Blog

🔬 Research Update: Okra, fenugreek extracts remove most microplastics from water.&nbsp;&nbsp;Press Pacs | May 6, 2025 | ACS Omega &nbsp;<h2>Introduction</h2>Okra mucilage and fenugreek-derived gels bind microplastics more effectively than commonly used synthetic polymers. Recent findings in ACS Omega show these plant-based compounds removed up to 90% of microplastics from ocean water, freshwater, and groundwater.These findings align with similar plant-based removal mechanisms explored using <a data-mce-href="https://bruceacosgrove.com/blog/the-controversy-tamarind-remove-plastic-from-water" href="https://bruceacosgrove.com/blog/the-controversy-tamarind-remove-plastic-from-water">tamarind-derived systems</a> → &nbsp;These polymers function through coagulation and flocculation mechanisms, aggregating microplastics into removable masses within complex water systems. These adsorption dynamics resemble <a data-mce-href="https://bruceacosgrove.com/bruce-a-cosgrove-scientific-publications-bruce-a-cosgrove" href="https://bruceacosgrove.com/bruce-a-cosgrove-scientific-publications-bruce-a-cosgrove">plant-based extraction systems</a> used in non-toxic separation chemistry → &nbsp; &nbsp;&nbsp;“Utilizing these plant-based extracts in water treatment will remove microplastics and other pollutants without introducing additional toxic substances to the treated water,” says Srinivasan, “thus reducing long-term health risks to the population.” 👉 Continue Reading: <a data-mce-href="https://www.acs.org/pressroom/presspacs/2025/may/research-update-okra-fenugreek-extracts-remove-most-microplastics-from-water.html" href="https://www.acs.org/pressroom/presspacs/2025/may/research-update-okra-fenugreek-extracts-remove-most-microplastics-from-water.html">Research Update: Okra, fenugreek extracts remove most microplastics from water</a> →<h2>Research Context </h2><blockquote>This article contributes to a broader exploration of Applied Botanical Chemistry and environmental science, examining how plant-derived materials, chemical interactions, and natural systems may contribute to environmentally compatible technologies and approaches.These applications illustrate how botanical and solution chemistry can extend beyond health-focused formulation science into environmental and practical chemical systems.🧬 <a data-mce-href="https://bruceacosgrove.com/botanical-systems-science-explained-bruce-a-cosgrove" href="https://bruceacosgrove.com/botanical-systems-science-explained-bruce-a-cosgrove" data-mce-selected="inline-boundary">Explore Botanical Systems™ Science</a> →📚 <a data-mce-href="https://bruceacosgrove.com/bruce-a-cosgrove-scientific-publications-bruce-a-cosgrove" href="https://bruceacosgrove.com/bruce-a-cosgrove-scientific-publications-bruce-a-cosgrove">View Scientific Research, Publications &amp; Preprints</a> →</blockquote>

