High energy electron induced displacement damage in silicon

  • Dale C
  • Marshall P
  • Burke E
 et al. 
  • 1


    Mendeley users who have this article in their library.
  • N/A


    Citations of this article.


New measurements of displacement damage factors for electron-irradiated (4 to 53 MeV) bipolar silicon transistors have extended the correlation between nonionizing energy loss and damage factors reported previously another three orders of magnitude downward, to cover a total of six decades. To first order, the correlation remains linear for both n- and p-type silicon, but deviations are observed and explained in terms of differences in the fraction of initial vacancy interstitial pairs that recombines. These differences correlate linearly with the low-energy component of the PKA spectrum. Deep level transient spectroscopy measurements show oxygen- and dopant-related defect levels as well as divacancies. Defect concentrations scaled linearly with gain degradation, and no differences were seen between electron and proton plus neutron irradiated material. The results are consistent with a damage mechanism involving migration of vacancies to form well-separated stable defects

Author-supplied keywords

  • 4 to 53 MeV
  • DLTS
  • PKA spectrum
  • Si
  • bipolar transistors
  • deep level transient spectroscopy
  • defect concentration
  • defect levels
  • displacement damage factors
  • divacancies
  • electron beam effects
  • electron induced displacement damage
  • gain degradation
  • high energy electron irradiation
  • nonionizing energy loss
  • semiconductor device testing
  • vacancies (crystal)
  • vacancy interstitial pairs

Get free article suggestions today

Mendeley saves you time finding and organizing research

Sign up here
Already have an account ?Sign in

Find this document


  • C.J. J Dale

  • P.W. W Marshall

  • E.a. A Burke

  • G.P. P Summers

  • E.a. A Wolicki

Cite this document

Choose a citation style from the tabs below

Save time finding and organizing research with Mendeley

Sign up for free