NSLS Activity Report 2006 - Brookhaven National Laboratory

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Beamline Source Technique Energy Range Type Organization X17C Insertion Device XRD, powder XRD, single crystal High pressure research X18A Bend XRD, powder XRD, single crystal XRD, surface WAXD X-ray refl ectivity X-ray scattering, surface WAXS X18B Bend XAS EXAFS NEXAFS X19A Bend X-ray scattering, resonant XAS EXAFS NEXAFS X19C Bend XRD, surface X-ray topography X-ray refl ectivity X-ray scattering, liquid X-ray scattering, surface X20A Bend XRD, single crystal Microdiffraction Imaging X-ray refl ectivity X-ray scattering, surface X20C Bend XRD, single crystal XRD, surface XRD, time resolved X-ray refl ectivity X-ray scattering, surface X21 Insertion Device XRD, single crystal XRD, surface X-ray scattering, magnetic X-ray scattering, resonant X-ray scattering, surface SAXS X22A Bend XRD, single crystal XRD, surface WAXD X-ray refl ectivity X-ray scattering, surface WAXS 5-80 keV FB COMPRES University of Chicago 4-19 keV PRT BNL-Chemistry Indiana University @ Bloomington Pennsylvania State University Purdue University Stony Brook University University of Missouri @ Columbia 4.8-40 keV FB BNL-Chemistry BNL-Electrochemistry BNL-NSLS ORNL University of Delaware UOP LLC Yeshiva University 2.1-17 keV FB BNL-Chemistry BNL-Electrochemistry BNL-NSLS ORNL University of Delaware UOP LLC Yeshiva University 6-17 keV PRT Arizona State University Fairfi eld Crystal Technology, LLC Kansas State University Kyushu University SUNY @ Albany Stony Brook University University of Illinois @ Chicago 4.5-13 keV PRT IBM Research Division 4-11 keV PRT IBM Research Division 5-15 keV FB BNL-NSLS Boston University University of Vermont 10.7 keV 32 keV 5-8 PRT BNL-CMPMSD BNL-Chemistry
Beamline Source Technique Energy Range Type Organization X22B Bend X-ray scattering, liquid X-ray scattering, surface X22C Bend XRD, single crystal XRD, surface X-ray refl ectivity X-ray scattering, magnetic X-ray scattering, surface X23A2 Bend XRD, powder DAFS XAS EXAFS NEXAFS X23B Bend XRD, powder XAS EXAFS NEXAFS X24A Bend XSW Auger spectroscopy EXAFS X-ray fl uorescence spectroscopy XPS X24C Bend X-ray refl ectivity UV photoabsorption spectroscopy UPS XAS X25 Insertion Device MAD Macromolecular crystallography X26A Bend Microdiffraction Imaging X-ray microprobe X26C Bend MAD Macromolecular crystallography 6.5-10 keV PRT Bar-Ilan University BNL-CMPMSD BNL-CFN Harvard University 3-12 keV PRT BNL-CMPMSD Massachusetts Institute of Technology Rutgers University 4.7-30 keV PRT NIST 4-10.5 keV PRT Hunter College Montana State University Naval Research Laboratory (NRL) New Jersey Institute of Technology Sarah Lawrence College 1.8-5 keV PRT NIST 0.006-1.8 keV PRT Naval Research Laboratory (NRL) Universities Space Research Association 3-28 keV FB BNL-Biology BNL-NSLS 3-30 keV PRT BNL-Environmental Science University of Chicago University of Georgia 5-20 keV PRT BNL-Biology Cold Spring Harbor Laboratory Stony Brook University X27A Bend X-ray microprobe 4.5-20 keV FB BNL-Environmental Science BNL-NSLS Stony Brook University X27B Bend HARMST 8-40 keV PRT BNL-Nonproliferation & National Security X27C Bend XRD, time resolved WAXD SAXS WAXS 9 KeV PRT Air Force Research Laboratory Dow Chemical Company National Institutes of Health Naval Surface Warfare Center Stony Brook University 5-9 FACTS AND FIGURES
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NATIONAL SYNCHROTRON LIGHT SOURCE A
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NATIONAL SYNCHROTRON LIGHT SOURCE 2
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NSLS Summer Sunday Draws 650 Visito
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CHAIRMAN'S INTRODUCTION Chi-Chang K
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USERS' EXECUTIVE COMMITTEE REPORT C
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SCIENCE AT THE NSLS Kendra Snyder N
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Spin-Lattice Interaction in the Qua
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SOFT CONDENSED MATTER AND BIOPHYSIC
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grows. The magnesium also is attrac
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Chicago, Liangtao Li and Jerry Kapl
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STRUCTURE OF AN E. COLI MEMBRANE PR
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for 15 minutes at 180 °C, a 1 x 2
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Said collaborator Eliot Rosen, a ra
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AT THE NSLS, SCIENTISTS WORKING TOW
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NANOPARTICLE ASSEMBLY ENTERS THE FA
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Crystal structure of VCBP3 V1V2 sol
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National Laboratory; and Mati Meron
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X-RAY ANALYSIS METHOD CRACKS THE 'L
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the enzyme and the cofactor binds a
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ticles (Figure 1). The nearest-neig
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is about four times larger. The ver
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Figure 1. Ball model of the UO 2 (1
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of barium sulfate species formed up
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observed in the normal-state of the
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and calculate the contribution to t
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energy gap, responsible for suppres
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20%. Correspondingly, the Fe octahe
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We fit the data in Figure 1 by modi
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of the 1812 RF buckets of the ring
