Friday, April 25
Colonel Jon Brickey
Cyberspace is a complex, fragile, and ever-changing ecosystem. America is growing more dependent on it with each passing day, connecting more than two billion people around the globe to conduct business, share information and ideas, and socialize. At the same time, cyber threats continue to increase in sophistication and volume, putting the nation at risk. Adversaries ranging from foreign state actors to corporate spies continue to exploit vulnerabilities in U.S. networks, systems, and practices. Individual citizens and small organizations have limited resources for defending their information resources and while the majority of companies accept at least a degree of responsibility for the protection of their own networks, it is not clear that they are capable of providing themselves with robust security. Currently, there is no single Federal agency charged with protecting America’s interests in cyberspace and local law enforcement response capabilities are, in many cases, non-existent or incapable of responding to the plethora of cyber incidents. So the next time you experience a cyber attack, who you gonna call?
Colonel Jon Brickey is the Army Cyber Command Fellow at West Point, where he serves as Assistant Professor in the Department of Social Sciences and Associate in the Combating Terrorism Center and the Army Cyber Center. His previous military assignment was at Army Central Command from 2010 to 2011, where he served as the Mission Command and Enterprise Systems Division Chief (G6) at Camp Arifjan, Kuwait. Commissioned through the United States Military Academy in 1991, Colonel Brickey has served in Army tactical and operational positions in the United States, Europe, and Southwest Asia, including company command in V Corps Artillery, Wiesbaden, Germany. He has held leadership positions in Cyber-related programs at the National Security Agency, USNORTHCOM, and USARCENT.
Friday, April 11
Carlos Cardillo, Cirrus Systems
Cirrus Systems is an adaptive real-time control solutions provider that offers clients an opportunity to objectively re-think and re-shape targeted areas of their operations by making data-driven decisions about the processes used and by providing real-time management tools that maximize productivity and safety. At the core of the Cirrus platform is the systems management technology or SIMATM , which is a secure, redundant adaptive control application that runs in the cloud, provides real-time remote system management and employs advanced communication to enables integration of electronic devices, software, diverse data, and off-the-shelf componentry to develop customized adaptive real-time control systems. As disruptive technologies influence company operations and global economic landscapes, operational scenarios across various industries require a narrow timeframe to collect data and update systems. Cirrus utilizes SIMATM, knowledge and experience to identify unrecognized needs and unexplored data and provide solutions for customers to become more productive and profitable. We will present some of the solutions Cirrus is developing for different industries, featuring the Haul Truck Priority System (HTPS) implementation and pilot program, a solution for the Mining and Metals industry. In addition, we will discuss some of the work in-progress for Unmanned Arial Systems, Semi-Conductors and Healthcare sectors.
Dr. Cardillo has over 20 years of experience in the scientific and business world in both private and military settings. He is an expert in scientific and human factor research design and implementation, and the validation of state-of-the-art technology development.
With degrees in Computer Programming and Systems Engineering, a Master's of Science in Biostatistics and a Ph.D.. in Health Science Research, Dr. Cardillo is currently responsible for partnering with R&D groups to identify, align, and develop the most appropriate research and analytical work for Cirrus Systems.
Friday, April 4
Rick Capps, Nevada Automotive Test Center
This informational presentation will describe the efforts by NATC in the areas of situational awareness, associated networks, real time threat recognition and post analysis techniques for target recognition. The evolution of real time processing techniques has increased the ability to recognize and respond to potential threats in or near real time. These techniques include analytics in the CCDcamera array, network based (satellite) processing and centralized real time processing. The advantages and limitations of each will be described through application examples. Additionally, a presentation of transport protocols will describe differing methods for compressing video and the associated performance advantages / limitations of each. These compression algorithms include MJPEG, JPEG2000, H264 and MPEG4 CODECs. A description of network issues associated with application of cameras in a vehicle based situational awareness system will outline experience with Ethernet, GIG-E, Gigabit Ethernet and wireless off-board systems. The presentation will conclude with an application developed to combine vehicle remote tracking, diagnostics and situational awareness feeds over a NSA approved, encrypted internet connection.
