Abstract: Systems, devices, and method for managing data processing systems are disclosed. The data processing systems may be capable of operating in various manners. To manage the data processing systems, onboarding processes may be performed to conform the operation of the data processing systems to meet the expectations of owners of the data processing systems. To facilitate onboarding, onboarding payloads may be generated in a domain in which data necessary for onboarding is available. The onboarding payloads may be transferred to data processing systems in domains in which the necessary data is not available to onboard the data processing systems.

Abstract: Systems, devices, and methods for managing operation of data processing systems are disclosed. To manage operation of the data processing systems, onboarding processes may be performed to conform the operation of the data processing systems to meet the expectations of owners of the data processing systems. During onboarding, keys usable to verify subsequently issued commands may be obtained by the data processing systems. The data processing systems may perform verifications processes for issued commands that rely on a root of trust established with the keys rather than identifies of entities that may issue the commands for command verification.

Abstract: Systems, devices, and methods for managing data processing systems are disclosed. The data processing systems may be capable of operating in various manners. To manage the data processing systems, onboarding processes may be performed to conform the operation of the data processing systems to meet the expectations of owners of the data processing systems. To manage security policies of the data processing systems during onboarding, ownership vouchers may be generated to provide data necessary for onboarding that defines security policies, hardware policies, and ownership of the data processing systems. The ownership voucher may be deployed to data processing systems during onboarding to reduce the likelihood of undesired use and/or interactions with the data processing systems.

Abstract: A dimmable induction RF fluorescent lamp comprising a dimming circuit enabling the induction RF fluorescent lamp to dim in response to a signal from an external dimming circuit, and having a main mercury amalgam having a vapor pressure at room temperature which is higher than the vapor pressure of the mercury amalgam formed on the flag.

Abstract: An induction RF fluorescent lamp having a bulbous vitreous portion of the induction RF fluorescent light bulb including a lamp envelope filled with a working gas mixture. The lamp includes a power coupler and an electronic ballast. A first metallic structure is attached to a cavity wall and extends outwardly radially therefrom and within the lamp envelope outside a re-entrant cavity including mercury. The first metallic structure is mounted within the lamp envelope and adapted to absorb power from the electric field and induce discharge during a turn-on phase of the induction RF fluorescent lamp in a manner sufficient to rapidly heat and vaporize the mercury and promote rapid luminous development during the turn-on phase of the induction RF fluorescent lamp.

Abstract: An induction RF fluorescent lamp, comprising a vitreous envelope filled with a working gas mixture, a power coupler comprising at least one winding of an electrical conductor for receiving an alternating voltage and current to generate an alternating magnetic field and thereby induce an alternating electric field within the lamp envelope, an electronic ballast providing appropriate voltage and current to the power coupler and a main mercury amalgam having a vapor pressure at room temperature which is higher than the vapor pressure of the mercury amalgam formed on the flag.

Abstract: A waterfowl decoy continuous motion system is provided. A self-propelled floating decoy is tethered to a submerged line supported below the surface of a body of water by stakes driven into the water bottom. The decoy has a skeg attached to the bottom of the decoy. The skeg is positioned at an angle offset from a longitudinal axis extending along the length of the body of the decoy. The tether is slidably attached to the submerged line, and a swivel located on the tether allows the decoy to rotate freely. The decoy is guided by the line as it moves across the surface of the water. When the tether reaches a stopper near each end of the line, the decoy makes a 180-degree turn in an arcing path and then travels in the opposite direction. The decoy repeats this process in a continuous loop.

Abstract: A waterfowl decoy motion system comprises a self-propelled floating decoy tethered to a submerged line supported below the surface of a body of water by stakes driven into the water bottom. A thruster is attached to the bottom of the decoy such that the direction of propulsion is offset from a longitudinal axis extending along the length of the decoy by an angle of at least one degree. The tether is slidably attached to the submerged line, and a swivel located on the tether allows the decoy to rotate freely. The decoy is guided by the line as it moves across the surface of the water. When the tether reaches a stopper near each end of the line, the offset propulsion angle causes the decoy to turn in an arcing path, turn around, and travel in the opposite direction. The decoy repeats this process in a continuous loop.

Abstract: A waterfowl decoy motion system comprises a self-propelled floating decoy tethered to a submerged line supported below the surface of a body of water by stakes driven into the water bottom. A thruster is attached to the bottom of the decoy such that the direction of propulsion is offset from a longitudinal axis extending along the length of the decoy by an angle of at least one degree. The tether is slidably attached to the submerged line, and a swivel located on the tether allows the decoy to rotate freely. The decoy is guided by the line as it moves across the surface of the water. When the tether reaches a stopper near each end of the line, the offset propulsion angle causes the decoy to turn in an arcing path, turn around, and travel in the opposite direction. The decoy repeats this process in a continuous loop.

