern generator (102,104) based on said difference, and generating a modified pattern using said correction map by modifying said pattern utilizing said correction map to correct for geometric distortion, said generated pattern interacting with a reactive material to form the reactive material into said portion of said three-dimensional object defined by said predetermined object pattern, wherein the reactive material reacts with an electromagnetic radiation from said pattern generator, wherein the reaction is a solidification or partial solidification of the reactive material.
A spray nozzle in which a conical main hole which becomes narrower toward an injection side front end of a nozzle body is formed at a center of an injection-side front-end surface of a main flow path formed along a central axis of the nozzle body with said main hole communicating with said main flow path; and a pair of auxiliary holes (12, 13) is formed at both sides of said main hole in a width direction thereof with said auxiliary holes (12, 13) communicating with said main flow path and said main hole; said auxiliary holes (12, 13) are formed in an oblong shape; long-side portions of said auxiliary holes (12, 13) opposed to each other with said auxiliary holes (12, 13) sandwiching said main hole therebetween and both side portions of said main hole are communicated with each other; and a cut is formed on an injection side end surface of said nozzle body to form an injection port by cutting out an arc-shaped front end portion of said main hole with said cut. characterised in that: a ratio of a major axis dimension of the auxiliary holes (12, 13) to a rear-end diameter of the main hole is set to: D1:D2 = 1:0.7 to 1:1.2; and the cut is formed in a diametrical direction parallel with a major axis direction of the auxiliary holes (12, 13). a ratio of a major axis dimension of the auxiliary holes (12, 13) to a rear-end diameter of the main hole is set to: D1:D2 = 1:0.7 to 1:1.2; and the cut is formed in a diametrical direction parallel with a major axis direction of the auxiliary holes (12, 13).
A wearable computing device, comprising: an outer covering defining an outer-most top surface and an outer perimeter; an internal volume defined, at least in part, by an inner surface of the outer covering; an electronic display and an electronic display module connector arranged within the internal volume; at least one biometric sensor electrode (122, 124) positioned on the outer-most top surface of the outer covering and wrapping around one or more side edges of the outer covering to the internal volume; a printed circuit board arranged within the internal volume; and a conductive component electrically connecting the at least one biometric sensor electrode to the printed circuit board through the electronic display module connector. an outer covering defining an outer-most top surface and an outer perimeter; an internal volume defined, at least in part, by an inner surface of the outer covering; an electronic display and an electronic display module connector arranged within the internal volume; at least one biometric sensor electrode (122, 124) positioned on the outer-most top surface of the outer covering and wrapping around one or more side edges of the outer covering to the internal volume; a printed circuit board arranged within the internal volume; and a conductive component electrically connecting the at least one biometric sensor electrode to the printed circuit board through the electronic display module connector.
A current control method for a charger that supplies current to components and a battery, wherein: the components are electric components (74, 75, 76); the charger is an on-board charger mounted in a vehicle and configured to supply current to the electric components and the battery from a high-voltage system in which the electric components and the battery are connected in common; and the method comprises identifying first electric components (75, 76) configured to compute consumption of current based on their own operating states from among the electric components, computing a sum of a charging current of the battery and a drive current to be supplied to the first electric components as an output current value, and supplying (S111, S115) output current, while reducing the output current to the output current value, from the on-board charger to the high-voltage system to supply current not consumed by the electric components to the battery, and changing the operating state of one of the first electric components (75, 76) after the output current has been reduced to the output current value, wherein the electric components include second electric components not configured to compute consumption of current based on their own operating states. the components are electric components (74, 75, 76); the charger is an on-board charger mounted in a vehicle and configured to supply current to the electric components and the battery from a high-voltage system in which the electric components and the battery are connected in common; and the method comprises identifying first electric components (75, 76) configured to compute consumption of current based on their own operating states from among the electric components, computing a sum of a charging current of the battery and a drive current to be supplied to the first electric components as an output current value, and supplying (S111, S115) output current, while reducing the output current to the output current value, from the on-board charger to the high-voltage system to supply current not consumed by the electric components to the battery, and changing the operating state of one of the first electric components (75, 76) after the output current has been reduced to the output current value, wherein the electric components include second electric components not configured to compute consumption of current based on their own operating states.
