Other

Atom Sciences, Inc.

Ut-battelle, Inc.

James E Parks

G Samuel Hurst

Ayyoub Mehdizadeh Momen

Kyle R Gluesenkamp

Kashif Nawaz

Bo Shen

Zhiming Gao

Timothy J LaClair

Harold W Schmitt

Chung-Hsuan Chen

Marvin G Payne

Alex E Pawlowski

Xiaobing Liu

Josh A Pihl

Puxian Gao

An improved method and system for treating flue gases from a natural gas furnace are provided. The method and system include an acidic gas trap (AGT) adsorber which enables the continuous adsorption and storage of SOx, NOx redox, and formic acid/CO/HC/CHoxidation, with a negligible pressure drop. The AGT adsorber includes a catalyst coating having a nanotube structure (e.g., a uniform nanostructure forest coating) or a uniform porous nanostructure of various low-cost oxides through scalable low temperature solution processes, including oxides of Ti, Cu, Ba, Mn, Zr, Zn, Sr, Ca, Li, K, Na, Al, or Ce.

Monolithic gas trap adsorber for high efficiency, cost effective, low-emission condensing furnace

A portable workstation includes a storage structure and an integrated dolly. The storage structure resembles a generally-upright cabinet having a top platform with upward-folding expansion leaves. The storage structure is defined by a pair of vertical side walls spaced apart by a back wall. One fixed shelf and two folding shelves extend between the side walls. The shelves are useable as steps, but are securable in alternate, bin-forming positions. A box-storage chamber and flexible straps provide storage locations for tools. A wheeled dolly is attached to the storage structure by a pair of slide pins.

Tool caddy

A multi-purpose utility cart having a rigid wheeled platform with a cushion secured to an upper surface of the platform and a set of interchangeable wheels along a lower surface. A support bracket having a rotatable pad is coupled to pivot members mounted on the platform by leg members. The leg members are movable and can be secured in most any angular position thereby allowing the support bracket to be used as a back support, a chest support, or a head support.

Utility cart

Apparatus and method are described for the quantitative analysis of a specific specie within a sample. The analysis has sufficient sensitivity for the detection of as little as one atom of the desired species. The method is accomplished by bombarding a sample with a highly focused charged particle beam; for example, a beam of positive argon ions having an energy from five to thirty kilovolts and a current of one milliampere or greater. This beam impinging upon the sample creates a cloud including secondary ions and neutral particles of the constituents of the sample. The cloud is irradiated with a laser beam having selected wavelengths therein for the unique ionization of the desired specie by means of resonance ionization spectroscopy (RIS). In most applications some energy and/or mass discrimination is required. The energy discrimination can be accomplished by passing the RIS ions through an energy filter, with the ions emanating therefrom having a narrow range of energy. Then, if desired, a mass discrimination may be accomplished in an appropriate mass analyzer such as a time of flight spectrometer, an r.f. quadrupole mass spectrometer or a magnetic sector mass spectrometer.

Sputter initiated resonance ionization spectrometry

Apparatus and methods of operation are described for determining, with isotopic selectivity, the number of noble gas atoms in a sample. The analysis is conducted within an evacuated chamber which can be isolated by a valve from a vacuum pumping system capable of producing a pressure of 10.sup.-8 Torr. Provision is made to pass pulses of laser beams through the chamber, these pulses having wavelengths appropriate for the resonance ionization of atoms of the noble gas under analysis. A mass filter within the chamber selects ions of a specific isotope of the noble gas, and means are provided to accelerate these selected ions sufficiently for implantation into a target. Specific types of targets are discussed. An electron measuring device produces a signal relatable to the number of ions implanted into the target and thus to the number of atoms of the selected isotope of the noble gas removed from the gas sample. The measurement can be continued until a substantial fraction, or all, of the atoms in the sample have been counted. Furthermore, additional embodiments of the apparatus are described for bunching the atoms of a noble gas for more rapid analysis, and for changing the target for repetitive cycling of the gas in the chamber. The number of repetitions of the cyclic steps depend upon the concentration of the isotope of interest, the separative efficiency of the mass filter, etc. The cycles are continued until a desired selectivity is achieved. Also described are components and a method of operation for a pre-enrichment operation for use when an introduction of a total sample would elevate the pressure within the chamber to levels in excess of those for operation of the mass filter, specifically a quadrupole mass filter. Specific examples of three noble gas isotope analyses are described.

Method and apparatus for noble gas atom detection with isotopic

Growing community of inventors

Oak Ridge, TN, United States of America

James E Parks