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About

Computation and data-enabled techniques will be an important factor in solving complex engineering problems in future.

Future-focused Research and Education in Computational Engineering and Data-driven Methods

The Data-Enabled Computational Engineering and Applied Quantum Computing (DC-QC) in Florida A&M University-Florida State University Joint College of Engineering, is the the focal point in both universities for engineering and technological research and educational programs. DC-QC program brings together the broad computational and AI activities already underway at the college and both university and focuses on developing an impactful research and education programs to to solve problems of scientific and societal importance through interdisciplinary, cyber-enabled research.

Vision

DC-QC will pursue to be recognized as an international leader in enabling advancing computational and data-enabled methods for practical applications and hardware experiments along with adaptation of new merging techniques into interdisciplinary research and education. We will use our expertise coupled with our state-of-the-science engineering research infrastructure to enable new interdisciplinary collaborations, attract the world's best researchers and brilliant graduate and undergraduate students. These researchers will form a vibrant intellectual community supporting policy that addresses the intertwined challenges of new complex engineering applications for Florida, the nation, and the world.

Mission

DC-QC is an interdisciplinary graduate program designed for students who seek to used state-of-science computational and data enabled skills to tackle difficult engineering problems. We foster collaborative, interdisciplinary capacity to develop and apply innovative computational methods for research challenges.

Values

Education, Equity, Community, and Future-focused Innovations

Program Offered

Certificate in Data-Enabled Computational Engineering and Applied Quantum Computing

Program Description

The interdisciplinary program will be open to all graduate students interested in learning how to use AI, high performance computing and/or Quantum technologies to thrive in a rapidly evolving technological landscape.

The program aims to provide a multidisciplinary experience to students, enhancing their understanding of science and engineering through adapting a curriculum that is aligned with the demands of the AI and quantum era. This program offers foundational and applied courses in modeling and computation, algorithms, high-performance computing, visualization, software, quantum computing and multidisciplinary collaborations. This program will prepare interested graduate students for a career in national laboratories, academia and industries at the forefront of advanced modeling and simulation.

Students will learn technical skills in high-performance computational engineering, machine learning and quantum computing including the integration of physics-based modeling with data science. The program is formed to assist the student to become expert in using established software programs (such as MATLAB, Julia, Python) and new software (such as TensorFlow, Quirk).

Education Outcome

Upon completion of the program, the participants will receive a certificate showing that the student

  1. Understands the significant role that advanced simulation plays in future-focused engineering applications
  2. Explores the power of high-fidelity modeling and simulation
  3. Gains disciplinary technical knowledge of using computational techniques, and data-enabled methods and the integration of physics-based modeling and data science
  4. Learns the necessary skills to perform next generation engineering simulations on high-performance computers, GPUs and Quantum machines
  5. Learns how to use state-of-art high performance computational facilities and to create a virtual model of disciplinary engineering systems

Core Members

Kourosh Shoele, Mechanical Engineering, FAMU-FSU CoE
Kourosh Shoele

Bio: Dr. Kourosh Shoele is an Associate Professor of Mechanical Engineering at Florida State University. His research interests include fluid-structure interaction,  model reduction techniques, multiphase instabilities and unsteady vortex dynamics. His research explains the role the fluid and solid interaction plays in improving or hindering the performance of diverse engineering applications such as airfoils, skin panels, animal locomotion, and energy systems. He was a research scientist at Johns Hopkins University and received his doctoral degree from the University of California San Diego.  He is the recipient of NSF Career Award in Fluid Dynamics, DARPA Young Faculty Award, DARPA YFA-director fellowship and Florida State University COE Rising Star Faculty Award. His research has been sponsored by NSF, DARPA, NASA, DOE, ONR, ARO, AFOSR and several national labs and private companies.

Research Interest: Computational Fluid Dynamics, Fluid Structure Interaction, Vortex Dynamics, Model Reduction Research Website


Core Faculty (Departmental Coordinators are highlighted)

Neda Yaghoobian

Neda Yaghoobian

Mechanical Engineering, FAMU-FSU CoE

Research Website

William Oates

William Oates

Mechanical Engineering, FAMU-FSU CoE

Research Website

Unnikrishnan Sasidharan Nair

Unnikrishnan Sasidharan Nair

Mechanical Engineering, FAMU-FSU CoE

Research Website

Christian Hubicki

Christian Hubicki

Mechanical Engineering, FAMU-FSU CoE

Research Website

Leo Liu

Leo Liu

Chemical & Biomedical Engineering, FAMU-FSU CoE

Research Website

Leo Liu

Joshua Mysona

Chemical & Biomedical Engineering, FAMU-FSU CoE

Research Website

Sungmoon Jung

Sungmoon Jung

Civil & Environmental Engineering, FAMU-FSU CoE

Research Website

Pedro Fernandez-Caban

Pedro Fernandez-Caban

Civil & Environmental Engineering, FAMU-FSU CoE

Research Website

Ebrahim Ahmadisharaf

Ebrahim Ahmadisharaf

Civil & Environmental Engineering, FAMU-FSU CoE

Research Website

Rodney Roberts

Rodney Roberts

Electrical & Computer Engineering, FAMU-FSU CoE

Research Website

Bayaner Arigong

Bayaner Arigong

Electrical & Computer Engineering, FAMU-FSU CoE

Research Website

Victor DeBrunner

Victor DeBrunner

Electrical & Computer Engineering, FAMU-FSU CoE

Research Website

Lichun Li

Lichun Li

Industrial & Manufacturing Engineering, FAMU-FSU CoE

Research Website

Hui Wang

Hui Wang

Industrial & Manufacturing Engineering, FAMU-FSU CoE

Research Website

Yanshuo Sun

Yanshuo Sun

Industrial & Manufacturing Engineering, FAMU-FSU CoE

Research Website

Raghav Gnanasambandam

Raghav Gnanasambandam

Industrial & Manufacturing Engineering, FAMU-FSU CoE

Research Website

Associated Researchers

Suvranu De

Suvranu De

Dean, College of Engineering (FAMU-FSU)

