
From the Bench to the Bigger Picture: Career Pathways, Academia–Industry Gaps, and the Future of Analytical Chemistry
Key Takeaways
- Early encouragement and access to hands-on instrumentation often catalyze durable interest by making molecular phenomena tangible and fostering confidence in technical problem-solving.
- Modern analytical roles increasingly reward enabling others, cross-disciplinary communication, and operational translation of chromatography and MS results, not solely experimental execution.
A discussion on mentorship, industry gaps, and how confidence, exposure, and support shape careers in analytical science.
For those who build careers in chromatography and mass spectrometry, analytical chemistry can be a deeply personal discipline. Career trajectories are shaped not only by instruments and data, but also by mentors, chance encounters, institutional structures, and the ability to translate molecular insight into real‑world impact.
These themes emerged clearly in a recent roundtable discussion that brought together Amandaa Brewer from Arkema, Paola Tiedemann of Texas Tech University, Chelsea Plummer from Waters Corporation, and Jen Field from Shimadzu UK. While the conversation focused on women’s experiences, its conclusions resonate broadly across analytical science.
Early Sparks and the Power of Exposure
For all four panelists, interest in analytical chemistry can be traced back to early educational experiences, and often to a single individual who recognized potential and encouraged curiosity.
“I had an amazing high school chemistry teacher, and she really made me fall in love with it,” said Brewer, who described how that early encouragement eventually led her to graduate study and into an industrial analytical career. Exposure to hands‑on instrumentation, she noted, played a critical role in helping chemistry feel tangible and creative.
Tiedemann shared a similar experience, recalling how analytical techniques first captured her imagination by revealing what could not be seen directly. “The machines would kind of let me see something invisible,” she said, describing the appeal of analytical instrumentation as a bridge between theory and reality.
For Plummer, an encounter with cutting‑edge mass spectrometry during her undergraduate years proved pivotal, directing her career path toward analytical science and, ultimately, into roles focused on enabling research rather than remaining exclusively at the bench. Field likewise emphasized the cumulative impact of early encouragement, noting that visible pathways into chemistry can shape long‑term confidence and career persistence.
Analytical Chemistry Beyond the Silo
Although their entry points differed, all four panelists described discovering—sometimes belatedly—that analytical chemistry encompasses far more than traditional bench work. Careers in chromatography increasingly demand the ability to communicate across disciplines, support diverse stakeholders, and apply technical expertise in operational contexts.
Reflecting on her own career journey, Plummer observed that success in analytical science often comes from supporting others’ work rather than running every experiment oneself. “The science is important, but it’s also about the people,” she said.
Tiedemann emphasized that analytical data only achieves impact when it can be translated beyond scientific circles. Her role frequently requires bridging laboratory results to law enforcement and legal frameworks, reinforcing the need for analytical chemists who can function fluently outside the lab environment.
The Academia–Industry Disconnect
A recurring theme in the discussion was the stark contrast between academic training and industrial practice. While academic programs reward deep specialization over long timescales, industry often prioritizes speed, pragmatism, and decision‑making under constraints.
“You have to learn where enough is enough,” said Brewer, reflecting on the shift she experienced moving from academia into industry. “You can’t spend five years trying to solve a customer’s problem.”
Panelists agreed that this transition can be challenging for early‑career scientists, particularly those trained to pursue comprehensive understanding before moving forward. The group emphasized that teamwork, communication, and project management skills are often under‑emphasized during formal training, despite being essential in industrial environments.
Internships, Placements, and Shared Responsibility
One widely supported solution to this disconnect was increased exposure to industry during training. Short‑term placements, internships, and collaborative projects were described as effective ways to demystify non‑academic career paths.
Plummer noted that, as a student, she had limited understanding of what analytical careers outside academia actually entailed. Earlier exposure, she suggested, would have made career decisions less opaque and less stressful for many young scientists.
Field stressed that responsibility for this gap lies on both sides. Industry often expresses concern about graduates’ readiness, while academia struggles with resources and limited insight into evolving industrial needs. Stronger partnerships, she argued, could better prepare the next generation of analytical chemists.
Confidence, Belonging, and Staying Power
The discussion also addressed retention—particularly the importance of confidence and professional networks in sustaining long‑term analytical careers.
Networking, Brewer argued, is not optional in highly technical fields. Scientific careers are built through relationships cultivated over years and decades. “Most of us have forgotten more about our techniques than the average person even knows,” she noted, emphasizing the importance of recognizing one’s own expertise and communicating it with confidence.
Visibility and representation play a similar role. When scientists see people like themselves in technical leadership positions, it reinforces a sense of belonging. Tiedemann highlighted that visibility is not symbolic—it directly affects whether individuals feel isolated or supported within the field.
“When you feel visible,” she said, “you feel like you belong.”
Toward a More Sustainable Pipeline
Despite ongoing challenges, the panelists emphasized optimism. Outreach to schools, open laboratories, conference participation, and everyday professional interactions all contribute to making analytical chemistry more accessible and inclusive.
“One comment from somebody you don’t know,” Tiedemann reflected, “can change a life.”
As chromatography continues to underpin advances across pharmaceuticals, environmental analysis, food, materials research, and forensics, the panelists agreed that the future of the discipline will depend not just on technical innovation, but on how scientists are supported, trained, and retained.
For the full discussion, listen to the panelists here:




