Raven Kromer: Pioneering NASA Intern and Martian Geology Researcher

Raven Kromer's remarkable achievements are a testament to her dedication and passion for science. As a senior at the University of Hawaiʻi at Hilo, majoring in Physics, Astronomy, and English, Kromer has set a high bar for academic excellence. Her contributions to the scientific community are notably significant, resulting in numerous prestigious awards and recognitions from NASA. Among these, she has been granted a travel fellowship to present her groundbreaking research on basaltic sand dunes at the 8th International Planetary Dunes Workshop in Italy. This research is particularly notable for its comparative analysis of basaltic dunes on Earth's Hawaiʻi Island and Mars, making valuable contributions to our understanding of planetary environments [source].

Kromer's academic journey is also marked by her acceptance into NASA’s Europa ICONS internship program, which offers a unique opportunity for aspiring scientists to work on the Europa Clipper mission's science team. This prestigious internship not only includes a generous stipend but also allows participants to engage with leading experts at both the Johns Hopkins Advanced Physics Laboratory and NASA's AMES Research Center [source]. Additionally, Kromer's receipt of a grant from the Hawaiʻi Space Grant Consortium highlights her involvement in cutting-edge research on the orbital dynamics of dwarf galaxies, supported by the expertise of Dr. Nicole Drakos [source].

Her mentors, including John Hamilton and Dr. Steve Lundblad, recognize the potential of her work to advance our understanding of Martian geological analogs, thereby enhancing predictive models of atmospheric dynamics and dune formation [source]. Such insights are crucial for future space exploration initiatives. By examining the parallels between terrestrial and Martian dunes, Kromer is paving the way for new scientific discourses that could inform future Mars missions and the search for extraterrestrial life.

Raven Kromer's contributions are not just academic but also inspirational. Her achievements serve to motivate budding scientists, especially women and those in underrepresented groups in science, to pursue careers in these challenging yet rewarding fields. Through her work and the visibility she brings to these critical scientific debates, Kromer plays a significant role in promoting public engagement with science, which is essential for the progression of research and technology [source].

Raven Kromer's journey through the cosmos of academic achievement exemplifies the pinnacle of interdisciplinary exploration. As a senior at the University of Hawaiʻi at Hilo, her unique combination of majors in Physics, Astronomy, and English has paved a path of excellence recognized by prestigious NASA accolades. Her dedication has led to a series of awards, reflecting her commitment to both scientific inquiry and the literary articulation of cosmic phenomena. Among her achievements is a notable travel grant, which allowed her to present her intriguing research on basaltic sand dunes at the 8th International Planetary Dunes Workshop in Italy, offering valuable insights into comparative planetary geography.

The NASA Europa ICONS internship program stands as a testament to Raven Kromer's outstanding academic accomplishments and her potential as an emerging scientist. This program, designed to cultivate future leaders in Europa research, has selected Kromer for her exemplary work, allowing her to gain hands-on experience at two of the most esteemed institutions in the field: Johns Hopkins Advanced Physics Laboratory and NASA Ames Research Center. Her work under this program extends beyond academia as it intertwines with the Europa Clipper mission, a cornerstone project in the quest to uncover the mysteries of Jupiter's enigmatic moon, Europa.

In parallel with her contributions to planetary science, Kromer has embarked on a fascinating study of the orbital dynamics of dwarf galaxies, supported by a grant from the Hawaiʻi Space Grant Consortium. Guided by Dr. Nicole Drakos of the UH Hilo Physics and Astronomy Department, this research underscores her capability to tackle complex astrophysical queries. This project not only enriches her understanding of space phenomena but also contributes significantly to the broader field of galactic dynamics and cosmic evolution.

Kromer's achievements illuminate the importance of interdisciplinary learning and its application in solving sophisticated scientific problems. Her research on basaltic sand dunes, performed under the mentorship of Physics & Astronomy lecturer John Hamilton, exemplifies this approach, enhancing our understanding of both Martian and terrestrial environments. The significance of her work is further highlighted by her mentors at UH Hilo, who regard her projects as instrumental in bridging geographical analogs between Earth and Mars, thus enriching the scientific narrative on planetary habitability.

