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    <title language="eng">Meeting the UN Sustainable Development Goals with Mechanochemistry</title>
    <abstract language="eng">Chemistry traditionally relies on reactions in solution, but this method is increasingly problematic due to the scale of chemical processes and their economic and environmental impact. Handling residual chemical waste, including solvents, incurs significant costs and environmental pressure. Conversely, novel chemical approaches are needed to address pressing societal issues such as climate change, energy scarcity, food insecurity, and waste pollution. Mechanochemistry, a sustainable chemistry discipline that uses mechanical action to induce chemical reactivity without bulk solvents, is a hot topic in academic research on sustainable and green chemistry. Given its fundamentally different working principles from solution chemistry, mechanochemistry offers more efficient chemical processes and the opportunity to design new chemical reactions. Mechanochemistry has a profound impact on many urgent issues facing our society and it is now necessary to use mechanochemistry to address them. This Minireview aims to provide a guide for using mechanochemistry to meet the United Nations (UN) Sustainable Development Goals (SDGs), thereby contributing to a prosperous society. Detailed analysis shows that mechanochemistry connects with most UN SDGs and offers more cost‐efficiency than other approaches together with a superior environmental performance.</abstract>
    <parentTitle language="eng">Angewandte Chemie International Edition</parentTitle>
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    <author>Jasna Alić</author>
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    <title language="eng">Mechanochemistry: Looking back and ahead</title>
    <abstract language="eng">Starting with the discovery of fire and the preparation of food in prehistoric times, mechanochemistry is the oldest form of chemistry that humans have controlled. Mechanochemical practices, such as grinding with a mortar and pestle, continued into the Middle Ages until dedicated scientific studies began in the 19th century. Since then,research in mechanochemistry has shown that many chemicalreactions can be performed via mechanical force without or with small amounts of solvent. Besides being time, material, and energy efficient, mechanochemical reactions often yield products that differ from those obtained in solution. Therefore, not only is mechanochemistry greener and more sustainable than conventional solution chemistry, but it also has the added value of providing new reactivity and selectivity. This is especially important today, when chemists need to invent high-performance materials, intermediates, and products with the use of sustainable feedstocks and develop environmental remediation pathways. At the same time, time-resolved in situ monitoring and computational modeling are necessary for addressing fundamental questions about the atomistic, molecular, and electronic nature of mechanochemical reactivity. Integrating digitalization, robotics, and artificial intelligence tools promises to increase the reproducibility and scalability of mechanochemical processes. Further evolution of mechanochemistry is expected to have a transformative effect on the chemical industry.</abstract>
    <parentTitle language="eng">Chem</parentTitle>
    <identifier type="issn">2451-9294</identifier>
    <identifier type="doi">10.1016/j.chempr.2025.102880</identifier>
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    <author>Tomislav Stolar</author>
    <author>Jasna Alić</author>
    <author>Lucia Casali</author>
    <author>Nikita Gugin</author>
    <author>Matej Baláž</author>
    <author>Adam Michalchuk</author>
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    <title language="eng">Harnessing mechanochemistry to tackle PFAS pollution</title>
    <abstract language="eng">We are currently facing one of the most serious environmental crises in human history – the widespread pollution caused by PFAS. PFAS stands for per- and polyfluoroalkyl substances, which are toxic, persistent, highly mobile, and bioaccumulative compounds, often referred to as 'forever chemicals'. For over 70 years, they have been used to make products resistant to water, heat, and stains, but the cost of damaging ecosystems and harming human health was revealed far too late. As of 2023, there were more than 23,000 confirmed PFAS contamination sites in Europe alone, with at least an equal number of presumptive contamination sites due to historical and current industrial activities.1 Public concern has pushed regulatory bodies to restrict the production of the most common PFAS, but with over 10,000 PFAS compounds and existing contamination, the problem remains largely unresolved.&#13;
