Major External Research Grants
Active grant funding in 2016:
- Total Active as PI: $1,913,604.00
- Total Active as Co-PI: $3,231,636.00
Grant "Development of Uncertainty Quantification and Design Approaches and Solutions," from the Air Force Research Laboratory (AFRL), CREATE SENTRi, Riverside Research Institute, PI: Donald Estep (Statistics Department), co-PI: Branislav Notaros (B. Notaros part: 65%), co-PI: Troy Butler (subcontract to University of Colorado Denver), start date September 19, 2016, end date September 18, 2021, $744,882.
Grant "CPS: Synergy: Collaborative Research: Enabling Smart Underground Mining with an Integrated Context-Aware Wireless Cyber-Physical Framework,” from the National Science Foundation, Engineering Directorate, Electrical, Communications and Cyber Systems (ECCS) Division, Cyber-Physical Systems (CPS) Program, PI: Sudeep Pasricha, co-PI: Branislav Notaros, start date October 1, 2016, end date September 30, 2019, CSU part: $412,500, Award No. ECCS-1646562.
Grant “Toward a More Statistically Robust, Generalized Process Evaluation Framework of Bin and Bulk Microphysics in Winter Precipitation Using NASA GV and GPM-DPR Data,” from NASA (National Aeronautics and Space Administration), Science Mission Directorate, Earth Science, Precipitation Measurement Missions (PMM), PMM Science Team, PI: Branislav Notaros, co-PIs: V. N. Bringi and Andrew Newman, start date March 1, 2016, end date February 28, 2019, $240,000, Award No. NNX16AE43G.
Grant “IUSE Revolutionizing Engineering Departments (RED): Revolutionizing Roles to Reimagine Integrated Systems of Engineering Formation (R2E2 – Revolutionary Redesign of Engineering Education),” from National Science Foundation, Directorate of Engineering, Division of Engineering Education and Centers (EEC), PI: Anthony Maciejewski, ECE Dept. Head; B. Notaros is Senior Personnel on this grant; start date July 1, 2015, end date June 30, 2020, $1,988,663, Award No. EEC 1519438.
Grant “Advanced Comprehensive Analysis of Rain Drop Shapes, Oscillation Modes, and Fall Velocities Using High-Resolution Surface Disdrometers, Polarimetric Radar, and Numerical Models,” from the National Science Foundation, Geosciences Directorate, Atmospheric and Geospace Sciences (AGS) Division, Physical and Dynamic Meteorology (PDM) Program, unsolicited grant, PI: V. Bringi, co-PI: Branislav Notaros, start date January 1, 2015, end date December 31, 2017, $499,228, Award No. AGS-1431127.
Grant “Accurate Characterization of Winter Precipitation Using Multi-Angle Snowflake Camera, Visual Hull, Advanced Scattering Methods, and Polarimetric Radar,” from the National Science Foundation, Geosciences Directorate, Atmospheric and Geospace Sciences (AGS) Division, Physical and Dynamic Meteorology (PDM) Program, unsolicited grant, PI Branislav Notaros, co-PI: V. Bringi, start date December 1, 2013, end date November 30, 2016, $607,967, Award No. AGS-1344862.
Grant “Treatment Methodologies for Radiofrequency (RF) Injuries,” subcontract RF Applicator System Development, from Wyle Laboratories, Inc./USAF School of Aerospace Medicine (USAFSAM)/AFOSR, subcontract PI Branislav Notaros (CSU PI Thomas Johnson, Department of Environmental and Radiological Health Sciences), start date September 4, 2013, end date December 1, 2014, $71,497.
Grant “Suppression of Wind Turbine Clutter from Radar Data,” from Matrix Research, Inc./Air Force Office of Scientific Research (AFOSR), Small Business Technology Transfer (STTR) Program – Phase I, Margaret Cheney, V. Chandraskar, Branislav Notaros, start date October 15, 2013, end date January 14, 2014, $90,000.
