Resume of Dr. Cesar Santivanez
Boston, MA 02116
e-mail: abpdd8@r.postjobfree.com
EDUCATION
NORTHEASTERN UNIVERSITY, Boston, Massachusetts-Nov. 2001
Ph.D. in Electrical Engineering. GPA 4.0/4.0.
Research topic: Routing in mobile ad hoc networks.
NORTHEASTERN UNIVERSITY, Boston, Massachusetts-Sept. 1998.
Master of Science in Electrical Engineering (Communications and Signal
Processing). GPA 4.0/4.0.
PONTIFICIA UNIVERSIDAD CATOLICA DEL PERU, Lima, Peru - Jun 1993
Bachelor of Science in Electrical Engineering. First-in-class honors.
RESEARCH INTEREST
Scalable and efficient resource allocation architectures and algorithms for dynamic
reconfigurable networks.
HONORS & AWARDS
BEST STUDENT PAPER AWARD at the Fifth International Workshop on Mobile
Multimedia Communication MoMuC 98, Oct. 12-14, 1998, Berlin, Germany.
FULBRIGHT SCHOLARSHIP to pursue graduate studies in U.S.A.
BEST STUDENT of the Electrical Engineering promotion of 1993. Peruvian GPA 16.4
(GPA above 15 are considered exceptional). Equivalent to "Summa Cum Laude".
SILVER MEDAL in the IV IBEROAMERICAN MATHEMATICS OLYMPICS.
At HAVANA-CUBA. As a member of the Peruvian delegation. April 1989.
FIRST PLACE among the 10000 applicants at the Pontificia Universidad Catolica del
Peru s admission exam.
MEMBER of the Phi Kapa Phi Interdisciplinary and Phi Beta Delta International
Scholars honors society.
WORK EXPERIENCE
NETWORK SCIENTIST, BBN Technologies, April 2001 present.
Some relevant projects:
- 2008-2009: Key Researcher, Petabit Highly Agile Robust Optical System (PHAROS)
a multi-million dollars DARPA project aimed at providing global high-capacity
fiber-optic core services with unprecedented speed, agility, and survivability.
o Lead multi-disciplinary consortium members in the design of a centralized but
scalable architecture for unified control of multi-vendor multi-domain
devices.
o Personally responsible for the design of the agile, technology-agnostic, and
highly efficient cross-layer resource allocator (CRA) module that
reconfigures the network resources (IP routers, OTN switches, ROADMs,
etc.) to efficiently satisfy diverse demands with different QoS, call setup, and
protection requirements as well as diverse timescales and blocking probability
targets. The CRA is responsible among other things -- for working path
selection, share protection computation, resource assignment and equipment
configuration.
- 2007-2009: Key Researcher, International Technology Alliance (ITA), an US ARL
and UK MoD led consortium of government, academy, and industry to perform joint
research in network centric systems. Performing fundamental research on network
science.
- 2008:Key Researcher, Policy-based Information centric Reliable Ad hoc Network
(PIRANA), -- a multi-million DARPA STO research project part of the Wireless
Network After Next (WNAN) Program. Designing routing algorithms to scale up to
one million nodes.
- 2005-2006: Principal Investigator for the BBN tasks in the Army Research Office
(ARO) Stochastic Optimal Control Algorithms and Next Generation Technologies
for Dynamic Resource Allocation in Mobile Communications Networks project, for
which BBN was a subcontractor to Scientific Systems Company, Inc (SSCI).
- 2003-2004:Key Researcher, Medium Access Control for XG Communications
(XMAC & XAP) a $2.2M DARPA ATO research project. Developing an
architecture and protocol set for XG communication.
- 2002-2003: Designer/Architect, Joint Tactical Radio System, Ground Mobile radios
(JTRS GMR, formerly Cluster 1) a multi-billion dollar joint-forces effort planned to
be the next-generation voice-and-data radio used by the U.S. military. JTRS is a
software-defined radio that will work with many existing military and civilian radios.
It includes integrated encryption and Wideband Networking Software to create
mobile ad hoc networks (MANETs). I co-designed MALSR, WNW s subnet routing
protocol, proved to scale to JTRS cluster 1 stringent constraints (e.g. scalability to
1600+ nodes). I was also a co-author of the scalable multicast mesh algorithm used
for sparse mode multicast traffic.