State-of-the-art remediation strategies rely on energy-intensive incineration, which releases greenhouse gases and smaller, volatile PFAS derivatives.2 Here, we present a fast, simple, and sustainable method for the complete degradation of PFAS, leveraging mechanochemistry3 to break down the persistent carbon-fluorine bonds. Our findings indicate that liquid-assisted grinding conditions accelerate the degradation of perfluorooctanoic acid compared to neat grinding conditions, resulting in a significant reduction in energy consumption. Moreover, the fluoride released during the process binds to inorganic additives, allowing fluorine recovery as crystalline salts and preventing the formation of secondary toxic waste. The method has strong potential for scaling up and offers a green and viable solution for real-world application in PFAS decontamination.</abstract>
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    <author>Jasna Alić Stolar</author>
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    <title language="eng">Harnessing Mechanochemistry to Combat PFAS Contamination</title>
    <abstract language="eng">For over 70 years, the uncontrolled production, use, and disposal of per- and polyfluoroalkyl substances (PFAS) have led to widespread global contamination, necessitating the rapid development of innovative and efficient remediation technologies. State-of-the-art strategies rely on energy-intensive incineration, which releases greenhouse gases and smaller, volatile PFAS derivatives.  Here, we present a fast, simple, and sustainable method for the complete degradation of PFAS leveraging mechanochemistry  to break down the persistent carbon-fluorine bonds. Our findings indicate that liquid-assisted grinding conditions accelerate the degradation of perfluorooctanoic acid compared to neat grinding conditions, resulting in a significant reduction in energy consumption. Moreover, the fluoride released during the process binds to inorganic additives, allowing fluorine recovery as crystalline salts and preventing the formation of secondary toxic waste.  The method has strong potential for scaling up and offers a green and viable solution for real-world application in PFAS decontamination.</abstract>
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    <author>Jasna Alić Stolar</author>
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    <title language="eng">Harnessing mechanochemistry to combat PFAS contamination</title>
    <abstract language="eng">For over 70 years, the uncontrolled production, use, and disposal of per- and polyfluoroalkyl substances (PFAS) have led to widespread global contamination, necessitating the rapid development of innovative and efficient remediation technologies. State-of-the-art strategies rely on energy-intensive incineration, which releases greenhouse gases and smaller, volatile PFAS derivatives.  Here, we present a fast, simple, and sustainable method for the complete degradation of PFAS leveraging mechanochemistry  to break down the persistent carbon-fluorine bonds. Our findings indicate that liquid-assisted grinding conditions accelerate the degradation of perfluorooctanoic acid compared to neat grinding conditions, resulting in a significant reduction in energy consumption. Moreover, the fluoride released during the process binds to inorganic additives, allowing fluorine recovery as crystalline salts and preventing the formation of secondary toxic waste.  The method has strong potential for scaling up and offers a green and viable solution for real-world application in PFAS decontamination.</abstract>
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    <title language="eng">Harnessing mechanochemistry to combat PFAS contamination</title>
    <abstract language="eng">For over 70 years, the uncontrolled production, use, and disposal of per- and polyfluoroalkyl substances (PFAS) have led to widespread global contamination, necessitating the rapid development of innovative and efficient remediation technologies. State-of-the-art strategies rely on energy-intensive incineration, which releases greenhouse gases and smaller, volatile PFAS derivatives.  Here, we present a fast, simple, and sustainable method for the complete degradation of PFAS leveraging mechanochemistry  to break down the persistent carbon-fluorine bonds. Our findings indicate that liquid-assisted grinding conditions accelerate the degradation of perfluorooctanoic acid compared to neat grinding conditions, resulting in a significant reduction in energy consumption. Moreover, the fluoride released during the process binds to inorganic additives, allowing fluorine recovery as crystalline salts and preventing the formation of secondary toxic waste.  The method has strong potential for scaling up and offers a green and viable solution for real-world application in PFAS decontamination.</abstract>
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