MINERVA VOICES

Where Polar Science Meets Math Modeling and Creative Expression: Annabel Schön’s Journey

Meet Annabel Schön (M25), whose Minerva experience led from conservation research to advancing snow modeling in the Arctic

July 1, 2026

Polar snow modeling, conservation work in South Africa, and art–science exhibitions in Taiwan – at first glance, they feel unrelated. For Annabel Schön (M25), they all grew out of the same curiosity: 

How do complex systems work, and how do we communicate them clearly? 

From building numerical snow models in Finland to tracking leopards in the bush, Annabel’s path shows that scientific interests don’t always follow a straight line – and that unconventional routes often open meaningful opportunities.

From Capstone Curiosity to Professional Arctic Research

Annabel didn’t enter polar science through a traditional route. During her time at Minerva, she became increasingly drawn to remote Arctic environments and the mathematical tools used to study them. But without a built-in pathway for polar research, she had to create one.

“I read papers, made a list, and emailed 20 or 30 scientists around the world,” she said.

One of those cold emails led to Dr. Glen Liston at Colorado State University — a leading figure in snow modeling and now a long-term mentor.
This relationship shaped her Minerva capstone and opened the door to the work she does today.

Today, Annabel is based in Helsinki, working at Finnish Meteorological Institute on numerical snowpack modeling. Her project focuses on advancing a Coupled Ice-Snow (CIS) model that simulates how snow accumulates, compacts, melts, and interacts with Arctic environments. 

She is the youngest member of her 20-person team and is responsible for key components of the modeling effort – an uncommon level of autonomy for an early-career researcher. 

As part of her funded research program, Annabel will soon head to the field to collect the measurements needed to test and refine her simulations. 

As she put it, “I’m really excited to see how the math holds up in real Arctic conditions — grounding the model in what actually happens outside the lab.”

South Africa: Understanding Systems Through Observation

Before stepping into polar science, Annabel spent 1.5 months in South Africa, where she carried out conservation research using camera traps to track leopards. She produced ecological reports for reserve managers, focusing on migration pathways and population estimates crucial to wildlife management in fragmented farmland landscapes. 

That experience helped her understand science as both analytical and observational.

“You can’t learn certain things from data alone — being in the field changes how you see patterns,” she said.

Creative Work as Scientific Communication

Threaded through Annabel’s scientific journey is her creative side. She co-founded Napkins (university-wide art magazine), organized an interdisciplinary art-science exhibition in Taiwan, and often thinks about narrative as a complementary research tool for scientific communication. 

“Art helps you ask different questions,” she said. “It’s another way of understanding science, not separate from it.”

Courses That Shaped Her Interdisciplinary Identity

During Minerva, several classes built the intellectual foundation she now works from:

  • NS156 Earth Systems Science with Prof. Zoogman
    → the class that pushed her into thinking deeply about planetary processes, feedback loops, and climate dynamics.
  • CS166 Modeling and Simulation
    → her introduction to numerical models and complex systems — the toolset that now underpins her research in Finland.
  • NS112 Evolution and NS144 Genetics
    → reinforcing her passion for biological systems and their elegant complexity.

She blended these fields outside class too — including through the Napkins and art exhibition — exploring how science and creative communication can build on each other.

Mentors Who Helped Shape the Path

Annabel credits much of her growth to mentors who challenged her to think beyond disciplinary boundaries.

  • Dr. Glen Liston, her long-term mentor in snow physics
    → provided scientific guidance, helped her navigate uncertainties, and brought her into the world of Arctic modeling. 
  • Prof. Wilkins, who encouraged her to embrace her hybrid identity
    “You don’t fit the traditional box — and that’s your advantage.”
  • Prof. Tambasco, who supported her interest in both CS and NS
    → helping her believe she could succeed across quantitative and scientific domains, not just pick one.
Advice for Minerva Students

Annabel’s guidance for students interested in research — especially unconventional or emerging fields — is clear:

“Reach out early. Read papers. Email people. Even if you’re not doing a master’s yet, connect with the researchers at the forefront. Some of the best opportunities start with a single conversation.”

Looking Ahead

Annabel is now preparing to apply for graduate programs in polar and climate science. Her long-term vision is to keep working at the intersection of math modeling, fieldwork, and creative communication – bridging technical expertise with accessible storytelling.

