Poster Competition

Poster Competition

Abstracts

Learn about student research from a variety of different topics

The effect of UV and thermal processing on the properties of a UV-curable polymer fabricated with 3D printing was studied. The polymers studied were proprietary methacrylate based resins (Formlabs) and samples were printed directly in test geometries. Uniaxial compression tests at room temperature were performed for Young’s modulus, Poisson’s ratio, and yield stress. Thermal tests using a Differential Scanning Calorimeter (DSC) described the glass transition temperature range, physical aging and (additional) high-temperature reactions of the samples. Post-processing consisted of either additional UV exposure time or high temperature “soak” time (or both). These indicated that post-processing has a pronounced effect on the mechanical and thermal properties. Both aspects of post-processing (UV and high-T soaks) increase the yield stress, the modulus and the glass transition. Combining high-T soaks with additional UV exposure is particularly effective.

Diglycidyl ether of bisphenol A (DGEBA) epoxy reacts with diethanolamine (DEA)
through a complex zwitterionic chain-growth reaction. This formulation has the advantages of
1) a ceiling temperature (reducing the risk of thermal runaway reactions); 
2) reactants of relatively
low toxicity; 
3) a living polymerization that imparts a self-healing nature; and
4) an acceptably high Tg making it appropriate for engineering applications.
In the present paper, the time and extent of cure at the gel point is found over a wide
range of temperatures. This builds on previous studies that provide gel point values at only a few temperatures (65°C, 70°C and 90°C). Here, we extend this to 55°C to 160°C and find that the extent of cure at the gel point to be 0.40±0.05 for all cases. This agrees with theoretical predictions if proton transfer is prevalent during the reaction which result in a step-growth-like network structure. Finally, the gel point measurements are combined with prior glass transition temperatures to produce a time-temperature-transformation diagram. Techniques used are rheology, bubble viscometry, and micro-calorimetry. Theories used were those of Carothers and of Flory-Stockmayer. Analysis of the shear moduli after being reduced by their frequency power-law was found to give a better prediction of the gel point than analysis of the moduli themselves.

Paper Competition

Paper Competition

Abstracts

Learn about student research related to the field of engineering

Flame merging occurs when multiple flames interact to create a single larger flame. This phenomenon occurs on scales ranging from matchsticks to massive forest fires, and is still not perfectly understood. The multiple leaves and small branches in varying orientations and geometries found in shrubs create complex interactions of individual flames and a complex flame growth pattern. A better understanding of flame merging can lead to improved understanding of the spread of flames in wildfires, especially when considering shrubs as fuel sources. Experiments were performed using lab-scale buoyant flames to correlate the effect of separation distance between fuel sources on flame merging. Additionally, other flame parameters, including flame height, area, and width, were measured and correlated to separation distance. The experiments were conducted using two or three ceramic felt pads soaked in liquid n-heptane as fuel sources, which allowed for a relatively constant flame during testing. Although horizontal separation of flames has been studied in the literature, this study tested both vertical and horizontal separation of fuel sources. Correlations that were developed account for both horizontal and vertical separation.

Contrast-enhanced magnetic resonance angiography is a vital tool for evaluating vascular pathology. However, concerns about the limitations and safety of gadolinium-based contrast agents have led to interest in alternative agents. Methemoglobin (MetHb) increases the T1-weighted signal intensity of the magnetic resonance image of blood and might provide a safe and effective intravascular contrasting effect. MetHb can be transiently produced by the reaction of nitric oxide (NO) gas with oxyhemoglobin and is naturally converted back to hemoglobin in a ferrous state by cytochrome b5 reductase. Since rapid production of metHb via NO to achieve a contrasting effect has not been studied, we evaluated the effectiveness of producing metHb via NO delivery to blood flowing through a hollow-fiber module and into a reservoir. MetHb production occurred immediately within the module and >90% conversion occurred in the reservoir within 10 minutes. MetHb remained stable for the length of the study when NO delivery was removed following metHb formation. There was good agreement between kinetic and transport modeling predictions for metHb production and our experimental results. This work shows that NO delivery to blood is a promising platform to rapidly increase metHb and provide an alternative intravascular contrasting effect for magnetic resonance angiography.