The presenter will be Mr. Rick Capps. Rick has been an engineer with Special Programs / NATC for 26 years and has led the department of engineers and software developers in efforts which include the Medium Tactical Vehicle Replacement (MTVR) technical demonstrator, the Logistics Vehicle System Replacement (LVSR) technical demonstrator, the Combat Tactical Vehicle (CTV) technical demonstrator ,the Marine Personnel Carrier (MPC) technical demonstrator, the Hybrid Electric Platform (HEP), the Capacitor Engine Starting System (CESS), the Solid State Logic Controller (SSLC) and the Solid State Vehicle Recorder (SSVR) electrical / electronics design. The special programs group has focused on situational awareness, vehicle diagnostics and prognostics in recent projects. In support of these projects, the special programs group have developed situational awareness video networks, processing algorithms, wireless vehicle access systems and open systems architecture design. Rick has multiple patents in the areas of power control, intelligent vehicle networks and racing support systems. Rick studied at the Missouri Institute of Technology and Fresno State College.
Friday, March 14
Walt Eisele, Bally Technologies
Gaming has been widely viewed as behind other cutting edge technology verticals, however that is changing rapidly as the culture of Gaming technology providers has turned to one of Innovation to create and maintain a competitive advantage. The advent of new content delivery channels as well as the overall pace of technology adoption by the end consumer has forced Gaming companies to change at a similar pace. The future will continue to present new and exciting challenges for the engineering teams within Gaming as the industry focuses on entertaining the gamers of tomorrow.
As Vice President of Technology, Walt Eisele is responsible for all aspects of product development, quality and compliance for Bally Technologies' Game Platform and related systems. The product development responsibilities encompass hardware, operating system, firmware as well as peripheral support systems. Recently, the development division has delivered the first fully digital gaming platform which enables complete system control of content and configuration.
During his tenure with Bally, Eisele has been responsible for strategic technology which included the development of new technologies with an emphasis on the integration of games and systems, server-based gaming technology and overall product direction. Eisele has played a major role in the development of the Company's Download and Configuration management system based on game-to-system (G2S) protocol as well as directing the Company's high-speed networked slot floor technology based on the latest industry G2S and S2S standards. Eisele currently represents Bally on the Gaming Standards Association's Board of Directors and serves as its vice-chair.
Friday, March 7
Matt Wagner and Csaba Mezei, Sierra Nevada Corporation
In this presentation, we will provide a brief business history of Sierra Nevada Corporation (SNC) and the main electronics development areas at the CNS/ATM business unit. Furthermore, we will introduce the challenges faced by aircraft pilots in Degraded Visual Environments, and the most current solutions under development at SNC to augment human natural vision with fused sensory input, the approach that makes safe operations in DVE possible. Moreover, we will describe current technological challenges that involve Computational Geometry, Sensor Fusion and Embedded Digital Signal Processing, which all need to be solved before the product can undergo operational testing. Additionally, the presentation aims to illustrate the software development environment and constraints prescribed by the FAA certification process required for avionics development.
Matt Wagner is the Director of Technology for the Communications, Navigation and Surveillance (CNS) business area of Sierra Nevada Corporation (SNC), in Sparks NV. He holds a MSEE degree in Image Processing and Digital Signal Processing. During the past 20 years at SNC, his main technical areas have been design, systems engineering and program management of DOD Radar based programs including Helicopter Autonomous Landing System (HALS), Sandblaster, AN/SPN-46 Automatic Carrier Landing System (ACLS), AN/APN-245 ACLS Beacon system, AN/SPN-35C Precision Approach Radar and CP-2358 Radar Doppler Video Processor.
Csaba Mezei is a Principal Systems Engineer at the Communications, Navigation and Surveillance (CNS) business area of Sierra Nevada Corporation (SNC), in Sparks NV. He holds a MSEE degree in Process Control and Measurement Technology, and did his Ph.D.. research in Robotics. During the past 17 years at the ‘Skunk Works' division of SNC, his main technical areas of focused product development for avionics applications: automated landing systems for UAVs and manned aircraft, radar transceiver and pedestal control, networked data communications in military radar systems, and landing guidance for Electronic Flight Vision Systems. His other primary functions include supporting software process improvement for corporate CMMI and DO-178C certification, as well as mentoring junior engineers.