Such awards and recognitions are not just personal milestones for Kromer but serve as inspiration for the next generation of scientists. Her story is particularly motivating for women and underrepresented groups in STEM fields, demonstrating the heights that can be achieved through dedication and interdisciplinary study. By engaging with NASA's pioneering missions and contributing original research, Kromer exemplifies the integral role of young scientists in shaping the future of space exploration.

Raven Kromer's research on basaltic sand dunes stands at the intersection of terrestrial geology and planetary science, offering valuable insights into both fields. As a senior majoring in Physics, Astronomy, and English at the University of Hawaiʻi at Hilo, Kromer has garnered recognition for her work, including receiving several NASA awards. Her work primarily focuses on comparing the basaltic dunes on Hawaiʻi Island, known for its volcanic landscapes, with those on Mars. This comparison is critical because both locations boast volcanic origins, making them ideal subjects for understanding planetary surface processes similar to those on Mars. Such research sheds light on atmospheric conditions, dune formation, and potentially the climate history of Mars, providing critical data for planetary scientists.[1](http://www.hawaii.edu/news/article.php?aId=13870)

The unique geological attributes of Hawaiʻi Island make it analogous to Martian terrain, providing an excellent laboratory for Raven Kromer's studies. Under the guidance of her mentor, John Hamilton, and with the support from the university's Geology Department, Kromer's research utilizes this volcanic environment to draw parallels with Martian dune structures. Her presentation, titled "Visual Comparison of Morphologies of Martian Basaltic Sand Dunes with Terrestrial Basaltic Sand Dunes," is set to be a highlight at the 8th International Planetary Dunes Workshop in Italy. This event gathers experts from around the world to discuss dunes' formation and evolutionary history, making it a pivotal platform for showcasing findings that may redefine our understanding of Martian geology.[1](http://www.hawaii.edu/news/article.php?aId=13870)

The implications of Kromer's research extend beyond academic curiosity, encompassing potential advancements in various scientific and economic sectors. Dune studies can lead to innovations in materials science, potentially revolutionizing construction and aerospace industries. As part of NASA's broader research efforts—which include projects like the ARRAKIS initiative examining microbial life in extreme conditions—the understanding of dunes' role in planetary geology could also accelerate biotech advancements. Moreover, her involvement in NASA-related projects exemplifies the growing importance of interdisciplinary approaches in space exploration and planetary science, as her research helps lay the groundwork for future technologies and methods of exploration.[1](http://www.hawaii.edu/news/article.php?aId=13870)

Kromer's participation in significant research discussions, such as the upcoming workshop in Italy, underscores the importance of cross-disciplinary and international collaboration in space science. Such forums not only highlight up-and-coming researchers but also foster a global dialogue on the interpretation of planetary environments. With her involvement in NASA's initiatives and mentorship from experts like John Hamilton, Raven Kromer stands as a testament to how academic endeavors in local environments can impact greater scientific understanding of extraterrestrial bodies. Her work contributes to the collective effort in preparing for future missions to Mars and beyond, enhancing our ability to analyze and understand the complexity of other planets through terrestrial analogs.[1](http://www.hawaii.edu/news/article.php?aId=13870)

The study of Martian dunes holds significant clues about the planet's atmospheric and climatic history, making it an essential field in planetary science. By understanding the formation and evolution of these dunes, scientists can infer past wind patterns, weather conditions, and even analyze the potential for past life on Mars. Hawaiʻi Island provides a remarkable analog to Mars due to its volcanic geology, allowing for comparative analyses that enhance our understanding of extraterrestrial landscapes. This unique setting enables researchers like Raven Kromer to draw parallels between Hawaiian and Martian dunes, offering insights that could illuminate aspects of Martian environmental conditions unknown before.