Combustion accounts for over 80% of the world’s energy use and developing methods to simulate combustion systems is important for the design and characterization of many engineering processes. One key aspect of combustion is soot formation. Soot is a pollutant, a health hazard, and indicates process inefficiencies. Soot is also responsible for a significant fraction of radiative heat transfer from flames. We are developing a new library for simulating the behavior of soot in a flame, utilizing object-oriented design, software design patterns, and testing and functionality driven development. This was accomplished using C++ and CMake. The use of these design patterns has led to a library which is modular, intuitive, and readily usable.We discuss the development of this library and show the initial simulations of soot formation in laminar premixed flames with comparisons to experimental data.Authors: Josh Bedwell, Victoria Stevens, David Lignell

Tritium combustion properties figure prominently in design and safety analysis of nuclear reactors. The radiation hazards, costs, and permitting associated with tritium present significant barriers to determining the properties. Sound theories that reproduce measured deuterium data based on hydrogen data and the atomic mass difference between hydrogen and deuterium should predict tritium properties based on hydrogen and deuterium data. However, these theories do not account for the radioactive nature of tritium and are therefore incomplete. Our research seeks to develop a method whereby the true combustion kinetics of tritium can be accurately quantified. Significant theoretical work, along with the development of an apparatus capable of measuring flame propagation speed, autoignition temperature and flammability limits, has been done to this end.

Chemical Car Competition

Chemical Car Competition

Student Teams

Learn a little about each school and their chemical car

Hydrogen fuel cell car.

Pressure car powered by a hydrogen peroxide – yeast catalyst reaction.

Pressure car powered by a hydrogen peroxide – yeast catalyst reaction.

The Aluminati: Pressure car made of mostly aluminum.

Regional Conference


CSU Spring 2021 Regional Conference
April 2-3 via Pathable

AicheRegionalCSU@colostate.edu

Days
Hours
Minutes
Seconds
Conference has Begun!

Join us for two days of student-led competitions, presentations, social gatherings, and more!

UPDATED Conference Schedule

Friday, April 2nd, 2021
Start TimeEnd TimeEvent
4pm6pmChemE Jeopardy Competition
6pm7pmChem-E-Car Poster Competition and Safety Inspection
7pm8pmSocial Mixer / Networking Event
Saturday, April 3rd, 2021
7am9amChem-E-Car  Competition Prep / Setup
7am7:50amCoffee Chat Networking Event
8am8:45amKeynote / Welcome Address
8:45am9amBreak
9am10amConference Workshop 1
10am12pmChem-E-Car Performance Competition
12pm1pmLunch Break
12pm1pmPresidents Meeting
1pm2pmConference Workshop 2
2pm4pmCareer Fair
2pm4pmStudent Technical Presentation Competition
4pm5pmStudent Poster Competition
5:30pm6:30pmAwards Banquet

Student Competitions

Chemical Car Competition

Watch as schools compete to see who can get their chemically-powered car closest to a randomly selected distance. 

Competing Schools:

  • University of Utah: Pressure car powered by a hydrogen peroxide – yeast catalyst reaction.
  • South Dakota School of Mines Team 1: Hydrogen fuel cell car.

  • South Dakota School of Mines Team 2: The Aluminati: Pressure car made of mostly aluminum.

  • Montana State University Team 1 
  • Montana State University Team 2

A complete guide of the official rules and EDP format is available at: http://www.aiche.org/chemecar

Paper Competition

Students present technical papers related to the field of chemical engineering. The individual subjects are left up to each student, so this is a great way to learn more about a variety of topics or gain experience presenting. 

April 3rd Competition Times

Denver Haycock: 2-2:25pm

Kyle Primavera: 2:25-2:50pm

Josh Bedwell: 2:50-3:15pm

Nathan Passey: 3:15-3:40pm

Poster Competition

Students present posters based on chemical engineering or related topics. Posters are displayed and are judged to determine the competition winners.

Poster Competitor Numbers (These correspond to the breakout rooms each poster will be in during the competition):

Brandon McReynolds: 1

Catherine House: 2

Jeopardy Competition

A fun, laid-back Jeopardy competition between teams of competitors from different schools. Categories will be focused on chemical engineering concepts as well as science, math, and other engineering-related topics. There will also be at least one “miscellaneous” category not related to coursework. Feel free to sign up and see how many questions you can get! Prizes are awarded to the 1st-3rd place teams, and the 1st place team will advance to the national competition.

The Jeopardy competition will take place Friday evening, following the schedule below:

Career Fair Companies

Tolmar

 

Anheuser-Busch

 

AIChE

Conference Sponsors

Thank you to all of our sponsors who have made this conference possible!

Keynote Speaker: Tina Larson

Tina Marriott Larson has served as Recursion’s Chief Operating Officer since July 2018 and as our President since October 2019. She was previously Senior Vice President, Executive Committee member, and Compliance Committee member at Achaogen, a publicly traded biopharmaceutical company that discovered, developed and commercialized treatments for infectious disease from May 2016 to June 2018, where she led Achaogen’s technical operations team—accountable for process development, supply chain and diagnostic development. Prior to Achaogen, she was Global Head of Technical Development Business Operations at Roche from October 2014 to April 2016, where she was responsible for business and technology infrastructure. 