Her journey shows that science can connect across different fields. It can be analytical and artistic, field-based and computational, structured and exploratory. And perhaps most importantly, it can be self-defined.

---

Ready to chart your own path? Explore how Minerva University helps students turn curiosity into meaningful global careers. Learn more about Minerva University.

Quick Facts

Name
Country
Class
Major

Computational Sciences

Computational Sciences

Natural Sciences

Computational Sciences

Arts & Humanities, Natural Sciences

Social Sciences & Arts and Humanities

Business

Computational Sciences

Computational Sciences

Social Sciences & Business

Computational Sciences

Social Sciences

Computational Sciences & Business

Business & Computational Sciences

Computational Sciences

Computational Sciences

Social Sciences & Business

Business

Natural Sciences

Social Sciences

Social Sciences

Social Sciences & Business

Business & Computational Sciences

Business and Social Sciences

Social Sciences and Business

Computational Sciences & Social Sciences

Computer Science & Arts and Humanities

Business and Computational Sciences

Business and Social Sciences

Natural Sciences

Arts and Humanities

Business, Social Sciences

Business & Arts and Humanities

Computational Sciences

Natural Sciences, Computer Science

Computational Sciences

Arts & Humanities

Computational Sciences, Social Sciences

Computational Sciences

Computational Sciences

Natural Sciences, Social Sciences

Social Sciences, Natural Sciences

Data Science, Statistics

Computational Sciences

Business

Computational Sciences, Data Science

Social Sciences

Natural Sciences

Business, Natural Sciences

Business, Social Sciences

Computational Sciences

Arts & Humanities, Social Sciences

Social Sciences

Computational Sciences, Natural Sciences

Natural Sciences

Computational Sciences, Social Sciences

Business, Social Sciences

Computational Sciences

Natural Sciences, Social Sciences

Social Sciences

Arts & Humanities, Social Sciences

Arts & Humanities, Social Science

Social Sciences, Business

Arts & Humanities

Computational Sciences, Social Science

Natural Sciences, Computer Science

Computational Science, Statistic Natural Sciences

Business & Social Sciences

Minor

Sustainability

Sustainability

Natural Sciences & Sustainability

Natural Sciences

Sustainability

Computational Sciences

Computational Sciences

Computational Science & Business

Concentration

Data Science and Statistics

Data Science and Statistics, Digital Practices

Earth and Environmental Systems

Cognition, Brain, and Behavior & Philosophy, Ethics, and the Law

Computational Theory and Analysis

Computer Science and Artificial Intelligence

Brand Management & Computer Science and Artificial Intelligence

Computer Science and Artificial Intelligence

Economics and Society & Strategic Finance

Enterprise Management

Economics and Society

Cells and Organisms & Brain, Cognition, and Behavior

Cognitive Science and Economics & Political Science

Applied Problem Solving & Computer Science and Artificial Intelligence

Computer Science and Artificial Intelligence & Cognition, Brain, and Behavior

Designing Societies & New Ventures

Strategic Finance & Data Science and Statistics

Brand Management and Designing Societies

Data Science & Economics

Machine Learning

Cells, Organisms, Data Science, Statistics

Arts & Literature and Historical Forces

Artificial Intelligence & Computer Science

Cells and Organisms, Mind and Emotion

Economics, Physics

Managing Operational Complexity and Strategic Finance

Global Development Studies and Brain, Cognition, and Behavior

Scalable Growth, Designing Societies

Business

Drug Discovery Research, Designing and Implementing Policies

Historical Forces, Cognition, Brain, and Behavior

Artificial Intelligence, Psychology

Designing Solutions, Data Science and Statistics

Data Science and Statistic, Theoretical Foundations of Natural Science

Strategic Finance, Politics, Government, and Society

Internship
Higia Technologies
Project Development and Marketing Analyst Intern at VIVITA, a Mistletoe company
Business Development Intern, DoSomething.org
Business Analyst, Clean Energy Associates (CEA)

Conversation

Polar snow modeling, conservation work in South Africa, and art–science exhibitions in Taiwan – at first glance, they feel unrelated. For Annabel Schön (M25), they all grew out of the same curiosity: 

How do complex systems work, and how do we communicate them clearly? 