Grant “Collaborative Research: Electromagnetic Field Profile Design for Next-Generation Travelling-Wave MRI,” from the National Science Foundation, Engineering Directorate, Electrical, Communications and Cyber Systems (ECCS) Division, Communications, Circuits, and Sensing Systems (CCSS) Program, unsolicited grant, PI Branislav Notaros, start date July 1, 2013, end date June 30, 2016, CSU part: $216,000, Award No. ECCS-1307863.
Grant “Diakoptic Approach to Modeling and Design of Complex Electromagnetic Systems,” from the National Science Foundation, Engineering Directorate, Electrical, Communications and Cyber Systems (ECCS) Division, Integrative, Hybrid and Complex Systems (IHCS) Program, unsolicited grant, PI Branislav Notaros (single-investigator grant), start date May 1, 2010, end date April 30, 2016, $404,000, Award No. ECCS-1002385.
Grant “Analysis of Structures for 3-D ALERT,” subcontract from the University of Colorado at Boulder, Phase 0 DARPA grant, collaboration of CU Boulder (Prof. Zoya Popovic), CSU, and BAE Systems. CSU budget $20,000, start date February 23, 2007, end date March 31, 2007. CSU PI Branislav Notaros.
Grant “Efficient Higher Order Techniques for Electromagnetic Modeling and Design of Photonic Crystal Structures,” from the National Science Foundation, Engineering Directorate, Electrical, Communications and Cyber Systems (ECCS) Division, Integrative, Hybrid and Complex Systems (IHCS) Program, unsolicited grant, PI Branislav Notaros (single-investigator grant), start date September 1, 2006, end date August 31, 2011, $410,396, Award No. ECCS-0650719.
Grant “Textile Based Carbon Nanostructured Flexible Antenna,” from the National Textile Center (NTC), Competency: Materials, B. Notaros is a co-PI, collaborative project with colleagues in the ECE Department and Materials and Textiles Department at UMass Dartmouth and Rennselaer Polytechnic Institute, start date June 1, 2006, end date May 31, 2009, $155,000 per year, Project ID: M06-MD01.
Grant “Higher-Order Finite Element-Moment Method Modeling Techniques for Conformal Antenna Applications,” from the National Science Foundation, Engineering Directorate, Electrical, Communications and Cyber Systems Division, Electronics, Photonics, and Device Technologies (EPDT) Program, unsolicited grant, PI Branislav Notaros (single-investigator grant), start date September 1, 2003, end date August 31, 2009, $249,417, Award No. ECCS-0647380.
Grant “Large-Domain Hybrid Moment Method–Physical Optics Techniques for Efficient and Accurate Electromagnetic Modeling of Cars and Aircraft over a Wide Range of Frequencies,” from the National Science Foundation, Engineering Directorate, Electrical and Communications Systems Division, EPDT Program, unsolicited grant, PI Branislav Notaros (single-investigator grant), start date September 1, 2001, end date August 31, 2005, $192,000, Award No. ECS-0115756.
NSF Foundation Coalition grant, project “Electromagnetics Concept Inventory” – Branislav Notaros, National Science Foundation, Engineering Directorate, Engineering Education and Centers Division, start date June 1, 2000, end date August 31, 2003, approx. $70,000, Award No. EEC-9802942.
Research in the Electromagnetics Laboratory
Eng B110, Colorado State University
(Director Branislav Notaros)
Research expertise, interests, contributions, initiatives, and future plans of the Electromagnetics Laboratory at Colorado State University, ECE Department, are in the area of electromagnetics, and in its crossings with other areas of science and engineering. Our current research activities span a very broad range of exciting and emerging topics in computational electromagnetics, modeling and numerical methods, antennas, scattering, passive microwave and optical devices, metamaterials, cyber-physical systems, uncertainty quantification, atmospheric/meteorological electromagnetics, radar meteorology, characterization of snow and rain, surface and radar precipitation measurements, image processing, RF/optical instrumentation development, bioelectromagnetics, RF design for magnetic resonance imaging at high and ultrahigh magnetic fields, and electromagnetics education.