Thursday, March 6
Ming Li, Mississippi State University
Security and privacy are two indispensable components for a safe and secure system. Although security and privacy are intricately entwined and one often follows the other, there could be a dilemma of attaining both goals in system designs under considerable circumstances. On the other hand, with the rapid evolution of mobile devices, mobile location-based services (MLBSs) have emerged as a prosperous branch of mobile systems.
This talk introduces an important class of MLBSs, called location-based check-in system. Noticing current location-based check-in systems have a lot of limitations and raise many concerns, especially about system security and users privacy, we propose a location-based rewarding system, called LocaWard, where mobile users can collect location-based tokens from token distributors, and then redeem their gathered tokens at token collectors for beneficial rewards. Tokens act as virtual currency. The token distributors and collectors can be any commercial entities or merchants that wish to attract customers through such a promotion system.
Based on this framework, we aim to guarantee both the system security and users privacy, which is not an easy job due to their complex relationship. We develop a set of protocols, including identity authentication, token audition, and to ken property validation, to ensure the system security while without leaking users privacy, and prove the completeness and soundness of the protocols.
Ming Li received the B.E. degree in Electrical Engineering from Sun Yat-sen University, China, in 2007, and the M.E. degree in Electrical Engineering from Beijing University of Posts and Communications, China, in 2010, respectively. She is currently working towards the Ph.D.. degree in the Department of Electrical and Computer Engineering, Mississippi State University.
Her research interests include cybersecurity, privacy-preserving data analysis, resource management and network optimization in cyber-physical systems, mobile computing, and big data.
Wednesday, March 5
Abusayeed Saifullah, Washington University in St. Louis
A cyber-physical system features a tight combination of and coordination between computational, networking, and physical elements. Wireless sensor-actuator networks (WSANs) represent a new frontier of communication technology for a large class of cyber-physical systems such as process control, smart manufacturing, and data center management. WSANs in these systems face significant challenges that stem from the stringent requirements on real-time communication between sensors and actuators. Moreover, the close coupling between control and communication motivates a cyber-physical co-design approach.
This talk will present my research on wireless cyber-physical systems to address these challenges. I will first present a new real-time wireless scheduling theory for fast real-time performance analysis of WSANs. I will also describe a scheduling-control co-design approach that integrates control, wireless networking, and real-time scheduling theory for wireless control systems.
I will then present the design and implementation of a real-time WSAN for power management in enterprise data centers. I will conclude my talk with the future directions of my research on new networking platforms, real-time embedded computing, and large-scale sensing and control for next generation cyber-physical systems.
Abusayeed Saifullah is a Ph.D.. candidate in the Department of Computer Science and Engineering at Washington University in St Louis. Advised by Chenyang Lu, he is a member of the Cyber-Physical Systems Laboratory at Washington University.
Abu's research primarily concerns cyber-physical systems with contributions spanning real-time systems, wireless sensor networks, embedded systems, and parallel and distributed computing.
He received the Best Student Paper Awards at the 32nd IEEE Real-Time Systems Symposium (RTSS) and at the 5th International Symposium on Parallel and Distributed Processing and Applications (ISPA), and Best Paper Nomination at the 18th IEEE Real-Time and Embedded Technology and Applications Symposium (RTAS).
Tuesday, March 4
Dr. Arslan Munir, Rice University
Advancements in silicon technology, computer architecture, wireless communications, and computer networking have led to the proliferation of embedded systems in a plethora of application domains (e.g., industrial and home automation, automotive, space, medical, defense, etc.). To meet the diverse requirements of these application domains as well as to permit sophisticated applications of greater value as compared to an isolated embedded system, embedded systems are often networked together and processing is done in parallel within an embedded system to form parallel and distributed embedded systems. A crucial enabler for these parallel and distributed embedded systems is burgeoning multi-core revolution in computing industry.
