From Airborne Microdroplets to Green Capital: Tang Zifeng Promotes the Implementation of Climate Solutions Through Interdisciplinary Research

July 23 09:15 2026

As global climate governance enters a more complex stage, the value of environmental science is no longer confined to mechanistic explanations in laboratories. It is increasingly reflected in the ability to coordinate energy transition, public health, green investment, and policy development. The research and practice of Tang Zifeng, a young environmental science researcher, embody this trend. With atmospheric chemistry and chemical engineering as his foundation, he has expanded his work into aerosol science, indoor air quality assessment, carbon management, and sustainable finance, seeking to answer a more practical question: how can scientific discoveries truly be transformed into deployable, financeable, and assessable climate solutions?

Tang Zifeng’s professional path is distinctly interdisciplinary. He studied chemistry at New York University as an undergraduate, later pursued a master’s degree in chemical engineering at Columbia University, and entered the Climate and Society master’s program at the Columbia Climate School in 2025 for further study. This educational background enables him to understand microscopic chemical reactions and engineering system design while also examining environmental issues within social, financial, and policy frameworks. For today’s climate industry, such a composite perspective is not merely an added advantage, but a key condition determining whether a technology can move beyond papers and enter the market and public governance systems.

In the field of atmospheric chemistry, Tang Zifeng’s research participation focuses on the mechanisms of air pollution formation and indoor environmental safety. One study on sulfite oxidation in aqueous microdroplets involves the fundamental mechanism behind rapid sulfate growth in regional haze. Another study on the effects of far-UVC disinfection technology on ozone and particulate matter in a conference room responds to indoor air quality issues that may arise after the application of public health technologies. The significance of such research lies not only in proving the existence of a specific chemical process, but also in providing more detailed scientific evidence for pollution prediction, risk identification, and environmental management.

Air pollution control has long faced a contradiction: macro-level policies require clear objectives, while pollution formation often occurs at microscopic interfaces and within complex environments. The aerosols, microdroplet interfacial reactions, and changes in indoor pollutants that Tang Zifeng focuses on connect these two levels. Understanding the mechanism of sulfate formation helps improve the explanatory power of regional air quality models. Evaluating the byproducts of new disinfection methods also reminds the public health field that technologies should not be assessed solely by their primary functions, but must also incorporate environmental side effects and long-term exposure risks. This research orientation gives his work broader public value.

At the same time, Tang Zifeng has not limited environmental issues to the level of pollution identification. In carbon management and energy system projects, he has further advanced scientific analysis into engineering and economic feasibility assessment. He has carried out techno-economic analysis of a carbon capture, utilization, and storage project for a large power system in Texas, including life cycle assessment, sensitivity analysis, and storage solution research. He has also participated in the design of a green hydrogen and natural gas blending pipeline system, comparing transportation costs, carbon emissions, and scalability risks. These efforts demonstrate an important capability: breaking down climate goals into system solutions that can be calculated, compared, and used for decision-making.

This capability is of practical significance to low-carbon transition in the United States and around the world. Carbon capture, hydrogen energy, solar energy, and carbon removal technologies do not lack concepts; what is truly scarce is talent capable of judging whether these technologies are feasible in specific regions, industrial chains, and policy environments. Tang Zifeng’s participation in projects such as rooftop solar system development and financing models, as well as ESG due diligence for marine microalgae carbon removal, represents an effort to jointly evaluate climate solutions from the perspectives of technology, finance, and social impact. These projects are not merely technical demonstrations, but are closer to the decision-making samples required for future green infrastructure development.

In the field of sustainable finance, Tang Zifeng’s practice further highlights his cross-sector value. Since 2025, he has served as a graduate sustainable investment consultant at Instituto Amazônia+21, participating in a sustainable and economically inclusive timber supply chain project. His work involves monetization strategies for ecosystem services and social benefits, the construction of social-financial performance models, and pathway design for attracting blended finance and ESG investment. Compared with traditional environmental projects that emphasize ecological significance alone, this practice focuses more on integrating conservation, community employment, investment returns, and supply chain transparency into a unified evaluation system.

