Today, Atoco announces the addition of the Reticular Science Prize for Emerging Scholars and Innovators to its prize family. The award is led by Nobel Laureate Prof. Omar Yaghi, founder of Atoco and President of the prize. It is designed to recognize researchers who are shaping the next generation of reticular chemistry and engineering with original, high-impact contributions.

The prize will be awarded biennially and alternates with the main Reticular Science Prize. Eligibility is open to scientists and engineers with ten years or fewer of postdoctoral experience. The scope spans science, engineering, computing, and artificial intelligence as applied to MOFs, COFs, and closely related organic–inorganic solid materials. This emphasis reflects how modern reticular discovery increasingly blends synthesis, characterization, and data-driven methods.

Inaugurated at EuroMOF 2027, the first recipient will present their work to the international reticular community. The award package includes a silver medal, a US$2,500 monetary prize, and a certificate signed by members of the management and selection committees. It will also include a dinner with Prof. Yaghi and current selection committee members, positioning the event as both recognition and technical exchange.

Nominations will be assessed for originality, impact, and innovation, with special attention to achievements made within the past seven years. The nomination deadline is October 1, 2026, encouraging candidates to highlight recent advances and transferable methodologies.

“Reticular chemistry is a field built on bold thinking and the courage to reimagine how matter can be designed at the molecular level,” said Prof. Omar Yaghi. “This new prize is our commitment to the next generation—young scientists who will take these ideas further than we can yet imagine.”

For submission details and requirements, the secretariat directs applicants to Atoco’s prize page. Media and inquiries can be sent to the provided contact address, ensuring that nominators and candidates can complete the process before the deadline.

Subject of Research: Metal-organic frameworks (MOFs), covalent organic frameworks (COFs), reticular solid materials
Article Title: Atoco Launches Reticular Science Prize for Emerging Scholars and Innovators
News Publication Date: July 15, 2026
Web References: https://atoco.com/reticular-science-prize
References: EuroMOF 2027 (award presentation venue)
Image Credits: Credit: Atoco

Keywords

reticular chemistry, MOFs, COFs, emerging researchers, metal-organic frameworks, early-career innovation, EuroMOF

The research originates from the Center for Development of Functional Materials (CDMF) at the Federal University of São Carlos (UFSCar), a hub renowned for pioneering innovations in functional materials science. Under the umbrella of the São Paulo Research Foundation (FAPESP), CDMF scientists have engineered a novel heterostructure that innovatively combines a zirconium-based MOF (Zr-MOF) with the semiconductor silver pyrophosphate (Ag4P2O7). Zirconium MOFs are celebrated for their exceptional chemical stability, which the team expertly leveraged to develop a composite material optimized for solar-driven photocatalytic activity.

This heterostructure demonstrates a remarkable synergy between the robust crystal lattice of Zr-MOF and the light-harvesting prowess of silver pyrophosphate. By harnessing sunlight, the composite facilitates efficient separation of photo-induced charge carriers, thereby generating reactive oxygen species capable of breaking down complex organic pollutants such as industrial dyes and antibiotics. This advancement is particularly relevant given the escalating global challenge of water pollution by emerging contaminants, which traditional treatment methods often fail to address thoroughly.

The implications of this work echo the foundational breakthroughs awarded the Nobel Prize to Susumu Kitagawa, Richard Robson, and Omar Yaghi, who established the fundamental chemistry underpinning MOFs. Their pioneering research unveiled how metal ions coordinate with organic ligands to sculpt porous, crystalline frameworks with unmatched surface area and tunability. Building on this legacy, the São Carlos team’s integration of semiconducting materials with MOFs marks a forward leap towards functional devices capable of orchestrating complex photocatalytic processes under visible light.

Analytical techniques employed to validate the efficacy of the Zr-MOF/Ag4P2O7 heterostructure included advanced liquid chromatography coupled with mass spectrometry. These tools uncovered an impressive removal efficiency exceeding 95% for a variety of waterborne contaminants. Equally important, subsequent phytotoxicity evaluations confirmed that these pollutants were transformed into significantly less toxic intermediates, underlining the material’s environmental compatibility and safety for real-world applications.

A particularly innovative aspect of the study is the application of optical modeling based on the Six-Flux model, which revealed that the heterostructure absorbs nearly seven times more photons in the visible spectrum than in ultraviolet light. This insight is pivotal for the development of solar-powered photocatalysts, emphasizing the material’s capacity to harness the abundant visible component of sunlight effectively, thereby enhancing its sustainability and energy efficiency in environmental remediation.

