Image of red tulips with words Honors Engineering Symposium, University of Arkansas, Saturday, April 10, 2021

Due to COVID-19 only verified participants, judges and support staff may attend this in-person event. Remote attendees are welcome to join the presentations through the Zoom links provided in the Symposium Schedule by clikcing the 'Schedule of Events' button.

A MESSAGE FROM THE DIRECTOR

Richard Cassady

On behalf of the faculty and staff of the College of Engineering at the University of Arkansas, it is my pleasure to welcome you to the 13th Annual Honors Engineering Symposium. The purpose of the symposium is to showcase the research and innovation efforts of 38 first-year engineering students and 10 first-year business students who are enrolled in the Honors College.

Nineteen students participated in a research colloquium during the fall semester in which they learned about various aspects of academic research in an engineering program. Throughout the year, the students have worked individually or in teams on projects mentored by College of Engineering faculty. The 10 research projects cover several areas of tremendous recent attention in the engineering professions.

Twenty-nine students participated in an innovation colloquium during the fall semester in which they learned about various aspects of innovation and entrepreneurship. Throughout the year, the students have worked in teams on projects mentored by College of Engineering faculty to help them with innovative design projects. The student teams also had to consider product market and business development plans.

We invite remote attendees to view the student posters, to watch the presentations sessions, and to view the awards ceremonies.

I appreciate your support and again welcome you to our 13th Annual Honors Engineering Symposium.

Sincerely,
C. Richard Cassady, Ph.D.
College of Engineering Honors Program Director


FROM THE COLLEGE OF ENGINEERING DEAN

Dean Kim Needy

Watch Video

FROM THE HONORS
COLLEGE DEAN

Lynda Cook

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Dean Kim Needy, College of Engineering

Dean Lynda Coon, Honors College

RESEARCH TEAMS

Investigating the Influence of IL-10 on Immune Cell Presence & Effectiveness in Muscular Tissue

Students

Colton Gattis | Biomedical Engineering

Vincent Rubinelli | Civil Engineering

Faculty Mentor

Dr. Jeff Wolchok | Biomedical Engineering

Project Description

Volumetric Muscle Injury (VML) is a muscle injury characterized by the traumatic loss of a significant portion of muscle tissue resulting in a loss in ability. Previous studies indicate that the introduction of a signaling molecule, known as Interleukin-10, promotes VML recovery. We seek to better understand which immune cell populations Interleukin-10 influences to achieve this pro-regenerative effect. Utilizing histology and fluorescent staining, we will properly analyze IL-10's effects on common immune cells.

Designing a Low-Cost and Easily Manufacturable SCARA Arm for Swarm-Based 3D Printing

Student Researchers

Ben Burdess | Mechanical Engineering

William Hutchinson | Electrical Engineering

Faculty Mentor

Wenchao Zhou, Ph.D. | Mechanical Engineering

Project Description

Swarm 3D printing is a technology where multiple printers work together on one object allowing for scalability and flexibility in manufacturing. AMBOTS currently uses a SCARA arm that reaches out to print, but this design is highly custom and time-consuming to manufacture. Our task was to redesign the arm to be lower cost and more easily manufacturable. We used aluminum extrusion and CNC milled plates to create a rigid and modular arm for 3D printing.

Contrasting runtimes of traditional and parallelized network embedding algorithms

Student Researchers

Henry Schmidt | Computer Science & Computer Engineering

Maxwell Harbour | Computer Science & Computer Engineering

Faculty Mentor

Miaoqing Huang, Ph.D. | Computer Science & Computer Engineering

Project Description

Data in the modern world is constantly flowing but without a way to relate it, it has no use. Network embedding algorithms such as DeepWalk and node2vec allow us to create connections between seemingly unlike data points. However, the speed at which these algorithms work increases greatly with the size of the input data set. In our presentation we will showcase the possible advantages of utilizing GPU clusters to reduce the runtimes of these algorithms.

Using Nets and Nanoparticles to Mitigate Harmful Algal Blooms

Students

Grace Li | Chemical Engineering

Grace Martin | Chemical Engineering

Faculty Mentor

Wen Zhang, Ph.D. | Civil Engineering

Yolanys Aranda, Senior Honors Student | Civil Engineering

Project Description

Harmful algae blooms (HABs) produce cyanotoxins, which negatively impact the environment and human health. Both marine and freshwater bodies, including our local Lake Fayetteville, are affected by HABs. Current practices for treatment include pumping water into treatment facilities to remove toxins, which is costly and changes the landscape near the affected body of water. Our research explores the efficacy of titanium dioxide nanoparticles as a possible alternative for in situ treatment.

