Network


Latest external collaboration on country level. Dive into details by clicking on the dots.

Hotspot


Dive into the research topics where R. Milner is active.

Publication


Featured researches published by R. Milner.


Annual Review of Nuclear and Particle Science | 2005

STUDY OF THE FUNDAMENTAL STRUCTURE OF MATTER WITH AN ELECTRON-ION COLLIDER

A. Deshpande; R. Milner; Raju Venugopalan; Werner Vogelsang

▪ Abstract We present an overview of the scientific opportunities that would be offered by a high-energy electron-ion collider. We discuss the relevant physics of polarized and unpolarized electron...


Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 1993

The HERA polarimeter and the first observation of electron spin polarization at HERA

H.-D. Bremer; M. Böge; R. Brinkmann; W. Brückner; Ch. Büscher; M. Chapman; K.P. Coulter; P. P. J. Delheij; M. Düren; E. Gianfelice-Wendt; P.E.W. Green; H.‐G. Gaul; H. Gressmann; O. Häusser; R. Henderson; T. Janke; H. Kaiser; R. Kaiser; P. Kitching; R. Klanner; P. Levy; H.-Ch. Lewin; M. Lomperski; W. Lorenzon; L. Losev; R. D. McKeown; N. Meyners; B. Micheel; R. Milner; A. Mücklich

Abstract Electron spin polarizations of about 8% were observed at HERA in November 1991. In runs during 1992, utilizing special orbit corrections, polarization values close to 60% have been achieved. In this paper the polarimeter, the machine conditions, the data analysis, the first results and plans for future measurements are described.


Physical Review Letters | 2007

-Measurement of the proton's electric to magnetic form factor ratio from 1H(over -->)(e(over -->),e'p).

C. Crawford; A. Sindile; T. Akdogan; R. Alarcon; W. Bertozzi; E. C. Booth; T. Botto; J. R. Calarco; B. Clasie; A. DeGrush; T. W. Donnelly; K. Dow; D. Dutta; M. Farkhondeh; R. Fatemi; O. Filoti; W. Franklin; H. Gao; E. Geis; S. Gilad; W. Haeberli; D. Hasell; W. Hersman; M. Holtrop; P. Karpius; M. Kohl; H. Kolster; T. Lee; A. Maschinot; J. L. Matthews

We report the first precision measurement of the proton electric to magnetic form factor ratio from spin-dependent elastic scattering of longitudinally polarized electrons from a polarized hydrogen internal gas target. The measurement was performed at the MIT-Bates South Hall Ring over a range of four-momentum transfer squared Q2 from 0.15 to 0.65 (GeV/c)(2). Significantly improved results on the proton electric and magnetic form factors are obtained in combination with existing cross-section data on elastic electron-proton scattering in the same Q2 region.


Physical Review Letters | 2007

Measurement of the proton's electric to magnetic form factor ratio from H→1(e→,e′p)

C. Crawford; A. Sindile; T. Akdogan; R. Alarcon; W. Bertozzi; E. Booth; T. Botto; J. R. Calarco; B. Clasie; A. Degrush; T. W. Donnelly; K. Dow; D. Dutta; M. Farkhondeh; R. Fatemi; O. Filoti; W. Franklin; H. Gao; E. Geis; S. Gilad; W. Haeberli; D. Hasell; W. Hersman; M. Holtrop; P. Karpius; M. Kohl; H. Kolster; T. Lee; A. Maschinot; J. L. Matthews

We report the first precision measurement of the proton electric to magnetic form factor ratio from spin-dependent elastic scattering of longitudinally polarized electrons from a polarized hydrogen internal gas target. The measurement was performed at the MIT-Bates South Hall Ring over a range of four-momentum transfer squared Q2 from 0.15 to 0.65 (GeV/c)(2). Significantly improved results on the proton electric and magnetic form factors are obtained in combination with existing cross-section data on elastic electron-proton scattering in the same Q2 region.