- 2001-2002:Designer/Implementer, Utilizing Directional Antennas for Ad Hoc
Networks (UDAAN) a $1.5M DARPA ATO research project. Developed and
implemented novel technologies to support and exploit beamforming antennas in ad
hoc networks, including the first MAC protocol for beamforming antennas.
- 1999-2000 (as a consultant): Designer/Implementer, Density- and Asymmetry-
adaptive Wireless Network (DAWN) -- a $1.4M DARPA ATO research project.
Invented, analyzed, and implemented HSLS, the first ad hoc routing protocol that
scale with network size. HSLS is an easy-to-implement link state variant that does not
require complex hierarchies. 1999 2000.
SELECTED PUBLICATIONS
Book chapter:
I. Baldine, A. W. Jackson, J. Jacob, W. E. Leland, J. H. Lowry, W. C. Milliken, P. P.
Pal, R. Ramanathan, K. Rauschenbach, C. A. Santivanez, and D. M. Wood,
PHAROS: An architecture for next-generation core optical networks, in Next-
Generation Internet: Architectures and Protocols, ed. B. Ramamurthy, G. Rouskas,
and K. M. Sivalingam. Cambridge University Press, New York, 2011.
C. Santivanez, and S. Ramanathan, Scalability of Routing in Ad Hoc Networks:
Principles and Practice, in Ad Hoc Wireless Networking, X. Cheng, X. Huang, and
D.-Z. Du (eds.), Kluwer Academic Publishers, Boston, Dec. 2003.
Journals:
G. Troxel et. Al., Enabling open-source cognitively-controlled collaboration among
software-defined radio nodes, Computer Networks, Vol. 52 (2008), No. 4, pp. 898
911, March 2008.
R. Ramanathan, J. Redi, C. Santivanez, D. Wiggins, S. Polit, Ad Hoc Networking
with Directional Antennas: A Complete System Solution", IEEE Journal of Selected
Areas in Communications, Vol. 23, No. 3, pp. 496-506, March 2005.
C. Santivanez and I. Stavrakakis. "Study of various TDMA Schemes for Wireless
Networks in the Presence of Deadlines and Overhead". IEEE Journal of Selected
Areas in Communications, Vol. 17, No. 7, July 1999.
Conferences:
C. Santivanez et. al., Quantum Enhanced LIDAR Resolution with Multi-Spatial-
Mode Phase Sensitive Amplification (Invited Paper), In Proceedings of SPIE
Optics+Photonics 2011, San Diego, CA, Aug. 2011. Paper 8163-34.
R. Ramanathan, R. Allan, P. Basu, J. Feinberg, G. Jakllari, V. Kawadia, S. Loos, J.
Redi, C. Santivanez, J. Freebersyser, Scalability of Mobile Ad Hoc Networks:
Theory vs Practice, In Proceedings of MILCOM 2010, San Jose, CA, Nov. 2010.
J. Chen, C. Santivanez, and K. Rauschenbach, Dynamic O-O-O Switching in Large
Scale Core Optical Networks, In Proceedings of Photonics in Switching (PS)
Conference, Monterey, CA, July 2010.
J. Chen, J. Jacob, C Santivanez, J. Ho, K. Rauschenbach, and D. Wood, En Route to
Grouping-Constraint Free, Colorless Directionless ROADMs, In Proceedings of
OFC/NFOEC 10, San Diego, March 2010.
K. Rauschenbach, R. Hain, A. Jackson, J. Jacob, W. Leland, J. Lowry, W. Miliken, P.
Pal, R. Ramanathan, C. Santivanez, I. Baldine, S. Huang, and D. Wood, "Improved
Capacity Utilization via Agile Wavelength Provisioning and Protection Sharing in
Global Core Optical Networks," In Proceedings of International Conference on
Photonics in Switching, THII 2-5, 2009.
K. Rauschenbach, R. Hain, A. Jackson, J. Jacob, W. Leland, J. Lowry, W. Miliken, P.
Pal, R. Ramanathan, C. Santivanez, I. Baldine, S. Huang, and D. Wood Dynamic
Provisioning System for Bandwith-Scalable Core Optical Networks, In Proceedings
of the Military Communications Conference (MILCOM), Boston, MA, October 2009.
C. Santivanez, Transport Capacity of Opportunistic Spectrum Access (OSA)
MANETs (Invited Paper), In Proceedings of 2nd International Conference on
Cognitive Radio Oriented Wireless Networks and Communications (CROWNCOM
2007), Orlando, FL, Aug. 2007.
