--- title: Integrating TRL and LCA in Early Sustainable Product Development [2026] description: How to integrate Technology Readiness Level (TRL) and Life Cycle Assessment (LCA) early in sustainable product development for ESG impact, cost reduction and innovation. image: https://www.fiegenbaum.solutions/hubfs/pexels-cluster-images/34718922.jpg --- [Skip to content](https://www.fiegenbaum.solutions/en/blog/integrating-trl-lca-early-sustainable-product-development#main-content) [![Fiegenbaum Solutions Logo](https://www.fiegenbaum.solutions/hubfs/Branding/Fiegenbaum-Solutions_Logo.svg) ![Fiegenbaum Solutions Logo](https://www.fiegenbaum.solutions/hubfs/Branding/Fiegenbaum-Solutions_Logo.svg)](https://www.fiegenbaum.solutions/en/?hsLang=en) - Services - [Climate Risk Assessment](https://www.fiegenbaum.solutions/en/climate-risk-analysis-for-companies) - [VSME Report](https://www.fiegenbaum.solutions/en/vsme-reporting-for-smes) - [ESG Due Diligence VCs & Series A+](https://www.fiegenbaum.solutions/en/esg-due-diligence-vcs-series-a-startups) - [Product Carbon Footprint](https://www.fiegenbaum.solutions/en/product-carbon-footprint-lifecycle-assessment) - [Corporate Carbon Footprint](https://www.fiegenbaum.solutions/en/company-carbon-footprint-methods-tools-best-practice) - Solutions - [Materiality Screening](https://www.fiegenbaum.solutions/en/double-materiality-analysis-definition-process-best-practice#fs-screening) - [Atlas](https://atlas.fiegenbaum.solutions/en) - [Load Profile Check](https://atlas.fiegenbaum.solutions/en/lastgang-check) - [Pricing](https://www.fiegenbaum.solutions/en/esg-climate-consulting-fixed-prices-carbon-footprint-vsme-due-diligence-climate-risk) - [About me](https://www.fiegenbaum.solutions/en/about-me) - [Blog](https://www.fiegenbaum.solutions/en/blog) - [Contact](https://www.fiegenbaum.solutions/en/contact) ###### 11 min read # TRL and LCA in Product Development: Early Sustainability Integration By: [Johannes Fiegenbaum](https://www.fiegenbaum.solutions/en/blog/author/johannes-fiegenbaum) on 5/24/25, 4:50 PM · Last updated October 12, 2026 [SBTi & Decarbonisation](https://www.fiegenbaum.solutions/en/blog/tag/sbti-decarbonisation) [LCA & Product Footprint](https://www.fiegenbaum.solutions/en/blog/tag/lca-product-footprint) ![Large factory floor with machinery and workstations](https://www.fiegenbaum.solutions/hubfs/pexels-cluster-images/34718922.jpg) Products are often only checked for sustainability at the end of their life cycle to when the design is already complete. Yet, over [80% of environmental impacts are determined during the concept phase](https://www.ipcc.ch/report/ar6/wg3/). How can development teams change this? The combination of **[TRL](https://www.cto.mil/wp-content/uploads/2023/07/TRA-Guide-Jun2023.pdf)** (Technology Readiness Level) and **[LCA](https://www.fiegenbaum.solutions/en/blog/mastering-life-cycle-assessment-steps-software-and-impact-analysis?hsLang=en)** (Life Cycle Assessment) enables companies to identify and reduce ecological impacts early on. These approaches help use resources more efficiently, comply with regulations, and drive sustainable innovation. According to the [U.S. Environmental Protection Agency](https://www.epa.gov/lca), integrating LCA early in product development can reveal hidden environmental costs and opportunities for improvement that might otherwise be missed. ## TRL and LCA Basics ### TRL Framework Explained Technology Readiness Level (TRL) is a system that evaluates the technological maturity of innovations. Originally developed by [NASA](https://www.nasa.gov/directorates/heo/scan/engineering/technology/technology_readiness_level) and standardized in 1995, it was integrated into the EU’s Horizon 2020 program in 2014. The TRL scale covers the entire process from basic research to full system integration, providing a common language for stakeholders to assess progress and risks. For instance, the [U.S. Department of Defense](https://www.cto.mil/wp-content/uploads/2023/07/TRA-Guide-Jun2023.pdf) uses TRL to manage technology risk and investment decisions. The TRL stages are as follows: - **TRL 1 to 3**: Basic research - **TRL 7 to 9**: System integration Example: A new bio-based packaging material starts at TRL 2 with lab tests on its chemical composition. At TRL 6, a prototype is tested in a real packaging process, including an LCA comparison with conventional plastic. This staged approach ensures that environmental considerations are embedded alongside technical milestones. ### LCA Framework Explained [Life Cycle Assessment](https://www.fiegenbaum.solutions/en/blog/the-power-of-life-cycle-assessment-a-guide-for-companies?hsLang=en) (LCA) examines the environmental impacts of a product throughout its entire life cycle, from raw material extraction to end-of-life disposal. It helps use resources more efficiently and identify areas for improvement. For example, a study on PLA disposable cups showed that optimizations can achieve improvements of over 82% in