Testing of an Infrared Nadir-Pointing System for a CubeSat

Students

Camden Cranford | Civil Engineering

Russ Tharp | Civil Engineering

Faculty Mentor

Po-Hao Adam Huang, Ph.D. | Mechanical Engineering

Project Description

This project provides an overview of the testing of several infrared sensors for use in a nadir-pointing system on the university’s first CubeSat, the ArkSat-1. Our team created programs in LabView to control and monitor the temperatures of a custom Earth and Space plate, to simulate realistic atmospheric and space temperatures, as well as test the viability of several infrared sensors based on their ability to distinguish between the two different temperatures.

Validation of a Novel Genetic Biomarker of Mesenchymal Stem Cell Growth and Phenotype In Vitro

Students

Emma Smith | Biomedical Engineering

Riley Glendinning | Biomedical Engineering

Faculty Mentor

Rebekah Margaret Samsonraj, Ph.D. | Biomedical Engineering

Project Description

Our project is a validation experiment of Dr. Rebekah Samsonraj’s research on genomic biomarker discovery that correlates with growth capacity of mesenchymal stem cells (MSCs). We are performing a double-blinded experiment on MSCs from three donors in assessing parameters such as cell growth, colony-forming efficiency, and gene expression followed by comparing phenotype results with gene expression to verify if the absence of the identified biomarker gene results in increased cell growth.

Exploring Variation of Protospacer Length and Prime Editing Viability

Students

Meg Bozarth | Civil Engineering

Nathania Nischal | Biomedical Engineering

Faculty Mentor

Christopher Nelson, Ph.D. | Biomedical Engineering

Mary Jia, Student Mentor | Biomedical Engineering

Project Description

Arrhythmogenic Right Ventricular Cardiomyopathy is a deadly disease that prevents regular beating of the heart. Many cases are caused by a point mutation on Desmoglein2 which alters the amino acid produced. To remedy this, pegRNA complexes needed to be designed for use in gene therapy: the first for mutation insertion and the other for removal. These pegRNA complexes were then run through CASOFFinder to determine their theoretical viability as prime editors for the desired site.

Biocompatibility Assessment of Magnesium-based Biocomposites for Bone Implant Applications

Students

Hailey Hoog | Biomedical Engineering

Aaron Gardner | Chemical Engineering

Faculty Mentor

Mostafa Elsaadany, Ph.D. | Biomedical Engineering

Project Description

Magnesium-based biocomposites offer an alternative to standard orthopaedic implants due to their biodegradability and elastic modulus similar to that of human bone. These composites have potential to lower the risk of stress shielding and reduce inflammation, but require further cytotoxicity testing. The biocompatibility of three Magnesium-based alloys (0.5 BN, 1.5 BN, and ultra-pure Magnesium) was assessed through Contact Angle Measurement (CAM) to determine the hydrophilicity of the samples.

Models to the Distribution of COVID-19 Vaccines in the United States

Students

Sidrah Raache | Biomedical Engineering

Kieran Groom | Computer Science & Computer Engineering

Faculty Mentor

D. Sandra Eksioglu, Ph.D. | Industrial Engineering

Project Description

Our objective was to develop a supply chain system model specified for states in the US depending on density and age of the population, and the cold storage capacity to maximize coverage. We have come up with a model based on how the US is conducting the current vaccine distribution and our stated parameters to see how it could be improved.

A computational model of tumor invasion in small cell lung cancer (poster image)

Students

Hannah C. Drury | Biomedical Engineering

Faculty Mentor

Leonard A. Harris | Biomedical Engineering

Project Description

Small cell lung cancer (SCLC) is an aggressive disease known for quickly developing resistance to chemotherapy and metastasizing. Recent research has identified multiple cell subtypes of SCLC that are hypothesized to form a microecosystem that supports tumor growth. In this project, we extend a computational model of the SCLC tumor in order to reproduce experimental results. The long-term goal is to use the model to develop treatments for SCLC by slowing, or preventing, metastasis.

