Quantcast
Channel: Georgia Tech Professional Education - Defense Technology
Viewing all 76 articles
Browse latest View live

Don Creyts

$
0
0

Full Name

Don Creyts

Mr. Don Creyts has worked in sensing technologies and signatures previously for Lockheed-Martin and currently for GTRI, where he leads efforts in signature modeling, computer analysis, and field test results evaluation. Don has a MS in Mechanical Engineering from Georgia Institute of Technology. He has been responsible for the design of signature reduction technologies for a variety of military platforms, spanning conceptual designs to currently fielded platforms. Mr. Creyts’ design experience involves participating in platform design trades, analysis configurations and the evaluation of integration issues. He is currently the technical sub-thrust lead for GTRI/ACL for micro- and nano- fabrication. He is actively prototyping many high frequency electromagnetic application using these methods.

First Name

Don

Last Name

Creyts

Phone

404-407-6020

Email

don.creyts@gtri.gatech.edu

Gregory Kiesel

$
0
0

Full Name

Gregory Kiesel

Mr. Gregory Kiesel is an analog and microwave design engineer for GTRI. Mr. Kiesel has developed novel tools for the design of wideband balun, feed structures and broadband RF control systems. His work includes multi-decade solid state amplifiers and time delay units, the electronics design of the A3 reconfigurable antenna, and the tight integration of baluns and combiners into the antenna superstructure. Greg's current research is focused on integrating circuit simulation tools to improve the design of fragmented apertures; developing improved methods for building reconfigurable antennas (lower power, smaller, arbitrary structure); and improving the state of the art in electronics to support broadband fragmented aperture antennas.

First Name

Gregory

Last Name

Kiesel

Phone

404-407-7781

Email

Gregory.Kiesel@gtri.gatech.edu

Todd Lee

$
0
0

Full Name

Todd Lee

Dr. R. Todd Lee received his Ph.D. degree from the Georgia Institute of Technology in 2009. Dr. Lee’s thesis developed a new technique for modeling periodic structures in the finite-difference time-domain (FDTD) method. After receiving his Ph.D., Todd joined ACL at GTRI. Dr. Lee has researched methods for porting the FDTD method to modern graphical processing units (GPUs), modeling periodic structures, and conformal gridding. Todd has designed antenna arrays for applications in the UHF, VHF, L, Ku, and Ka bands. Dr. Lee has also worked extensively in the field of beam former design for ultra-wideband arrays.

First Name

Todd

Last Name

Lee

Phone

404-407-7273

Email

Todd.Lee@gtri.gatech.edu

David Reid

$
0
0

Full Name

David Reid

Dr. David Reid is a Senior Research Engineer at the GTRI’s ACL where he conducts experimental and computational research on the electromagnetic properties of materials, structures, and antennas. He has designed an artificial material standard for free-space measurement systems that has been adopted throughout the material measurement community. His current areas of interest are the design and analysis of electromagnetic materials, low and high frequency dielectric/magnetic measurement techniques.

First Name

David

Last Name

Reid

Phone

404-407-8199

Email

david.reid@gtri.gatech.edu

Mark Scott

$
0
0

Full Name

Mark Scott

Dr. Mark Scott has a PhD in physics from Colorado State University in Fort Collins. Dr. Scott has researched microwave dynamics in magnetic materials at the Magnetics Laboratory at Colorado State University. He performed research and engineering for Mission Research Corporation/Alliant Techsytems in Dayton, Ohio in the area of material and radome manufacture and electromagnetic characterization. Dr. Scott currently works at GTRI where he leads numerous efforts in electromagnetics materials and characterization.

First Name

Mark

Last Name

Scott

Email

mark.scott@gtri.gatech.edu

Software-Defined Radio Development with GNU Radio: Theory and Application

$
0
0

CN Course ID

1329

Program ID

DEF 4013P

Program Type

SHORT_COURSE

CNID

1329

An intense four-day tutorial on implementing software-define radio (SDR) systems. Students will be exposed to both communications theory and the programming skills required to develop GNU Radio SDR systems.

Course Description

This course will comprehensively cover developing software defined radio (SDR) communications systems using the GNU Radio signal processing and development environment. The course is structured so that concepts and theory can be instantly translated to practice with hands-on implementations using the Universal Software Radio Peripheral (USRP) SDR platform. All hardware will be provided as part of the course. Students will learn all of the necessary building blocks to become proficient SDR developers, including signal processing and communication theory, as well as Python and C++ concepts required for GNU Radio development. The course culminates in a class-wide radio competition.