Raven Kromer's presentation at the 8th International Planetary Dunes Workshop exemplifies the breakthrough potential of linking Earth-based studies with those of Martian surfaces. Her work not only contributes to the current understanding of planetary dune dynamics but also leverages Hawaiʻi's natural landscape to simulate and study Martian conditions effectively. Such research is crucial, as it aids not only in uncovering Mars's past climates but also in preparing for future missions to the Red Planet by improving landing strategies and the design of exploration tools tailored to Martian terrain.

Understanding dune formation and evolution on Mars has broader implications that extend beyond planetary science. The sand dunes can provide insights into the planet's geological history and potential mineral resources, which could be vital for future manned missions. Furthermore, they serve as a key feature in identifying possible habitats for microbial life, an area of great interest for astrobiologists. By studying these structures, researchers can piece together the environmental changes Mars has undergone and utilize this information when theorizing about the planet's capacity to support life now or in the past.

This field of study also opens doors to industrial and technological advancements on Earth. For instance, the methodologies used in researching Martian sand conditions can lead to developments in materials science and remote sensing technology, facilitating innovations applicable in various sectors, such as aerospace and construction. Additionally, by engaging with planetary science, initiatives like Kromer's also inspire educational and outreach programs that promote scientific literacy and inspire future generations of scientists and engineers to pursue careers in STEM fields. Kromer's achievements serve as an example of how academic pursuits can attract interest and support for planetary exploration while enhancing public engagement with science.

Mentorship and guidance have been integral to Raven Kromer's astounding journey in astronomical research. As a senior majoring in Physics, Astronomy, and English at the University of Hawaiʻi at Hilo, Kromer has had the privilege of being mentored by influential figures in her field. For her groundbreaking research on basaltic sand dunes, she has been guided by John Hamilton, a lecturer in Physics & Astronomy at UH Hilo. Hamilton's mentorship, combined with the support of Dr. Steve Lundblad and Meghann Decker from the Geology Department, has been crucial in advancing Kromer's comparative analysis of terrestrial and Martian dune morphologies .

Kromer's research endeavors do not stop at terrestrial analog studies. Her exploration into the orbital dynamics of dwarf galaxies is mentored by Dr. Nicole Drakos at UH Hilo, who has been pivotal in challenging Kromer with complex astrophysical problems. Under Drakos's mentorship, Kromer has gained a deeper understanding of the dynamics governing celestial bodies, which was recognized with a grant from the Hawaiʻi Space Grant Consortium .

The tailored mentorship Kromer receives is not only fostering her academic and research skills but is also paving the way for her contributions to high-impact projects like NASA's Europa ICONS internship program. This initiative, which she is preparing to join, will divide her time between the Johns Hopkins Advanced Physics Laboratory in Maryland and NASA AMES Research Center in California, offering her invaluable exposure and experience in planetary science .

Mentorship plays a critical role in shaping the career trajectories of budding scientists like Kromer. The guidance she has received enables her to contribute meaningfully to the field while preparing for future challenges and opportunities. The mentorship model seen in Kromer's experience highlights the importance of academic support structures in advancing scientific research and the development of future leaders in space exploration .

The NASA Europa ICONS Internship, a prestigious opportunity for undergraduate students, opens the door to invaluable experiences within the realm of planetary science. Participants, like Raven Kromer, gain firsthand exposure to cutting-edge research as they collaborate with the Europa Clipper science team. These internships not only bolster academic and professional credentials but also significantly contribute to the advancement of scientific understanding concerning Jupiter's icy moon, Europa. The internship program is split between two notable research facilities: the Johns Hopkins Advanced Physics Laboratory and NASA Ames Research Center. This geographical diversity allows interns to benefit from a range of scientific perspectives and state-of-the-art resources at both locations. More details on Kromer's selection for this program, along with her remarkable achievements, can be found here.

In addition to offering a generous $12,000 stipend, the Europa ICONS Internship fosters a collaborative environment where burgeoning scientists can thrive. The inclusion of a mini-conference within the internship framework provides a platform for participants to showcase their work, receive feedback, and connect with industry leaders and peers. Such experiences are foundational for those aspiring to make impactful contributions to space exploration and science. The broader implications of the internship, and similar NASA initiatives, are profound. They engender a new generation of scientists poised to tackle unprecedented challenges in planetary science, fostering a spirit of inquiry and innovation essential for future explorations. Aspiring participants can learn more about this opportunity at NASA's official page for the program here.