A high-lift industrial truck, wherein a load pick-up device (24, 26) can be brought to desired positions of height by means of a linearly working lifting device, the lifting device being supported on a frame of the industrial truck, and wherein linearly working lifting drives (16, 18, 20) acting independently are provided with a lower part, fixed in the linear direction, and an upper part, movable in the linear direction, and wherein the lower parts are attached to the frame such that their support points have a distance from each other in the longitudinal and the transversal direction of the industrial truck, whereas their height-adjustable upper parts are connected to a stiff lifting platform, wherein the stiff lifting platform is supported via three linear lifting drives, working independently form each other and constructed as lifting cylinders (16, 18, 20), and two lifting cylinders (16, 18) are supported on the front end of the frame and arranged symmetrically to the longitudinal axis of the industrial truck, characterised in that the load pick-up device (24, 26) comprises a load fork, which is attached to the lifting platform by means of a lifting drive between the two lifting cylinders (16, 18) that are supported on the front end of the frame and arranged symmetrically to the longitudinal axis of the industrial truck.
Distributor boom for an agricultural distribution machine, having - a plurality of boom portions (12, 14a, 14b, 16a, 16b, 18a, 18b) that are pivotable relative to one another; - a joint arrangement (24a, 24b) that is arranged between two boom portions (16a, 16b, 18a, 18b) and is set up to allow a pivoting movement of an external boom portion (18a, 18b) about an upright axis; and - a restoring device (38a, 38b) that counteracts any pivoting of the external boom portion (18a, 18b) out of a working position; characterized in that the restoring device (38a, 38b) has a restoring cylinder (40a, 40b), the longitudinal axis (42a, 42b) of which extends substantially flush with the central axis (28a, 28b) of a force absorption strut (26a, 26b) of the external boom portion (18a, 18b), said strut extending substantially transversely to the direction of travel in the working position; and in that the joint arrangement (24a, 24b) is arranged beneath the restoring device (38a, 38b). - a plurality of boom portions (12, 14a, 14b, 16a, 16b, 18a, 18b) that are pivotable relative to one another; - a joint arrangement (24a, 24b) that is arranged between two boom portions (16a, 16b, 18a, 18b) and is set up to allow a pivoting movement of an external boom portion (18a, 18b) about an upright axis; and - a restoring device (38a, 38b) that counteracts any pivoting of the external boom portion (18a, 18b) out of a working position;
A roof spoiler mounting bracket assembly for mounting a roof spoiler to a roof panel of an automotive vehicle, said mounting bracket assembly comprising; a vehicle-side bracket having upper and lower sides (22, 24) extending longitudinally between first and second ends (26, 28) and laterally between first and second edges (34, 36); a spoiler-side bracket having upper and lower sides (69, 70) extending longitudinally between first and second ends (82, 84) and laterally between first and second edges (86, 88), said spoiler-side bracket having a unitary recessed section for receiving said vehicle-side bracket at least partially therein, said spoiler-side bracket adapted to be fixedly secured to the roof spoiler; a first mounting bolt extending from said lower side of said vehicle-side bracket for fixedly securing said vehicle-side bracket to the roof panel; and a second mounting bolt extending from said upper side of said vehicle-side bracket opposite said first mounting bolt for fixedly securing said vehicle-side bracket to said spoiler-side bracket and thereby mounting the roof spoiler to the roof panel; characterised in that said vehicle-side bracket includes a first slot extending through said upper and lower sides for receiving said first mounting bolt therethrough to fixedly secure said vehicle-side bracket to the roof panel and a second slot extending through said upper and lower sides for receiving said second mounting bolt therethrough to fixedly secure the vehicle-side bracket to the spoiler-side bracket; and wherein said spoiler-side bracket further includes a bore hole extending through said upper and lower sides for receiving said second mounting bolt therethrough and a bolt retainer seated in said bore hole for engaging said second mounting bolt and fixedly securing said vehicle-side bracket to said spoiler-side bracket.
