mhurhangee/ep-ind-claims huggingface dataset:
A laminate material for use in covering surfaces in an aircraft characterized in that the laminate material comprises: a) a top layer formed by coating a poly(vinyl halide) or a poly(vinylidene halide) film with a flame retarded multiblock copolymer of a cross-linkable thermoplastic or thermoset copolyamide, copolyester, styrenic or polyurethane; b) at least one PVC middle layer, foamed or unfoamed, adjacent the poly(vinyl halide) or poly(vinylidene halide) film layer; c) a poly(vinyl fluoride) or poly(vinylidene fluoride) layer adjacent that at least one PVC middle layer; and wherein the laminate meets or exceeds FAA regulations; wherein the PVC middle layer includes at least one flame retardant; wherein the poly(vinyl fluoride) or a poly(vinylidene fluoride) layer is between 0.0127 and 0.0762 mm (0.5 and 3.0 mils) thick; wherein at least one PVC layer is between 0.0580 and 0.635 mm (2 and 25 mils thick; and wherein the top layer has a thickness in the range 0.0127 and 0.0762 mm (0.5 and 3.0 mils). a) a top layer formed by coating a poly(vinyl halide) or a poly(vinylidene halide) film with a flame retarded multiblock copolymer of a cross-linkable thermoplastic or thermoset copolyamide, copolyester, styrenic or polyurethane; b) at least one PVC middle layer, foamed or unfoamed, adjacent the poly(vinyl halide) or poly(vinylidene halide) film layer; c) a poly(vinyl fluoride) or poly(vinylidene fluoride) layer adjacent that at least one PVC middle layer; and wherein the laminate meets or exceeds FAA regulations; wherein the PVC middle layer includes at least one flame retardant; wherein the poly(vinyl fluoride) or a poly(vinylidene fluoride) layer is between 0.0127 and 0.0762 mm (0.5 and 3.0 mils) thick; wherein at least one PVC layer is between 0.0580 and 0.635 mm (2 and 25 mils thick; and wherein the top layer has a thickness in the range 0.0127 and 0.0762 mm (0.5 and 3.0 mils). wherein the laminate meets or exceeds FAA regulations; wherein the PVC middle layer includes at least one flame retardant; wherein the poly(vinyl fluoride) or a poly(vinylidene fluoride) layer is between 0.0127 and 0.0762 mm (0.5 and 3.0 mils) thick; wherein at least one PVC layer is between 0.0580 and 0.635 mm (2 and 25 mils thick; and wherein the top layer has a thickness in the range 0.0127 and 0.0762 mm (0.5 and 3.0 mils).
Method for adapting a pressure (p) of a hydraulic pump of a traction drive, wherein the traction drive is provided with the hydraulic pump for the purpose of supplying pressure medium to a hydraulic motor, which can be coupled to an output, of the traction drive, wherein the pressure (p) generated by the hydraulic pump can be controlled by influencing an actuation pressure (p a, p b), wherein the method comprises the following steps: a. calculating a maximum permissible actuation pressure (p amax, p bmax) taking into account a swept volume (V P) of the hydraulic pump or a quantity (α P) representing this swept volume (V P), the rotation speed (n P) of the hydraulic pump and a maximum permissible pressure (p max) of the hydraulic pump; b. sensing the currently generated pressure (p) of the hydraulic pump; c. comparing the currently generated pressure (p) of the hydraulic pump with the maximum permissible pressure (p max); and d. adapting the maximum permissible actuation pressure (p amax, p bmax) taking into account the difference between the current pressure (p) of the hydraulic pump and the maximum permissible pressure (p max) by way of a learning factor, which is a parameter of a pump characteristic or a pump characteristic curve or a calculation specification, being corrected, wherein the learning factor is learned in step d., wherein the learning factor is permanently stored in a control device, so that the learned factor will already be available at restart. a. calculating a maximum permissible actuation pressure (p amax, p bmax) taking into account a swept volume (V P) of the hydraulic pump or a quantity (α P) representing this swept volume (V P), the rotation speed (n P) of the hydraulic pump and a maximum permissible pressure (p max) of the hydraulic pump; b. sensing the currently generated pressure (p) of the hydraulic pump; c. comparing the currently generated pressure (p) of the hydraulic pump with the maximum permissible pressure (p max); and d. adapting the maximum permissible actuation pressure (p amax, p bmax) taking into account the difference between the current pressure (p) of the hydraulic pump and the maximum permissible pressure (p max) by way of a learning factor, which is a parameter of a pump characteristic or a pump characteristic curve or a calculation specification, being corrected, wherein the learning factor is learned in step d., wherein the learning factor is permanently stored in a control device, so that the learned factor will already be available at restart.