From building numerical snow models in Finland to tracking leopards in the bush, Annabel’s path shows that scientific interests don’t always follow a straight line – and that unconventional routes often open meaningful opportunities.

From Capstone Curiosity to Professional Arctic Research

Annabel didn’t enter polar science through a traditional route. During her time at Minerva, she became increasingly drawn to remote Arctic environments and the mathematical tools used to study them. But without a built-in pathway for polar research, she had to create one.

“I read papers, made a list, and emailed 20 or 30 scientists around the world,” she said.

One of those cold emails led to Dr. Glen Liston at Colorado State University — a leading figure in snow modeling and now a long-term mentor.
This relationship shaped her Minerva capstone and opened the door to the work she does today.

Today, Annabel is based in Helsinki, working at Finnish Meteorological Institute on numerical snowpack modeling. Her project focuses on advancing a Coupled Ice-Snow (CIS) model that simulates how snow accumulates, compacts, melts, and interacts with Arctic environments. 

She is the youngest member of her 20-person team and is responsible for key components of the modeling effort – an uncommon level of autonomy for an early-career researcher. 

As part of her funded research program, Annabel will soon head to the field to collect the measurements needed to test and refine her simulations. 

As she put it, “I’m really excited to see how the math holds up in real Arctic conditions — grounding the model in what actually happens outside the lab.”

South Africa: Understanding Systems Through Observation

Before stepping into polar science, Annabel spent 1.5 months in South Africa, where she carried out conservation research using camera traps to track leopards. She produced ecological reports for reserve managers, focusing on migration pathways and population estimates crucial to wildlife management in fragmented farmland landscapes. 

That experience helped her understand science as both analytical and observational.

“You can’t learn certain things from data alone — being in the field changes how you see patterns,” she said.

Creative Work as Scientific Communication

Threaded through Annabel’s scientific journey is her creative side. She co-founded Napkins (university-wide art magazine), organized an interdisciplinary art-science exhibition in Taiwan, and often thinks about narrative as a complementary research tool for scientific communication. 

“Art helps you ask different questions,” she said. “It’s another way of understanding science, not separate from it.”

Courses That Shaped Her Interdisciplinary Identity

During Minerva, several classes built the intellectual foundation she now works from:

  • NS156 Earth Systems Science with Prof. Zoogman
    → the class that pushed her into thinking deeply about planetary processes, feedback loops, and climate dynamics.
  • CS166 Modeling and Simulation
    → her introduction to numerical models and complex systems — the toolset that now underpins her research in Finland.
  • NS112 Evolution and NS144 Genetics
    → reinforcing her passion for biological systems and their elegant complexity.

She blended these fields outside class too — including through the Napkins and art exhibition — exploring how science and creative communication can build on each other.

Mentors Who Helped Shape the Path

Annabel credits much of her growth to mentors who challenged her to think beyond disciplinary boundaries.

  • Dr. Glen Liston, her long-term mentor in snow physics
    → provided scientific guidance, helped her navigate uncertainties, and brought her into the world of Arctic modeling. 
  • Prof. Wilkins, who encouraged her to embrace her hybrid identity
    “You don’t fit the traditional box — and that’s your advantage.”
  • Prof. Tambasco, who supported her interest in both CS and NS
    → helping her believe she could succeed across quantitative and scientific domains, not just pick one.
Advice for Minerva Students

Annabel’s guidance for students interested in research — especially unconventional or emerging fields — is clear:

“Reach out early. Read papers. Email people. Even if you’re not doing a master’s yet, connect with the researchers at the forefront. Some of the best opportunities start with a single conversation.”

Looking Ahead

Annabel is now preparing to apply for graduate programs in polar and climate science. Her long-term vision is to keep working at the intersection of math modeling, fieldwork, and creative communication – bridging technical expertise with accessible storytelling.

Her journey shows that science can connect across different fields. It can be analytical and artistic, field-based and computational, structured and exploratory. And perhaps most importantly, it can be self-defined.

---

Ready to chart your own path? Explore how Minerva University helps students turn curiosity into meaningful global careers. Learn more about Minerva University.