Who Should Attend

Engineers, scientists, and managers from industry, educational institutions, and government agencies who are interested in gaining hands-on communications systems knowledge

How You Will Benefit

  • Implement fully functional software-defined radio systems
  • Apply physical layer radio theory to practical systems including modulation, forward error correction, channel estimation and equalization
  • Apply medium access control theory to practical systems including frequency and time division duplexing and multiplexing
  • Apply multiple antenna (MIMO) radio theory to practical systems
  • Understand hardware tradeoffs in real radio systems
  • Analyze communications system performance
  • Install and configure GNU Radio to interface with USRP radios
  • Implement GNU Radio flow graphs
  • Create GNU Radio out-of-tree modules
  • Use GNU Radio for both simulation tasks and real-time systems development

What is Covered

  • SDR Introduction
  • GNU Radio Introduction
  • GNU Radio setup
  • USRP setup
  • Signal Processing Theory
  • Communications Theory -Modulations
  • Communications Theory –Equalization and error control
  • Communications Theory –Medium Access
  • Communications Theory – MIMO Communications
  • Numerous hands-on examples
  • In-class competition

Course Materials

Required

  • Laptop computer

Provided

  • USRP hardware

Course Administrator

Course Assigned ID

DEF 4013P

Bob Baxley

$
0
0

Full Name

Bob Baxley

Dr. Bob Baxley is a Senior Research Engineer and Director of the GTRI Software Defined Radio Lab. He received the B.S., M.S., and Ph.D. degrees, all in Electrical Engineering, from Georgia Tech. His graduate work led to several recognitions including the Georgia Tech-wide Sigma Xi award for best M.S. thesis, the National Science Foundation Graduate Research Fellowship, the SAIC Best Paper Award, and the Center for Signal and Image Processing Research Award. Dr. Baxley’s research interest is primarily communications theory in areas including signal processing for communications systems, channel estimation, signal detection, interference mitigation, cognitive radio, and adversarial communications. In 2012, he contributed to the President’s Council of Advisors on Science and Technology report to President Obama entitled Realizing the Full Potential of Government-Held Spectrum to Spur Economic Growth, which advocated the use of cognitive radio technology to ease spectrum congestion. In 2014, he led the GTRI finalist team in the DARPA Spectrum Challenge winning the second-place prize. Dr. Baxley is a Senior Member of the IEEE, an Associate Editor of Digital Signal Processing, and an adjunct faculty member of the Georgia Tech School of Electrical and Computer Engineering.

First Name

Bob

Last Name

Baxley

Phone

404-407-7525

Email

baxley@gatech.edu

Andrew Henshaw

$
0
0

Full Name

Andrew Henshaw

Mr. Andrew Henshaw is a Senior Research Engineer with the Electronic Systems Laboratory at GTRI. He has received a Bachelor’s and an M.S. degree in Electrical Engineering from Georgia Tech. Mr. Henshaw has more than twenty-five years of experience in high-performance computing, parallel processing, and embedded systems. As Vice-President of APower Solutions, he specialized in the development of data mining analytics. At GTRI, Mr. Henshaw has developed hardware and software platforms for the test and verification of electronic warfare and tactical data link systems. For many years, he has been a frequent lecturer on the Python language and was a contributor to the very first edition of The Python Cookbook. Mr. Henshaw is a member of the GTRI finalist team in the DARPA Spectrum Challenge.

First Name

Andrew

Last Name

Henshaw

Phone

404-407-8239

Email

andy.henshaw@gtri.gatech.edu

Sean Nowlan

$
0
0

Full Name

Sean Nowlan

Mr. Sean Nowlan is a Research Engineer with the Information and Communications Laboratory at GTRI. Mr. Nowlan graduated from Lafayette College with Honors with a B.S. in Electrical and Computer Engineering in 2007 and earned his M.S.E.C.E. at Georgia Tech in 2011. His research includes adaptive communications systems design, signal processing for communications, and distributed software-defined radio (SDR) applications and command and control (C2). Mr. Nowlan has experience and interests in a wide range of engineering disciplines including SDR, computer and network security, wireless communications and networking, digital signal processing, software and hardware development, and embedded systems design. Mr. Nowlan started the SDR Community of Interest (SDR-COI) at GTRI and is a member of the GTRI DARPA Spectrum Challenge finalist team. Mr. Nowlan is an active contributor to GNU Radio, an open-source software radio and signal processing suite.

