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For 150 years, CU 91���Ҹ� has embraced an interdisciplinary philosophy that has led to groundbreaking science discoveries that continually change our understanding of the world.

The impact of this work on humanity extends from the tiniest microbes to our knowledge of time. The university’s research is a catalyst for innovation, transcending traditional methods and reaching new realms of possibility.

This list highlights a few of these breakthroughs.��

1910s

Botany

In 1910, a red sunflower growing wild in 91���Ҹ� caught the attention of Wilmatte Porter Cockerell and her CU professor husband, Theodore Dru Alison Cockerell. Drawing on their scientific training, they cultivated and cross-pollinated the plant, stabilizing its unusual color and introducing it to seed companies. What began as a local discovery became a globally distributed plant. Today, the university continues this legacy through the University Libraries’��, which shares the red sunflower seeds with the campus’ local community.

1940s

Space

MAVEN mission to Mars.

CU 91���Ҹ�’s�� plays an integral role in advancing planetary discoveries across the solar system. Since its founding in 1948 to study the sun, LASP has become the world’s only academic research institute to send instruments to all eight planets, Pluto and beyond. Recent milestones include the oversight of the�� to study Mars’ upper atmosphere, sending CU student-built instruments on the New Horizons spacecraft to fly by Pluto and explore the Kuiper Belt, and developing instruments aboard��, NASA’s flagship mission to Jupiter’s icy moon Europa.

1950s

Engineering

In 1956, CU 91���Ҹ� students and faculty developed the��, designed for quadriplegic individuals. The system, which used a board with lights that moved across letters and symbols, allowed users to select characters through small movements of the mouth, eyelids or fingers. The Polio Foundation provided and supervised use of the typewriter, which reflected mid-20th-century efforts to apply emerging technologies to practical human needs.

1950s

Environmental Science

A keeper of long-standing and continuous environmental records, the��Mountain 91���Ҹ� Station in Nederland, Colorado, is a global leader in climate science. Since the 1950s, CU researchers have collected data across mountain ecosystems, producing some of the longest high-altitude climate records in North America and the world. These decades of measurements, tracking atmospheric conditions, snowpack and temperature, provide critical insight into climate change over time and have made the station a hub for high-altitude environmental research.

1960s

Environmental Science

Early collaboration between CU 91���Ҹ� and the National Oceanic and Atmospheric Administration, made possible through the��, helped transform global environmental science. Beginning in the late 1960s, the partnership advanced early climate monitoring and atmospheric chemistry research, including new methods to measure trace gases that eventually laid the groundwork for modern environmental observation systems. Over time, the work grew into large-scale Earth systems science, atmospheric monitoring and ocean mapping, which led to a massive effort to chart the U.S. extended continental shelf.

1970s

Anthropologist Payson Sheets in the field

Archaeology

In 1978, CU 91���Ҹ�’s��Payson Sheets��(Anth’67; MA’69) led the discovery and long-term excavation of�� in El Salvador, a Maya village preserved by volcanic ash around 590 A.D. Often called the “New World Pompeii,” the site revealed evidence of daily life among ordinary people, reshaping understanding of ancient societies, resilience and human responses to sudden environmental disasters. Sheets’ work also helped to advance standard archaeological methods, including the use of remote sensing to locate and analyze buried sites.

1980s

Biology

The rise of modern microbiome science was driven by techniques that allowed scientists to identify and analyze entire microbial communities without culturing them in a lab. At CU, biochemist Norman Pace created genetic sequencing methods that revealed vast unseen biodiversity and reshaped the tree of life. Building on that foundation in the 2000s, CU microbiologist Rob Knight developed computational tools to analyze microbial ecosystems at scale. Together, these innovations changed microbiome research into a data-driven field, showing how microbes shape human health and the environment.

1980s

Biotechnology

CU 91���Ҹ� biochemist��Marvin Caruthers (HonDocSci’24) pioneered chemical methods for synthesizing DNA and RNA, reducing a process that once took months to just hours. His work laid the foundation for genome research, while his patents in custom DNA production helped launch the biotechnology industry. Caruthers co-founded�� in addition to��, which brought automated DNA synthesis tools into laboratories worldwide.

1990s

Quantum Physics

The creation of the first�� in 1995 marked a breakthrough in quantum physics, revealing a new state of matter in which atoms cooled to near absolute zero behave as a single quantum entity. Achieved by Eric Cornell and Carl Wieman at CU 91���Ҹ�’s��JILA, a joint institute with the National Institute of Standards and Technology, the discovery won them the��2001 Nobel Prize in Physics and launched the field of ultracold atomic research, with far-reaching implications for quantum technologies.

2000s

Physics

Ultra-precise atomic clocks are pushing the limits of how we measure time. At CU 91���Ҹ�,��Jun Ye (PhDPhys’97) has led the development of optical atomic clocks with extreme precision and accuracy, using lasers to measure the vibrations of atoms trapped in optical fields.��His lab’s��clocks will not gain or lose a second over billions of years. This work enables a wide range of applications, including more precise tests of fundamental physics.

2010s

Integrative Physiology

CU 91���Ҹ� researcher Monique LeBourgeois uncovered how light exposure affects children’s sleep health. In particular, her work found that young children are uniquely sensitive to evening light exposure, especially blue light emitted by screens. In a��, her team found that just one hour of bright light before bed suppressed preschoolers’ melatonin levels by nearly 90%, with effects lasting long after the lights were turned off. This research became a driver in pediatric sleep science, translating lab discoveries into guidance for families.

2010s

Geography

Data-driven wildfire science at CU 91���Ҹ� reshapes how communities understand and respond to fire risk in a warming climate. Jennifer Balch led this work through��, integrating satellite data and field research to track fire patterns, forest loss and ecosystem recovery. Her work produced new tools for analyzing wildfire behavior and assessing risk across the Western U.S., helping communities better anticipate and adapt to a rapidly changing fire landscape.

2020s

Public Health

The discovery that COVID-19 spreads through airborne aerosols and not solely large droplets greatly impacted public health guidance and indoor safety. At CU 91���Ҹ�, Shelly Miller and José-Luis Jimenez helped demonstrate how virus particles linger in indoor air, highlighting the critical role of ventilation and filtration.��Miller’s research on how respiratory aerosols are generated during activities such as singing and playing musical instruments also informed safer guidance for schools and performance settings. Their work helped reshape global understanding of disease transmission and accelerate innovations to improve indoor air quality.

2020s

Artificial Intelligence

Decades of foundational work at CU 91���Ҹ� in natural language processing, machine learning and ethical AI helped establish the university as a leader in the field. 91���Ҹ� by CU faculty, including Martha Palmer and James Martin, advanced how machines interpret human language and analyze complex data. Building on that legacy, CU’s new��master of science in artificial intelligence, launched in 2025, expands access to advanced AI education.