This seminar discusses architecture, modeling, and optimization of parallel and distributed embedded systems with an emphasis on multi-core. There has been an increasing proliferation of diverse multi-core architectures to keep up the Moore's law, which necessitates evaluation of these architectures to determine the most befitting architecture for an application. The seminar elaborates the evaluation of multi-core architectures with two of the speaker's research contributions in this domain. The first contribution proposes a queueing theoretic approach for modeling multi-core architectures that provides a quick and inexpensive performance evaluation both in terms of time and resources. The second contribution evaluates two embedded multi-core architectural paradigms: symmetric multiprocessors (SMPs) and tiled multi-core architectures (TMAs), based on parallelized benchmarks.
The seminar then discusses three application domains for parallel and distributed embedded systems: embedded wireless sensor networks, cyber-transportation systems, and IP multimedia subsystem outlining the speaker's key contributions in each application domain. The contributions aim at the architecture, modeling and optimization for embedded systems' design metrics, viz., performance, power, dependability, and security for these application domains. In particular, the seminar elaborates a multi-core-based approach for the design of secure and dependable Cybercars (next generation of automobiles) with steer-by-wire as a case study. The seminar culminates with the speaker's future research agenda in parallel and distributed embedded computing domain.
Arslan Munir received his M.A.Sc. degree in Electrical and Computer Engineering (ECE) from the University of British Columbia (UBC), Vancouver, Canada, in 2007 and his Ph.D.. degree in ECE from the University of Florida (UF), Gainesville, Florida, USA, in 2012.
He is currently a postdoctoral research associate in the ECE department at Rice University, Houston, Texas, USA. From 2007 to 2008, he worked as a software development engineer at Mentor Graphics in the Embedded Systems Division.
He was the recipient of many academic awards including the Gold Medals for the best performance in Electrical Engineering, academic Roll of Honor, and doctoral fellowship from Natural Sciences and Engineering Research Council of Canada (NSERC). He received a Best Paper award at the IARIA International Conference on Mobile Ubiquitous Computing, Systems, Services and Technologies (UBICOMM) in 2010.
His current research interests include embedded systems, computer architecture, parallel computing, fault-tolerance, and big data analytics.
Friday, February 28
Jonathan Dowdall, Google
Our current relationship with vehicles is incredibly suboptimal: over a million people die in accidents each year, hundreds of billions of hours are wasted commuting, vehicles are much too heavy, and our roads, parking lots, and vehicle infrastructure take up far too much precious land.
Driverless vehicles could be safer, lighter, and greener than our current vehicles returning time, space, and other valuable resources back to society.
Dr. Dowdall attended UNR for his undergrad and masters degrees and received his Ph.D.. in Computer Science from UH. His research background includes medical imaging, thermography, and object tracking. He is currently part of the perception team on Google's autonomous car project. When not working he enjoys playing soccer and messing around with robots.
Friday, February 14
Maha El Choubassi, Intel
The widespread success of Kinect enables users to acquire both image and depth information with satisfying accuracy at relatively low cost. We leverage the Kinect output to efficiently and accurately estimate the camera pose in presence of rotation, translation, or both. The applications of our algorithm are vast ranging from camera tracking, to 3D points clouds registration, and video stabilization. The state-of-the-art approach uses point correspondences for estimating the pose. More explicitly, it extracts point features from images, e.g., SURF or SIFT, and builds their descriptors, and matches features from different images to obtain point correspondences. However, while features-based approaches are widely used, they perform poorly in scenes lacking texture due to scarcity of features or in scenes with repetitive structure due to false correspondences. Our algorithm is intensity-based and requires neither point features' extraction, nor descriptors' generation /matching. Due to absence of depth, the intensity-based approach alone cannot handle camera translation. With Kinect capturing both image and depth frames, we extend the intensity-based algorithm to estimate the camera pose in case of both 3D rotation and translation.
Maha El Choubassi got her M.Sc. and Ph.D... in electrical engineering from University of Illinois at Urbana-Champaign in 2005 and 2008 respectively. Her areas of interests are signal/image processing, computer vision, pattern recognition, and watermarking. Maha has rejoined the image processing and computer vision group at Intel In September 2013. Earlier, she was an Intel research scientist from February 2009 to March 2011.