First Name

Sean

Last Name

Nowlan

Email

sean.nowlan@gtri.gatech.edu

Ethan Trewhitt

$
0
0

Full Name

Ethan Trewhitt

Mr. Ethan Trewhitt is a Research Engineer with the Information and Communications Laboratory at GTRI. Mr. Trewhitt received his B.S. Electrical Engineering in 2005 and his M.S. in Electrical and Computer Engineering in 2007, both from Georgia Tech. His specializations include network security, applied cryptography, machine learning, and artificial intelligence, with a focus on cognitive reasoning applied to a variety of domains. Mr. Trewhitt co-led the GTRI team “I Spy a Red Balloon”, which placed second in the 2009 DARPA Network Challenge, and was also a member of the GTRI DARPA Spectrum Challenge team.

First Name

Ethan

Last Name

Trewhitt

Email

ethan.trewhitt@gtri.gatech.edu

Leading Systems Engineering Teams

$
0
0

Section ID

6988

CEUs

1.95

Cost

1495

Date Start

Tue, 2014-08-26

Date End

Thu, 2014-08-28

CN Section Type

SHORT_COURSE

CN Section Status

OPEN

More Info Comment

Meeting Times
On the first day, check in at least 30 minutes before the class start time.

  • Tuesday, August 26, 2014 (8:30 AM-5:00 PM)
  • Wednesday, August 27, 2014 (8:30 AM-5:00 PM)
  • Thursday, August 28, 2014 (8:30 AM-5:00 PM)

CRN

14754/220415204

CatalystNet ID

841

Alternate Rate

  • $748 -- Georgia Tech Employee Rate
  • Group discount available for companies that register 3 or more people at the same time.  Download our group registration form or call 855-812-5309 to register your group.

Terrye Schaetzel

$
0
0

Full Name

Terrye N. Schaetzel

First Name

Terrye

Last Name

Schaetzel

Phone

(404) 407-8499

Email

terrye.schaetzel@gtri.gatech.edu

Title

Senior Research Engineer

Unit

GTRI

Las Vegas (Renaissance Las Vegas Hotel)

Advanced Photonic Systems and Applications for Electronic Warfare

$
0
0

CN Course ID

1344

Program ID

DEF 3539P

Program Type

SHORT_COURSE

CNID

1344

Explore RF photonics technologies, including their applications to Electronic Attack (EA), Electronic Protect (EP), and Electronic Support (ES). Review advances in photonic device integration, telecom components and system drivers, and photonic building blocks for EW architectures.

Course Description

This course utilizes the concepts and applications from the DEF 3538P - Fundamentals of RF Photonics in EW Applications course and expands into concepts that exploit linearities and analog signal processing within the optical domain providing significant EW system improvements over traditional all-electronic solutions.

Who Should Attend

Technical personnel involved in data communications, radar, or electronic warfare system design/operations, as well as engineers and managers in the specification, procurement, design and development, testing, and operation of high-speed or high-bandwidth electronics systems

How You Will Benefit

  • Understand state-of-the-art photonics technology and future trends
  • Understand the theory of operation of photonic devices and systems
  • Know the performance and design trade-offs amongst RF, Digital, and Photonic solutions in EW architectures
  • Learn how to apply photonics in radar and electronic warfare EA/EP/ES applications

What is Covered

  • Fundamentals review
  • Concepts of operation and future of EW
  • Electronic support
  • Electronic attack
  • Electroic protect
  • GT Photonic Lab tour and photonic system demonstration

Course Materials

Participants will each receive a course booklet (includes all slides, GT personnel/lab contact information, and cd of all material)

Course Administrator

Course Assigned ID

DEF 3539P

Basic Radar Signal Processing

$
0
0

CN Course ID

1347

Program ID

DEF 3540P

Program Type

SHORT_COURSE

CNID

1347

Obtain a thorough overview of the major signal processing methods used in modern radars to suppress interference and improve detection, resolution, measurement accuracy, and tracking quality.

Course Description

This course is a thorough overview of the major signal processing methods used in modern radars to suppress interference and improve detection, resolution, measurement accuracy, and tracking quality. It provides a strong foundation for further study in more in-depth courses on radar signal processing and special topics such as imaging and adaptive processing.