Research Website

Bryan Quaife

Bryan Quaife

Scientific Computing (FSU)

Research Website

Arash Fahim

Arash Fahim

Mathematics (FSU)

Research Website

Mark Sussman

Mark Sussman

Mathematics (FSU)

Research Website

Yanzhu Chen

Yanzhu Chen

Physics, (FSU)

Research Website

Paul van Der Mark

Paul van Der Mark

Research Computing Center (FSU)

Research Website

Sanghyun Lee

Sanghyun Lee

Mathematics (FSU)

Research Website

Certificate Requirements

I. To earn the certificate, students must choose
      1. two courses in data science/high-performance computing/quantum computing (Refer to the class listing section).
             - Data Science/ High-performance Computing
             - Finite Element
             - Quantum Computing
             - Network Analysis
             - Machine Learning
             - Introduction to Parallel Computing on Heterogeneous (CPU+GPU) Systems
      2. one course related to applied mathematics (Refer to the class listing for 24-25)
             - Computational Probability and Statistics
             - Advanced Numerical Methods
             - Computational Fluid Dynamics
             - Theory of Probability
             - Advanced Analysis
      3. select two elective disciplinary courses from various domains.
II. Students are required to attend at least 4 colloquia/workshops in DC-QC, focusing on related topics that will be announced throughout the year including workshops and tutorials about machine learning, high-performance computing, quantum computing and introduction to major software.

Class Listing (2024-2025 COE classes are highlighted)

1.      Chemical & Biomedical Engineering

1.       BME266 - Biocomputations (Fall 2024)
2.       ECH2186 - Advanced Chemical Engineering Mathematics (Fall 2024)
3.       ECH2204 - Advanced Computations (Fall 2024)
4.       BME4531 - Medical Imaging (Spring 2025)
5.       BME 4361 - Neural Engineering (Spring 2025)

2.       Civil & Environmental Engineering

1.       CES 6116 - Finite Elements Methods
2.       CCE 5510 - Computer Applications in Construction (Spring 2025)
3.       EGN 5480 - Metaheuristics and Hybrid Algorithms (Spring 2025)
4.       EGN 5458 Statistical Applications for Engineering (Fall 2024)

3.       Electrical & Computer Engineering

1.       EEL 5930 - Computational Intelligence
2.       ENG2520 - Pattern Recognition and Machine Learning
3.       EEL4450 - Modeling and Simulation of Semiconductor Devices
4.       EEL 5205 - Computational Electrical Engineering
5.       EEL 5452 - Modeling and Simulation
6.       EEE 5452 - Analysis of Quantum Scale Semiconductor Devices
7.       EEL 5930 - Computational Methods in Power Systems
8.       EEE 5776. -  Machine Learning
9.       EEL 5875 -  Artificial Intelligence
10.     EEL 5613 - Foundations for Advanced Control Methods

4.       Industrial & Manufacturing Engineering

1.       EGN 5444 - Big Data Analytics in Engineering
2.       ENG2520 - Pattern Recognition and Machine Learning
3.       ESI 5458 - Optimization on Networks
4.       ESI 5685 - Introduction to Machine Learning
5.       ESI 5243 - Engineering Data Analysis (Spring 2025)
6.       ESI 5681 - Deep Learning in Practice
7.       EML 5930 - Uncertainty Analysis
8.       ESI 3628 - Computing Topics in Industrial Engineering (Fall 2024)
9.       ESI 5408 - Applied Optimization (Fall 2024; Spring 2025)
10.     EIN 5622 - Computer-Aided Manufacturing (Spring 2025)

5.       Mechanical Engineering

1.       EML4930(EGN 3434) - Numerical Methods for Engineers
2.       EML4930/5930 - Computational Material Physics
3.       EML5537 - Design using Finite Element Methods (Spring 2025)
4.       EML5725 - Introduction to Computational Fluid Dynamics (Spring 2025)
5.       EGM5611 - Continuum Mechanics
6.       EML5930 - Model Reduction
7.       ESI 5408 - Applied Optimization
8.       EML 4930 - Computational Linear Algebra (Fall 2024)
9.       EML5930 - Advanced Numerical Method (Fall 2024)
10.     EML5930 - Fluid Structure Interaction
11.     EML 4930 - Network Analysis (Fall 2024)
12.     EML 5061 - Analysis in Mechanical Engineering-Part II (Spring 2025)

6. Potential Other Classes

  • DATA SCIENCE
    1. Intro Machine Learning
    2. Intro Theoretical Statistics
    3. Design of Experiments
    4. Bayesian Statistics
    5. Big Data/Machine Learning

  • APPLIED NUMERICAL MATHEMATICSDATA SCIENCE
    1. Introduction to Complex Systems
    2. Method of Applied Math
    3. Network Theory
    4. Applied Functional Analysis
    5. Bioinformatics
    6. Quantum Computing

  • HIGH PERFORMANCE COMPUTING
    1. Data-Oriented Computing for Engineers
    2. Introduction to Parallel and Distributed Processing
    3. Data Intensive Computing
    4. High Performance Computing for Engineers

  • OTHERS
    1. Concepts in Multi-Scale and Multi-Physics Modeling
    2. Applied Probability and Statistics
    3. Computational Modeling and Visualization
    4. Computational Statistics
    5. Introduction to Computational Software Tools

Contact and Location

FAMU-FSU Joint School of Engineering

Mailing Address

DC-QC@eng.famu.fsu.edu
Tel: 850-645-0143