Computer Science Department
College of Computing Sciences
218 Central Avenue
New Jersey Institute of Technology
Phone: (973) 596-3398
Fax: (973) 596-5777
E-mail: marvin@njit.edu
URL: web.njit.edu/~marvin
· Monday: 10:00am – 11:15am
· Thursday: 10:00am – 11:15am
· Or by appointment
· CS 103: Computer Science With Business Problems.
· CS 341: Foundations of Computer Science II.
· CS 478: Software Tools for Solving Industrial Problems.
· CS 661: Systems Simulation (username and password are given in the syllabus). Click here and here for information about the course.
· Ph.D. in Operations Research, Stanford Univ., 1991. Advisor: Peter W. Glynn
· M.S. in Operations Research, Stanford Univ., 1988.
· B.A. in Mathematics-Computer Science, UC San Diego, 1986.
·
Professor (Assistant, Associate, Full),
1994-present, Computer Science Department,
New Jersey Institute of Technology,
·
Visiting Assistant Professor, 1998-1999, Division of Management
Science and Operations Management, Columbia
Business School, Columbia University,
·
Visiting Assistant Professor, 1993-1994, Department of
Management Science and Information Systems, Rutgers School of Management, Rutgers University,
·
Post-Doctoral Fellow, 1991-1993, IBM Thomas J. Watson Research Center,
· Plenary speaker, 13th International Conference in Monte Carlo & Quasi-Monte Carlo Methods in Scientific Computing, 2018.
· Best Theoretical Paper, 2014 Winter Simulation Conference.
· NJIT Excellence in Teaching Award, Upper Division Undergraduate Instruction, 2013-2014.
· CAREER Award, National Science Foundation, 1996-2000.
· Second Prize in the 1992 George E. Nicholson Student Paper Competition (Organized by the Institute for Operations Research and the Management Sciences "to honor outstanding papers in the field of operations research and the management sciences written by a student").
· National Science Foundation, “CAREER: Comparing Alternative System Designs Using Simulation,” Grant No. DMI-9624469, 1996-2002, $210,000.
· National
Science Foundation, “Efficient Simulation of Large-Scale Systems,”
(with J. M. Calvin), Grant
No. DMI-9900117, 1999-2004, $189,406.
· National
Science Foundation, “Modeling and Simulation of Complex Stochastic Systems and Cascading
Failures, with Applications to the Electric Power Grid,”
(with J. M. Calvin), Grant No.
CMMI-0926949, 2009-2014,
$356,000.
· National
Science Foundation, “Efficient Simulation of Risk and Performance Measures, With Applications
to the Design and Operation of Nuclear Power Plants,” Grant
No. CMMI-1200065, 2012-2016,
$205,000.
· National
Science Foundation, “EXTREEMS-QED: Research and training in
computational and data-enabled science and engineering for undergraduates in
the mathematical sciences at NJIT,” (with M. Siegel,
Z.-H. Michalopoulou, D. Horntrop and J. M. Loh), Grant No.
DMS-1331010, 2013-2020, $874,946.
· National
Science Foundation, “Efficient Monte Carlo Methods for Characterization
of Safety Margins of Nuclear Power Plants,” Grant No.
CMMI-1537322, 2015-2019, $270,000.
· National
Science Foundation, “Estimating Risk
Measures, with Applications to Finance and Nuclear Safety,” Grant No.
CMMI-2345330, 2024-2027, $457,667.
· Simulation modeling and analysis
· Evaluating risk in finance, business and engineering
· Reliability theory and fault-tolerant systems
· Probabilistic safety assessments of nuclear power plants
· Computer performance analysis
· Applied probability
· Statistics
· V. F. Nicola, M. K. Nakayama, P. Heidelberger, and A. Goyal, “Fast Simulation of Highly Dependable Systems with General Failure and Repair Processes,” IEEE Transactions on Computers, 42 (1993), 1440-1452. (PDF file)
· M. K. Nakayama, A. Goyal and P. W. Glynn “Likelihood Ratio Sensitivity Analysis for Markovian Models of Highly Dependable Systems,” Operations Research, 42 (1994), 137-157. (PDF file)
· M. K. Nakayama, “A Characterization of the Simple Failure Biasing Method for Simulations of Highly Reliable Markovian Systems,” ACM Transactions on Modeling and Computer Simulations, 4 (1994), 52-88. (PDF file)
· M. K. Nakayama, “Two-Stage Stopping Procedures Based on Standardized Time Series,” Management Science, 40 (1994), 1189-1206. (PDF file)
·
M. K. Nakayama, “Asymptotics of Likelihood
Ratio Derivative Estimators in Simulations of Highly Reliable Markovian
Systems,” Management Science, 41 (1995), 524-554. (PDF file without the figures) Awarded 2nd Prize for the George