A method of managing content delivery between a server and a client over a network, wherein the content comprises a plurality of segments, and each segment having an associated delivery deadline, said method comprising: (i) determining a minimum packet dispatch rate for the packets of each segment, based on the delivery deadline associated with each segment; (ii) transmitting the packets of a segment over the network at a packet dispatch rate at least equal to the minimum packet dispatch rate, and determining the resulting packet loss rate in the network; (iii) determining a network quality of experience parameter based on the determined packet loss rate in the network; (iv) determining a predicted quality of experience of the next segment to be transmitted; (v) comparing the predicted quality of experience with the network quality of experience; and (vi) adjusting the packet transmission rate for the next segment in dependence on the result of the comparing step, whilst maintaining the packet dispatch rate at the minimum packet dispatch rate or higher. (i) determining a minimum packet dispatch rate for the packets of each segment, based on the delivery deadline associated with each segment; (ii) transmitting the packets of a segment over the network at a packet dispatch rate at least equal to the minimum packet dispatch rate, and determining the resulting packet loss rate in the network; (iii) determining a network quality of experience parameter based on the determined packet loss rate in the network; (iv) determining a predicted quality of experience of the next segment to be transmitted; (v) comparing the predicted quality of experience with the network quality of experience; and (vi) adjusting the packet transmission rate for the next segment in dependence on the result of the comparing step, whilst maintaining the packet dispatch rate at the minimum packet dispatch rate or higher.
A method for producing an electric resistance welded steel pipe or tube of high carbon steel, comprising the steps of: forming a raw material steel sheet into an approximately cylindrical shape by a cold working; and subsequently, performing a butt electric resistance welding on opposed end surfaces to form an electric resistance welded steel pipe or tube, wherein the raw material steel sheet is a high carbon steel sheet which has a composition consisting of, by mass%, C: 0.30 to 0.60%, Si: 0.05 to 0.50%, Mn: 0.30 to 2.0%, Al: 0.50% or less, and N: 0.0100% or less, optionally one element or two or more elements selected from the group consisting of Cu: 1.0% or less, Ni: 1.0% or less, Cr: 1.2% or less, Mo: 1.0% or less, and W: 1.5% or less, optionally one element or two or more elements selected from the group consisting of Ti: 0.04% or less, Nb: 0.2% or less, and V: 0.2% or less and optionally B: 0.0005 to 0.0050%, and the balance is Fe and incidental impurities, and wherein the method further comprises the steps of: after the butt electric resistance welding, performing a cold-reducing at a reducing rate of 0.8% or less; subsequently, immediately after the cold-reducing, reheating or cooling and reheating; and performing a hot-reducing rolling in a temperature range of 850°C or more at a reducing rate of diameter of 10% or more. forming a raw material steel sheet into an approximately cylindrical shape by a cold working; and subsequently, performing a butt electric resistance welding on opposed end surfaces to form an electric resistance welded steel pipe or tube, wherein the raw material steel sheet is a high carbon steel sheet which has a composition consisting of, by mass%, C: 0.30 to 0.60%, Si: 0.05 to 0.50%, Mn: 0.30 to 2.0%, Al: 0.50% or less, and N: 0.0100% or less, optionally one element or two or more elements selected from the group consisting of Cu: 1.0% or less, Ni: 1.0% or less, Cr: 1.2% or less, Mo: 1.0% or less, and W: 1.5% or less, optionally one element or two or more elements selected from the group consisting of Ti: 0.04% or less, Nb: 0.2% or less, and V: 0.2% or less and optionally B: 0.0005 to 0.0050%, and the balance is Fe and incidental impurities, and wherein the method further comprises the steps of: after the butt electric resistance welding, performing a cold-reducing at a reducing rate of 0.8% or less; subsequently, immediately after the cold-reducing, reheating or cooling and reheating; and performing a hot-reducing rolling in a temperature range of 850°C or more at a reducing rate of diameter of 10% or more. after the butt electric resistance welding, performing a cold-reducing at a reducing rate of 0.8% or less; subsequently, immediately after the cold-reducing, reheating or cooling and reheating; and performing a hot-reducing rolling in a temperature range of 850°C or more at a reducing rate of diameter of 10% or more.