When I was young, I didn’t envision becoming a chemical engineer. I remember wanting to be an artist, an actor, a journalist, and a chef. Perhaps it was because I didn’t have a role model who was working in a STEM field or because I didn’t know that STEM was an exciting avenue to channel what really motivated me: to connect with and help people and make a difference. It’s likely a mix of both. I also remember loving arts and crafts, fixing things, working on puzzles, experimenting in the kitchen, organizing and measuring things, and reading fiction. For the longest time, I perceived my interests and hobbies as mismatched and misaligned with a passion for STEM because I wasn’t building robots or taking apart computers in my spare time. In retrospect, I realize that I was naturally drawn to problem solving creatively and making sense of the world around me empirically and learning about others’ interpretation of it. It wasn’t until I became a Ph.D. student that I understood how the skills I had acquired through my hobbies fit into my engineering studies and my training as a researcher. 
 
Despite having the privilege of attending one of the best K-12 schools in Chile (my home country), choosing STEM was a constant internal battle. Among the few women in my graduating class who were interested in STEM, I was the only one who was considering engineering – the others wanted to study medicine. All my female friends were choosing the liberal arts or social studies and economics tracks that my school offered. Although my high school teachers encouraged me to choose the STEM track and assured me I would thrive, I was afraid of how lonely my future path seemed and further alienating myself in a classroom full of guys who already teased me because of my academic achievements. In the end, I chose STEM because I believed that I would never be sure if it was the right fit unless I gave it my best effort and that nurturing my passion and curiosity would eventually outweigh the challenges I would have to face along the way. In addition, I did eventually find male classmates who were fantastic lab and project partners and great allies. 
 
Soon after I decided to apply to engineering schools in Chile, an unforeseen and exciting opportunity presented itself: moving with my family to Washington D.C. It was a risky and challenging transition for me because I was about to start my senior year of high school and I didn’t have much time to get familiar with and prepare for U.S. college applications. My parents did their best to support me, but they didn’t know what I was going through, so I had to heavily rely on teachers, guidance counselors, and friends for advice and feedback on college applications. Nonetheless, my parents constantly reminded me that re-applying the following year, going back to Chile, taking a gap year, or seeking other options were opportunities for growth and finding creative solutions rather than failures. I’m very grateful that they instilled in me this growth mindset early on and empowered me to try new things even if it involved facing significant uncertainty. Things did work out as I had hoped, and I enrolled at the University of Maryland as a chemical engineering major. 
 
When I started college, I was very nervous because I was not fully comfortable and confident studying in English, and I didn’t know how adjusting to the U.S. education system would impact my ability to succeed in chemical engineering. I still remember struggling in the intro to engineering design class I had my first semester not because I didn’t understand the material, but because of a communication barrier. I had to give technical presentations in English for the first time and my vocabulary was lacking, which was mortifying. Professors singled me out in class and criticized me assuming that I didn’t bother to learn the name of a power tool in the machine shop because I was a woman. Little did they know that I did know the technical vocabulary, but in a different language. I had to work extra hard to “catch up” and be very patient with myself and others. Luckily, I had access to a great support network and additional resources through the women in engineering program. By the end of my freshman year, I didn’t feel like my foreign nationality and background solely defined me and I started enjoying and excelling in my classes. Then, by the end of my junior year, I was balancing my coursework and an undergraduate research project, getting ready to apply to Ph.D. programs, and having the confidence to apply for a teaching assistant role for a chemical engineering course. I certainly didn’t get there on my own. Finding peers, graduate student mentors, and professors to lean on was so instrumental to my success. 
 
Despite facing some doubts and difficulties during my chemical engineering journey, I’d do it all over again because I’ve met amazingly talented and kind people along the way and I’ve experienced hands-on how this discipline can have a positive impact and make a difference in society. What I loved the most about studying chemical engineering was learning how to transform simple chemicals and materials into more complex and functional products that we interact with daily and how to describe these processes mathematically in order to understand, troubleshoot, and improve them. For my Ph.D. studies at the University of Texas at Austin, I chose to focus on nanotechnology research because I was fascinated by the interplay and collaboration between chemical engineering, chemistry, material science, and polymer physics in these systems. I learned how to investigate, problem-solve, and piece together reactions, mechanisms, and properties using all kinds of instruments and data for different applications, which then led to my current role in Analytical Science at Dow. I’ve only recently started this new chapter in my STEM journey at Dow and I’ve already been exposed to very interesting projects and exciting technologies. I’m thrilled to continue this journey, bring innovate solutions to chemical and material challenges, and mentor and work alongside the next generation of chemical engineers!

Chemical Engineering is the branch of engineering that deals with the design of processes to manufacture, transport, and transform materials.  Chemical Engineers accomplish this by designing the chemical reactions so the raw material can be transformed into something usable. They use knowledge from multiple disciplines like biology, chemistry, material science, physics and math to perform their jobs.

​A traditional career path for chemical engineers may start in oil and gas, specialty chemicals, or pharmaceutical industries.  Entry level jobs include positions in research and development or production engineers.  Chemical engineers in R&D groups help develop and research procedures that can then be implemented industrially and commercially.  Chemical engineers have a hand in helping develop new materials as well as processes that are used to make materials on a larger scale.  As a production engineer, a chemical engineer is responsible with implementing new processes, designing equipment, planning production runs, and scaling up processes. 

For many chemical engineers, a shift in roles is common.  Many chemical engineers become project managers.   As project managers they oversee the implementation and budgets of projects.  Some chemical engineers shift into a leadership role, as a leader they oversee people and budgets at a more strategic level.

According to the U.S. Bureau of Labor Statistics, careers in chemical engineering are predicted to grow from 2019-2029 by 4%.  The median annual wage for chemical engineers as of May 2020 is $108,540, the lowest 10% of chemical engineers earned $68,430. 

Chemical engineers can work across many industries such as:

Advanced materials- such as aerospace, automotive, electronics, and nanomaterials where they help develop materials with improved properties.  Additional, they help develop methods for implementation on larger scale production. 

Biotechnology- develop and design processes to produce antibiotics, insulin, etc.

Chemical process industries- oil and gas, specialty chemicals, catalysts, cosmetics, plastics where they help develop the processes to make and isolate chemicals.

Design and Construction- work closely with construction industry to design efficient plants, design new equipment, and manage projects.

Energy and fuels- develop alternative energy sources and develop processes for production of fuel.
Environmental, Safety, and Health- chemical engineers help minimize production byproducts, find uses for byproducts, design more efficient processes, develop a waste treatment plan, and ensure process safety.

Food- chemical engineers develop new packaging materials, ingredients for enhanced flavor, or develop new ways to preserve food and drinks.

In addition to the industries listed above, chemical engineers can pursue a career in government (working at agencies such as the Environmental Protection Agency or the Department of Energy), education, and law as intellectual property lawyers, and business. 
                                                                                                                                                            
https://chbe.rice.edu/academics/undergraduate-programs/where-do-chemical-engineers-work
https://www.bls.gov/ooh/architecture-and-engineering/chemical-engineers.htm