Our main contributions to computational electromagnetics (CEM) are in higher order CEM techniques based on the method of moments (MoM), surface integral equation (SIE) approach, volume integral equation (VIE) formulation, finite element method (FEM), physical optics (PO), domain decomposition method (DDM), diakoptics, and hybrid methods as applied to modeling and design of antennas, scatterers, and RF/microwave and optical devices and systems.
In addition to higher order, large (up to two wavelengths in each dimension) elements (large-domain modeling), a mixture of low-to-high-order, small-to-large elements is possible in the same CEM model. Our elements and basis functions are hierarchical and suitable for p- and hp-refinements. We are also developing and advancing all sorts of hybrid higher order CEM methods, e.g., FEM-SIE, VIE-SIE, MoM-PO, SIE-FEM-diakoptics, SIE-VIE-diakoptics, and so on.
Some current projects include:
- accurate characterization of winter precipitation (snow) using multi-angle snowflake camera (MASC), visual hull for reconstruction of 3D hydrometeor shapes, higher order CEM scattering methods, and fully polarimetric data from CSU-CHILL (S-band and X-band) and NCAR S-Pol radars (see MASCRAD Snow Field Site for more information);
- integrated design of exposure and excitation of EM fields in the UHF and low microwave frequency range for next-generation traveling-wave magnetic resonance imaging (MRI) at high and ultrahigh magnetic fields (B0 ≥ 3T);
Quadrifilar Helical Antenna as a Whole-Body Traveling-Wave RF Coil for 3T and 7T MRI
RF Excitation in 7 Tesla MRI Systems Using Monofilar Axial-Mode Helical Antenna
Long and Short Monofilar and Quadrifilar Helical Antenna RF Coils at 7 T
Subject-loaded quadrifilar helical-antenna RF coil with high B1+ field uniformity and large FOV for 3-T MRI
- advanced comprehensive analysis of rain drop shapes, oscillation modes, and fall velocities using high-resolution surface disdrometers, polarimetric radar, and numerical models;
Measurement and Analysis of Rain Precipitation at MASCRAD Instrumentation Site in Colorado
Towards Completing the Rain Drop Size Spectrum: Case Studies Involving 2D-Video Disdrometer, Droplet Spectrometer, and Polarimetric Radar Measurements
DPWX/Microburst winds and melting hail at the Easton Airport field site: 9 July 2015
Investigating rain drop shapes, oscillation modes, and implications for radiowave propagation
Large Raindrops Against Melting Hail: Calculation of Specific Differential Attenuation, Phase and Reflectivity
- fast scalable higher order direct algorithms for large and complex problems in computational sciences and engineering;
- hierarchical matrix methods for extreme-scale parallel computing on leading-edge HPC platforms;
- development of uncertainty quantification and design approaches and solutions for CREATE/SENTRi;
- observational analysis, modeling, and development of a statistically robust, generalized process evaluation framework of bin and bulk microphysics in winter precipitation using NASA GV and GPM-DPR data;
- modeling and measurements of EM propagation in underground mines and enabling smart underground mining with an integrated context-aware wireless cyber-physical framework;
Underground wireless system may save trapped miners with smart phones, CSU researchers say
Can you hear me now? CSU research could help miners stay safe
- development of the optical/electronic/laser-sensing/image-processing Snowflake Measurement and Analysis System (SMAS);
- RF/microwave applicator system development for biomedical applications;
- characterization of rotating wind turbine signatures;
- development of antennas for biomedical applications;
- revolutionizing engineering departments (RED) – revolutionary redesign of engineering education.
Laboratory and equipment:
Electromagnetics Laboratory, CSU Engineering Building B110, includes a completely computerized and motorized six-axis 10 MHz–50 GHz antenna and scattering test system (three-axis spherical positioning system and three-axis planar positioning system), completely built by students, in a fully anechoic and shielded chamber and a vector network analyzer system (PNA), with time-domain option, oscilloscope, power generators, pulse generator, and other RF equipment.
