mhurhangee/ep-ind-claims huggingface dataset:
A method for characterizing a silicon germanium film, said method comprising: generating an X-ray beam; positioning a sample in a pathway of said X-ray beam; collecting an X-ray photoelectron spectroscopy signal generated by bombarding said sample with said X-ray beam; collecting an X-ray fluorescence signal generated by bombarding said sample with said X-ray beam; and determining a composition of the silicon germanium film from the XRF signal and the XPS signal, characterized by determining the composition of thin silicon germanium film on Si-containing substrate, using comparing the XRF signal and the XPS signal to a realistic material layer mixing model that scales the predicted intensity of an XPS Ge signal and an XRF Ge signal relative to a pure germanium film, constraining the remaining fraction of the silicon germanium film to Si. generating an X-ray beam; positioning a sample in a pathway of said X-ray beam; collecting an X-ray photoelectron spectroscopy signal generated by bombarding said sample with said X-ray beam; collecting an X-ray fluorescence signal generated by bombarding said sample with said X-ray beam; and determining a composition of the silicon germanium film from the XRF signal and the XPS signal, characterized by determining the composition of thin silicon germanium film on Si-containing substrate, using comparing the XRF signal and the XPS signal to a realistic material layer mixing model that scales the predicted intensity of an XPS Ge signal and an XRF Ge signal relative to a pure germanium film, constraining the remaining fraction of the silicon germanium film to Si.
A nasal nebulizer, comprising: (a) a main canister with a reservoir for holding fluid, wherein the canister includes at least two air exit ports; (b) an insert with a base that fits within said main canister, wherein said base holds the insert just off the main canister surface; the insert comprising a bottom part having a single channel provided therein to act as a conduit for fluid from the reservoir to enter the base; the insert further including at least two fluid channels at the top of the insert that mate with said air exit ports of the main canister, wherein the fluid channels are larger in diameter than the air exit ports, thereby providing a small space between the outer surface of the air exit ports and the inner surface of the fluid channels that allows fluid from said reservoir to be drawn upward between the air exit ports and fluid channels and expelled as a mist in an aerosol plume through exit holes in the fluid channels due to a venturi effect created by pressurized air from the air exit ports; and (c) at least one nozzle coupled to the bottom of said main canister to create at least one air chamber defined by the nozzle and said air exit ports, wherein the nozzle includes an air inlet for providing pressurized air into said air chamber. (a) a main canister with a reservoir for holding fluid, wherein the canister includes at least two air exit ports; (b) an insert with a base that fits within said main canister, wherein said base holds the insert just off the main canister surface; the insert comprising a bottom part having a single channel provided therein to act as a conduit for fluid from the reservoir to enter the base; the insert further including at least two fluid channels at the top of the insert that mate with said air exit ports of the main canister, wherein the fluid channels are larger in diameter than the air exit ports, thereby providing a small space between the outer surface of the air exit ports and the inner surface of the fluid channels that allows fluid from said reservoir to be drawn upward between the air exit ports and fluid channels and expelled as a mist in an aerosol plume through exit holes in the fluid channels due to a venturi effect created by pressurized air from the air exit ports; and (c) at least one nozzle coupled to the bottom of said main canister to create at least one air chamber defined by the nozzle and said air exit ports, wherein the nozzle includes an air inlet for providing pressurized air into said air chamber.
A computer program product comprising instructions which when executed on the storage device of claim 3 or the system in communication with a storage device of claim 8 manage spare space in the storage device by performing operations, the operations comprising: determining a current write amplification indicative of a ratio of storage writes to a media at the storage device and host writes from a host to the storage device; determining an adjustment to the current write amplification to produce an adjusted write amplification based on an estimated lifespan of the storage device, a maximum storage writes for the storage device, and the storage writes at the storage device since the storage device was powered-on; selecting one of a plurality of write amplification functions provided for different workloads at the storage device based on a current workload at the storage device; determining an adjustment to the spare space based on the adjusted write amplification and using the selected write amplification function, wherein the spare space comprises overprovisioned storage space not comprising user accessible storage; and initiating (407, 408) an operation to reconfigure the spare space and the free space available to the user to adjust the spare space by the determined adjustment to the spare space. determining a current write amplification indicative of a ratio of storage writes to a media at the storage device and host writes from a host to the storage device; determining an adjustment to the current write amplification to produce an adjusted write amplification based on an estimated lifespan of the storage device, a maximum storage writes for the storage device, and the storage writes at the storage device since the storage device was powered-on; selecting one of a plurality of write amplification functions provided for different workloads at the storage device based on a current workload at the storage device; determining an adjustment to the spare space based on the adjusted write amplification and using the selected write amplification function, wherein the spare space comprises overprovisioned storage space not comprising user accessible storage; and initiating (407, 408) an operation to reconfigure the spare space and the free space available to the user to adjust the spare space by the determined adjustment to the spare space.
