BiSSL Student Emily Payne Wins Award

February 22, 2025

BiSSL Ph.D. student Emily Payne awarded the Susan M. Arseven ’75 Make-a-Difference Memorial Award! The award was given by the Women in Science and Engineering (WISE) at their annual conference at Texas A&M University. The award encourages and provides financial assistance to A&M graduate students pursuing advanced degrees in science and engineering fields. Two awards of $1000 each are accompanied by a commemorative plaque and certificate. 

Dr. Susan Arseven’s career in computer science began after earning a B.S. in Physics from the University of Michigan and an M.S. in Library Sciences from Columbia University. She initially worked at IBM, leading a project at the University of Pennsylvania to create the first major automated library system. Dr. Arseven furthered her education with a Ph.D. in Computer Science from Texas A&M University, followed by a role at American Cyanamid, where she progressed from systems analyst to Chief Information Officer. In 1981, she completed an Executive MBA at Columbia University. Later, she served as the Senior Vice President and Chief Information Officer of Union Camp Corporation until 1999. Throughout her career, Dr. Arseven was involved in advisory and community roles, including at Pace University’s School of Computer Science.

Women in Science and Engineering (WISE) is an organization of undergraduate students, graduate students, faculty, postdoctoral fellows, and staff at Texas A&M University that serves and represents women in all areas of science and engineering at Texas A&M University. Their mission is to promote the involvement of women in the fields of science, engineering, and technology. They aim to stimulate and encourage young women to pursue such careers as well as act as a support system for those that are currently pursuing professional degrees.

Dr. Layton Invited Presentation at the 2025 INCOSE International Workshop

February 2, 2025 Seville, Spain & Virtual

By an invitation from the INCOSE Natural Systems Working Group (NSWG), Dr. Layton presented on BiSSL work at the 2025 International Workshop. The talk titled “Biological Ecosystems as Quantitative System Design Inspiration for Resilient and Sustainable Human Networks” covered highlights from the BiSSL approach to using inspiration from ecological systems to improve sustainability and resilience in human networks.

Invited Presentation in ASME’s Engineering 4 Change Seminar Series

Zoom – January 15, 2025

What can engineers and designers learn about sustainability from nature?

Natural ecosystems are an untapped source of design inspiration for improving the sustainability of human networks. This month’s Engineering 4 Change (E4C) Seminar Series features Dr. Astrid Layton Ph.D., Assistant Professor at Texas A&M University and Donna Walker Faculty Fellow in Mechanical Engineering. Her work explores how ecological food webs inspire sustainable engineering solutions. Join us, with Dr. Layton, for a session moderated by: Dr. Jesse Austin-Breneman , Associate Professor at Olin College of Engineering.

🌱 Discover how natural ecosystems can guide sustainable design
♻️ Explore the principle of ‘waste equals food’ in circular economy models
🚀 See examples of material cycling and energy efficiency
💬 Engage online with researchers, students and technical professionals worldwide

E4C’s Seminar Series features academic laboratories researching solutions to meet the UN’s Sustainable Development Goals. The world’s cutting edge research deserves a platform with a global audience. Join us for presentations of new findings from investigative teams worldwide.

🗓️ January 15th, 16:00 UTC –  11 am  ET
🔗 Sign up here: https://bit.ly/3ZJGyvo

Highlights from the presentation have been posted on their website: https://www.engineeringforchange.org/webinars/engineering-design-for-sustainability-learning-from-natures-systems-to-actually-achieve-waste-equals-food/

Sustainability as a systems-level problem with systems-level solutions.
Benefits of bio-inspired systems, meaning industrial or other human-made systems modeled after systems found in the natural world.
The ecological ‘window of vitality,’ a metric for systems analysis that measures efficiency and redundancy. She then uses the metric to show the effects of modeling a water distribution network after a natural ecological system.

PhD Student Hadear Hassan Attends Global Young Scientists Summit in Singapore

Singapore – January 6-10, 2025

The National Research Foundation of Singapore has been conducting the interdisciplinary Global Young Scientist Summit in Singapore (Global Young Scientists Summit (nrf.gov.sg)) since 2013. The goal of the summit is an open exchange between young scientists (in 2025 about 350 young scientists from across the globe) and some of the most prominent scientists in the world (in 2025 around 20 Nobel Laureates and Field’s prize winners are expected). Texas A&M was invited to send our brightest young scientists to participate. Hadear was selected as one of 5 top nominations from A&M by the National Research Foundation of Singapore to participate in the summit.