Antenna test system development: click here
MASCRAD Snow Observation/Analysis Field Site
(PI Branislav Notaros)
As an example of the interdisciplinary activities of the CSU Electromagnetics Laboratory, one of our most exciting current projects is the MASCRAD (MASC + Radar) project, the principal goal of which is to establish a novel approach to characterization of winter precipitation and modeling of associated polarimetric radar observables, with a longer-term goal to significantly improve the radar-based quantitative precipitation estimation in stronger, more hazardous, winter events. Our microphysical characteristics studies of snow are based on a synergistic use of optical instrumentation, image processing, scattering computations, and radar analyses. Overall, there is great need and interest for advances in characterization, classification, and quantification of snow – currently the least understood component of the global water cycle. We have built and established the MASCRAD Field Site for in-situ and remote sensing observations and microphysical characteristics analysis of winter precipitation at the Easton Valley View Airport, south of Greeley, in La Salle, Colorado. The ground instrumentation at the site includes a multi-angle snowflake camera (MASC), 2D-video disdrometer (2DVD), precipitation occurrence sensor system (POSS), meteorological particle spectrometer (MPS), Pluvio precipitation gauge, VAISALA weather station, and NCAR Mesonet sensors, all installed inside a 2/3-scaled double fence intercomparison reference (DFIR) wind shield. Surface measurements are augmented by the data from radiosondes which are released during intensive operational periods using the collocated NCAR EOL GAUS (GPS Advanced Upper-Air System) Sounding System (in the 2014/2015 winter campaign) and Center for Severe Weather Research (CSWR) Sounding System (in the 2015/2016 winter campaign). The MASCRAD site operates (at ranges of 13 km and 33 km, respectively) under the umbrella of two state-of-the-art polarimetric (dual-polarization) research weather radars, CSU-CHILL Radar (both S-band and X-band) and NCAR SPOL Radar, with high spatial and temporal resolutions and special MASCRAD scan strategies. It is supported by excellent geometrical and image processing and scattering modeling and computing capabilities, and is one of the currently best instrumented and most sophisticated field sites for winter precipitation measurements and analysis in the nation.
Accurate Characterization of Winter Precipitation Using Multi-Angle Snowflake Camera, Visual Hull, Advanced Scattering Methods and Polarimetric Radar
Measurement and Characterization of Winter Precipitation at MASCRAD Snow Field Site
Snow Precipitation Measurement and Analysis During MASCRAD Winter Observations
Visual Hull Method for Realistic 3D Particle Shape Reconstruction Based on High-Resolution Photographs of Snowflakes in Freefall from Multiple Views
Dual-polarized radar and surface observations of a winter graupel shower with negative Zdr column
DPWX/Initial Multiple Angle Snow Camera-Radar experiment (MASCRAD) project operations: 15 November 2014
Efficient and Accurate Computational Electromagnetics Approach to Precipitation Particle Scattering Analysis Based on Higher-Order Method of Moments Integral Equation Modeling
Let It Snow
International Collaborative Experiments for Pyeongchang 2018 Olympic & Paralympic Winter Games, Korea, ICE-POP 2018
As an example of our international collaborations, we are collaborating with Korea Meteorological Administration and Kyungpook National University, Republic of Korea, in preparation and operation of the International Collaborative Experiments for Pyeongchang 2018 Olympic & Paralympic Winter Games, Korea, ICE-POP 2018, which will be one of the largest snow observation and analysis field campaigns so far, and will involve several cutting-edge radars, aircraft measurements, ships, satellite observations, many advanced ground optical disdrometers, etc.