She spent a total of 20 years at Genentech/Roche in technical operations roles that included Automation Engineer, Associate Director Manufacturing Sciences, Director Process Development Engineering and Senior Director Technical Development Operations & Engineering. She has both deep technical expertise in scale-up of biopharmaceutical production and managing technical and operational organizations. 

Ms. Larson was recognized by the Healthcare Business Women’s Association as a Rising Star in 2012, was recognized by Utah Business magazine as CXO of the Year in 2020, and was a 2019 Women Tech Council Awards winner. She has served on the advisory board of Colorado State University’s College of Engineering since 2015 and was recognized in 2019 as a CSU Distinguished Alumni. Ms. Larson received a B.S. in Chemical Engineering from Colorado State University.

Take a Virtual Tour of the Walter Scott, Jr. College of Engineering

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About Us

The Walter Scott, Jr. College of Engineering is using its classrooms and laboratories to educate the next generation of innovators, entrepreneurs, and corporate and civic leaders.

Degrees Conferred 2018-19

570

Bachelor of Science

206

Masters

60

Doctoral

The 1870 Morrill Act that created land-grant colleges specified that both “agricultural and mechanic arts” be taught.

What is now known as the Walter Scott, Jr. College of Engineering carries on that mission in the 21st century, its legacy expanding from weather and agricultural innovations into groundbreaking research on satellites, robotics and lasers, and machines that can learn on their own.

Meet the Dean

Colorado State University provided me an educational and experiential foundation that guided me throughout my career. I am excited to have the opportunity to once again serve and give back to the institution. 

I am very proud of the engineering programs at Colorado State. We deliver solid, rigorous, and well-rounded academic programs that balance theory and application. We educate bright students and our graduates are well prepared for careers or for graduate school. We recruit excellent faculty who are committed to undergraduate education, to graduate education, and to research.

It is my privilege to work with this group of faculty, staff and students as we continue this important work.

David I. McLean
Professor and Dean

Mission, Vision and Values

The goal of the College is to serve society by educating students, solving problems of global importance, and contributing to national and international economic development. We have set our goals high and our vision is clear: to create a better world for future generations.

Mission

Educate, innovate, cultivate and engage in order to generate new knowledge, improve quality of life, and positively impact society.

Vision

We will significantly benefit our region, nation and the world by engaging the global water, health, energy and environmental challenges of the day through leadership in the practices of engineering research, education, innovation and engagement.

Values

  • Excellence
  • Inclusiveness
  • Collaboration and Respect
  • Creativity and Innovation
  • Passion
  • Integrity
  • Transparency and Accountability
Strategic Plan

The College’s 2020 Strategic Plan details our mission, vision, and values, and presents strategic initiatives that advance our highest priorities and create value for our students and faculty, CSU, Colorado, and beyond.

The 2020 Strategic Implementation Plan identifies specific actions needed to achieve success with the initiatives contained within the 2020 Strategic Plan.

CSU Land Acknowledgment

Colorado State University’s land acknowledgment is a statement crafted by a variety of Indigenous faculty and staff, as well as other officials at CSU.

The statement recognizes the long history of Native peoples and nations that lived and stewarded the land where the university now resides. The land acknowledgment statement also maintains the connection Native people and nations still have to this land.

Facts and Figures

Students Fall 2019

3,275

Total

2,619

Undergraduate students

656

Graduate students

Undergraduate Diversity

20.9%

Under-represented minority

26.2%

Female

32.5%

Non-resident

Graduate Diversity

8.3%

Under-represented minority, Masters

7.7%

Under-represented minority, Ph.D.

Note: Graduate under-represented minority statistics for degrees conferred do not include international students.

24.3%

Female

58%

Non-resident

Fall 2019 New Student Profile

28.5

Average ACT composite score

1294

Average SAT composite

3.92

Average high school GPA

615

Entering freshmen

46

Home states

Degrees Conferred 2018-19

570

Bachelor of Science

206

Masters

60

Doctoral

Faculty

125

Number of tenured and tenure-track

33

Associate professors

67

Professors

25

Assistant professors

6

University Distinguished Professors

1

University Distinguished Teaching Scholar

2

National Academy of Engineering Members

1

National Academy of Sciences Member

Institutional Research, Planning and Effectiveness

Institutional Research, Planning and Effectiveness is a service office for the University community.
It is our mission to support strategic planning activities and continuous quality improvement at the institution.