The event enables promising young scientists to exchange ideas and knowledge with the speakers and their peers over four days under this theme. At the Summit, participants will take part in lectures, plenary sessions and panel discussions. They will have the opportunity to interact with and be mentored by speakers in informal small group sessions.

Invited Biology Symposium Presentation

Atlanta, GA – January 5, 2025

We started the year off with our lab’s work being presented at the Society for Integrative and Comparative Biology (SICB, https://sicb.org/) 2025 conference, thanks to an invitation from Drs. Cassandra Donatelli and Karly Cohen to participate in their special session “From evolution to innovation: bridging biology and engineering through bioinspired design.” The presentation, and upcoming paper with PhD student Hadear Hassan, focused on how to better support engineers seeking to do bio-inspired design: “The Role of Information Representation in Fostering Bio-Inspired Designs in Engineering.” The presentation will be published as a paper in the ICB journal later this year.

Abstract: Engineering designs inspired by the natural world encompass many innovative and novel solutions to human problems, often solving problems where engineers had initially only seen trade-offs. Most bio-inspired engineering designs however have been the result of either chance observation or dedicated study, hindering efforts to have biological inspiration become a mainstream tool. Efforts have been made to develop normative bio-inspired processes and identify approaches that can aid the non-experts in biology find and successfully implement a bioinspired strategy, however true accessibility is still lacking. This work uses classroom studies to understand the impact of information representation on engineering design creativity under a biologically inspired engineering umbrella. Small teams of students were provided with a common problem description, followed by different sets of biological information. This biological information was made up of various technical levels of figures, discipline-specific terminology, and reading levels. The students were tasked with generating bio-inspired design solutions using the provided biological information. Sketches and feedbacks from students provide insight into a possible connection between information representation (text vs. images, reading level, disciplinary overlap, ideation novelty and diversity scores) and bio-inspired engineering designs. Using images and different levels of technical complexity in the text are possible routes for improving successful interdisciplinary knowledge transfer in ways that broaden the accessibility of problem driven interdisciplinary design.

Hadear Hassan Wins 2024 James J. Cain ’51 Award

October 10, 2024

BiSSL Ph.D. student Hadear Hassan has been awarded the 2024 James J. Cain ’51 Award by the department, an award that recognizes the demonstrated academic and innovative excellence of the recipients and is awarded to only 2 graduate students each year. She received the award at the 2024 Mechanical Engineering Student Award Recognition on October 10th.

Dr. Astrid Layton and Ph.D. student Hadear Hassan at the Fall 2024 MEEN Award Ceremony.

James J. Cain ’51 was a long-time supporter and graduate of the Department of Mechanical Engineering at Texas A&M University. Cain was the youngest of five children and was born and raised in Sherman, Texas. After completing high school, Cain attended Texas A&M and received a degree in mechanical engineering. During his long and distinguished career of more than 35 years at Mobil Oil, Cain was renowned for his desire to mentor students and faculty at Texas A&M. He took great pride in being a part of Mobil’s college recruiting team, often filling positions with Aggie graduates.

Journal Paper on Circular Economy in Manufacturing Published in JMSE

Two BiSSL students, Ph.D. student Hadear Hassan and MS alumna Amira Bushagour, have coauthored a paper in ASME’s Journal of Manufacturing Science and Engineering. The paper, originally presented at the 2024 MSEC conference, focuses on useful overlaps between reconfigurable manufacturing and circular economy efforts by assessing the adaptability and connection to circular economy principles in 44 different manufacturing system configurations.