- Milan Ilic (“Higher Order Hexahedral Finite Elements for Electromagnetic Modeling,” 2003)
- Miroslav Djordjevic (“Numerical Methods for Electromagnetic Modeling of Vehicles over a Wide Range of Frequencies,” 2004)
- Eve Klopf (“Optimal Higher Order Modeling Methodology Based on Method of Moments and Finite Element Method for Electromagnetics,” 2011)
- Elene Chobanyan (“Higher Order Volume/Surface Integral Equation Modeling of Antennas and Scatterers Using Diakoptics and Method Of Moments,” 2014).
- Nada Sekeljic (“Transient Analysis of Closed- and Open-Region Electromagnetic Problems Using Higher Order Finite Element Method and Method of Moments in the Time Domain,” 2015)
- Ana Manic (“Fast and Accurate Double-Higher-Order Method of Moments Accelerated by Diakoptic Domain Decomposition and Memory Efficient Parallelization for High Performance Computing Systems,” 2015)
- Sanja Manic
- Pranav Athalye
- Andjelija Ilic
- Ergun Simsek
- Nilanjana De
- Enow Tanjong
- Erdem Yilmaz
- Carlos Flores
- Mubashir Hussain (with Prof. Dayalan Kasilingam)
- Roochi Chopra (with Prof. Steven Nardone)
- Cameron Kleinkort
- Aaron Smull
- Nabeel Moin
- Ryan McCullough
- Marcus Benzel
- Adam Hicks
Undergraduate REU Students
Other research undergraduate students supported by NSF grants (at CSU):
- Christopher Yafrate
- Eric Leveille
- James Davidson
- Ernest Northardt
- She-ming Allen Chen
- Steven Turner
- Amy Standley
- Joseph Kelly
- Eric Smith
- Michael Rader
- Cameron Kleinkort
- Laura Imbler
- Aaron Smull
- Nabeel Moin
- Yoshi Okayasu
- Jacob Hartman
- Chad Paulson
- Mehmed Erkocevic
- Junjiang Lin
- Ce Guo
- Andres Solorzano Solis
- Bryan Johnson
Postdocs and Senior Research Scientists at CSU
- Dr. Milan Ilic
- Dr. Miroslav Djordjevic
- Dr. Gwo-Jong Huang, Research Scientist/Scholar II
- Dr. Merhala Thurai, Research Scientist/Scholar III
- Visiting Scholar Sponsored at CSU: Dr. José M. Gil, Visiting Professor of Electrical and Computer Engineering, CSU, Fall 2009 (on leave from Polytechnic Univ. of Madrid, Spain)
ATMC Telecommunications Lab, UMD
Telecommunications Laboratory, a part of the Advanced Technology and Manufacturing Center (ATMC) at UMass Dartmouth, is a state-of-the-art RF, antenna, and wireless facility providing excellent opportunities for student training and partnering with industry. Its equipment includes:
- 20’ x 12’ x 12’ fully anechoic and completely shielded chamber (Cuming Microwave Corporation)
- 7-axis hybrid planar/spherical/cylindrical completely computerized near-field antenna test system, with 6’ x 6’ x 6’ scanning area and far-field extension (Antcom Corporation)
- 8510E vector network analyzer system (Agilent Technologies)
Participation on Grants and Contracts at University of Colorado and University of Belgrade
- Vivaldi antenna arrays for square kilometer array (SKA) radio telescope, with Prof. Zoya Popovic, Antenna/Microwave Lab, ECE Dept., University of Colorado, Boulder.
- Reflector antenna modeled after an external ear of a bat species Plecotus auritus and its dual-frequency biosonar, with Prof. Zoya Popovic, University of Colorado, Boulder.
- Optical control of microwave arrays: photonically tuned slot antennas, with Prof. Zoya Popovic, University of Colorado, Boulder.
- Optical antenna and array design (consulting project), with Prof. Zoya Popovic, Boulder Colorado.
- Design and realization of directive antenna arrays with electrically small unconventional reflectors, with Prof. Branko Popovic, Prof. Zoya Popovic, and Prof. Edward Kuester, University of Belgrade, Yugoslavia and University of Colorado, Boulder.