Abstract: A waterfowl decoy continuous motion system is provided. A self-propelled floating decoy is tethered to a submerged line supported below the surface of a body of water by stakes driven into the water bottom. The decoy has a skeg attached to the bottom of the decoy. The skeg is positioned at an angle offset from a longitudinal axis extending along the length of the body of the decoy. The tether is slidably attached to the submerged line, and a swivel located on the tether allows the decoy to rotate freely. The decoy is guided by the line as it moves across the surface of the water. When the tether reaches a stopper near each end of the line, the decoy makes a 180-degree turn in an arcing path and then travels in the opposite direction. The decoy repeats this process in a continuous loop.

Abstract: Disclosed are compounds that are conjugates of ladder frame polyether compounds and biologically active compounds or research compounds, pharmaceutical formulations comprising the conjugates, and methods of transporting the conjugates across biological membranes.

Abstract: A fast starting induction RF fluorescent lamp capable of changing illumination level through a burst-mode dimming facility, comprising a dimming facility enabling the induction RF fluorescent lamp to dim in response to a control signal, and with structures within the bulb envelope that facilitate rapid luminous development during a turn-on phase.

Abstract: A fast starting induction RF fluorescent lamp that is able to replace an ordinary incandescent light bulb, both in its ability to screw into a standard incandescent light bulb socket and to have the general look of the ordinary incandescent light bulb, but with all of the advantages of an induction lamp, as described herein. The present disclosure describes structures for an induction RF fluorescent lamp that includes a bulbous portion, an electronics portion, and a screw base, creating an external look that is similar to the profile of an ordinary incandescent light bulb, and with structures within the bulbous portion that facilitate rapid luminous development during the turn-on phase of the induction fluorescent lamp.

Abstract: A fast starting induction RF fluorescent lamp comprising a power coupler with conductive material in contact with the power coupler to reduce extraneous electromagnetic radiation emanating from the power coupler, and with structures within the bulb envelope that facilitate rapid luminous development during a turn-on phase.

Abstract: A fast starting dimmable induction RF fluorescent lamp comprising a dimming facility enabling the induction RF fluorescent lamp to dim in response to a signal from an external dimming device, and with structures within the bulb envelope that facilitate rapid luminous development during a turn-on phase.

Abstract: An induction RF fluorescent lamp, comprising: a lamp envelope with a re-entrant cavity and evacuation tube; a power coupler, wherein the power coupler is located inside the re-entrant cavity; an electronic ballast, wherein the electronic ballast provides appropriate voltage and current to the power coupler; and an amalgam held within a capsule located above the power coupler within the lamp envelope, wherein the capsule is positioned with a mount comprising at least one wire attached to the capsule and having at least two wire ends extending from the capsule into the evacuation tube with contact made between the wire ends and the interior surface of the evacuation tube of the re-entrant cavity.

Abstract: A processor controlled induction RF fluorescent lamp, where the processor controls a rapid startup function, the lamp comprising a lamp envelope filled with a gas mixture at less than typical atmospheric pressure, wherein the lamp envelope comprises at least one metallic structure for collecting mercury; a power coupler comprising at least one winding of an electrical conductor; an electronic ballast, wherein the electronic ballast provides appropriate voltage and current to the power coupler; and where the processor controls the rapid startup function to increase power at lamp startup to rapidly heat and vaporize the mercury collected on the at least one metallic structure to promote rapid luminous development during the turn-on phase of the induction RF fluorescent lamp.

Abstract: An induction RF fluorescent lamp, comprising a vitreous envelope filled with a working gas mixture, a power coupler comprising at least one winding of an electrical conductor for receiving an alternating voltage and current to generate an alternating magnetic field and thereby induce an alternating electric field within the lamp envelope, an electronic ballast providing appropriate voltage and current to the power coupler and a main mercury amalgam having a vapor pressure at room temperature which is higher than the vapor pressure of the mercury amalgam formed on the flag.

Abstract: A fast starting induction RF fluorescent lamp comprising an electronic ballast operating at greater than 5 MHz, and a lamp envelope with structures that facilitate rapid luminous development during a turn-on phase.

Abstract: An induction RF fluorescent lamp, comprising a lamp envelope and re-entrant cavity filled with a fluorescing gas mixture, a power coupler receiving an alternating voltage and current to generate an alternating magnetic field and thereby inducing an alternating electric field within the lamp envelope, a first metallic structure mounted within the lamp envelope in such a location and orientation to rapidly heat and vaporize mercury to promote rapid luminous development during the turn-on phase of the induction RF fluorescent lamp and a second metallic structure so as to promote electrical breakdown of the fluorescing gas mixture during the turn-on phase of the induction RF fluorescent lamp.