Reconfigurability in manufacturing signifies a system’s capacity to promptly adapt to evolving needs. This adaptability is critical for markets to maintain operations during unexpected disruptions, including weather anomalies, cyber-attacks, and physical obstructions. Concurrently, the concept of a circular economy is gaining popularity in manufacturing to mitigate waste and optimize resource utilization. Circular economy principles aim to reduce environmental impacts while maximizing economic benefits by emphasizing the reuse of goods and resource byproducts. The nexus between reconfigurability and the circular economy stems from their shared pursuit of sustainability and resilience. Interestingly, biological ecosystems also exhibit these traits, showcasing exceptional adaptability to disturbances alongside the ability to effectively utilize available resources during normal operations. This study explores various manufacturing system configurations to assess both their adaptability and connection to circular economy principles. 44 configurations are categorized based on layout (e.g., job shop, flow line, cellular) and analyzed using convertibility, cyclicity, and Degree of System Order metrics. A significant positive correlation (R2 = 0.655) is found between high convertibility and ecologically similar levels of structural cycling, suggesting that effective resource utilization supports adaptability in manufacturing systems. Furthermore, this paper proposes the existence of a possible “window of vitality” for cyclicity, as it demonstrates a significant correlation (R2 = 0.855) between the Degree of System Order and cyclicity. Identifying systems that strike a balance between redundancy, efficiency, convertibility, and cyclicity can aid manufacturing system designers and decision-makers in making choices that address increasing requirements for both sustainability and resilience.

Hassan, H., A. Bushagour, and A. Layton. (2024) “Resilient Circularity in Manufacturing: Synergies between Circular Economy and Reconfigurable Manufacturing.” ASME Journal of Manufacturing Science and Engineering. 146(11): 110902. DOI: 10.1115/1.4065744

2 New Cyber-Physical Power Systems Papers Published

Two new papers have been recently published from the BiSSL group first-authored and co-authored by its students resulting from a collaborative grant with Sandia National Lab and Dr. Kate Davis’ group in Electrical Engineering.

Highlights include:

1. A graph-embedding technique, Node2Vec, to capture neighborhood relationships with second-order biased random walks for risk assessment in cyber-physical power grids.
2. Highly realistic and synthetic cyber network topologies for power grids to perform our case studies.
3. Visualization of the risk assessment with various methods for a more comprehensive situational awareness for grid operators.

Modern power grids and other complex systems are a fusion of physical and cyber components, giving rise to intricate interdependencies. These interdependencies, however, also expose vulnerabilities that can be exploited by adversaries. This paper delves into the critical examination of these interconnections, inspired by Ecological Network Analysis (ENA) techniques. By drawing from ecological modeling, we aim to understand the role of cyber-physical interdependencies in the resilience of complex systems. We introduce various modeling methods, including bipartite and tripartite networks, to analyze and map these interdependencies in the context of the IEEE WSCC 9-bus and the ACTIV 200-bus case study. The paper explores how these models can identify key actors and assess network resilience. Through a detailed methodology, we apply ecological metrics and community identification techniques to comprehensively evaluate the system’s interactions. The findings offer insights into the interplay of cyber and physical elements in power grids and other complex systems. These analysis methods show that tripartite networks produce more information on indirect interactions within a complex network. Additionally, they provide detailed information on how disturbances could propagate in a cyber-physical power system. Denial of service scenarios for the WSCC 9-bus and the ACTIV 200-bus case studies are employed to support this conclusion.

Payne, E., S. Hossain-McKenzie, N. Jacobs, K. Davis, A. Layton. (2024) “Analyzing Cyber-Physical Modularity and Interdependence Using Bio-Inspired Graph Modeling.” IEEE Access. DOI: 10.1109/ACCESS.2024.3450368
This article explores vulnerabilities in modern power systems due to interdependencies between physical, cyber-physical, and cyber devices. Ecological Network Analysis (ENA) assists in constructing bipartite and tripartite networks for the WSCC 9-bus and ACTIV 200-bus systems. The findings reveal that tripartite networks offer deeper insights into indirect interactions, enhancing our understanding of systemic resilience under denial-of-service scenarios.

Abstract: Power systems are facing an increasing number of cyber incidents, potentially leading to damaging consequences to both physical and cyber aspects. However, the development of analytical methods for the study of large-scale power infrastructures as cyber-physical systems is still in its early stages. Drawing inspiration from machine-learning techniques, the authors introduce a method inspired by the principles of graph embedding that is tailored for quantitative risk assessment and the exploration of possible mitigation strategies of large-scale cyber-physical power systems. The primary advantage of the graph embedding approach lies in its ability to generate numerous random walks on a graph, simulating potential access paths. Meanwhile, it enables capturing high-dimensional structures in low-dimensional spaces, facilitating advanced machine-learning applications, and ensuring scalability and adaptability for comprehensive network analysis. By employing this graph embedding-based approach, the authors present a structured and methodical framework for risk assessment in cyber-physical systems. The proposed graph embedding-based risk analysis framework aims to provide a more insightful perspective on cyber-physical risk assessment and situation awareness for power systems. To validate and demonstrate its applicability, the method has been tested on two cyber-physical power system models: the Western System Coordinating Council (WSCC) 9-Bus System and the Illinois 200-Bus System, thereby showing its advantages in enhancing the accuracy of risk analysis and comprehensiveness of situational awareness.