Through the lens of Raven Kromer's involvement, the NASA Europa ICONS Internship exemplifies the benefits of interdisciplinary research approaches. Kromer's background in physics, astronomy, and English equips her with a unique skill set that is particularly valuable in complex scientific investigations, such as those concerning Europa's potential sub-surface oceans. Her work serves not only as a model of academic excellence but also as a testament to the efficacy of interdisciplinary studies in solving complex scientific puzzles. Mentors like John Hamilton and Dr. Nicole Drakos have been influential in guiding Kromer through these multi-faceted research endeavors, showcasing the importance of mentorship in nurturing young scientists. More about her research and guidance can be accessed here.

The upcoming 8th International Planetary Dunes Workshop, scheduled for May 19-22, 2025, in Italy, promises to be a pivotal gathering for scientists and researchers interested in aeolian processes on Earth and other planetary bodies. This esteemed workshop serves as an important forum for exchanging ideas and findings related to planetary dunes, with particular attention to the similarities and differences between terrestrial and Martian dunes. Participants, including Raven Kromer from the University of Hawaiʻi at Hilo, will contribute to the growing body of knowledge with presentations that compare dune morphologies across planets. This research is crucial as it enhances our understanding of not just planetary environments but also atmospheric conditions and climate history, a core element of planetary science. The workshop provides a unique opportunity for collaborative learning and sharing of insights, leveraging the analogs of Earth’s geology seen in locations such as Hawaiʻi Island, which closely resembles the Martian landscape due to its volcanic characteristics [1](http://www.hawaii.edu/news/article.php?aId=13870).

The 8th International Planetary Dunes Workshop is more than just an academic conference; it is a confluence of expertise that spans multiple scientific disciplines. The gathering aims to foster interdisciplinary research and collaboration among geologists, climatologists, and astrobiologists, all of whom are keen to understand the formation and evolution of dunes across different planets. By engaging with her peers and seasoned scientists, Raven Kromer, empowered with NASA’s travel grant, is poised to present her groundbreaking research comparing the basaltic sand dunes of Hawaiʻi to those found on Mars. Her work not only highlights the unique geological parallels between these two locations but also opens discussions on potential applications in other fields such as materials science and biotechnology. The insights gleaned from such research could spur innovations in understanding microbial life and its adaptation in extreme environments, both here on Earth and potentially on Mars in the future [1](http://www.hawaii.edu/news/article.php?aId=13870).

The thematic focus of the 8th International Planetary Dunes Workshop underscores the importance of planetary comparative studies. These investigations are vital as they shed light on the past climatic and atmospheric conditions of planets, using dunes as a primary marker. The interaction between the Earth's geomorphological features and alien landscapes like those on Mars provides a wealth of information that could help draft new theories in planetary evolution. Notably, the workshop aims to advance our scientific knowledge by utilizing Earth's natural laboratories, such as the volcanic terrains of Hawaiʻi, which offer a high-fidelity science analog to the surface of Mars. This comparison enables scientists to test hypotheses in similar environmental conditions and predict possible future changes in Martian topography. The collaborative environment of the workshop allows scientists to pool their expertise and resources, forging new paths in the research of extraterrestrial regolith dynamics and atmospheric science [1](http://www.hawaii.edu/news/article.php?aId=13870).

Raven Kromer's work, particularly her research on basaltic sand dunes and her involvement in prestigious NASA programs, paves the way for broad scientific advancements. By comparing the morphologies of Martian and terrestrial dunes, Kromer not only enhances our understanding of Martian geology but also contributes to scientific discussions relevant to planetary science. This could lead to innovations in material sciences, potentially resulting in more durable materials for construction in extraterrestrial and harsh Earth environments. Her work serves as a crucial piece in the larger puzzle of understanding planetary atmospheres and surfaces, contributing valuable data that can be utilized in future planetary exploration missions [source].