Who Should Attend

  • Managers
  • Technicians
  • Engineers
  • Scientists

How You Will Benefit

  • Understand the characteristics of target, clutter, and noise signals
  • Become familiar with the concept of threshold detection and adaptive threshold selection
  • Understand the tradeoffs between simple and pulse compression waveforms
  • Learn how moving target indication and pulse Doppler processing enable target detection in clutter
  • Understand limitations on range, Doppler, and angle measurement accuracy
  • Introduce the concepts and basic implementations of track filtering, adaptive beamforming, and radar imaging

What is Covered

  • Radar signal modeling and acquisition
  • Threshold detection: Finding targets in interference
  • Waveforms and pulse compression
  • Separating targets from clutter: MTI and pulse doppler
  • Locating the targets: Introduction to measurement accuracy and tracking
  • Introduction to advanced radar signal processing

Course Administrator

Course Assigned ID

DEF 3540P

Alyssa Daya

$
0
0

Full Name

Alyssa Daya

Alyssa Daya, Senior Research Scientist in the Electromagnetic and Antennas Division (EAD of the Sensors and Electromagnetic Applications Laboratory (SEAL) of the Georgia Tech Research Institute. She has over 13 years of experience and expertise in the modeling, simulation, and analysis of antennas, including spiral and slot antennas, reflectors, Yagi-Uda, dipoles, LPDA, and a diverse variety of arrays. Ms. Daya has published over 40 technical reports and IEEE journal and symposia papers. She earned her B.S. degree in Physics from the Georgia Institute of Technology and her MS degree in Physics from the Univeristy of Central Florida.

First Name

Alyssa

Last Name

Daya

Phone

404-407-7558

Email

alyssa.daya@gtri.gatech.edu

James Skala

$
0
0

Full Name

James Skala

James Skala, Research Scientist in the Electromagnetic and Antennas Division (EAD) of the Sensors and Electromagnetic Applications Laboratory (SEAL) of the Georgia Tech Research Institute. He has more than 12 years of experience in electromagnetics, with a primary focus in electromagnetic analysis and modeling. Mr. Skala has extensively used a wide variety of computational methods throughout his career: FEM (AC and DC), MoM (3D and 2D), FDTD/FIT, transmission line modeling, and equivalent circuit models. His electromagnetic applications experience includes antenna analysis, antenna design, antenna measurement, lightning, and electromagnetic compatibility. Mr. Skala's work in GTRI includes radar and electronic warfare applications, and prior to joining GTRI he worked in the aerospace industry. He has an MS Physics from the University of Washington-Seattle and BSEE from the University of Nebraska.

First Name

James

Last Name

Skala

Email

james.skala@gtri.gatech.edu

Infrared Technology and Applications - Targeting Systems - Restricted Access (ITA-TS-RA)

$
0
0

CN Course ID

1357

Program ID

DEF 3012S

Program Type

SHORT_COURSE

CNID

1357

Get an overview of infrared systems engineering, including the operating principles, with emphasis on military systems.

Course Notes Extra

This course is offered by special request only. To schedule an offering at your location, contact
David Schmieder at david.schmieder@gtri.gatech.edu or 404-407-7383.

This is a restricted access course.  See Security Requirements section below for details.

Course Description

This course is an introductory tutorial on Infrared Systems Engineering. It is identical in content and duration to its companion course, entitled DEF 3001P - Infrared Technology & Applications - Open Access (3-1/2 days in duration) except it includes DoD information limited to government agencies and their contractors. It is intended for presentation at Government or DoD contractor facilities on a contract basis. It is often presented with the companion course entitled DEF 3012U - Infrared Technology & Applications - System Performance Evaluation - Restricted Access (ITA-SPE-RA) (1/2 day in duration). Together they cover the same topics as the Open Access version.

The overall objective of this course is to describe the operating principles of infrared systems, with emphasis on military systems. In pursuit of this objective, the course addresses the performance limitations of present infrared (IR) systems, issues pacing the development of new systems, and key component technologies. The course describes design tradeoffs with emphasis on experience-based "rules of thumb." The goals are to describe system operation, explain underlying physical principles, and discuss newly emerging infrared technologies including the impact they are expected to have.