- Development of one-port, multiply excited (OPOMEX) antennas (generalized COCO antennas), with Prof. Branko Popovic and Prof. Zoya Popovic, University of Belgrade, Yugoslavia and University of Colorado, Boulder.
- Design of supergain antenna arrays, with Prof. Branko Popovic and Prof. Zoya Popovic, University of Belgrade, Yugoslavia and University of Colorado, Boulder.
- Development of efficient and accurate electromagnetic simulation techniques for wire, plate, and dielectric antennas and scatterers, with Prof. Branko Popovic, School of EE, University of Belgrade, Yugoslavia.
- Design of large optimal NEMP-simulator antennas, with Prof. Branko Popovic, University of Belgrade, Yugoslavia.
- Design and realization of new classes of loaded broadband wire antennas, with Prof. Branko Popovic, University of Belgrade, Yugoslavia.
- Design and realization of log-periodic wire VHF/UHF TV antennas, with Prof. Branko Popovic, University of Belgrade, Yugoslavia.
- Design and realization of a class of GPS antennas and communication antennas situated inside automobiles – for theft protection and tracking system (consulting project), with Prof. Branko Popovic, Belgrade, Yugoslavia.
- Design and experimental testing of shielded rooms in health centers, with Prof. Branko Popovic, University of Belgrade, Yugoslavia.
Electromagnetics and Engineering Education Research
- New Textbook “Electromagnetics” with PEARSON Prentice Hall. B. Notaros is the author or coauthor of several textbooks in electromagnetics and in fundamentals of electrical engineering (basic circuits and fields). In addition, he has just published his new comprehensive textbook “Electromagnetics” (840 pages) for undergraduates with PEARSON Prentice Hall. The new book introduces many unique pedagogical features not present in any of the many existing undergraduate electromagnetics textbooks [there are an extremely large number (~30) of quite different textbooks for undergraduate electromagnetics available and “active” – perhaps more than for any other discipline in science and engineering]. In specific, it provides several nonstandard theoretically and practically important chapters and sections, new style and approaches to presenting challenging topics and abstract EM phenomena, numerous modern supplements, original teaching and learning tools, and some unique recipes and pedagogical guides for electromagnetic field computation and problem solving. It is meant as an “ultimate resource” for undergraduate electromagnetics.
- New Textbook “MATLAB®-Based Electromagnetics” with PEARSON Prentice Hall (416 pages), published in May 2013. This is a self-contained textbook that can be used either as a supplement to any available electromagnetics text or as an independent resource. Essentially, the book unifies two themes: electromagnetics using MATLAB and MATLAB for electromagnetics; namely, it presents and explains electromagnetics using MATLAB on one side and develops and discusses MATLAB for electromagnetics on the other. As opposed to other available electromagnetics texts that feature some use of MATLAB, the new book effectively “implements” literally all topics and concepts in undergraduate electromagnetic fields and waves, from the ones in electrostatics to those in antennas, in MATLAB. This is by far the most complete and ambitious attempt to use MATLAB in undergraduate (and overall) electromagnetics education.
- New Textbook “Conceptual Electromagnetics” with CRC Press, Taylor and Francis, LLC (530 pages), in production/press (2017). This is a standalone textbook on Conceptual Electromagnetics that presents and explains the entire EM solely using conceptual questions interwoven with the theoretical narrative and basic equations. It combines fundamental theory and a unique and comprehensive collection of as many as 888 conceptual questions and problems in EM. Conceptual questions and problems of this scope and intent are completely new in EM area, and in practically all ECE areas. Also, this is one of the most complete and ambitious attempts to use them in science and engineering education overall. This book resonates very well with modern learner-centered pedagogies and practices that have recently gained a lot of attention by educators in science and engineering, and are paving their way as a preferred mode, or a major component, of class delivery and instruction.