Plant-Based Removal of Microplastics: Okra and Fenugreek Extracts

<h2>Mining Industry to Fuel Sodium Cyanide Market Growth to USD 3.45 Billion by 2033 &nbsp;</h2>CET | Chemicals &amp; Materials Report| May 15, 2025<h2>Introduction</h2>👉 Cyanide remains dominant in industrial systems, even as <a data-mce-href="https://bruceacosgrove.com/blog/impacts-of-mercury" href="https://bruceacosgrove.com/blog/impacts-of-mercury">mercury-based methods persist</a> in artisanal mining and <a data-mce-href="https://bruceacosgrove.com/blog/cassava-derived-lixiviant-sustainable-gold-recovery-using-manipueira" href="https://bruceacosgrove.com/blog/cassava-derived-lixiviant-sustainable-gold-recovery-using-manipueira">alternative systems continue to develop</a> →&nbsp;The global sodium cyanide market continues to expand, driven by its dominant role in gold extraction. Widely used in hydrometallurgical processing, sodium cyanide remains the primary chemical for gold dissolution due to its efficiency and scalability notwithstanding the use of mercury in artisanal and small-scale gold mining (ASGM). These trends reflect systemic chemical dependency within extraction frameworks.Growth in global mining activity—particularly in emerging economies—has reinforced reliance on cyanide-based systems, with the mining sector accounting for the vast majority of its usage. This demand reflects increasing pressure to sustain high recovery rates in large-scale and artisanal operations.These trends reinforce the need for mercury-free extraction systems capable of reducing toxic inputs while maintaining effective gold recovery in modern mining operations.&nbsp;&nbsp;🌿 <a data-mce-href="https://bruceacosgrove.com/scientific-publications" href="https://bruceacosgrove.com/scientific-publications">Alternative botanical extraction systems</a> continue to emerge as viable replacements however, the continued expansion of cyanide-dependent processing highlights the environmental and toxicological risks associated with conventional extraction methods → &nbsp;👉 Continue Reading: <a data-mce-href="https://www.openpr.com/news/4017320/mining-industry-to-fuel-sodium-cyanide-market-growth-to-usd-3-45" href="https://www.openpr.com/news/4017320/mining-industry-to-fuel-sodium-cyanide-market-growth-to-usd-3-45">Mining Industry to Fuel Sodium Cyanide Market Growth to USD 3.45 Billion by 2033</a> →<h2>Research Context </h2><blockquote>This article contributes to <a data-mce-href="https://bruceacosgrove.com/bruce-a-cosgrove-independent-scientific-researcher-profile" href="https://bruceacosgrove.com/bruce-a-cosgrove-independent-scientific-researcher-profile">Bruce A. Cosgrove</a>'s broader research into mercury-free gold recovery, alternative extraction chemistry, and environmentally compatible mineral-processing systems →The research examines plant-derived lixiviants, alternative complexation chemistry, solution behavior, mercury-reduction strategies, and lower-toxicity approaches to gold extraction and artisanal and small-scale mining.🌿 <a data-mce-href="https://bruceacosgrove.com/mercury-free-botanical-gold-recovery-bruce-a-cosgrove" href="https://bruceacosgrove.com/mercury-free-botanical-gold-recovery-bruce-a-cosgrove">Explore Mercury-Free Botanical Gold Recovery</a> →Explore the research, publications, and applied chemistry behind botanical and alternative approaches to mercury- and cyanide-dependent gold-processing systems.📚 <a data-mce-href="https://bruceacosgrove.com/bruce-a-cosgrove-scientific-publications-bruce-a-cosgrove" href="https://bruceacosgrove.com/bruce-a-cosgrove-scientific-publications-bruce-a-cosgrove" data-mce-selected="inline-boundary">View Scientific Research, Publications &amp; Preprints</a> →</blockquote>

Sodium Cyanide and the Gold Mining Industry

<h2>Minamata Convention COP-6 agrees to end the use of dental amalgam by 2034, marking a historic milestone in reducing mercury pollution.</h2>UNEP Minamata Convention on Mercury | November 07, 2025<h2>Introduction</h2>The sixth Conference of the Parties (COP-6) to the Minamata Convention on Mercury, held in Geneva in November 2025, resulted in a landmark agreement to phase out dental amalgam by 2034. The meeting brought together over 1,000 participants and adopted 22 decisions aimed at reducing global mercury use and emissions. &nbsp;This decision reflects a broader global shift away from mercury-dependent systems in both healthcare and industrial applications. Mercury exposure remains a persistent risk due to its toxicity, bioaccumulation, and long-term environmental impact. &nbsp;Despite international agreements, <a data-mce-href="https://bruceacosgrove.com/blog/mercury-contamination-artisanal-mining-health-perspective" href="https://bruceacosgrove.com/blog/mercury-contamination-artisanal-mining-health-perspective">mercury use remains prevalent</a> in artisanal mining regions, particularly where <a data-mce-href="https://bruceacosgrove.com/blog/illegal-miners-peru-environmental-devastion" href="https://bruceacosgrove.com/blog/illegal-miners-peru-environmental-devastion">illegal gold mining</a> continues and enforcement is limited → &nbsp; 👉 Continue Reading: <a data-mce-href="https://www.un.org/en/delegate/historic-milestone-reducing-mercury-pollution" href="https://www.un.org/en/delegate/historic-milestone-reducing-mercury-pollution">Minamata Convention COP-6 agrees to end the use of dental amalgam by 2034</a> →<h2>Research Context </h2><blockquote>This article contributes to <a data-mce-href="https://bruceacosgrove.com/bruce-a-cosgrove-independent-scientific-researcher-profile" href="https://bruceacosgrove.com/bruce-a-cosgrove-independent-scientific-researcher-profile">Bruce A. Cosgrove</a>'s broader research into mercury-free gold recovery, alternative extraction chemistry, and environmentally compatible mineral-processing systems →The research examines plant-derived lixiviants, alternative complexation chemistry, solution behavior, mercury-reduction strategies, and lower-toxicity approaches to gold extraction and artisanal and small-scale mining.🌿 <a data-mce-href="https://bruceacosgrove.com/mercury-free-botanical-gold-recovery-bruce-a-cosgrove" href="https://bruceacosgrove.com/mercury-free-botanical-gold-recovery-bruce-a-cosgrove">Explore Mercury-Free Botanical Gold Recovery</a> →Explore the research, publications, and applied chemistry behind botanical and alternative approaches to mercury- and cyanide-dependent gold-processing systems.📚 <a data-mce-href="https://bruceacosgrove.com/bruce-a-cosgrove-scientific-publications-bruce-a-cosgrove" href="https://bruceacosgrove.com/bruce-a-cosgrove-scientific-publications-bruce-a-cosgrove">View Scientific Research, Publications &amp; Preprints</a> →</blockquote>