The research team’s approach addresses a critical bottleneck in photocatalytic technology: the challenge of coupling high chemical stability with effective light absorption and charge carrier dynamics. The Zr-MOF’s chemical inertness ensures durability in aqueous environments, while the semiconducting Ag4P2O7 sensitizes the material to visible light, overcoming the limitations of many conventional UV-dependent photocatalysts. Consequently, this composite opens avenues for scalable, energy-efficient water treatment systems with broad applicability.

Water pollution by emerging micropollutants, including pharmaceutical residues and industrial dyes, poses a severe threat to ecosystems and human health. Traditional wastewater treatment methods are often ineffective against such compounds due to their recalcitrant molecular structures. The presented Zr-MOF/Ag4P2O7 system represents a paradigm shift, combining molecular engineering and solar energy utilization to achieve rapid, efficient, and sustainable degradation of these pollutants.

The coupling of MOFs with semiconductors capitalizes on the unique electronic properties of both materials: MOFs provide high surface area and selective adsorption sites, while semiconductors enable visible-light-driven redox reactions. This dual functionality facilitates enhanced photocatalytic degradation pathways, minimizing intermediate by-products and enabling the conversion of harmful pollutants into benign substances, thereby aligning with principles of green chemistry and environmental safety.

Furthermore, the study’s integration of experimental photodegradation tests with sophisticated analytical methods reveals a comprehensive understanding of the degradation mechanisms at play. Such insights not only validate the performance of the heterostructure but also provide a roadmap for future material design, optimizing photocatalysts for specific contaminants and environmental conditions.

Looking forward, the scalability and robustness of Zr-MOF/Ag4P2O7 heterostructures offer promising prospects for deployment in water treatment facilities, especially in regions with abundant sunlight. This alignment of material science innovation with renewable energy harnessing underscores the potential of such systems to transform global water purification strategies, contributing significantly to sustainable development goals related to clean water and sanitation.

The multidisciplinary nature of this research—spanning synthetic chemistry, materials engineering, environmental science, and photophysics—exemplifies the holistic approach required to tackle complex environmental challenges. By merging fundamental scientific principles with application-driven engineering, Brazilian scientists have charted a path forward for the next generation of sustainable water treatment technologies.

Ultimately, this work not only honors the scientific heritage that earned the Nobel Prize but also propels MOF research into a new era of practical, impactful environmental applications. The ability to efficiently harness solar energy to degrade stubborn pollutants at the molecular level reflects a fusion of vision, expertise, and innovation that could revolutionize the way humanity manages water resources in an increasingly polluted world.

Subject of Research: Photocatalytic degradation of emerging water contaminants using zirconium-based metal-organic frameworks integrated with semiconductor materials.

Article Title: Solar-Responsive Zr-MOF/Ag4P2O7 Heterostructures for Sustainable Photocatalytic Degradation of Emerging Water Contaminants

News Publication Date: 17-Nov-2025

Web References: 10.1002/adsu.202501297

Image Credits: CDMF

Keywords

Photocatalysis, Water Pollution, Energy

Metal-organic frameworks represent a marvel of chemical design, characterized by their unique architecture comprising metal ions or clusters coordinated to organic ligands to form highly ordered, porous crystalline structures. These materials exhibit extraordinary surface areas and tunable pore sizes, enabling applications in gas storage, catalysis, separation technologies, and sensor development. The remarkable versatility and bespoke nature of MOFs have revolutionized molecular engineering and materials science, making them indispensable tools in advancing sustainable technologies.

Professor Susumu Kitagawa’s seminal work spans over four decades, during which he extensively explored the design principles and functionalization of porous coordination polymers, now widely conceptualized as MOFs. His research significantly advanced the understanding of structural flexibility and dynamic behavior in MOFs, illuminating how these frameworks can adapt to environmental stimuli while maintaining robust crystalline integrity. Kitagawa’s investigations have paved the way for designing stimuli-responsive materials with potential applications in drug delivery systems and smart filtration membranes.

Australian chemist Richard Robson laid critical groundwork with his pioneering studies on polymeric frameworks in the late 1980s. His papers, particularly those published in the Journal of the American Chemical Society (JACS), detailed the synthesis and characterization of infinite polymeric frameworks assembled from rod-like metallic segments. Robson’s innovative synthetic strategies provided the blueprint for assembling highly ordered, three-dimensional MOFs with predetermined topologies. His insights into the coordination chemistry and structural motifs of these materials remain foundational to current MOF design paradigms.