This point is especially important for global ecological conservation. Taking Amazon-related industries as an example, forest protection and local economic development have long existed in a complex tension. Without sustainable revenue models, ecological conservation can easily remain a moral initiative; without environmental constraints, commercial development may damage biodiversity and community interests. The project Tang Zifeng has participated in attempts to use financial structures and impact assessment tools to measure ecological value, employment opportunities, construction material supply, and investment returns within a unified model. This approach provides a more operational pathway for attracting long-term capital to nature-based solutions.

In addition to his research and project-based experience, Tang Zifeng has also developed a deeper understanding of how scientific achievements can enter real-world application through Columbia University’s innovation and technology transfer ecosystem. Columbia University has long emphasized the translation of academic research into broader social and industrial impact, and Columbia Technology Ventures serves as an important part of the university’s technology transfer and innovation commercialization system, helping move research outcomes from laboratories into industry, public governance, and practical application settings. Although Tang has not served as a staff member of Columbia Technology Ventures, his study and research experience at Columbia placed him within an environment where technology transfer and innovation are actively emphasized. Through his participation in activities related to the Columbia Entrepreneurship & Venture Society, including entrepreneurial discussions, investor outreach, and co-founder matching, he further came to understand that climate technologies require not only scientific evidence, but also application validation, business models, capital support, and cross-sector collaboration in order to generate real impact. This experience strengthened his ability to examine environmental science from a perspective beyond research alone, and reinforced his capacity to connect atmospheric chemistry, climate technology assessment, and sustainable finance.

At the same time, Tang’s experience with the International Fund for China’s Environment, or IFCE, has added dimensions of international environmental cooperation and public communication to his professional development. Since June 2023, he has served as a nonprofit organization program and research intern at IFCE, participating in research on U.S.-based low-carbon initiatives in the chemical sector, supporting work related to U.S.-China sustainability collaboration, and developing environmental content for the organization’s digital platforms to increase public and stakeholder engagement with low-carbon technologies, environmental governance, and sustainable development. He has also participated in the organization of U.S.-China technology exchange activities, helping create communication settings among researchers, environmental organizations, and industry participants. Through his practice at IFCE, Tang has further recognized that environmental challenges cannot be solved by a single discipline or a single country alone; air pollution, industrial decarbonization, carbon removal, and ecological conservation all require scientific evidence, technological pathways, policy communication, public understanding, and international cooperation.

Building on these research, project, technology transfer, and international environmental cooperation experiences, Tang Zifeng has also participated in multiple interdisciplinary exchange settings. He served as a technical judge for the 2025 Green Design Challenge, focusing on student teams’ solutions in areas such as stormwater mitigation, innovative battery design, and geothermal energy utilization. He also took part in the organization and coordination of events such as the USA Insurtech Insights Conference and the Global Direct Air Capture Conference. Although these experiences are not academic achievements in the traditional sense, they reflect his understanding of the climate technology ecosystem: technological development requires the joint participation of researchers, investors, policymakers, businesses, and the public, and it is difficult for a single discipline to complete the transition independently.

Overall, Tang Zifeng’s contribution does not lie in one isolated position or a single paper, but in the formation of a new type of professional capability suited to the climate era: identifying problems through basic science, designing solutions through engineering analysis, promoting implementation through financial tools, measuring long-term value through social impact assessment, and expanding the practical influence of environmental solutions through technology transfer awareness and international cooperation. This combination of capabilities is highly consistent with the current development direction of the environmental industry. Air pollution, energy transition, technological commercialization, and ecological conservation are not separate issues. Together, they point to one core challenge: how to establish a more efficient and responsible conversion mechanism between economic development and environmental security.

For the United States and the global green economy, composite researchers like Tang Zifeng have sustained room for growth. Future environmental scientists will need not only to identify sources of pollution, but also to help society determine which solutions are worth investing in, which technologies are ready for deployment, and which projects can generate both environmental and social returns. Tang Zifeng’s current research and practice have already demonstrated this connective capability. His work and participation across academic research, sustainable finance, IFCE’s international environmental cooperation platform, and Columbia’s innovation and technology transfer ecosystem together show a professional path that links scientific evidence with implementation, communication, and public value. As climate governance moves from target-setting to scaled implementation, the interdisciplinary path he represents will also provide a noteworthy model for the industry.

(Reporter: Emily Lin)

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