Peer-Reviewed Research and Independent Scientific Publications
Scientific Publications | Bruce A. Cosgrove
Research articles, technical papers, and scientific communications exploring botanical chemistry, formulation science, and environmentally sustainable chemical systems.
Botanical Systems Research: Chemical Foundations to Engineered Outcomes
Research by Bruce A. Cosgrove
Bruce A. Cosgrove is an independent scientific researcher in botanical chemistry and hydrometallurgy. • 11 Scientific Publications • Botanical Systems Science • Mercury-Free Extraction Systems • Metabolic & Inflammation Modulation
Research Structure → Systems Overview
From Research to Application
These publications are not isolated studies — they form the foundation of structured Botanical Formulation Systems™. They collectively establish the scientific foundation of Botanical Systems Formulations™ - a structured approach to designing multi-component botanical systems for targeted physiological and environmental outcomes.
Each paper represents a functional module within an integrated system architecture, where phytochemical interactions, extraction chemistry, and system design converge into applied solutions.
🌿 Wine Chemistry Explained: Polyphenols, Terroir, and Botanical Systems Science
Cosgrove, B. A., Publication Preprint for peer review posted June 2026 — Zenodo
System Category:
Fermentation-Derived Phytochemical Systems within Botanical Systems Formulations™
Summary:
This paper analyzes wine as a multi-component botanical chemical system composed of water, ethanol, polyphenols, organic acids, and volatile metabolites that collectively determine redox behavior, structural stability, and biological activity.
It demonstrates how polyphenol interactions, microbial transformation, mineral composition, and environmental inputs function as an integrated system, producing measurable physicochemical and physiological effects.
This establishes wine as a real-world model of phytochemical system behavior, validating how multi-component botanical matrices can be structured to modulate oxidative stress, inflammation, and metabolic processes.
👉 This work defines the foundational interaction model used in Botanical Systems Formulations™.
DOI:10.5281/zenodo.20767478 →
Structured Record:Wikidata →
Explore:Botanical Systems Formulations™ →
🌿 Why Most “Healthy Drinks” Fail: The Missing Chemistry of Botanical Systems
Cosgrove, B. A., Publication Preprint for peer review posted May 2026 — Zenodo
System Category:
Botanical System Design Failure Analysis within Botanical Systems Formulations™
Summary:
This paper identifies the primary failure modes in functional beverage design, including lack of dose control, absence of compound interaction modeling, and failure to optimize bioavailability and delivery.
It demonstrates that isolated ingredient approaches do not produce consistent physiological outcomes due to unstructured chemical interactions and poor system integration.
This establishes the necessity of structured formulation design, where phytochemical interactions, concentration, and delivery are engineered as a unified system.
👉 This work defines the design constraints that Botanical Systems Formulations™ are built to solve.
DOI:10.5281/zenodo.20319137 →
Structured Record: Wikidata →
Explore: Botanical Systems Formulations™ →
🌿 Botanical Formulations for Healthy Aging and Metabolic Resilience
Cosgrove, B. A., Research Paper peer reviewed published April 2026 — Food Chemistry eJournal
System Category:
Multi-Target Botanical Intervention Systems within Botanical Systems Formulations™
Summary:
This paper establishes a system-level framework for integrating phytochemicals, organic acids, and mineral cofactors to modulate inflammation, oxidative stress, and metabolic function.
It demonstrates how coordinated botanical compounds influence signaling pathways, gut microbiome dynamics, and cellular energy systems through structured interaction rather than isolated effects.
This defines a repeatable architecture for designing multi-target botanical interventions with measurable physiological outcomes.
👉 This work establishes the core system architecture of Botanical Systems Formulations™.
DOI:10.2139/ssrn.6451478 →
Structured Record: Wikidata →
Explore the full framework behind Botanical Systems Formulations™ for Health Optimization →
These papers collectively define the chemical and systems-level foundation of applied botanical formulation systems using structured phytochemical interactions as functional design inputs.
Translating plant chemistry into structured systems frameworks for functional design and application
Mercury-Free Extraction Systems
These papers establish: • Alternative lixiviant chemistry • Non-toxic gold recovery pathways • Industrial-scale system design The same systems-engineering principles applied to physiological optimization also extend to environmentally sustainable extraction chemistry.
