Performance of the Neutron dEtector with Xn Tracking (NEXT) prototype.

ORAL

Abstract

Recent developments in radioactive ion-beam facilities allow the production of very neutron-rich nuclei. Away from the line of beta stability towards neutron-rich nuclei, $\beta$-delayed multi-neutron emission is the dominant decay mode. Neutron dEtector with Xn Tracking (NEXT) has been designed to better measure $\beta-$delayed neutron energies. By segmenting the detector along the neutron flight path, NEXT will reduce the associated uncertainties in neutron time-of-flight measurements, improving energy resolution while maintaining detection efficiency. Detector prototypes have been built using segments of n-$\gamma$ discriminating plastic scintillator coupled to position sensitive photomultiplier tubes. Results will be presented from the tests of position-timing correlations and efficiency measurements using neutrons produced from (p,n) and (d,n) reactions.

*This work is supported by US DOE-NNSA contract DE-NA0002934.

Authors

  • Shree Neupane

    • University of Tennessee
  • Joseph Heideman

    • University of Tennessee
  • Robert Grzywacz

    • University of Tennessee
  • Cory Thornsberry

    • University of Tennessee
  • David Perez-Loureiro

    • University of Tennessee
  • Lawrence Heilbronn

    • University of Tennessee
  • Joshua Hooker

    • University of Tennessee
  • Kyle Schmitt

    • University of Tennessee
  • Mustafa Rajabali

    • Tennessee Technological University
  • Cole Howell

    • Tennessee Technological University
  • Joseph Owens

    • Tennessee Technological University
  • Erin Peters

    • University of Kentucky
  • Anthony Ramirez

    • University of Kentucky
  • Steven Yates

    • University of Kentucky
  • Thomas Massey

    • University of Ohio
  • Doug Soltesz

    • University of Ohio
  • Yenuel Alberty-Jones

    • University of Ohio
  • Joseph Derkin

    • University of Ohio
  • Keith Vaigneur

    • Agile Technologies, Inc