A compressed gas operated instrument comprising a connector for a compressed gas cartridge to which the compressed gas cartridge is connectable in sealed manner by a supply channel for compressed gas flowing out of the compressed gas cartridge, and also comprising a regulating valve in the supply channel which governs the stream of compressed gas flowing through the supply channel, wherein the regulating valve comprises a valve body which is mounted in a valve chamber through which the supply channel extends, said valve body being displaceable in the valve chamber and sealed with respect to the wall of the valve chamber by means of a first seal, wherein the valve body is connected on the upstream side thereof in sealed manner to a connector element by means of a second seal and is also displaceable with respect to the connector element by displacement thereof in the valve chamber, wherein the connector element comprises a continuous flow channel and is connected at the inlet end thereof to the supply channel in sealed manner, wherein the valve body comprises a flow passage which is connected at the outlet end thereof to the supply channel (66, 18) located downstream of the valve chamber, wherein the valve body is displaceable in the valve chamber against the direction of flow between an open position in which there is a flowing connection between the flow channel of the connector element and the flow passage of the valve body and a closed position in which the valve body abuts in sealed manner against the flow channel of the connector element thereby closing it, wherein the valve body is biased in the direction of the open position by a spring element, wherein the cross-sectional area of the valve body surrounded by the first seal is larger than the cross-sectional area surrounded by the second seal, wherein the connector element is pressed by a spring element and/or by the pressure downstream of the valve body into a sealing position in which the connector element tightly abuts against the supply channel entering the valve chamber and thereby connects said supply channel in gas-tight manner to the flow channel in the connector element, and is displaceable against the effect of the spring element from the supply channel into a disengaged position in which the supply channel entering the valve chamber is open into the part of the valve chamber that is located upstream of the first seal and wherein the ratio of the cross-sectional area of the valve body located downstream to the cross-sectional area of the connector element located upstream is larger than the ratio of the pressure in the compressed gas cartridge to the regulated pressure downstream of the valve body at ambient temperature and is smaller than the ratio of these pressures at temperatures that are significantly higher compared to the ambient temperature.
A process for coating frozen confection stick products, the process comprising. providing a chamber having two open ends, two sides and a base;. providing at least one pair of apertures, wherein one aperture of each pair is located on each side of the chamber, and wherein the apertures are vertical slots;. supplying a liquid coating material to each aperture thereby forming curtains of the liquid coating material; and. conveying the frozen confection through the chamber with the stick uppermost so that the frozen confection passes through the curtains of coating material.. providing a chamber having two open ends, two sides and a base;. providing at least one pair of apertures, wherein one aperture of each pair is located on each side of the chamber, and wherein the apertures are vertical slots;. supplying a liquid coating material to each aperture thereby forming curtains of the liquid coating material; and. conveying the frozen confection through the chamber with the stick uppermost so that the frozen confection passes through the curtains of coating material.
A method of handling blanks made of packaging material for cigarette packs, in particular of the soft-pack type, wherein the blanks are kept in a stack in a magazine, and wherein the blanks are removed from the magazine and fed to a packaging machine for cigarette packs, in particular to a soft-pack packaging machine, wherein the blanks are fed to a coding station for providing a coding (19, 20) on the blanks, and wherein the blanks, following the coding operation, are brought together to form a blank stream with overlapping of adjacent blanks and are transferred to the packaging machine, characterized in that a plurality of magazines with blanks are provided, from which blanks are removed one after the other in order to ensure an essentially gap-free blank stream, and in that a plurality of magazines are combined to form a magazine carousel, and in that the blanks from a plurality of magazine carousels are fed, each by a separate conveyor, to the coding station, and in that the blanks, following removal from the magazine, in the first instance are transported along the conveyor in a blank stream with overlapping of adjacent blanks, and in that the blanks of the blank stream are then separated and fed to the coding station, and in that the positioning of the blanks is checked as the latter are being fed to the coding station, and in that incorrect positioning of the blanks is compensated for by appropriate control of the coding station.