E. Nicholson Student Paper Competition by INFORMS.
· M. K. Nakayama, “General Conditions for Bounded Relative Error in Simulations of Highly Reliable Markovian Systems,” Advances in Applied Probability, 28 (1996), 687-727. (PDF file)
· M. K. Nakayama, “Multiple-Comparison Procedures for Steady-State Simulations,” Annals of Statistics, 25 (1997), 2433-2450. (PDF file)
· M. K. Nakayama, “On Derivative Estimation of the Mean Time to Failure in Simulations of Highly Reliable Markovian Systems,” Operations Research, 46 (1998), 285-290. (PDF file)
· J. M. Calvin and M. K. Nakayama, “Using Permutations in Regenerative Simulations to Reduce Variance,” ACM Transactions on Modeling and Computer Simulations, 8 (1998), 153-193. (PDF file)
· M. K. Nakayama and P. Shahabuddin, “Likelihood Ratio Derivative Estimation for Finite-Time Performance Measures in Generalized Semi-Markov Processes,” Management Science, 44 (1998), 1426-1441. (PDF file)
· H. Damerdji and M. K. Nakayama, “Two-Stage Multiple-Comparison Procedures for Steady-State Simulations,” ACM Transactions on Modeling and Computer Simulations, 9 (1999), 1-30. (PDF file)
· S. H. Jacobson, J. Kobza, and M. K. Nakayama, “A Sampling Procedure to Estimate Risk Probabilities in Access-Control Security Systems,” European Journal of Operational Research, 122, 1 (2000), 123-132.
· M. K. Nakayama, “Multiple Comparisons with the Best Using Common Random Numbers in Steady-State Simulations,” Journal of Statistical Planning and Inference, 85 (2000), 37-48. (PDF file)
· J. M. Calvin and M. K. Nakayama, “Simulation of Processes with Multiple Regeneration Sequences,” Probability in the Engineering and Informational Sciences, 14 (2000), 179-201. (PDF file)
· J. M. Calvin and M. K. Nakayama, “Central Limit Theorems for Permuted Regenerative Estimators,” Operations Research, 48 (2000), 776-787. (PDF file)
· M. K. Nakayama and B. Yener, “Optimal Information Dispersal for Probabilistic Latency Targets,” Computer Networks, Vol. 36, Issue 5-6 (August 2001), 695-707.
· V. Nicola, P. Shahabuddin, and M. K. Nakayama, “Techniques for Fast Simulation of Models of Highly Dependable Systems,” IEEE Transactions on Reliability, 50 (2001), 246-264.
· M. K. Nakayama and P. Shahabuddin, “Quick Simulation Methods for Estimating the Unreliability of Regenerative Models of Large Highly Reliable Systems,” Probability in the Engineering and Informational Sciences, vol. 18 (2004), 339–368. (PDF file)
· J. M. Calvin and M. K. Nakayama, “Permuted Derivative and Importance-Sampling Estimators for Regenerative Simulations,” European Journal of Operational Research, 156, 2 (2004), 390-414. (postscript file)
· M. K. Nakayama, P. Shahabuddin, and K. Sigman, “On Finite Exponential Moments for Branching Processes and Busy Periods for Queues,” Journal of Applied Probability, 41A (2004), 273-280. (PDF file)
· J. M. Calvin and M. K. Nakayama, “Permuted Standardized Time Series for Steady-State Simulations,” Mathematics of Operations Research, 31 (2006), 351-368. (PDF file)
· J. M. Calvin, P. W. Glynn, and M. K. Nakayama, “The Semi-Regenerative Method of Simulation Output Analysis,” ACM Transactions on Modeling and Computer Simulation, 16 (2006), 280-315. (PDF file)
· M. K. Nakayama, “Fixed-Width Multiple-Comparison Procedures Using Common Random Numbers for Steady-State Simulations,” European Journal of Operational Research, vol. 182, no. 3 (2007), 1330–1349.
· M. K. Nakayama, “Asymptotically Valid Single-Stage Multiple-Comparison Procedures,” Journal of Statistical Planning and Inference, vol. 139 (2009), 1348-1356. (PDF file)
· S. M. Iyer, M. K. Nakayama, and A. V. Gerbessiotis “A Markovian Dependability Model With Cascading Failures,” IEEE Transactions on Computers, vol. 58 (2009), 1238-1249. (PDF file)
· J. Nzouonta, M. K. Nakayama, and C. Borcea “On Deriving and Incorporating Multi-hop Path Duration Estimates in VANET Protocols,” ACM Transactions on Modeling and Computer Simulation, vol. 21 (2011), article 14. (PDF file)
· M. K. Nakayama, “Asymptotically Valid Confidence Intervals for Quantiles and Values-at-Risk When Applying Latin Hypercube Sampling,” International Journal on Advances in Systems and Measurements, vol. 4, no. 1 & 2 (2011), 86-94. (PDF file)
· F. Chu and M. K. Nakayama, “Confidence Intervals for Quantiles When Applying Variance-Reduction Techniques,” ACM Transactions on Modeling and Computer Simulation, vol. 22, no. 2 (2012), article 10. (PDF file, video of presentation)
· M. K. Nakayama, “Confidence Intervals for Quantiles Using Sectioning When Applying Variance-Reduction Techniques,” ACM Transactions on Modeling and Computer Simulation, vol. 24, no. 4 (2014), article 19. (PDF file)