Who Should Attend

  • Engineers
  • Scientists
  • Technical managers
  • Marketers
  • Procurement decision-makers
  • Military planners

How You Will Benefit

Participants will learn to:

  • Describe the operating principles of infrared systems
  • Explain the major functions and components of an infrared system
  • Explain the differences between FLIRs, IRSTs, NVGs, and between missile seeker types
  • Explain the goals and promise of advanced generation sensors
  • Predict graybody radiation signatures
  • Describe the differences between cooled and uncooled detectors

What is Covered

  • Introduction & Overview
  • Basic Concepts
  • Infrared Imaging Systems (FLIR)
  • Properties of Scenes & Targets
  • Terminal Homing Seekers & Infrared Search & Track (THS/IRST)
  • Video Trackers
  • Infrared Optics
  • Infrared Detectors

Course Materials

Participants receive a two volume handout of notes both in hard copy and on CD. The text is sufficiently detailed to eliminate most note taking.

Course Prerequisites

Security Requirements

This is a restricted access course. Attendees must be US citizens or Green Card holders and submit the Access Eligibility Form.

This contract course is intended to be presented to US DoD agencies and to their contractors at their facilities. Course content is presented at the unclassified but DoD Distribution D access level. Contractors who purchase this course must submit confirmation from a US DoD program COTR, or DoD technical liaison, attesting to their need-to-know for “Infrared Targeting Systems Technology.” The confirmation can be in the form of an email to the course administrator. Non US organizations, including foreign nationals, can contract for this course as well, but the content will be limited to that available to the public in the Open Access version.

Course Administrator

Course Assigned ID

DEF 3012S

Infrared Technology and Applications - System Performance Evaluation - Restricted Access (ITA-SPE-RA)

$
0
0

CN Course ID

1358

Program ID

DEF 3012U

Program Type

SHORT_COURSE

CNID

1358

Get an overview of infrared systems engineering, including the operating principles, with emphasis on military systems.

Course Notes Extra

This course is offered by special request only. To schedule an offering at your location, contact
David Schmieder at david.schmieder@gtri.gatech.edu or 404-407-7383.

This is a restricted access course.  See Security Requirements section below for details.

Course Description

This course is an introductory tutorial on Infrared Systems Engineering. It is identical in content and duration to its companion course, entitled DEF 3001P - Infrared Technology & Applications - Open Access (3-1/2 days in duration) except it includes DoD information limited to government agencies and their contractors. It is intended for presentation at Government or DoD contractor facilities on a contract basis. It is often presented with the companion course entitled DEF 3012S - Infrared Technology & Applications - System Performance Evaluation - Restricted Access (ITA-SPE-RA)  (1/2 day in duration). Together they cover the same topics as the Open Access version. 

The overall objective of this course is to describe techniques for quantifying the performance of infrared targeting systems, missile seekers, and infrared search and track systems. In pursuit of this objective, the course addresses performance evaluation tools and models together with their limitations and key metrics. Attendees with no prior knowledge of infrared systems are strongly urged to take ITA-TS-RA first.

Who Should Attend

  • Engineers
  • Scientists
  • Technical managers
  • Marketers
  • Procurement decision-makers
  • Military planners

How You Will Benefit

Participants will learn to:

  • Apply image evaluation tools
  • Describe key sensor performance metrics
  • Explain the principles of sensor performance prediction models
  • Predict the acquisition range of military targeting systems

What is Covered

  • Evaluation Tools
  • System Performance Analysis

Course Materials

Participants receive handouts of notes both in hard copy and on CD. The text is sufficiently detailed to eliminate most note taking.

Course Prerequisites

Required

Security Requirements

This is a restricted access course. Attendees must be US citizens or Green Card holders and submit the Access Eligibility Form.

This contract course is intended to be presented to US DoD agencies and to their contractors at their facilities. Course content is presented at the unclassified but DoD Distribution D access level. Contractors who purchase this course must submit confirmation from a US DoD program COTR, or DoD technical liaison, attesting to their need-to-know for “Infrared Targeting Systems Technology.” The confirmation can be in the form of an email to the course administrator. Non US organizations, including foreign nationals, can contract for this course as well, but the content will be limited to that available to the public in the Open Access version.

Course Administrator

Course Assigned ID

DEF 3012U

Ben Benoy

$
0
0

Full Name

Ben Benoy

bio info forthcoming

First Name

Ben

Last Name

Benoy

Phone

404-407-7316

Email

ben.benoy@gtri.gatech.edu

Ph D Status

UNCONFIRMED

Title

Senior Research Engineer

Unit

GTRI

Unit URL

http://www.gtri.gatech.edu/
Viewing all 76 articles
Browse latest View live


Latest Images