Sun, S., H. Huang, E. Payne, S. Hossain-McKenzie, N. Jacobs, H. Vincent Poor, A. Layton, and K. Davis. (2024) “A Graph Embedding-Based Approach for Automatic Cyber-Physical Power System Risk Assessment to Prevent and Mitigate Threats at Scale.” The Institution of Engineering and Technology (IET) Cyber-Physical Systems: Theory & Applications. DOI: 10.1049/cps2.12097

Dr. Layton Gives Graduate Research Seminar at UW Madison, Mechanical Engineering

Dr. Astrid Layton will be visiting the University of Wisconsin-Madison to give a seminar on the research going on in the BiSSL group for their graduate seminar series. Her talk, titled “Tackling Engineering’s Sustainability and Resilience Problems Using Biological Systems,” will cover some of the bio-inspired techniques that BiSSL has found to be helpful when improving engineering systems for sustainability and resilience goals.

Another Successful ASME IDETC Conference!

This year’s ASME IDETC-CIE conference saw one BiSSL Ph.D. student, Emily Payne, presenting her first-authored paper and Dr. Layton serving as an invited panelist for 2 panels.

Emily’s paper, “Integrating Machine Learning into the Design of Green Building Systems,” was presented in the SEIKM: Systems Engineering and Complex Systems.

Abstract: Sustainable infrastructure design is a complicated process often requiring detailed estimates specifications and constraints of the project scope to be compiled. Beyond the time-consuming gathering of project data sometimes the availability of completed projects is limited. Therefore, a method to produce similar designs with varied constraints requires a systems engineering perspective. Systems engineering provides a method to evaluate multidisciplinary design development while simultaneously following stakeholder requirements. Ecologically inspired systems have shown the ability to maintain balanced resources and structural relationships even under duress. Driven by the imperative to build sustainable infrastructure, this research explores the utilization of machine learning techniques to generate robust and reliable forecasts of green building specifications, even when design resources are scarce. To demonstrate the effectiveness of this approach, machine learning techniques were performed on a dataset of 93 green educational buildings, and on an oversampled dataset containing synthetically generated data points at the aim of certification level prediction. Both datasets contained metrics quantitatively characterizing cost, energy efficiency, and ecologically sustainable metrics specific to each building. Results indicate that the oversampled dataset allowed for better machine learning prediction among the classification algorithms considered. Oversampled data provided quality information offering cost minimization during initial design stages. This data suggests that oversampling is a reliable technique to amplify the design area of infrastructure projects when applied on data containing strong systemic classification patterns.

A panel session “Approaches to Environmental Sustainability, Perspectives from Europe and North America” hosted by the Design Society and organized by Dr. Julie Linsey invited me along with Dr. Abigail Clarke-Sather from the University of Minnesota Duluth and Dr. Devarajan Ramanujan from Aarhus University. The talks and discussion highlighted recent work at the interface of engineering design and circular economy.

Session Description: Minimizing impacts on the environment through clean energy, sustainability, and similar topics continues to grow and be critical topics in engineering.  It is a topic that attracts significant interest in both North America and Europe and benefits from the diverse regional perspectives.  In this special session, leading researchers from Europe and North America will present their perspectives on current needs, research approaches, cutting-edge research, and differing viewpoints.  This session will feature 7-minute short, thought-provoking presentations followed by panelist discussions and questions.   The focus will be on bringing diverse perspectives and cutting-edge research from both communities together, thereby building greater connections between the European Design Society community and the primarily North American ASME IDETC community. 

A panel special session “Opportunities at the Boundaries between Systems Engineering and Design Theory” hosted by the Design Theory and Methodology technical committee and organized by Drs. Bryan Watson and Alex Murphy invited me along with Diarny Fernandes from the Johns Hopkins University Applied Physics Laboratory and Dr. Matthew Mueller from PTC. The discussion highlighted useful intersections and emerging problems between design theory and systems engineering.