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from the laser, we allow enough tim
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scopic and microscopic characteriza
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suboxic boundary and a concomitant
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intensity of the CaP shoulder (Figu
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effectively combined to elucidate A
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ecomes evident through comparison o
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forming an electrostatic interactio
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promises the possibility of being a
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etween TPP and related compounds is
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(Figure 2). The negative charge on
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spots were observed in control brai
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malaria parasite to the red blood c
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of the resulting complex revealed t
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substrate the hydroperoxide form of
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of AlkB-∆N11 matches that in othe
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Figure 3. In catalysis, this array
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that form a central hydrophobic pat
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structural differences suggest that
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occurs between subunits located tow
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We used x-ray absorption near edge
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tonically as ξ increases (Figure 1
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These results demonstrated that a m
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position of the x-ray beam, pulse-h
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geneity ranges are observed with no
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PEGylated fluoroalkyl side chains r
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interface by annealing bilayer film
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β-phase takes place, giving rise t
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persion was followed by static and
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411TH BROOKHAVEN LECTURE ‘ SHININ
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space. Its delivery of this materia
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NSLS RESEARCHERS PRODUCE A PRAISEWO
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in Farmingville, New York. She inve
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egan with three days of lectures an
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Participants in the 2006 “Take ou
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While Dehmer was optimistic about t
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Next, a talk on the “Engineering
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Energy Secretary Samuel Bodman (fro
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with majors ranging from history to
Page 135 and 136: described the first measurements of
Page 137 and 138: Visitors gather around the liquid n
Page 139 and 140: high-level degree in the physics fi
Page 141 and 142: Spotlight Awards The Spotlight awar
Page 143 and 144: A) B) Figure 1. X-ray fl uorescence
Page 145 and 146: BNL WINS R&D 100 AWARD FOR X-RAY FO
Page 147 and 148: 2005 Hans-Jürgen Engell Prize The
Page 149 and 150: 2006 NSLS TOURS 1/4/2006 Karen Agos
Page 151 and 152: 2006 NSLS SEMINARS 1/11/2006 Interi
Page 153 and 154: 2006 NSLS SEMINARS 6/22/2006 Strate
Page 155 and 156: 2006 NSLS WORKSHOPS 4/4/2006 X6A Wo
Page 157 and 158: NATIONAL SYNCHROTRON LIGHT SOURCE O
Page 159 and 160: NSLS ADVISORY COMMITTEES GENERAL US
Page 161 and 162: ACCELERATOR DIVISION REPORT James B
Page 163 and 164: On-Axis Field (gauss) VTF Test Arti
Page 165 and 166: The NSLS has an aggressive preventi
Page 167 and 168: tific workshops, including “Synch
Page 169 and 170: ently the last one available in the
Page 171 and 172: functions, particularly at the nano
Page 173 and 174: A new Proposal Oversight Panel (POP
Page 175 and 176: SAFETY REPORT Andrew Ackerman ESH&Q
Page 177 and 178: BUILDING ADMINISTRATION REPORT Bob
Page 179 and 180: ing were cleaned, repaired, and pai
Page 181 and 182: FACILITY FACTS & FIGURES The Nation
Page 183 and 184: Beamline Source Technique Energy Ra
Page 185: Beamline Source Technique Energy Ra
Page 189 and 190: NSLS BOOSTER PARAMETERS NSLS LINAC
Page 191 and 192: X-RAY STORAGE RING PARAMETERS AS OF
Page 193 and 194: PUBLICATIONS
Page 195 and 196: NSLS USERS Beamline U1A S Buzby, M
Page 197 and 198: A Nambu, J Graciani, J Rodriguez, Q
Page 199 and 200: Beamline X1A2 M Feser, B Hornberger
Page 201 and 202: C Mandel, D Gebauer, H Zhang, L Ton
Page 203 and 204: Beamline X7A E Anokhina, Y Go, Y Le
Page 205 and 206: T Moldoveanu, Q Liu, J Tocilj, M Wa
Page 207 and 208: Beamline X10A A Cisneros, G Mazzant
Page 209 and 210: S Kamtekar, R Ho, M Cocco, W Li, S
Page 211 and 212: Z Zhang, P Fenter, S Kelly, J Catal
Page 213 and 214: E Selvi, Y Ma, R Aksoy, A Ertas, A
Page 215 and 216: Y Suh, M Carroll, R Levy, G Bisogni
Page 217 and 218: S Park, E DiMasi, Y Kim, W Han, P W
Page 219 and 220: G Da, J Lenkart, K Zhao, R Shiekhat
Page 221 and 222: J Kaste, B Bostick, A Friedland, A
Page 223 and 224: X Chen, K Tenneti, C Li, Y Bai, R Z
Page 225 and 226: G Meinke, P Bullock, A Bohm, Crysta
Page 227 and 228: D Koller, G Ediss, L Mihaly, G Carr
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NSLS Activity Report 2006 - Brookhaven National Laboratory

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