The future prospects of Kromer’s work are equally compelling, as they hold the promise of influencing multiple scientific fields. Her participation in the Europa ICONS internship signifies the type of multidisciplinary exposure and expertise that will be pivotal for upcoming space exploration missions, such as the investigation of subsurface oceans on Europa. Engaging with such high-impact projects not only accelerates her learning but also places her at the forefront of scientific inquiry related to astrobiology and the search for extraterrestrial life. This involvement is instrumental in driving resources towards space exploration programs, which are fundamental to expanding human understanding of our solar system and beyond [source].

Kromer’s achievements are likely to create a ripple effect, inspiring a new generation of scientists, particularly those from underrepresented groups. As a model student excelling in physics, astronomy, and English, her story can motivate young women and minorities to pursue STEM fields, breaking through gender and racial barriers in science. Her success showcases how interdisciplinary training can be leveraged to achieve ground-breaking results in scientific research. This, in turn, can lead to a diverse and inclusive scientific community, better equipped to tackle complex global challenges [source].

The broader implications of Kromer’s work are also political. Her contributions to projects that rely on international cooperation emphasize the importance of global partnerships in advancing science and technology. As nations collaborate on space missions, they share valuable data and resources, fostering diplomatic relations and strengthening global networks. This collaborative spirit is crucial in addressing issues such as climate change and global security, where collective action can significantly enhance outcomes. By being part of such efforts, Kromer not only advances her career but also contributes to a global dialogue focused on peace, cooperation, and progress [source].

Hawaiʻi plays a significant role in Martian geology studies due to its unique volcanic features that resemble those of the Martian landscape. The island's basaltic sands provide a near-perfect analog for scientists studying Martian dunes, a critical component in understanding the planet's surface processes and atmospheric interactions. Raven Kromer, a senior at the University of Hawaiʻi at Hilo, has actively contributed to this field by drawing comparisons between Hawaiʻi's basaltic sand dunes and those on Mars, highlighting the geological similarities that make Hawaiʻi an invaluable natural laboratory for planetary science (source).

The study of basaltic dunes in Hawaiʻi not only advances our understanding of Mars but also enhances our broader knowledge of volcanic geomorphology. By investigating the formation and movement of these dunes, researchers can infer past and present wind patterns on Mars, offering insights into its climate history. This research is crucial as dunes on any planetary body, including Mars, can reveal invaluable climate information, thus aiding in the reconstruction of a planet's environmental conditions over time (source).

Moreover, partnering with programs like NASA's Europa ICONS internship, Hawaiʻi stands at the forefront of planetary exploration and interdisciplinary research. The knowledge gained from studying Martian analogs in Hawaiʻi contributes to preparing future missions to Mars and other celestial bodies like Europa. Such research endeavors, spearheaded by students like Raven Kromer, exemplify how local geological features can directly impact our understanding of extraterrestrial worlds and foster a new generation of scientists equipped to tackle the challenges of space exploration (source).

Hawaiʻi's engagement in Martian geological studies underscores its importance not just at the state level but globally, promoting international scientific collaboration. By providing Mars-like terrains, the island facilitates a comprehensive platform for experiments and research that would be otherwise impossible to conduct elsewhere. This furthers our collective capability to plan, simulate, and execute precise interplanetary missions, thereby advancing humanity's exploration of space (source).

John Hamilton, lecturer in Physics and Astronomy at UH Hilo, has often expressed the invaluable insights offered by studying Earth's geological features as analogs for extraterrestrial environments. According to him, the volcanic landscapes of Hawaiʻi serve as a 'high-fidelity science analog' to Martian terrains, providing critical data for understanding Martian dune formation and its atmospheric history. This perspective underscores how planetary geologists use terrestrial analogs to simulate and explore atmospheric and surface conditions of other planets, specifically focusing on celestial bodies like Mars [news](http://www.hawaii.edu/news/article.php?aId=13870).