Physical Review Letters | 2008

The Charge Form Factor of the Neutron at Low Momentum Transfer from the H-2-polarized (e-polarized, e-prime n) p Reaction

E. Geis; M. Kohl; V. Ziskin; T. Akdogan; H. Arenhövel; R. Alarcon; W. Bertozzi; E. C. Booth; T. Botto; J. R. Calarco; B. Clasie; C. Crawford; A. DeGrush; T. W. Donnelly; K. Dow; M. Farkhondeh; R. Fatemi; O. Filoti; W. Franklin; H. Gao; S. Gilad; D. Hasell; P. Karpius; H. Kolster; T. Lee; A. Maschinot; J. L. Matthews; K. McIlhany; N. Meitanis; R. Milner

We report new measurements of the neutron charge form factor at low momentum transfer using quasielastic electrodisintegration of the deuteron. Longitudinally polarized electrons at an energy of 850 MeV were scattered from an isotopically pure, highly polarized deuterium gas target. The scattered electrons and coincident neutrons were measured by the Bates Large Acceptance Spectrometer Toroid (BLAST) detector. The neutron form factor ratio GEn/GMn was extracted from the beam-target vector asymmetry AedV at four-momentum transfers Q2=0.14, 0.20, 0.29, and 0.42 (GeV/c)2.


Physical Review Letters | 2008

The Charge Form Factor of the Neutron at Low Momentum Transfer from the

E. Geis; V. Ziskin; T. Akdogan; Hartmuth Arenhoevel; R. Alarcon; W. Bertozzi; E. C. Booth; T. Botto; J. R. Calarco; B. Clasie; Christopher Crawford; A. DeGrush; T. W. Donnelly; K. Dow; M. Farkhondeh; R. Fatemi; O. Filoti; W. Franklin; H. Gao; S. Gilad; D. Hasell; P. Karpius; M. Kohl; H. Kolster; T. Lee; A. Maschinot; J. L. Matthews; K. McIlhany; N. Meitanis; R. Milner

We report new measurements of the neutron charge form factor at low momentum transfer using quasielastic electrodisintegration of the deuteron. Longitudinally polarized electrons at an energy of 850 MeV were scattered from an isotopically pure, highly polarized deuterium gas target. The scattered electrons and coincident neutrons were measured by the Bates Large Acceptance Spectrometer Toroid (BLAST) detector. The neutron form factor ratio GEn/GMn was extracted from the beam-target vector asymmetry AedV at four-momentum transfers Q2=0.14, 0.20, 0.29, and 0.42 (GeV/c)2.


Journal of Microscopy | 2001

^{2}\vec{\rm H}(\vec{\rm e},{\rm e}'{\rm n}){\rm p}

R. Stevenson; R. Milner; David Richards; Ana Claudia Arias; J. D. MacKenzie; J. J. M. Halls; Richard H. Friend; Dae Joon Kang; M. G. Blamire

Fluorescence scanning near‐field optical microscopy (SNOM) is used to investigate binary polyfluorene‐based composites of varying composition. The samples investigated contain blends of the polymer poly(9,9′‐dioctylfluorene‐cobenzothiadiazole), F8BT, with similar polyfluorenes of wider band gap. Images acquired from a film containing 50% by weight F8BT exhibit a high degree of correlation between the topography and fluorescence, with an F8BT‐rich phase which protrudes from the surface of the film forming isolated regions with sizes from hundreds of nanometres to several micrometres. A film containing 10% by weight F8BT also has micrometre‐size F8BT‐rich regions, but also present are small and locally varying proportions of F8BT in the other polyfluorene component phase, indicating a hierarchy of phases within this sample. The fluorescence and topographic images of a third sample studied, containing 90% by weight F8BT, display no correlation, demonstrating that it is not always appropriate to use topographic information to determine the phase structure within polymer blends. The fluorescence SNOM images acquired from these samples are able to assist our understanding of the photovoltaic efficiency of devices fabricated from these films, which are governed by the extent of the interfacial area between these two constituent polymers.


Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 2012

Reaction

R. Milner; D. Hasell; M. Kohl; U. Schneekloth; N. Akopov; R. Alarcon; V.A. Andreev; O. Ates; A. Avetisyan; D. Bayadilov; R. Beck; S. Belostotski; J.C. Bernauer; J. Bessuille; F. Brinker; B. Buck; J. R. Calarco; V. Carassiti; E. Cisbani; G. Ciullo; M. Contalbrigo; N. D'Ascenzo; R. De Leo; J. Diefenbach; T. W. Donnelly; K. Dow; G. Elbakian; D. Eversheim; S. Frullani; Ch. Funke

OLYMPUS is an experiment mounted by an international collaboration at DESY, Hamburg, Germany to provide a ±1% measurement of the cross section ratio of positron-proton to electron-proton elastic scattering in the range 0.6 < Q2 < 2.2 (GeV/c)2. The goal is to provide a definitive experimental verification of the generally accepted explanation of the discrepancy between cross-section and recoil polarization techniques in determination of the form factor ratio GEp(Q2)/GMp(Q2).


