[1]. |
Naresky, J.J. Reliability definitions. IEEE Transactions on Reliability, 19( 4), pp. 198- 200, November 1970.
|
[2]. |
Department of Defense , Electronic Reliability Design Handbook. MIL-HDBK-338B, October 1998.
|
[3]. |
Banjevic, D. Remaining useful life in theory and practice. Metrika, 69( 2- 3), pp. 337- 349, March 2009.
|
[4]. |
Si, X.S. , Wang, W. , Hu, C.H.and Zhou, D.H. Remaining useful life estimation-a review on the statistical data driven approaches. European journal of operational research, 213( 1), pp. 1- 14, 2011.
|
[5]. |
Director, Operational Test Evaluation, FY 2014 Annual Report, Washington, DC, pp. 205, January 2015.
|
[6]. |
Chorafas, D.N. Establishing systems reliability. Mathematics in Science and Engineering, 27(A), pp. 278- 304, 1966.
|
[7]. |
Rao, S.U.M. Influence of environmental factors on component/equipment reliability. Indian Journal of Engineering & Materials Sciences, 5( 3), pp. 121- 123, June 1998.
|
[8]. |
Rao, S.U.M. Effect of environmental and operational stresses on electronic components. IETE Technical Review, 9( 3), pp. 256- 257, 1992.
|
[9]. |
Letot, C. , Equeter, L. , Dutoit, C. and Dehombreux, P. Updated Operational Reliability from Degradation Indicators and Adaptive Maintenance Strategy. System Reliability, 2, pp. 69- 91, 2017.
|
[10]. |
Abbott, W.R. Graceful degradation reliability. IEEE Transactions on Reliability, 26( 1), pp. 69, April 1977.
|
[11]. |
Prag, J. System principles and reliability. IFAC Proceedings Volumes, 11( 1), pp. 2251- 2255, 1978.
|
[12]. |
Ha, T.T. Microwave power combining and graceful degradation. IEE Proceedings G - Electronic Circuits and Systems, 127( 3), pp. 148- 152, June 1980.
|
[13]. |
Rajesh, R. , Sharma, R. and Varughese, S. Graceful degradation: An airborne surveillance radar perspective. Defence Science Journal, 69( 4), pp. 389- 395, 2019.
|
[14]. |
Anderson, R.T.and Neri, L. R&M Theory and Fundamental Concepts. In Reliability-Centered Maintenance: Management and Engineering Methods. Springer, Dordrecht, pp. 55- 95, 1990.
|
[15]. |
Vesely, W.E. , Goldberg, F.F. , Roberts, N.H.and Haasl, D.F. Fault tree handbook. Nuclear Regulatory Commission Washington DC, 1981.
|
[16]. |
Haasl, D.F. Advanced concepts in fault tree analysis. In System Safety Symposium . Seattle, WA: The Boeing Company Seattle, June 1965.
|
[17]. |
Nieuwhof, G.E. The concept of failure in reliability engineering. Reliability Engineering, 7( 1), pp. 53- 59, 1984.
|
[18]. |
Meyer, J.F. On evaluating the performability of degradable computing systems. IEEE Computer Architecture Letters, 29( 08), pp. 720- 731, 1980.
|
[19]. |
Misra, K.B. Performability engineering: An essential concept in the 21st century. In Handbook of performability engineering . Springer, London, pp. 1- 12, 2008.
|
[20]. |
Lu, H. , Kolarik, W.J.and Lu, S.S. Real-time performance reliability prediction. IEEE Transactions on Reliability, 50( 4), pp. 353- 357, 2001.
|
[21]. |
Huang, J.X. Bian, Y.Q. Zhang, S.T.and Zhou, L. The evaluation of new type of performance reliability for a radar equipment system. Journal of Air Force Engineering University (Natural Science Edition), 9( 5), pp. 57- 61, 2008.
|
[22]. |
Ridder, T.D.and Narayanan, R.M. Operational reliability of radar systems. In NAECON 2018-IEEE National Aerospace and Electronics Conference . IEEE, pp. 561- 567, July 2018.
|
[23]. |
Ridder, T.D.and Narayanan, R.M. Total reliability of radar systems: incorporating component degradation effects in operational reliability. In Radar Sensor Technology XXIII . International Society for Optics and Photonics. 11003, p. 110030Y, May 2019.
|
[24]. |
Knezevic, J. Mirce functionability equation. Journal of Engineering Research and Applications, 4( 8), pp. 93- 100, Auguest 2014.
|
[25]. |
Kovarskiy, J.A. , Kirk, B.H. , Martone, A.F. , Narayanan, R.M.and Sherbondy, K.D. Evaluation of Real-time Predictive Spectrum Sharing for Cognitive Radar. IEEE Transactions on Aerospace and Electronic Systems, 2020.
|
[26]. |
Kirk, B.H. , Martone, A.F. , Sherbondy, K.D.and Narayanan, R.M. Performance analysis of pulse-agile sdradar with hardware accelerated processing. In 2020 IEEE International Radar Conference (RADAR) . IEEE, pp. 117- 122, April 2020.
|
[27]. |
Richards, M.A. Fundamentals of Radar Signal Processing. New York, NY: McGraw-Hill, 2005.
|
[28]. |
G. A. Georgiou . Probability of Detection (PoD) curves: Derivation, Applications and Limitations. Research Report 454, Jacobi Consulting Ltd., London, UK, 2006.
|
[29]. |
Hovey, P.W.and Berens, A.P. Statistical evaluation of NDE reliability in the aerospace industry. In Review of Progress in Quantitative Nondestructive Evaluation. Springer, Boston, MA, pp. 1761- 1768, 1988.
|
[30]. |
Keprate, A. and Ratnayake, R.C. Probability of detection as a metric for quantifying NDE capability: the state of the art. J. Pipeline Eng, 14( 3), pp. 199- 209, 2015.
|
[31]. |
Boodman, D.M. The reliability of airborne radar equipment. Journal of the Operations Research Society of America, 1( 2), pp. 39- 45, February 1953.
|
[32]. |
Heidbreder, G.R.and Mitchell, R.L. Detection probabilities for log-normally distributed signals. IEEE Transactions on Aerospace and Electronic Systems, ( 1), pp. 5- 13, 1967.
|
[33]. |
Shnidman, D.A. Calculation of probability of detection for log-normal target fluctuations. IEEE transactions on aerospace and electronic systems, 27( 1), pp. 172- 174, 1991.
|
[34]. |
Farina, A. , Russo, A. and Studer, F.A. Coherent radar detection in log-normal clutter. In IEE Proceedings F (Communications, Radar and Signal Processing). IET Digital Library, 133( 1), pp. 39- 53, February 1986.
|
[35]. |
Fenton, L. The sum of log-normal probability distributions in scatter transmission systems. IRE Transactions on communications systems, 8( 1), pp. 57- 67, 1960.
|
[36]. |
Schwartz, S.C.and Yeh, Y.S. On the distribution function and moments of power sums with log‐normal components. Bell System Technical Journal, 61( 7), pp. 1441- 1462, 1982.
|