Integrating TRIZ, QFD, and Evolutionary Analysis for Eco Innovation: Redesigning a Laundry Detergent to Resolve Environmental Contradictions

The growing environmental crisis, particularly water pollution from detergents, necessitates a shift from reactive compliance to proactive eco-innovation, as current methods often fail to systematically resolve trade-offs between performance, safety, and ecology. This study develops and illustrates the application of the Evolutionary-Driven Design Framework (EDDF), an integrated methodology that combines PESTEL analysis, historical evolutionary pattern analysis, Quality Function Deployment (QFD) with a novel contradiction index, Theory of Inventive Problem Solving (TRIZ), and environmental assessment. The framework was applied to redesign a conventional laundry detergent with the objectives of zero phosphates, superior biodegradability (>85%), maintained efficacy, and controlled cost. The quantitative contradiction index matrix prioritized critical unsustainable parameters (e.g., EDTA, Cocamide DEA) for substitution over mere optimization. Through an iterative feedback loop, the process evolved from a biobased concentrate to an “enzymatic power tablet” (Concept B). This waterless, solid formulation uses sodium citrate as a biodegradable builder and an encapsulated multi-enzyme system, achieving an estimated >90% biodegradability and zero phosphates while meeting technical and economic targets. The EDDF provides a structured, anticipatory roadmap that transforms regulatory and market pressures into drivers of innovation, offering companies a promising method for designing sustainable products by proactively resolving contradictions and avoiding historical mistakes.

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Publication Details

Journal
Applied System Innovation
Published
2026-06-16
DOI
https://doi.org/10.3390/asi9060129
Primary Topic
Chemistry and Chemical Engineering
Type
article
Field-Weighted Citation Impact
0.00

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article

Integrating TRIZ, QFD, and Evolutionary Analysis for Eco Innovation: Redesigning a Laundry Detergent to Resolve Environmental Contradictions

Guillermo Cortés-Robles, Jesús Delgado-Maciel, Mónica Karina González-Rosas, Andrés Morán-Durán et al.
Applied System Innovation
Chemistry and Chemical Engineering
article

Integrating TRIZ, QFD, and Evolutionary Analysis for Eco Innovation: Redesigning a Laundry Detergent to Resolve Environmental Contradictions

Guillermo Cortés-Robles, Jesús Delgado-Maciel, Mónica Karina González-Rosas, Andrés Morán-Durán, José Roberto Grande-Ramírez, Omar Juárez-Rivera
article en

Abstract

The growing environmental crisis, particularly water pollution from detergents, necessitates a shift from reactive compliance to proactive eco-innovation, as current methods often fail to systematically resolve trade-offs between performance, safety, and ecology. This study develops and illustrates the application of the Evolutionary-Driven Design Framework (EDDF), an integrated methodology that combines PESTEL analysis, historical evolutionary pattern analysis, Quality Function Deployment (QFD) with a novel contradiction index, Theory of Inventive Problem Solving (TRIZ), and environmental assessment. The framework was applied to redesign a conventional laundry detergent with the objectives of zero phosphates, superior biodegradability (>85%), maintained efficacy, and controlled cost. The quantitative contradiction index matrix prioritized critical unsustainable parameters (e.g., EDTA, Cocamide DEA) for substitution over mere optimization. Through an iterative feedback loop, the process evolved from a biobased concentrate to an “enzymatic power tablet” (Concept B). This waterless, solid formulation uses sodium citrate as a biodegradable builder and an encapsulated multi-enzyme system, achieving an estimated >90% biodegradability and zero phosphates while meeting technical and economic targets. The EDDF provides a structured, anticipatory roadmap that transforms regulatory and market pressures into drivers of innovation, offering companies a promising method for designing sustainable products by proactively resolving contradictions and avoiding historical mistakes.

Applied System InnovationVol. 9(6)
Universidad Veracruzana (MX), Tecnológico Nacional de México (MX), Instituto Tecnologico de Orizaba (MX)
Secretaría de Educación Pública, Tecnológico Nacional de México
Industry, innovation and infrastructure
Openalex Percentile: Top 11%
Chemistry and Chemical Engineering
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