INNOVATION TEAMS

Paragon
Powerstrip

Paragon Powerstrip

Students

John Blake Sooter | Industrial Engineering

Ryan Williams | Electrical Engineering

Mitchell Bylak | Computer Science & Computer Engineering

Emily Pritchard | Walton College of Business

Faculty Mentor

Robert Saunders, P.E. | Electrical Engineering

Project Description

Our project provides a streamlined solution to the growing problem of power delivery for consumer electronic devices. Most consumer devices come with various sized, device-specific power adapters that block up to half of the AC outlets on a basic power strip. We propose a modular solution that enables the end user to arrange each outlet to their needs. This maximizes the usefulness of each outlet, improves aesthetic, and provides a superior user experience.

Food Delivery Service at the University of Arkansas

Food Delivery Service at the University of Arkansas

Students

Trent Grass | of Student Finance and Accounting, Walton College of Business

Joe Campagnuolo | Walton College of Business

Connor Kilgore | Student Chain Management, Walton College of Business

Sharon Kardasz | Mechanical Engineering

Faculty Mentor

Chase Rainwater, Ph.D. | Industrial Engineering

Project Description

Do you struggle to find time to eat meals during busy days on campus? Are you looking for an on-campus job with flexible hours? This pitch deck outlines the development of a food delivery service at The University of Arkansas. This service includes the integration of meal swipes and dining dollars as payment for delivery of any food item from any location on campus to your straight to your dorm.

G3 Smart
Shoes

G3 Smart Shoes

Students

Daniel Koonce | Industrial Engineering

Isabelle Linkous | Walton College of Business

Faculty Mentor

Alexander Nelson,Ph.D. | Computer Science & Computer Engineering

Project Description

What if there was a smarter way to run that also kept you safe? Our product combines technology with traditional running shoes to maximize your running experience while keeping you safe. Our shoes are automatic-lacing and have a tracking device to keep your running statistics while also having an emergency button that contacts local authorities in case of an emergency.

Wheel Plow

Wheel Plow

Students

Avery Batson | Computer Science & Computer Engineering

Cameron Elliott | Mechanical Engineering

Luke Stouffer | Computer Science & Computer Engineering

Faculty Mentor

Monty Roberts | Mechanical Engineering

Project Description

With more people working from home than ever before, protection of office equipment is at a premium. This presentation introduces an efficient device which will protect valuable objects such as cords and clothing from chair wheels by pushing them out of the way rather than rolling over them.

Proximity Cane

Proximity Cane

Students

Ethan Graef | Mechanical Engineering

Hector Salinas | Computer Science & Computer Engineering

Wali Mian | Mechanical Engineering

Alydia Brashear | Accounting & Information Systems, Walton College of Business

Ben Blaine | Business Management & Administration, Walton College of Business

Emma Grace Bryans | Business, Walton College of Business

Faculty Mentor

Robert Saunders, P.E. | Electrical Engineering

Project Description

Technology has improved the lives of so many people in the world, yet there is a lack of innovative, affordable technology for the blind and visually impaired. Our product takes a look at how we can improve the standard White Cane by using motion sensing technology to better the everyday mobility of the visually impaired.

Sensus

Sensus

Students

Jack Norris | Computer Science & Computer Engineering, College of Engineering & Finance, Walton College of Business

Ashwin Narayan | Industrial Engineering

Joshua Jowers | Industrial Engineering

Izzy Aguilar | Biomedical Engineering

Fletcher Pride | Finance and Accounting, Walton College of Business

Samson Parker | Mechanical Engineering & Music, Fulbright College of Arts and Sciences

Faculty Mentor

Alexander Nelson, Ph.D. | Computer Science & Computer Engineering

Project Description

What if you could see how crowded a location was before going there? This pitch deck examines user-friendly technology that enables students to conveniently find open study spaces across campus. By utilizing Bluetooth technology and simple hardware, we give students the ability to view the occupancy levels of various study spaces, all through the convenience of a mobile app.

Iugo Mag

Iugo Mag

Students

Cassidy Caffin | Biomedical Engineering

Caleb DeJarnatt | Electrical Engineering

Connor Maurer | Accounting, Walton College of Business

Josh Stallard | Business Management, Walton College of Business

Faculty Mentor

Juan Balda,Ph.D. | Electrical Engineering

Project Description

The next step in wireless charging is not just fast approaching: it’s here! This pitch deck investigates the expanding opportunities of wireless power transfer for portable electronic devices. This new wireless power transfer goes beyond the traditional cord-to-outlet charging by taking advantage of the benefits of magnets. Success of the product has implications for the convenience of day-to-day life in a technological era.