A zeolitic adsorbent comprising at least one FAU zeolite and comprising barium and/or potassium, wherein the external surface area of said zeolitic adsorbent, measured by nitrogen adsorption, is greater than 20 m 2.g -1, preferably greater than 40 m 2.g -1, and more preferably comprised between 40 m 2.g -1 and 200 m 2.g -1, and even more preferably comprised between 60 m 2.g -1 and 200 m 2.g -1 inclusive, the external surface area being determined from the nitrogen adsorption isotherm obtained, by the t-plot method, applying standard ISO 15901-3:2007, and prior to adsorption, the zeolitic adsorbent being degassed between 300°C and 450°C for a time between 9 hours and 16 hours, under vacuum (P < 6.7×10 -4 Pa), and the number-average diameter of the crystalline elements (or "crystals") being between 0.5 μm and 20 μm.
A reducer casing structure, comprising: a front casing, and a rear casing; the front casing and the rear casing are sealedly connected, so that a cavity structure is formed therein for accommodating a reducer and the reducer casing structure further comprises a connecting column, the connecting column is provided in the cavity structure and is detachably connected between the front casing and the rear casing, the connection mode of the connecting column with the front casing and the rear casing is bolt connection, the connecting column is used to improve connection strength of the reducer casing structure, reduce casing vibration and improve noise, vibration, harshness, denoted as NVH performance of the reducer; the reducer casing structure is characterized in that: two ends of the connecting column are connected and fixed with the front casing and the rear casing respectively through one or more bolts. the front casing and the rear casing are sealedly connected, so that a cavity structure is formed therein for accommodating a reducer and the reducer casing structure further comprises a connecting column, the connecting column is provided in the cavity structure and is detachably connected between the front casing and the rear casing, the connection mode of the connecting column with the front casing and the rear casing is bolt connection, the connecting column is used to improve connection strength of the reducer casing structure, reduce casing vibration and improve noise, vibration, harshness, denoted as NVH performance of the reducer; the reducer casing structure is characterized in that: two ends of the connecting column are connected and fixed with the front casing and the rear casing respectively through one or more bolts.
A vehicle side structure (100; 101) comprising a side portion (102; 103) extending in a longitudinal direction, wherein the side portion comprises a first member extending in the longitudinal direction and a second member extending in the longitudinal direction, the first member being configured to face the inside of a vehicle, and the second member being configured to face the outside of the vehicle, wherein the first and second members (106, 108) are attached to one another to form a substantially closed space between them, wherein the side portion comprises a reinforcing member located in the substantially closed space, the reinforcement member extending in the longitudinal direction, wherein the reinforcement member has a first leg extending in a direction transverse to the longitudinal direction, wherein the reinforcement member has a second leg extending in a direction transverse to the longitudinal direction, wherein each leg has a foot (130, 132) extending in the longitudinal direction, wherein the feet (130, 132) of the first and second legs (126, 128) are spaced apart from one another, wherein the first and second legs (126, 128) are joined in a head section, wherein the head section faces the first or second member (106, 108), and the feet (130, 132) face the other member (106, 108) of the first and second members (106, 108), wherein each leg (126, 128) is corrugated in the longitudinal direction, wherein the corrugations of the first and second legs (126, 128) comprise ridges (136, 144) and grooves (138, 142), the ridges (136, 144) and grooves (138, 142) extending from the head section to the respective foot (132, 130), characterised in that, each ridge (136, 144) is more prominent in the head section than at the foot (130, 132), wherein the reinforcement member (124; 224) comprises a plurality of member sections (140; 240), wherein each member section (140; 240) comprises a ridge (144; 244) and a groove (142; 242) of the first leg (126; 226), wherein each member section (140; 240) comprises a ridge (136; 236) and a groove (138; 238) of the second leg (128; 228), and wherein each member section (140; 240) forms an S-shape in the head section. wherein each leg (126, 128) is corrugated in the longitudinal direction, wherein the corrugations of the first and second legs (126, 128) comprise ridges (136, 144) and grooves (138, 142), the ridges (136, 144) and grooves (138, 142) extending from the head section to the respective foot (132, 130), characterised in that, each ridge (136, 144) is more prominent in the head section than at the foot (130, 132), wherein the reinforcement member (124; 224) comprises a plurality of member sections (140; 240), wherein each member section (140; 240) comprises a ridge (144; 244) and a groove (142; 242) of the first leg (126; 226), wherein each member section (140; 240) comprises a ridge (136; 236) and a groove (138; 238) of the second leg (128; 228), and wherein each member section (140; 240) forms an S-shape in the head section.