- Conceptual Questions in Electromagnetics, 160 pages, an e-supplement to the new textbook “Electromagnetics” published by PEARSON Prentice Hall. This collection provides 500 Conceptual Questions – these are multiple-choice questions that focus on the core concepts of the material, requiring conceptual reasoning and understanding rather than calculations. Pedagogically, they are an invaluable resource. They can be given for homework and on exams, and are also ideal for interactive in-class questions, explorations, and discussions (usually referred to as active teaching and learning), for student-to-student interaction and students teaching one another (so-called peer instruction, initiated by Eric Mazur in introductory physics), and for team work and exchange of ideas (collaborative teaching/learning). In addition, conceptual questions are perfectly suited for class assessments, as partial and final assessment instruments for individual topics at different points in the course and for the entire class.
- Computer Exercises in Electromagnetics Using MATLAB, 350 pages, an e-book (separate ISBN), supplement to the new textbook “Electromagnetics” published by PEARSON Prentice Hall. There are a total of 478 MATLAB exercises, to supplement problems and conceptual questions. The Exercises include 135 tutorials with detailed completely worked out solutions merged with listings of MATLAB codes (m files), 58 movies developed and played in MATLAB, 156 figures generated in MATLAB, 16 graphical user interfaces (GUIs) built in MATLAB, etc. Assignments of computer exercises in parallel with traditional problems can help students develop a stronger intuition and a deeper understanding of electromagnetics and find it more attractive and likable. Moreover, this approach, requiring MATLAB programming, actively challenges and involves the student, providing additional benefit as compared to a passive computer demonstration.
- Electromagnetics Concept Inventory (EMCI), an assessment tool for measuring students’ understanding of fundamental concepts in electromagnetics. This work was supported by the Engineering Education Program of the National Science Foundation, through the NSF Foundation Coalition grant. The EMCI is especially important in light of the new accreditation standards in engineering – ABET 2000 Criteria (the key word in these criteria is ‘assessment’). (A copy of the EMCI can be obtained upon request, with proper identification, at email@example.com).
- Assessment Methodologies for Engineering Education – participated in several national meetings and multi-university research studies devoted to conceptual assessment instruments and other assessment techniques, as well as curricular reforms, in engineering education. Participated in organization and delivery of panel sessions on the tools for assessing conceptual understanding in engineering sciences at the ASEE/IEEE Frontiers in Education Conferences and the Concept Inventory Developers Meetings, gave talks and has papers on concept inventory assessment instruments for electromagnetics education.
- Also, participated (by invitation) in 2014 Reinvention Center National Conference, November 14-15, 2014, Arlington, Virginia. The Reinvention Center’s mission is “Advancing Undergraduate Education in America’s Research Universities.”
- “Creativity Thread Champion” for the NSF Revolutionizing Engineering Departments (RED) Project. B. Notaros is one of the principal contributors to the five-year NSF Revolutionizing Engineering Departments (RED) Project in the ECE Department at CSU (PI: Anthony Maciejewski, ECE Dept. Head). As one of the only six engineering and computer science departments in the first cohort of NSF RED awardees, we are implementing changes that reimagine the roles of the faculty, moving away from teaching courses in isolation to an integrated, collaborative structure. Key faculty leaders are assigned as “Thread Champions” to interweave Foundations, Creativity, and Professional Formation threads throughout the program, while working with fellow faculty to continue fostering deep knowledge of the discipline and with “Integration Specialists” to synthesize content and illustrate how fundamental concepts are interrelated. These efforts span the entire undergraduate experience, with special attention to the critical technical core of the junior year. Prof. Notaros is the “Creativity Thread Champion” for the RED Project. He also is a leader in developing and implementing electromagnetics learning studio modules (LSMs) and in knowledge integration (KI) of EM LSM concepts with those from signals/systems and electronics, as an essential part of the RED revolution in the ECE Department. After the scalability has been investigated and enhanced, we anticipate that this project and its outcomes will potentially have a transformative impact on the ECE and engineering education globally.