Title :
Evaluation and prediction of the degradation of a COTS CCD induced by displacement damage
Author :
Germanicus, R. ; Barde, S. ; Dusseau, L. ; Rolland, G. ; Barillot, C. ; Saigné, F. ; Ecoffet, R. ; Calvel, P. ; Fesquet, J. ; Gasiot, J.
Author_Institution :
CEM2, Univ. Montpellier II, France
fDate :
12/1/2002 12:00:00 AM
Abstract :
Proton-irradiation results ranging from 17 MeV to 100 MeV are presented for silicon commercial off-the-shelf charge-coupled devices. Mean degradation of the dark current and the dark-signal nonuniformity are analyzed. A good linearity between proton-nonionizing energy loss and the mean dark-signal degradation is obtained. A method to determine parameters required by the Marshall method prediction is proposed. This method is based on the three experimental and theoretical moments. An excellent agreement is obtained with the experimental degradation. The last step is to perform the method on a continuous proton spectrum. Prediction of dark-signal behavior is in a good agreement with experimental data.
Keywords :
charge-coupled devices; current density; dark conductivity; elemental semiconductors; proton effects; semiconductor device reliability; silicon; 17 to 100 MeV; Marshall method prediction; NIEL; Si; Si COTS CCD; charge-coupled devices; commercial off-the-shelf devices; dark current degradation; dark-signal nonuniformity; displacement damage; mean dark-signal degradation; proton irradiation; proton-nonionizing energy loss; Aerospace electronics; Charge coupled devices; Dark current; Energy loss; Lattices; Linearity; Optoelectronic devices; Protons; Silicon; Thermal degradation;
Journal_Title :
Nuclear Science, IEEE Transactions on
DOI :
10.1109/TNS.2002.805554