environmental performance. According to the [ISO 14040/14044](https://www.iso.org/standard/37456.html) standards, LCA provides a robust framework for comparing products and processes on a consistent basis, making results more credible and actionable. LCA supports development teams in three key areas: - Analyzing [environmental](https://www.fiegenbaum.solutions/en/blog/eu-product-environmental-footprint-pef-guide?hsLang=en) impacts across the product’s entire life cycle. - Identifying optimization opportunities early on. - Targeted improvement of resource efficiency. The best results are achieved when these approaches are combined with other methods. LCA studies are often based on [ISO 14040/14044](https://www.iso.org/standard/37456.html) or the EU’s PEFCRs (Product Environmental Footprint Category Rules), which facilitates comparability and regulatory recognition. The European Commission’s [PEF initiative](https://environment.ec.europa.eu/topics/circular-economy/product-environmental-footprint-pef_en) is increasingly shaping how companies report and benchmark their environmental performance. ### Combining TRL and LCA Linking TRL and LCA enables significant progress, as real-world examples show. A key element of this integration is Life Cycle Gap Analysis (LCGA), which combines ecological assessments, economic analyses, and circular economy strategies. For instance, an optimized recycling process for PLA materials improved ecological efficiency by more than 88% using this approach. Research from [ScienceDirect](https://www.sciencedirect.com/science/article/pii/S0959652622012342) highlights that integrating LCA into TRL stages helps teams identify environmental hotspots and make informed trade-offs early, reducing costly redesigns later. ## Methods for Early Sustainability Integration ### Impact Testing in Early Phases The ecological impacts of a product are largely determined by decisions made in the early development phases. Especially during the requirements definition phase, when key product features are set, it makes sense to consider environmental aspects directly. According to a [recent study](https://www.sciencedirect.com/science/article/pii/S0959652622012342), early-stage LCA can reduce a product’s environmental footprint by up to 30% compared to traditional approaches. A structured approach to assessment could look like this: | Phase | Assessment Method | Focus | | --- | --- | --- | | TRL 1-3 | Theoretical modeling | Basic environmental impacts | | TRL 4-6 | Prototype analyses | Material efficiency and energy consumption | | TRL 7-9 | Full Life Cycle Assessment (LCA) | Overall environmental footprint | These early insights lay the foundation for close collaboration [between](https://www.fiegenbaum.solutions/en/blog/lca-vs-pcf-environmental-assessment-guide?hsLang=en) different disciplines, ensuring that sustainability is not an afterthought but a core design criterion. ### Team Coordination To effectively address the environmental impacts identified in early phases, good team coordination is essential. A vivid example is the Urban Cubes project from 2020, where product developers, environmental experts, and urban planners worked together on innovative solutions. In addition to teamwork, it is important to integrate circular design from the outset, putting sustainability at the center. As emphasized by [Harvard Business Review](https://hbr.org/2021/07/the-elusive-green-consumer), cross-functional collaboration accelerates sustainable innovation and ensures that environmental goals are embedded across product development, procurement, and quality assurance. ### Circular Design Principles Thoughtful circular design is one of the key strategies for sustainable products. The following aspects play a role: **Material selection and efficiency:** - Use of recycled or recyclable materials - Minimizing material waste during production - Ensuring easy disassembly **Life cycle optimization:** - Designing for long lifespan and easy repair - Modular designs that make component replacement easier - Developing take-back systems for reuse A successful example shows how modular designs and take-back systems can help close material loops and use resources efficiently. The [Ellen MacArthur Foundation](https://ellenmacarthurfoundation.org/case-studies) documents numerous case studies where circular design has led to significant reductions in waste and resource use. ## Tools and Measurements ### Software and Systems Combining TRL and LCA requires specialized software that evaluates environmental impacts throughout the entire development process. Current programs offer features tailored to different phases of product development: | Software Category | Main Functions | Application Area | | --- | --- | --- | | LCA Automation | Automated environmental accounting | Mass production | | Expert LCA | Detailed analyses | Product development | | LCA Calculators | Quick assessments | Early concept phase | SMEs can use cost-effective LCA tools or