Minamata Convention COP-6: Global Mercury Policy

<h2>"How America Got Hooked on Ultraprocessed Foods"</h2>Author: Jessica Attie | New York Times | October 25, 2025<h2>Introduction</h2>Humans have processed food for millennia—from fire-cooked meat to ground grains and preserved goods. By the late 1800s, industrial food production introduced formulations fundamentally different from traditional preparation methods.👉 Processing often disrupts naturally occurring <a data-mce-href="https://bruceacosgrove.com/blog/botanical-formulations-for-healthy-aging-bruce-a-cosgrove" href="https://bruceacosgrove.com/blog/botanical-formulations-for-healthy-aging-bruce-a-cosgrove">phytochemical systems</a>, including flavonoids and polyphenols →Coca-Cola (1886), Jell-O (1897), and Crisco (1911) marked the early transition, followed by highly engineered products such as Spam, Velveeta, Kraft Mac &amp; Cheese, and Oreos. By the mid-20th century, increasing workforce participation and time constraints accelerated reliance on industrial food systems. &nbsp;In the 1950s and ’60s, more women began working outside of the home but were still expected to feed their families.<blockquote><h3>1970s-1990s - An Ultraprocessed Food Explosion</h3></blockquote>This shift reflects a fundamental change in how food is structured, moving away from whole botanical inputs toward highly engineered formulations designed for stability, palatability, and scale.&nbsp;These patterns are directly addressed within <a data-mce-href="https://bruceacosgrove.com/botanical-systems-formulations-bruce-a-cosgrove" href="https://bruceacosgrove.com/botanical-systems-formulations-bruce-a-cosgrove">botanical formulation systems</a> that aim to restore metabolic balance through structured plant-based inputs →👉 Continue Reading:<a data-mce-href="https://www.nytimes.com/interactive/2025/10/16/well/eat/ultraprocessed-food-junk-history.html" href="https://www.nytimes.com/interactive/2025/10/16/well/eat/ultraprocessed-food-junk-history.html"> How America Got Hooked on Ultraprocessed Foods</a> →<h2>Research Context </h2><blockquote>This article contributes to <a data-mce-href="https://bruceacosgrove.com/bruce-a-cosgrove-independent-scientific-researcher-profile" href="https://bruceacosgrove.com/bruce-a-cosgrove-independent-scientific-researcher-profile">Bruce A. Cosgrove</a>'s broader research into Applied Botanical Chemistry and the scientific principles underlying Botanical Systems Formulations™ →The research examines how plant-derived compounds, phytochemical interactions, bioavailability, dose architecture, and delivery design can inform structured approaches to botanical formulation and health-focused applications.🧬 <a data-mce-href="https://bruceacosgrove.com/botanical-systems-science-explained-bruce-a-cosgrove" href="https://bruceacosgrove.com/botanical-systems-science-explained-bruce-a-cosgrove">Explore Botanical Systems™ Science</a> →Botanical Systems™ Science provides the scientific framework for examining phytochemical interactions, bioavailability, and systems-level plant chemistry.🌿 <a data-mce-href="https://bruceacosgrove.com/botanical-systems-formulations-bruce-a-cosgrove" href="https://bruceacosgrove.com/botanical-systems-formulations-bruce-a-cosgrove" data-mce-selected="inline-boundary">Download the Free Botanical Systems Formulation Protocol</a>™ →</blockquote>

Ultra-Processed Foods and Health Risk: Scientific Evidence and Trends

BACosgrove Scientific Researcher, Inc.

The Company is a science-driven research and innovation incorporated Company advancing sustainable chemistry, environmental health solutions, and clean-technology applications. Founded by chemist and entrepreneur Bruce A. Cosgrove, the company develops and validates evidence-based alternatives that reduce toxic exposures while supporting circular-economy and ESG-aligned outcomes across industrial and wellness sectors.

Botanical Chemistry Blog | Bruce A. Cosgrove

Plant-Based Removal of Microplastics: Okra and Fenugreek ...

Sodium Cyanide and the Gold Mining Industry

Minamata Convention COP-6: Global Mercury Policy

Ultra-Processed Foods and Health Risk: Scientific Evidenc...