🌉 Botanical Alternatives: Toward Safer, Evidence-Based Gold Recovery
Cosgrove, B. A., Article Preprint for peer review posted February 2026 — Research Gate
System Category:
Botanical Lixiviant Systems within Botanical Systems Formulations™
Summary:
This paper introduces plant-derived lixiviant systems as functional chemical agents capable of replacing mercury and cyanide in gold extraction processes.
It demonstrates how naturally occurring compounds can form stable complexes with metals, enabling efficient extraction while reducing environmental and toxicological impact.
This establishes that botanical systems are not limited to health applications but function as scalable chemical systems across domains.
👉 This work bridges health-based phytochemical systems with environmental and industrial applications within Botanical Systems Formulations™.
DOI: 10.13140/RG.2.2.19442.77769 →
Structured Record: Wikidata →
⚗️ A Review and Sustainable Alternative to Sodium-Based and Cyanide-Containing Gold Leaching Agents: Glycine–Thiosulfate Hybrid System
Cosgrove, B. A., Research Paper peer reviewed published November 2025 — Sustainable Technology eJournal (SSRN)
System Category:
Alternative Extraction Chemistry Systems within Botanical Systems Formulations™
Summary:
This paper develops a hybrid ligand system combining glycine and thiosulfate to enable efficient, non-toxic gold complexation and recovery.
It demonstrates that alternative chemical systems can achieve high extraction efficiency without reliance on cyanide, while improving safety and environmental compatibility.
This establishes a scalable chemical foundation for replacing conventional hydrometallurgical processes with structured, lower-toxicity systems.
👉 This work defines the environmental chemistry foundation of Botanical Systems Formulations™.
DOI: 10.2139/ssrn.5801183 →
Structured Record: Wikidata →
View: Botanical Extraction Systems →
Establishing the chemical and environmental foundations of plant-based systems and extraction science
Foundational Research and Early Systems Development
These early works establish the chemical and environmental foundation for plant-based extraction and systems-level thinking.
⚗️ Ecuador Four-Stage Action Plan for Botanical Lixiviant Systems
Cosgrove, B. A., Technical Presentation preprint for peer review posted January 2026 - Research Gate
System Category:
Applied Environmental System Implementation within Botanical Systems Formulations™
Summary:
This paper outlines a structured, multi-stage transition strategy for implementing botanical lixiviant systems in artisanal mining environments.
It integrates chemical process design, operational adaptation, and economic considerations into a unified deployment framework.
This demonstrates how laboratory-scale systems can be translated into real-world industrial and community-level applications.
👉 This work defines the implementation pathway for Botanical Systems Formulations™ in environmental systems.
DOI:10.13140/RG.2.2.10793.66400 →
Structured Record: Wikidata →
These papers collectively define the chemical and systems-level foundation of mercury-free extraction systems using structured botanical and alternative chemistry approaches as functional design inputs.
Explore: Botanical Systems Formulations™ →
Testimonials
Independent Validation and Expert Perspectives
Independent expert perspectives validating the scientific rigor, safety, and real-world impact of this transformative approach to artisanal and small-scale gold mining.
⚗️ An Examination, Solution, and Transformative Strategy to Replace Mercury and Cyanide Salts in Artisanal Small-Scale Mining (ASM): Southern Ecuador
Cosgrove, B. A., & Moreno-Chavez, J., Research Paper peer reviewed published January 2025 - Environmental Chemistry eJournal (SSRN)
System Category:
Global Extraction System Replacement Strategy within Botanical Systems Formulations™
Summary:
This paper provides a system-level analysis of mercury and cyanide use in artisanal gold mining and proposes a complete replacement strategy based on alternative chemical systems.
It integrates extraction chemistry, environmental impact reduction, and health considerations into a unified framework for global application.
This establishes a transformative pathway for replacing toxic extraction methods with structured, sustainable systems.
👉 This work defines the global application scope of Botanical Systems Formulations™.
DOI:10.2139/ssrn.5049829 →
Structured Record: Wikidata →
These research modules collectively form the foundation of Botanical Systems Formulations™ — a structured approach to designing botanical and chemical systems for measurable outcomes in health and environmental applications.
These systems are available as structured protocols for real-world use in health optimization and metabolic support.