After working at Intel, Maha joined the computer science department at the American University of Beirut (AUB) for the last two years. In her academic job, Maha taught various courses on computer architecture, image processing, and pattern recognition. Additionally, she has worked with graduate students and colleagues on image processing and computer vision research projects.
Friday, February 7 at 12:00pm to 1:00pm
Lee Barford, Agilent Technologies Measurement Research Laboratory
Increasingly, a wide range of computer applications, from phone apps through robots, behavior prediction for marketing, and scientific computations, operate on data from sensors. At the same time, all recent increases in computer performance has been coming through increasing parallelism. Sensor data is usually to be in the form of time series, where the ordering of values and their temporal and spatial locations are significant. This fact imposes sequential dependencies on algorithms used to process sensor data.
This talk will describe new and emerging features of processors, including wider vector instructions and on-chip graphics processors and field programmable gate array (FPGA) fabric, that provide additional opportunities for parallel speedup beyond that of traditional multicore CPUs. I will discuss research into several approaches to handling the serial data dependencies in sensor data to yield effective parallel algorithms that take advantage of these new processor features.
Lee Barford is Master Scientist at the Agilent Technologies Measurement Research Laboratory and Adjunct Professor of Computer Science and Engineering at the University of Nevada, Reno. After earning a Ph.D. in Computer Science from Cornell University he joined Hewlett-Packard Laboratories and then Agilent Laboratories. At both of those companies his research has focused on creating innovative software to make engineers in other disciplines---electronics engineering, mechanical engineering, and manufacturing engineering---more effective.
His work has been used to improve R&D productivity and reduce manufacturing cost in the leading companies in the technology and transportation industries, including Apple, Boeing, Cisco, Ford, HP, Microsoft, and NASA. He is the inventor or co-inventor of more than 60 patents. His application for improving automatic diagnosis of faults in very large electronic systems, Fault Detective Test Analyzer, won Electronic Design News' award for Best Software of the Year.
Friday, January 31 at 12:00pm to 1:00pm
Joe Salesky - Executive Chairman - ustyme
With a blend of technical and business skills, Joe has been an intrapreneur and entrepreneur, creating products that have become part of the enterprise infrastructure and peoples daily lives globally. As the founder and CEO of several platform oriented companies, Joe is passionate believer in simple-solutions-to-hard-problems, and the creation of successful products, companies and founders.
In his interactive presentation, Joe intends to outline the decision making process around picking technology products to invest oneself in, and deciding when these products can become companies. He will outline the design thinking process around product, team and financing that leads to both successful products, exits and intelligent use of the most precious resource - time in your life.
Students and faculty planning to build technology products or companies that build technology based products will find the presentation informative and actionable. A framework for making product, team and business decisions will be presented, as will practical approaches for internal innovation and start-up financing. The presentation will make efforts to create a dialogue with participants and answer questions during the presentation. The ustyme engineering Team is housed in the Reno Collective downtown, and Joe splits his time between this office and the ustyme office in Sausalito CA. and plans additional time on-campus to work with faculty and students over the coming year.
Previously Joe was the Founder and Chief Strategy Officer of FreeMonee Network, the world's first gift network built on bank card data. Prior to founding FreeMonee, Joe was the Founder and CEO of ClairMail, the leading global provider of mobile banking and payments infrastructure. Previously he was CEO and founder of Skytron Corporation & PictureTalk, Inc.; as well as, the CTO of AppStream and held key executive positions at nCUBE and Oracle. Joe contributed to the development and received 21 patents on technologies now broadly in use by consumers and as part of enterprise infrastructure, including the original patent for web-conferencing.
Joe is recognized as a leading voice in web collaboration, mobile payments and banking innovation, and has been both published and quoted in a number of National, International and Industry publications. In addition to his roles in industry and the media, under the Clinton Administration Joe was a benchmarked leader and member of the Council for Excellence in Government's inter-governmental technology leadership consortium.
In addition for his passion for business and technology, Joe is a father of 4 daughters from 14 to 28, has a grandson and loves the water, waterskiing, sailing, fishing and scuba diving.