A system comprising an electronic device for a vehicle and a server, wherein the electronic device for the vehicle comprises processing circuitry (110, 120, 130) configured to: determine weight information of the vehicle; receive, from other vehicles in a motorcade where the vehicle is used as a head vehicle, weight information of the other vehicles, generate vehicle information, which comprises the weight information of the vehicle and weight information of the respective vehicles in the motorcade; receive, from the other vehicles, size information of the other vehicles, which comprises a length, a width and a height of each of the other vehicles; include, in the vehicle information, a total length of the motorcade, a maximum width of the motorcade, and a maximum height of the motorcade; and send the vehicle information to the server; and receive road planning information for the motorcade from the server; and wherein the server comprises circuitry (210, 220, 230) configured to: receive, from the electronic device, the vehicle information comprising weight information of the vehicle, weight information of the respective vehicles in the motorcade, a total length of the motorcade, a maximum width of the motorcade, and a maximum height of the motorcade; determine road planning information for the motorcade based on the vehicle information of the motorcade, wherein the road planning information includes route planning information for the vehicle; and send the road planning information for the motorcade to the electronic device. determine weight information of the vehicle; receive, from other vehicles in a motorcade where the vehicle is used as a head vehicle, weight information of the other vehicles, generate vehicle information, which comprises the weight information of the vehicle and weight information of the respective vehicles in the motorcade; receive, from the other vehicles, size information of the other vehicles, which comprises a length, a width and a height of each of the other vehicles; include, in the vehicle information, a total length of the motorcade, a maximum width of the motorcade, and a maximum height of the motorcade; and send the vehicle information to the server; and receive road planning information for the motorcade from the server; receive, from the electronic device, the vehicle information comprising weight information of the vehicle, weight information of the respective vehicles in the motorcade, a total length of the motorcade, a maximum width of the motorcade, and a maximum height of the motorcade; determine road planning information for the motorcade based on the vehicle information of the motorcade, wherein the road planning information includes route planning information for the vehicle; and send the road planning information for the motorcade to the electronic device.
Portable electronic flight bag for use onboard an aircraft, comprising: a system configured to allow a selection of user configurable navigational data content (26, 28, 30, 32, 34, 36, 38, 40) associated with one or more flights; a system (42,44) configured to store in an electronic container said user selected configurable navigational data content, the user selected configurable navigational data content being stored for use onboard the aircraft during flight; and characterised by further comprising: a system for modifying said user configurable navigational data content, by a user of the electronic flight bag, onboard the aircraft during flight; and a system for storing said modified user configurable navigational data content in the electronic container. a system configured to allow a selection of user configurable navigational data content (26, 28, 30, 32, 34, 36, 38, 40) associated with one or more flights; a system (42,44) configured to store in an electronic container said user selected configurable navigational data content, the user selected configurable navigational data content being stored for use onboard the aircraft during flight; and characterised by further comprising: a system for modifying said user configurable navigational data content, by a user of the electronic flight bag, onboard the aircraft during flight; and a system for storing said modified user configurable navigational data content in the electronic container. a system for modifying said user configurable navigational data content, by a user of the electronic flight bag, onboard the aircraft during flight; and a system for storing said modified user configurable navigational data content in the electronic container.