International Journal of Modern Physics | 2009

Fluorescence scanning near‐field optical microscopy of polyfluorene composites

T. Adams; P. Batra; L. Bugel; L. Camilleri; J. M. Conrad; A. de Gouvea; P.H. Fisher; J.A. Formaggio; J. Jenkins; G. Karagiorgi; T. Kobilarcik; S. Kopp; G. S. Kyle; Will Loinaz; D.A. Mason; R. Milner; R. Moore; J. Morfin; M. Nakamura; D. Naples; P. Nienaber; Fred Olness; J.F. Owens; S. F. Pate; Alexey Pronin; W. Seligman; M. H. Shaevitz; H. Schellman; I. Schienbein; M. J. Syphers

This paper presents the physics case for a new high-energy, ultra-high statistics neutrino scattering experiment, NuSOnG (Neutrino Scattering on Glass). This experiment uses a Tevatron-based neutrino beam to obtain over an order of magnitude higher statistics than presently available for the purely weak processes νμ + e- → νμ + e- and νμ + e- → νe + μ-. A sample of Deep Inelastic Scattering events which is over two orders of magnitude larger than past samples will also be obtained. As a result, NuSOnG will be unique among present and planned experiments for its ability to probe neutrino couplings to Beyond the Standard Model physics. Many Beyond Standard Model theories physics predict a rich hierarchy of TeV-scale new states that can correct neutrino cross-sections, through modifications of Zνν couplings, tree-level exchanges of new particles such as Z′s, or through loop-level oblique corrections to gauge boson propagators. These corrections are generic in theories of extra dimensions, extended gauge symmetries, supersymmetry, and more. The sensitivity of NuSOnG to this new physics extends beyond 5 TeV mass scales. This paper reviews these physics opportunities.


Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 1995

The OLYMPUS experiment

C. Bloch; J. Doskow; C. D. Goodman; W.W. Jacobs; M. Leuschner; H.O. Meyer; B. von Przewoski; T. Rinckel; G. Savopulos; A.H. Smith; J. Sowinski; F. Sperisen; W. K. Pitts; D. DeSchepper; R. Ent; J.-O. Hansen; J. Kelsey; W. Korsch; L. H. Kramer; K. Lee; N. Makins; R. Milner; S. F. Pate; C. Tschalär; T.P. Welch; D. Marchlenski; E. Sugarbaker; W. Lorenzon; P. V. Pancella; J. van den Brand

We describe the first experiment to use a polarized internal gas target and polarized beam in a storage ring. A laser optically pumped polarized 3He internal gas target has been used with circulating beams of 197–414 MeV polarized protons to carry out an extensive set of measurements of spin dependent scattering. A large acceptance non-magnetic detector system consisting of wire-chambers, scintillators and microstrip detectors was used to detect protons, neutrons, deuterons, and 3He nuclei from the beam-target interaction. It is demonstrated that these techniques result in low backgrounds (< 1%) due to scattering from species other than the polarized target gas and allow detection of low energy recoiling nuclei. Specific issues such as interfacing the experiment to the storage ring and monitoring the luminosity and polarizations are discussed in detail.

Collaboration


Dive into the R. Milner's collaboration.

Top Co-Authors

Avatar

B. W. Filippone

California Institute of Technology

View shared research outputs
Top Co-Authors

Avatar

R. Alarcon

Arizona State University

View shared research outputs
Top Co-Authors

Avatar

R. Redwine

Massachusetts Institute of Technology

View shared research outputs
Top Co-Authors

Avatar

B. Surrow

Massachusetts Institute of Technology

View shared research outputs
Top Co-Authors

Avatar

R. Ent

Thomas Jefferson National Accelerator Facility

View shared research outputs
Top Co-Authors

Avatar

J. Balewski

Massachusetts Institute of Technology

View shared research outputs
Top Co-Authors

Avatar

P. Bosted

Thomas Jefferson National Accelerator Facility

View shared research outputs
Top Co-Authors

Avatar

J. Arrington

California Institute of Technology

View shared research outputs
Top Co-Authors

Avatar

M. J. Betancourt

Massachusetts Institute of Technology

View shared research outputs
Top Co-Authors

Avatar

R. Corliss

Massachusetts Institute of Technology

View shared research outputs
Researchain Logo
Decentralizing Knowledge