Abstract:
An inflatable game field system includes at least two inflatable modules, at least one connecting pipeline and one air inlet system connected to blower(s). The inflatable modules are connected by the connecting pipeline, and the air inlet connects to one of the module at one end and connects to a blower at the other end, so that the air flow coming from the blower can move freely between the modules. This game field system can be setup in various locations, formed different field sizes and provide a safe game field.
Abstract:
An inflatable game field system includes at least two inflatable modules, at least one connecting pipeline and one air inlet system connected to blower(s). The inflatable modules are connected by the connecting pipeline, and the air inlet connects to one of the module at one end and connects to a blower at the other end, so that the air flow coming from the blower can move freely between the modules. This game field system can be setup in various locations, formed different field sizes and provide a safe game field.
Abstract:
Described are methods and apparatuses, including computer program products, for igniting and/or sustaining a plasma in a reactive gas generator. Power is provided from an ignition power supply to a plasma ignition circuit. A pre-ignition signal of the plasma ignition circuit is measured. The power provided to the plasma ignition circuit is adjusted based on the measured pre-ignition signal and an adjustable pre-ignition control signal. The adjustable pre-ignition control signal is adjusted after a period of time has elapsed.
Abstract:
A method and apparatus for processing metal bearing gases involves generating a toroidal plasma in a plasma chamber. A metal bearing gas is introduced into the plasma chamber to react with the toroidal plasma. The interaction between the toroidal plasma and the metal bearing gas produces at least one of a metallic material, a metal oxide material or a metal nitride material.
Abstract:
An exemplary embodiment of the present disclosure illustrates an automated mass production method, adapted for an automated mass production system in manufacturing at least an electronic device having a storage unit, the method includes steps of: determining a protocol type of the Auto Handler to select one of the agents; establishing a first communication protocol communication between the MP tool module and the selected agent; establishing a second communication protocol communication between the selected agent and the Auto Handler; the Auto Handler outputting a processing command to the selected agent; the selected agent converting the processing command into a MP tool module executable MP tool instruction; and the selected agent outputting the corresponding MP tool instruction to the MP tool module so as to have the MP tool module executed the MP tool instruction to automatically perform a corresponding mass production process to the electronic device.
Abstract:
Disclosed herein are methods and materials by which nanostructures such as carbon nanotubes, nanorods, etc. are bound to lectins and/or polysaccharides and prepared for administration to cells. Also disclosed are complexes comprising glycosylated nanostructures, which bind selectively to cells expressing glycosylated surface molecules recognized by the lectin. Exemplified is a complex comprising a carbon nanotube functionalized with a lipid-like alkane, linked to a polymer bearing repeated α-N-acetylgalactosamine sugar groups. This complex is shown to selectively adhere to the surface of living cells, without toxicity. In the exemplified embodiment, adherence is mediated by a multivalent lectin, which binds both to the cells and the α-N-acetylgalactosamine groups on the nanostructure.
Abstract:
This application discloses a novel process for the preparation of himbacine analogs useful as thrombin receptor antagonists. The process is based in part on the use of a base-promoted dynamic epimerization of a chiral nitro center. The chemistry taught herein can be exemplified by the following:
Abstract:
An inflatable recreational device includes a first member and a plurality of second members, wherein the first member be a cylinder with an inner side and an outer side, and wherein the second members may be attached to the outer side thereof. The second members may form closed air chambers. A user may place him or herself within the first member for protection during use of the device. In another embodiment, a plurality of second members may form a cavity, without needing a first member, to protect the user.
Abstract:
A system, components thereof, and methods are described for time-of-flight mass spectrometry. A microwave or high-frequency RF energy source is used to ionize a reagent vapor to form reagent ions. The reagent ions enter a chamber and interact with a fluid sample to form product ions. The reagent ions and product ions are directed to a time-of-flight mass spectrometer module for detection and determination of a mass value for the ions. The time-of-flight mass spectrometer module can include an optical system and an ion beam adjuster for focusing, interrupting, or altering a flow of reagent and product ions according to a specified pattern. The time-of-flight mass spectrometer module can include signal processing techniques to collect and analyze an acquired signal, for example, using statistical signal processing, such as maximum likelihood signal processing.
Abstract:
A system and methods are described for generating reagent ions and product ions for use in a quadruple mass spectrometry system. A microwave or high-frequency RF energy source ionizes particles of a reagent vapor to form reagent ions. The reagent ions enter a chamber, such as a drift chamber, to interact with a fluid sample. An electric field directs the reagent ions and facilitates an interaction with the fluid sample to form product ions. The reagent ions and product ions then exit the chamber under the influence of an electric field for detection by a quadruple mass spectrometer module. The system includes various control modules for setting values of system parameters and analysis modules for detection of mass values for ion species during spectrometry and faults within the system.