industry-specific Excel-based methods. The simplest way may be to bring in an external expert who already has the necessary licenses. For more on available tools, see the [EPA’s LCA software guide](https://www.epa.gov/lca/life-cycle-assessment-software-tools). ### Success Metrics The integration of sustainability is measured using specific KPIs: **Environmental KPIs:** - CO₂ footprint per product unit - Material efficiency in production - Energy consumption over the entire life cycle **Process-related metrics:** - Recyclability of materials used - Repairability of products - Resource efficiency in manufacturing Studies highlight improvements in resource use (see above). These metrics are widely used in German industry and provide valuable insights. Tracking such KPIs enables companies to identify cost-saving opportunities while meeting regulatory and consumer expectations. ### Examples from German Industry German industry projects show how these metrics are successfully implemented. For example, a project in the glass and ceramics industry combines KPIs with LCA data to assess direct and indirect emissions. Energy efficiency is also analyzed in relation to production volume ([Umweltbundesamt](https://www.umweltbundesamt.de/en/topics/economics-environment/sustainable-production-consumption/industry)). ## Common Challenges and Solutions With the tools for assessment and optimization covered, here are typical challenges in integration and possible solutions. ### Main Integration Barriers Early consideration of sustainability criteria often brings several hurdles. For example, a Life Cycle Gap Analysis of PLA disposable cups showed that over 82% of sustainability gaps still exist. The most common problems include: | Challenge | Impact | Typical Issues | | --- | --- | --- | | **Data management** | Delays in the development process | Lack of supply chain and environmental impact data | | **Process integration** | Inefficient resource use | Unclear responsibilities and poor coordination between teams | | **Cost efficiency** | Rising development costs | Additional personnel needs and expensive software solutions | ### Solution Approaches The Fraunhofer IBP has developed the Sustainability Data Science Life Cycle (S-DSLC), an approach that addresses many of these issues. This approach automates sustainability analyses and integrates them directly into business processes ([Fraunhofer IBP](https://www.ibp.fraunhofer.de/en/research/sustainable-building/sustainability-data-science.html)). Some key strategies include: - Use of automated systems for data collection - Development of dashboards tailored to different user groups - Integration of sustainability metrics into existing processes Experience shows that a step-by-step introduction of sustainability aspects is particularly effective. Companies should actively drive the transition to a circular economy and embed eco-efficiency in their daily operations. The [World Economic Forum](https://www.weforum.org/agenda/2023/01/circular-economy-business-models/) notes that incremental adoption of circular practices often leads to higher long-term success rates. ## Conclusion The methods and challenges presented make one thing clear: Early integration of **[TRL](https://www.cto.mil/wp-content/uploads/2023/07/TRA-Guide-Jun2023.pdf)** (Technology Readiness Level) and **[LCA](https://www.fiegenbaum.solutions/en/blog/mastering-life-cycle-assessment-steps-software-and-impact-analysis?hsLang=en)** (Life Cycle Assessment) is crucial for fostering environmentally friendly innovation. Studies show that a product’s ecological footprint is mainly determined in the initial development phases. While there are numerous economic evaluation methods, there is still a lack of equally effective tools for early ecological analysis. This is problematic, as these early phases often have unpredictable environmental impacts. The [latest research](https://www.sciencedirect.com/science/article/pii/S0959652622012342) calls for more robust, user-friendly LCA tools tailored for early-stage design. A structured approach to integrating sustainability aspects comprises three main phases: | Development Phase | Focus | Measures | | --- | --- | --- | | **Early Phase** | Setting the course | Systematic risk assessment, technical feasibility analysis | | **Middle Phase** | Process improvement | Use of LCA tools, adjustment of development cycles | | **Late Phase** | Validation and control | Detailed life cycle assessment, sustainability documentation | These phases form the foundation for effective complexity management. Especially in the early development stages, it is important to thoroughly assess technical risks and uncertainties. Effective product life cycle monitoring is essential. For companies developing sustainable products, the following measures are crucial: - Design development processes to enable informed decisions early on - Manage complexity through consistent life cycle monitoring - Integrate LCA tools into all development phases - Analyze technical risks early and systematically The continuous integration of TRL and LCA leads to more environmentally friendly products and reduced environmental impact in the long term. Companies should review their development processes to ensure ecological criteria are considered from the idea stage to and define appropriate tools, roles, and KPIs. For further guidance, the [ISO 14040/14044](https://www.iso.org/standard/37456.html) standards and [EPA LCA resources](https://www.epa.gov/lca) offer practical frameworks. ## FAQ 1\. What does TRL-LCA integration achieve? The integration of TRL (Technology Readiness Level) and LCA (Life Cycle Assessment) improves material usage, shortens development times, and reduces long-term adaptation costs. | Area | Benefit | Effect | | --- | --- | --- | | Resource efficiency | Improvements in early development phases | Optimized material use | | Development time | Simultaneous assessment of technology and sustainability | More efficient processes | | Compliance | Consideration of future environmental regulations | Lower adaptation costs | For example, **construction projects** use life cycle cost analyses (LCCA) to decide between renovation and new construction and minimize total costs ([U.S. Department of Energy](https://www.energy.gov/eere/femp/life-cycle-cost-analysis-guidance)). 2\. How can small businesses implement TRL-LCA integration? **Phase 1: Initial Analysis, Focus:** - Identify key environmental aspects - Use free LCA tools - Integrate into existing processes **Phase 2: Systematic Implementation, Focus:** - Train the team - Build a central database for materials and processes - Introduce sustainability metrics These steps can also serve as a foundation for scalable application in larger companies. The [EPA’s LCA software guide](https://www.epa.gov/lca/life-cycle-assessment-software-tools) lists free and low-cost tools suitable for small businesses. 3\. Which industries is TRL-LCA integration suited for? An example from the automotive industry shows how regulatory requirements and market demands are reinforcing the focus on sustainability. This method is particularly suitable for the following industries: | Industry | Drivers | Focus | | --- | --- | --- | | Automotive industry | Political regulations and customer requirements | Reduction of emissions | | Transport sector | 14% of global greenhouse gas emissions | Sustainable mobility solutions | The understanding of sustainability varies between companies, with ecological aspects often taking center stage. These examples show how TRL-LCA can pave the way for environmentally friendly product development, positioning organizations to meet both regulatory and market expectations in a rapidly evolving landscape. The concepts described above are summarized here using practical questions. Next step Turn climate risk or ESG data into a decision? In a 30-minute intro call we map where your biggest lever is, with no obligation. 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Area Benefit Effect Resource efficiency Improvements in early development phases Optimized material use Development time Simultaneous assessment of technology and sustainability More efficient processes Compliance Consideration of future environmental regulations Lower adaptation costs For example, construction projects use life cycle cost analyses (LCCA) to decide between renovation and new construction and minimize total costs ( U.S. Department of Energy )." }, "name" : "What does TRL-LCA integration achieve?" }, { "@type" : "Question", "acceptedAnswer" : { "@type" : "Answer", "text" : "Phase 1: Initial Analysis, Focus: Identify key environmental aspects Use free LCA tools Integrate into existing processes Phase 2: Systematic Implementation, Focus: Train the team Build a central database for materials and processes Introduce sustainability metrics These steps can also serve as a foundation for scalable application in larger companies. The EPA’s LCA software guide lists free and low-cost tools suitable for small businesses." }, "name" : "How can small businesses implement TRL-LCA integration?" }, { "@type" : "Question", "acceptedAnswer" : { "@type" : "Answer", "text" : "An example from the automotive industry shows how regulatory requirements and market demands are reinforcing the focus on sustainability. This method is particularly suitable for the following industries: Industry Drivers Focus Automotive industry Political regulations and customer requirements Reduction of emissions Transport sector 14% of global greenhouse gas emissions Sustainable mobility solutions The understanding of sustainability varies between companies, with ecological aspects often taking center stage. These examples show how TRL-LCA can pave the way for environmentally friendly product development, positioning organizations to meet both regulatory and market expectations in a rapidly evolving landscape." }, "name" : "Which industries is TRL-LCA integration suited for?" } ] } ```