A laser device comprising: a substrate; at least a first epitaxial semiconductor structure including an active layer, an upper cladding layer and a lower cladding layer; a first and a second reflective facet (126; 128) and sidewalls (122, 124) dry etched in said structure to form a discrete laser mesa; at least a first electrode on said structure, wherein the first electrode is a p-contact metal layer; a dielectric masking layer defining a ridge in the upper cladding layer; a protective layer covering the facets (126; 128) and all surfaces of said semiconductor structure within 750 nm of the boundary of said facets (126; 128); wherein the p-contact metal layer is above and in direct contact with the protective layer and the protective layer is above and in direct contact with the dielectric masking layer on the ridge; a contact window in the protective layer and the dielectric masking layer, wherein the p-contact metal layer extends beyond edges of the contact window and completely seals the contact window in the dielectric masking layer and the protective layer; wherein the protective layer covering the side surface of the ridge, the remaining top and side surface of the mesa, the facets (126, 128) and the bottom of a groove formed when etching the mesa. a substrate; at least a first epitaxial semiconductor structure including an active layer, an upper cladding layer and a lower cladding layer; a first and a second reflective facet (126; 128) and sidewalls (122, 124) dry etched in said structure to form a discrete laser mesa; at least a first electrode on said structure, wherein the first electrode is a p-contact metal layer; a dielectric masking layer defining a ridge in the upper cladding layer; a protective layer covering the facets (126; 128) and all surfaces of said semiconductor structure within 750 nm of the boundary of said facets (126; 128); wherein the p-contact metal layer is above and in direct contact with the protective layer and the protective layer is above and in direct contact with the dielectric masking layer on the ridge; a contact window in the protective layer and the dielectric masking layer, wherein the p-contact metal layer extends beyond edges of the contact window and completely seals the contact window in the dielectric masking layer and the protective layer; wherein the protective layer covering the side surface of the ridge, the remaining top and side surface of the mesa, the facets (126, 128) and the bottom of a groove formed when etching the mesa.
A computer-implemented method of collecting data in a wireless network to be analyzed for optimizing network performance, said wireless network including one or more wireless infrastructure devices providing a network service and one or more client devices consuming a network service, the method comprising the steps of: (a) capturing a stream of radio frequency, RF, signal data in the network for said one or more wireless infrastructure devices and said one or more client devices; (b) dividing each stream of RF signal data by time into periodic intervals per location; (c) converting the divided RF signal data into events of interest, each event of interest defined by attributes including at least the time when the event happened and a unique identifier of a wireless infrastructure device and/or a client device generating the event; (d) repeating (a), (b), and (c) a plurality of times; (e) detecting a change in an event of interest from a wireless infrastructure device and/or a client device; and (f) providing the change in the event of interest detected in (e) to an analyzer for identifying anomalies in the network for use in determining a corrective action to improve network performance, wherein the network performance is defined by one or more of the following attributes: connectivity, throughput, responsiveness, retry percentage, coverage, signal strength, and percentage utilization of the wireless spectrum across multiple wireless technologies. (a) capturing a stream of radio frequency, RF, signal data in the network for said one or more wireless infrastructure devices and said one or more client devices; (b) dividing each stream of RF signal data by time into periodic intervals per location; (c) converting the divided RF signal data into events of interest, each event of interest defined by attributes including at least the time when the event happened and a unique identifier of a wireless infrastructure device and/or a client device generating the event; (d) repeating (a), (b), and (c) a plurality of times; (e) detecting a change in an event of interest from a wireless infrastructure device and/or a client device; and (f) providing the change in the event of interest detected in (e) to an analyzer for identifying anomalies in the network for use in determining a corrective action to improve network performance, wherein the network performance is defined by one or more of the following attributes: connectivity, throughput, responsiveness, retry percentage, coverage, signal strength, and percentage utilization of the wireless spectrum across multiple wireless technologies.
A sound signal receiving and decoding method to be performed by a terminal apparatus connected to a first communication line and a second communication line with a lower priority level than the first communication line, the method comprising: a reception step of, for a predetermined frame among a plurality of frames, outputting a monaural code included in a first code string input from the first communication line and an extended code with the closest frame number to that of the monaural code among extended codes included in a second code string input from the second communication line, and for a frame other than the predetermined frame, outputting the monaural code included in the first code string input from the first communication line and the most recent extended code among extended codes that have already been output; and a decoding step of, for each frame, obtaining and outputting decoded digital sound signals of C (C being an integer that is at least 2) channels based on the monaural code output in the reception step and the extended code output in the reception step. a reception step of, for a predetermined frame among a plurality of frames, outputting a monaural code included in a first code string input from the first communication line and an extended code with the closest frame number to that of the monaural code among extended codes included in a second code string input from the second communication line, and for a frame other than the predetermined frame, outputting the monaural code included in the first code string input from the first communication line and the most recent extended code among extended codes that have already been output; and a decoding step of, for each frame, obtaining and outputting decoded digital sound signals of C (C being an integer that is at least 2) channels based on the monaural code output in the reception step and the extended code output in the reception step.