Another significant contribution comes from Dr. Nicole Drakos, a prominent figure in the UH Hilo Physics and Astronomy Department. Her mentorship in the study of the orbital dynamics of dwarf galaxies reflects her confidence in tackling complex astrophysical phenomena. Drakos's support of studies that intersect with Raven Kromer's work on orbital mechanics speaks to the profound impact such research can have, potentially reaching broader scientific communities interested in the mechanics of galaxy formation and evolution. The financial backing from the Hawaiʻi Space Grant Consortium marks a noteworthy endorsement of this research [news](http://www.hawaii.edu/news/article.php?aId=13870).

NASA has been at the forefront of space exploration, and many of its projects and missions directly relate to the research and opportunities explored by young scientists like Raven Kromer. For instance, the study of basaltic sand dunes on Earth as analogs for Martian dunes plays into broader efforts by NASA to understand planetary surfaces, climate, and geological histories. Kromer's work, being presented at the 8th International Planetary Dunes Workshop, aligns with NASA's initiative to deepen our understanding of Mars' geology and atmosphere through rover missions and satellite observations. This research contributes valuable data that complements NASA's broader Martian exploration goals, potentially bridging terrestrial and extraterrestrial studies .

NASA's ARRAKIS Project is another significant endeavor relevant to Kromer's research. By utilizing sand dunes in Alaska to study microbial life under conditions similar to those on Mars, NASA is gaining insights into the potential habitability of Martian ecosystems. This project not only benefits from but also supports Kromer's comparative dune studies, as it demonstrates the practical applications of researching terrestrial analogs to understand extraterrestrial environments. Such interactions between Earth-based research and space exploration underscore the ongoing symbiosis in scientific exploration supported by NASA .

The Europa Clipper mission highlights another aspect of NASA's commitment to exploring our solar system. Launched in October 2024, this mission aims to investigate Jupiter's moon Europa, focusing on its subsurface oceans and their potential for life. Kromer's selection for the NASA Europa ICONS internship program ties her academic career to this critical mission, providing enriched learning experiences alongside NASA scientists. The internship offers a practical application of Kromer's research on planetary sciences, directly contributing to NASA's exploration of icy moons and fostering new scientific methodologies that could be used in future missions to Europa and beyond .

Space exploration has far-reaching socio-economic and political impacts that shape various aspects of society and governance. Economically, the field fosters significant advancements in technology and materials science, as seen with projects like Raven Kromer's dune research, which could potentially lead to innovations in materials used in construction and aerospace industries. Such advancements not only boost economic opportunities but also transform industrial processes, enhancing efficiency and sustainability. Meanwhile, research initiatives like NASA's ARRAKIS Project, which studies microbial life in extreme earth environments to understand other planetary terrains, could spearhead biotech advancements, particularly in understanding and developing new forms of sustainable life support systems for space and Earth [1](https://www.hawaii.edu/news/article.php?aId=13870).

On the social front, space exploration acts as a powerful catalyst for inspiration and education. Raven Kromer’s achievements in space research spotlight the potential for young scientists, especially women and underrepresented groups, to contribute significantly to space sciences, thus encouraging greater diversity in the field. Furthermore, missions such as NASA’s Europa Clipper, aiming to explore potential habitable conditions on Jupiter’s moon Europa, engage public curiosity and bolster interest and support for scientific endeavors [1](https://www.hawaii.edu/news/article.php?aId=13870). However, these explorations also introduce ethical considerations, especially about our interactions with extraterrestrial life forms should they be discovered [1](https://www.hawaii.edu/news/article.php?aId=13870).

Politically, space exploration necessitates and promotes international cooperation, serving as a bridge between nations by sharing data and technological advancements. Such collaborations strengthen diplomatic relationships and promote peace through common goals in space exploration. Moreover, advancements in space technology significantly influence national security practices and military capabilities as they necessitate refined defense strategies and resource allocation, often sparking rigorous policy debates. The efforts like the ARRAKIS Project urge policymakers to consider environmental protection, thus linking environmental policy with space research [1](https://www.hawaii.edu/news/article.php?aId=13870). Space exploration, therefore, remains an indispensable component of global socio-economic and political ecosystems.