Alden Jackson, Walter Milliken, Cesar Santivanez, Matthew Condell, and W.
Timothy Strayer, A Topological Analysis of Monitor Placement, In Proceedings of
the 6th IEEE International Symposium on Network Computing and Applications
(IEEE NCA07), Cambridge, MA, July 2007.
G. Troxel et. al., Adaptive dynamic radio open-source intelligent team (ADROIT):
cognitively-controlled collaboration among SDR nodes (invited paper), In
Proceedings of the First IEEE Workshop on Networking Technologies for Software
Defined Radio (SDR) Networks, Reston, VA, 2006.
C. Santivanez, R. Ramanathan, C. Partridge, R. Krishnan, M. Condell, and S. Polit,
Opportunistic Spectrum Access: Challenges, Architecture, Protocols, In
Proceedings of the 2nd Annual International Wireless Internet Conference (WICON),
Boston, MA, August 2006.
R. K. Prasanth, J. B. D. Cabrera, C. Santivanez, and R. Ramanathan, A Cross-Layer
Design Approach to Opportunistic Resource Allocation in Mobile Wireless
Networks, In Proceedings of 11th U.S. Army Conference On Applied Statistics
(ACAS 05), Naval Postgraduate School, Monterey, CA, October 2005.
C. Santivanez and I. Stavrakakis, Towards Adaptable Ad Hoc Networks: the
Routing Experience, In Proceedings of 1st International Workshop on Autonomic
Communication (WAC 2004), Berlin, Germany, October 2004.
R. Ramanathan, J. Redi, C. Santivanez, D. Wiggins, S. Polit, Ad Hoc
Networking with Directional Antennas: A Complete System Solution, In
Proceedings of IEEE WCNC 2004, Atlanta, GA, March 2004.
C. Santivanez & J. Redi. On the Use of Directional Antennas for Sensor Networks,
In Proc. of MILCOM 03, Boston, MA, October 2003.
C. Santivanez, and B. McDonald, Progressive Scaling: A Methodology for Efficient
Validation and Parameter Tuning of Large Ad Hoc Network Simulations, In
Proceedings of CNDS 03, Orlando, FL, January 2003.
C. Santivanez, B. McDonald, I. Stavrakakis, and S. Ramanathan, On the Scalability
of Ad Hoc Routing Protocols, In Proceedings of IEEE INFOCOM 2002, New York,
NY, 2002.
C. Santivanez, S. Ramanathan, and I. Stavrakakis, Making Link-State Routing Scale
for Ad Hoc Networks, In Proceedings of IEEE MOBIHOC 2001, Long Beach, CA,
2001.
C. Santivanez, and I. Stavrakakis, A Framework for a Multi-mode Routing Protocol
for (MANET) Networks, In Proceedings of IEEE Wireless Communications and
Networking Conference WCNC 99, New Orleans, LO, September 1999.
C. Santivanez, and I. Stavrakakis, Achievable Dropping Rates under Variable Frame
TDMA schemes in the Presence of Deadlines and Overhead, In Proceedings of Fifth
International workshop in Mobile Multimedia Communications MoMuC 98, Berlin,
Germany, October 1998.
INVENTIONS
- Hazy Sighted Link State (HSLS) routing protocol, the first scalable ad hoc routing
protocol with respect to network size. HSLS has been adopted in several US Army
radio prototypes and deployed in several community wireless mesh networks.
- U. S. Patent number 7321580, "Directional carrier sense medium access for wireless
nodes".
- U.S. Patent No. 7532623, Methods for wireless mesh multicasting .
Others
- My work on routing scalability is currently used as a basis for the Internet Research
Task Force on ad hoc network scalability.
- HSLS has been widely utilized by both the military and the commercial sector. For the
military, HSLS has become a building block in many large-scale radio projects (JTRS
WNW, as well as WNaN s PIRANA). For the commercial sector, there are currently 3rd
party open software implementations of HSLS that are being used to built community
wireless mesh networks in as diverse places as the USA, Ghana, and Peru.
- Reviewer for the European Commission, evaluating proposals submitted in response to
the Information Society Technologies (IST) s Future and Emerging Technologies (FET)
call for proposals on Situated and Autonomic Communications.
- Reviewer for the most important conferences and journals in the field such as the
Journal of Selected Areas in Communications, Transactions on Networking, Wireless
Network Journal, etc.
- Senior member of the Institute of Electrical and Electronics Engineers (IEEE).