·
H. Dong and M. K.
Nakayama, “Constructing Confidence Intervals for a Quantile Using
Batching and Sectioning When Applying Latin Hypercube Sampling,” Proceedings of the 2014 Winter Simulation
Conference. (PDF file). Awarded Best Theoretical Paper for WSC
2014.
·
J. M. Calvin and M. K. Nakayama,
“Resampled Regenerative Estimators,” ACM Transactions on
Modeling and Computer Simulation, Volume 25
Issue 4, November 2015, Article No. 23.
(PDF file)
·
D. Grabaskas, M.
K. Nakayama, R. Denning, and T. Aldemir, “Advantages of Variance Reduction
Techniques in Establishing Confidence Intervals for Quantiles,” Reliability
Engineering and System Safety, vol.
149 (2016), 187–203. (PDF file)
·
A. Alban, H. A.
Darji, A. Imamura, and M. K. Nakayama, “Variance Reduction for Estimating
a Failure Probability with Multiple Criteria,” Proceedings of the 2016 Winter Simulation Conference, (PDF file).
·
M. Sanghavi, S.
Tadepalli, T. J. Boyle, M. Downey, and M. K. Nakayama, “Efficient
Algorithms for Analyzing Cascading Failures in a Markovian Dependability
Model,” IEEE Transactions on
Reliability, vol. 66 (2017), 258–280.
(PDF file) DECaF software
·
H. Dong and M. K.
Nakayama, “Quantile Estimation with Latin Hypercube Sampling,” Operations Research, vol. 65 (2017),
1678–1695.
(PDF file).
·
A. Alban, H. A.
Darji, A. Imamura, and M. K. Nakayama, “Efficient Monte Carlo Methods for
Estimating Failure Probabilities,” Reliability
Engineering and System Safety, vol. 165 (2017), 376–394. (PDF file)
·
J. Blanchet, J.
Li, and M. K. Nakayama, “Rare-Event Simulation for Distribution
Networks,” Operations Research,
vol. 67 (2019), no. 5, 1383-1396. (PDF
file)
·
H. Dong and M. K.
Nakayama, “A Tutorial on Quantile Estimation via Monte Carlo,” Proceedings of the Thirteenth International
Conference on Monte Carlo and Quasi-Monte Carlo Methods in Scientific Computing
(MCQMC 2018), plenary talk. (PDF file).
·
Z. T. Kaplan, Y.
Li, M. K. Nakayama, and B. Tuffin, “Randomized Quasi-Monte Carlo for
Quantile Estimation,” Proceedings
of the 2019 Winter Simulation Conference. (PDF file). Honorable
Mention for Best Contributed Theoretical Paper for WSC 2019.
·
M. K. Nakayama,
and B. Tuffin, “Sufficient Conditions for a Central Limit Theorem to
Assess the Error of Randomized Quasi-Monte Carlo Methods,” Proceedings of the 2021 Winter Simulation Conference.
(PDF
file), accepted.
·
Y. Li, Z. T.
Kaplan, and M. K. Nakayama, “Monte Carlo Methods for Economic
Capital”, INFORMS Journal on
Computing, accepted. (PDF file).
·
M. K. Nakayama,
and B. Tuffin, “Sufficient Conditions for Central Limit Theorems and
Confidence Intervals for Randomized Quasi-Monte Carlo Methods,” ACM Transactions on Modeling and Computer
Simulation, accepted. (PDF file).
·
“Constructing
Confidence Intervals for Quantiles When Using Variance-Reduction
Techniques,” (joint work with F. Chu), video and slides,
8th International
Workshop on Rare Event Simulation, Isaac Newton Institute for Mathematical
Sciences, University of Cambridge, UK, June 2010. (Accompanying
paper).
·
“Monte
Carlo Estimation of Economic Capital,” (joint work with Y. Li and Z.
Kaplan), video
and slides, 2021 INFORMS Simulation Society Research
Workshop, Pennsylvania State University, July 2021.
·
“Sufficient
Conditions for Central Limit Theorems for Randomized Quasi-Monte Carlo,”
(joint work with B. Tuffin), video and slides, 2021 Winter Simulation Conference.