Issue 10 Volume 41 May 16, 2003
Issue 10 Volume 41 May 16, 2003
Issue 10 Volume 41 May 16, 2003
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Our group has been developing x-ray microcalorimeters consisting of neutron transmutation doped (NTD) germanium<br />
thermistors attached to superconducting tin absorbers. We discuss the performance of single pixel x-ray detectors, and describe<br />
an array technology. In this paper we describe the read-out circuit that allows us to measure fast signals in our detectors as<br />
this will be important in understanding the primary cause of resolution broadening. We describe briefly a multiplexing scheme<br />
that allows a number of different calorimeters to be read out using a single JFET. We list the possible causes of broadening<br />
and give a description of the experiment which best demonstrates the cause of the primary broadening source. We mention<br />
our strategy for finding a suitable solution to this problem and describe briefly a technology for building arrays of these<br />
calorimeters.<br />
Derived from text<br />
Doped Crystals; Calorimeters; X Ray Detectors; Electromagnetic Interference; Heat Measurement; Performance Tests;<br />
Structural Design; Linear Arrays<br />
<strong>2003</strong>00370<strong>10</strong> Lawrence Livermore National Lab., Livermore, CA<br />
Design and Field Test of a Galvanometer Deflected Streak Camera<br />
Lai, C. C.; Goosman, D. R.; Wade, J. T.; Avara, R.; Nov. 08, 2002; 12 pp.; In English<br />
Report No.(s): DE2002-15002271; UCRL-JC-147892; No Copyright; Avail: Department of Energy Information Bridge<br />
We have developed a compact fieldable optically-deflected streak camera first reported in the 20th HSPP Congress. Using<br />
a triggerable galvanometer that scans the optical signal, the imaging and streaking function is an all-optical process without<br />
incurring any photon-electron-photon conversion or photoelectronic deflection. As such, the achievable imaging quality is<br />
limited mainly only by optical design, rather than by multiple conversions of signal carrier and high voltage electron-optics<br />
effect. All core elements of the camera are packaged into a 12x24 footprint box, a size similar to that of a conventional<br />
electronic streak camera. At LLNL’s (Lawrence Livermore National Laboratory) Site-300 Test Site, we have conducted a<br />
Fabry-Perot interferometer measurement of fast object velocity using this all-optical camera side-by-side with an intensified<br />
electronic streak camera. These two cameras are configured as two independent instruments for recording synchronously each<br />
branch of the 50/50 splits from one incoming signal.<br />
NTIS<br />
Galvanometers; Streak Cameras; Cameras<br />
<strong>2003</strong>0037017 Lawrence Livermore National Lab., Livermore, CA, Paragon Optics Inc. San Ramon, Calif, Spiller X-ray<br />
Optics, Livermore, Calif<br />
Design and Evaluation of System Configurations for an EUV Mask Inspection Microscope. Report 3 for AIM Design<br />
Study<br />
Barty, A.; Taylor, J. S.; Hudyma, R.; Spiller, E.; Aug. 20, 2002; In English<br />
Report No.(s): DE2002-15002<strong>10</strong>4; No Copyright; Avail: National Technical Information Service (NTIS)<br />
In this mode the microscope is designed to emulate the illumination and imaging characteristics of a stepper to enable<br />
rapid evaluation of mask defects without the need for a resist exposure step. The main uses of the microscope in this mode<br />
would be: review of multilayer and pattern defects to determine their printability; defect review following a repair process to<br />
assess the success of the operation; investigation of the effects of illumination and NA on the printed image; process window<br />
analysis of defects and other mask features, and characterizing defects on both patterned and unpatterned masks (i.e. blanks).<br />
An essential characteristic of operation in this mode is that the illumination and imaging conditions should emulate that of a<br />
production stepper system.<br />
NTIS<br />
Extreme Ultraviolet Radiation; Microscopes; Design<br />
<strong>2003</strong>0038808 Organisatie voor Toegepast Natuurwetenschappelijk Onderzoek, Rijswijk, Netherlands<br />
Application of Matrix-Assisted Laser Desorption/ionization to On-line Aerosol Time-of-Flight Mass Spectrometry<br />
Kientz, Ch. E.; December 2002; 20 pp.; In English; In Dutch<br />
Contract(s)/Grant(s): A98/D/420; TNO Proj. 014.12830; Proj. V013<br />
Report No.(s): PML-2002-A81; TD-2002-0155; Copyright; Avail: Other Sources<br />
Matrix-assisted laser desorption/ionization (MALDI) mass spectra were obtained from a single biological aerosol<br />
particles using an aerosol time-of-flight mass spectrometer (ATOFMS). The inlet to the ATOFMS was coupled with an<br />
evaporation/condensation flow cell that allowed the aerosol to be coated with matrix material as the sampled stream entered<br />
the spectrometer. Mass spectra were generated from aerosol composed either of gramicidin S or erythromycin, two small<br />
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