A tissue illumination system (700, 800) comprising: at least one radiation source configured to generate dual-colored radiation with: first radiation in a first wavelength band at a first intensity, the first radiation having a peak wavelength, λ 1; and second radiation in a second wavelength band at a second intensity, the second radiation having a peak wavelength, λ 2; and a radiation delivery unit configured to deliver the first radiation and the second radiation towards tissue of a subject; wherein an intensity ratio of the first intensity relative to the second intensity is between 0.2 and 1; and wherein the peak wavelength λ 1 of the first wavelength band and the peak wavelength λ 2 of the second wavelength band are selected such that they satisfy the following relationships: { 640 ≤ λ 1 ≤ 740 nm 470 ≤ λ 2 ≤ 530 nm λ 1 ≥ 3816 λ 2 − 425 + 594 nm λ 1 ≤ 7694 λ 2 − 425 + 594 nm; and wherein the first radiation and the second radiation each has a spectral full-width-at-half-maximum of between 40 nm and 150 nm. at least one radiation source configured to generate dual-colored radiation with: first radiation in a first wavelength band at a first intensity, the first radiation having a peak wavelength, λ 1; and second radiation in a second wavelength band at a second intensity, the second radiation having a peak wavelength, λ 2; and first radiation in a first wavelength band at a first intensity, the first radiation having a peak wavelength, λ 1; and second radiation in a second wavelength band at a second intensity, the second radiation having a peak wavelength, λ 2; and a radiation delivery unit configured to deliver the first radiation and the second radiation towards tissue of a subject; wherein an intensity ratio of the first intensity relative to the second intensity is between 0.2 and 1; and wherein the peak wavelength λ 1 of the first wavelength band and the peak wavelength λ 2 of the second wavelength band are selected such that they satisfy the following relationships: { 640 ≤ λ 1 ≤ 740 nm 470 ≤ λ 2 ≤ 530 nm λ 1 ≥ 3816 λ 2 − 425 + 594 nm λ 1 ≤ 7694 λ 2 − 425 + 594 nm; and wherein the first radiation and the second radiation each has a spectral full-width-at-half-maximum of between 40 nm and 150 nm.
An eyewear frame structure for holding at least one lens thereto, the eyewear frame structure comprising: a base frame including an upper member extending between opposed ends of the base frame, the opposed ends configured with respective enlarged end sections for providing pivotal connections to temples of the eyewear frame structure, and defining a groove in a front side of the upper member thereof, the groove extending along a length of the upper member; a front frame molded to the front side of the upper member of the base frame and thereby attached thereto, the front frame including an elongate member attached to a front side of the upper member of the base frame, the elongate member of the front frame being partially received in the groove of the base frame; a comfort bar molded to the base frame and thereby attached thereto, the comfort bar disposed on a back side of the upper member of the base frame; and a plurality of vent passages extending through the frame structure, each of the vent passages including a substantially horizontal section defined between the base frame and the front frame and a substantially vertical section defined between the base frame and the comfort bar, wherein the substantially horizontal section of the vent passage comprises a top surface defined on the base frame and a bottom surface defined on the front frame, and wherein the substantially vertical section of the vent passage comprises a front surface thereof defined on the base frame and a rear surface defined on the comfort bar. a base frame including an upper member extending between opposed ends of the base frame, the opposed ends configured with respective enlarged end sections for providing pivotal connections to temples of the eyewear frame structure, and defining a groove in a front side of the upper member thereof, the groove extending along a length of the upper member; a front frame molded to the front side of the upper member of the base frame and thereby attached thereto, the front frame including an elongate member attached to a front side of the upper member of the base frame, the elongate member of the front frame being partially received in the groove of the base frame; a comfort bar molded to the base frame and thereby attached thereto, the comfort bar disposed on a back side of the upper member of the base frame; and a plurality of vent passages extending through the frame structure, each of the vent passages including a substantially horizontal section defined between the base frame and the front frame and a substantially vertical section defined between the base frame and the comfort bar, wherein the substantially horizontal section of the vent passage comprises a top surface defined on the base frame and a bottom surface defined on the front frame, and wherein the substantially vertical section of the vent passage comprises a front surface thereof defined on the base frame and a rear surface defined on the comfort bar.