Omar M. Yaghi, a towering figure in contemporary chemistry, has been instrumental in propelling MOFs from conceptual frameworks to practical functional materials. His influential 1995 JACS publication introduced a hydrothermal synthesis approach to produce MOFs featuring large, rectangular channels, facilitating enhanced molecular transport and storage capabilities. As an executive editor of JACS and a recipient of numerous accolades, including the 2009 ACS Award in the Chemistry of Materials, Yaghi has championed the modular construction of MOFs and pioneered reticular chemistry—a strategy that allows for the systematic assembly of extended frameworks through the design of molecular building blocks.

The collective achievements of Kitagawa, Robson, and Yaghi have not only expanded the fundamental knowledge of coordination chemistry but have also catalyzed the rapid evolution of MOFs into multifunctional materials with applications spanning environmental science, energy storage, and catalysis. Their collaborative yet geographically diverse contributions exemplify the power of cross-border scientific innovation and underscore chemistry’s intrinsic capacity to engineer solutions tackling global challenges.

Metal-organic frameworks’ porosity serves as a critical attribute enabling their utility in gas adsorption and separation technologies. The high internal surface area, some exceeding thousands of square meters per gram, allows these structures to selectively trap gases like carbon dioxide, methane, or hydrogen. This capability holds profound implications for carbon capture and clean energy storage, vital components in addressing climate change and developing sustainable fuel technologies.

Beyond environmental applications, MOFs have demonstrated significant promise as heterogeneous catalysts. The ordered arrangement of active metal sites within the frameworks enhances reaction specificity and efficiency, enabling catalysis of complex transformations under mild conditions. Such advances have spurred research into MOFs as economical, recyclable catalysts in pharmaceutical synthesis and fine chemicals production, thereby advancing green chemistry principles.

The dynamic tunability of MOFs, as emphasized in Professor Kitagawa’s research, opens avenues for stimuli-responsive systems where external triggers—such as temperature, light, or chemical environment—modulate the framework’s properties. This adaptability allows for the development of smart materials capable of controlled molecular release, sensing, or separations with unprecedented precision, offering transformative potential in healthcare and industrial processes.

Academic dissemination has been a vital component in the evolution of MOF research. Both Robson and Yaghi have extensively published articles in ACS journals, particularly the Journal of the American Chemical Society, which stands at the forefront of chemical literature. These publications have served as primary vehicles for sharing critical discoveries and cultivating a vibrant global community of researchers dedicated to reticular chemistry and materials innovation.

The American Chemical Society’s celebration of this Nobel Prize win highlights chemistry’s enduring capacity to innovate at the molecular level and engineer solutions addressing pressing global issues. The international composition of the awardees embodies the collaborative spirit fueling scientific discovery and reflects the interconnected nature of contemporary research ecosystems spanning continents and disciplines.

Looking forward, the recognition invigorates the field of MOFs, inspiring continued exploration into novel frameworks with enhanced functionality and sustainability. Emerging directions include the integration of MOFs with other nanomaterials to create hybrid systems and the exploitation of their porosity for harvesting renewable energy or toxic pollutant remediation, propelling the next generation of environmentally responsive technologies.

In essence, this Nobel Prize acknowledges a profound leap in materials chemistry led by Kitagawa, Robson, and Yaghi—and their collective vision that rational design at the atomic scale can unlock revolutionary applications. Their work epitomizes how fundamental chemical innovation translates into impactful solutions, affirming chemistry’s pivotal role in shaping a more sustainable and technologically advanced future.

Subject of Research: Development and application of metal-organic frameworks (MOFs) in chemistry

Article Title: Nobel Prize in Chemistry 2025 Honors Pioneers in Metal-Organic Frameworks Development

News Publication Date: October 8, 2025

Web References:

• Robson’s 1989 JACS papers:
  https://pubs.acs.org/doi/10.1021/ja00192a018
  https://pubs.acs.org/doi/10.1021/ja00197a079
• Yaghi’s 1995 JACS paper:
  https://pubs.acs.org/doi/10.1021/ja00146a033

References: Articles published in ACS peer-reviewed journals and coverage in Chemical & Engineering News

Keywords: Nobel Prize, Chemistry, Metal-Organic Frameworks, MOFs, Coordination Polymers, Materials Chemistry, Reticular Chemistry, Gas Storage, Catalysis, Porous Materials, Scientific Innovation, Sustainable Technologies