A method of accelerated error testing for wireless battery management systems, the method comprising: providing at least one interference profile representing one or more interference signals for testing a battery management system, wherein the BMS includes a wireless network controller and at least one battery module monitoring system configured for wireless communication with the WNC; broadcasting, during a test of the BMS, the one or more interference signals generated from the at least one interference profile; recording packet reception data for the WNC during the test, wherein the packet reception data is based on packets wirelessly received by the WNC from the battery MMS; and determining, based on the packet reception data, a packet error rate, PER, of the WNC for the at least one interference profile during the test. providing at least one interference profile representing one or more interference signals for testing a battery management system, wherein the BMS includes a wireless network controller and at least one battery module monitoring system configured for wireless communication with the WNC; broadcasting, during a test of the BMS, the one or more interference signals generated from the at least one interference profile; recording packet reception data for the WNC during the test, wherein the packet reception data is based on packets wirelessly received by the WNC from the battery MMS; and determining, based on the packet reception data, a packet error rate, PER, of the WNC for the at least one interference profile during the test.
A touch panel comprising: a cover substrate including an active area and an unactive area; an intermediate layer disposed on the cover substrate; an electrode disposed on the intermediate layer; a printing layer disposed on the unactive area; and a wire electrode disposed on the printing layer, characterized in that the wire electrode makes contact with the intermediate layer, in that the intermediate layer comprises an acrylic resin composition, in that the intermediate layer is disposed on the active area and the unactive area, and in that the intermediate layer has a thickness in the range between 2 μm and 2.5 μ m. a cover substrate including an active area and an unactive area; an intermediate layer disposed on the cover substrate; an electrode disposed on the intermediate layer; a printing layer disposed on the unactive area; and a wire electrode disposed on the printing layer, characterized in that the wire electrode makes contact with the intermediate layer, in that the intermediate layer comprises an acrylic resin composition, in that the intermediate layer is disposed on the active area and the unactive area, and in that the intermediate layer has a thickness in the range between 2 μm and 2.5 μ m.
A storage battery comprising: a casing; a positive electrode of lead-based material; a negative electrode of mercury; and an electrolyte consisting of an aqueous solution of a salt of an alkali metal wherein the salt is selected from the group consisting of sulfates, carbonates, phosphates, silicates and borates; and further wherein, upon charging, the lead-based material is converted to lead dioxide and an amalgam is formed from the mercury and the alkali metal, and, upon discharging, the lead dioxide is reduced and the alkali metal from the amalgam is oxidized to form a positive ion which goes into solution. a casing; a positive electrode of lead-based material; a negative electrode of mercury; and an electrolyte consisting of an aqueous solution of a salt of an alkali metal wherein the salt is selected from the group consisting of sulfates, carbonates, phosphates, silicates and borates; and further wherein, upon charging, the lead-based material is converted to lead dioxide and an amalgam is formed from the mercury and the alkali metal, and, upon discharging, the lead dioxide is reduced and the alkali metal from the amalgam is oxidized to form a positive ion which goes into solution.
Duct arrangement, having: a metal hose which is corrugated at least in some sections; an inner component which is arranged radially inside the metal hose at least over part of the length thereof; and at least one coupling element (4, 4'), which coupling element is arranged between an outer crest of the metal hose and an outer surface of the inner component and which coupling element is designed to damp the metal hose by mechanical coupling to the inner component, wherein the at least one coupling element (4, 4') makes contact, on the one hand, with an outer crest of the metal hose and, on the other hand, with the outer surface of the inner component, at least during operation of the duct arrangement; characterised in that the inner component is in the form of a stripwound hose having profile gaps, and the coupling element (4, 4') is designed for engagement in profile gaps of the inner component and is preferably matched to a pitch of those profile gaps. a metal hose which is corrugated at least in some sections; an inner component which is arranged radially inside the metal hose at least over part of the length thereof; and at least one coupling element (4, 4'), which coupling element is arranged between an outer crest of the metal hose and an outer surface of the inner component and which coupling element is designed to damp the metal hose by mechanical coupling to the inner component, wherein the at least one coupling element (4, 4') makes contact, on the one hand, with an outer crest of the metal hose and, on the other hand, with the outer surface of the inner component, at least during operation of the duct arrangement; characterised in that the inner component is in the form of a stripwound hose having profile gaps, and the coupling element (4, 4') is designed for engagement in profile gaps of the inner component and is preferably matched to a pitch of those profile gaps.