XYCLE INCLUDED IN VERDANTIX SMART INNOVATORS 2025

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Whitepaper

Supplier Data Collection Guide for LCA

Supplier Data Collection Guide for LCA

For sustainability leads, procurement teams, and LCA practitioners. A practical workflow for moving beyond spreadsheets, without rebuilding your process from scratch.

For sustainability leads, procurement teams, and LCA practitioners. A practical workflow for moving beyond spreadsheets, without rebuilding your process from scratch.

For sustainability leads, procurement teams, and LCA practitioners. A practical workflow for moving beyond spreadsheets, without rebuilding your process from scratch.

Robert Pell

Robert Pell

Jordan Lindsay

Jordan Lindsay

Sahin Alacacayir

Sahin Alacacayir

IN SUMMARY

Why supplier data collection breaks down, and how to fix it.

Why supplier data collection breaks down, and how to fix it.

Most LCA programmes stall at the same point: the supplier data request. Teams either ask for too much and get nothing back, or collect data with no governance and can’t defend it under review.

Most LCA programmes stall at the same point: the supplier data request. Teams either ask for too much and get nothing back, or collect data with no governance and can’t defend it under review.

Most LCA programmes stall at the same point: the supplier data request. Teams either ask for too much and get nothing back, or collect data with no governance and can’t defend it under review.

  • The most common failure is scope creep, asking suppliers for every data point upfront rather than starting with a minimum viable request and targeting quality improvements only where they change the result.

  • The most common failure is scope creep, asking suppliers for every data point upfront rather than starting with a minimum viable request and targeting quality improvements only where they change the result.

  • The most common failure is scope creep, asking suppliers for every data point upfront rather than starting with a minimum viable request and targeting quality improvements only where they change the result.

  • Data collected without a submission and approval trail cannot be defended under third-party critical review, regardless of its quality. Governance needs to be defined before collection begins, not after.

  • Data collected without a submission and approval trail cannot be defended under third-party critical review, regardless of its quality. Governance needs to be defined before collection begins, not after.

  • Data collected without a submission and approval trail cannot be defended under third-party critical review, regardless of its quality. Governance needs to be defined before collection begins, not after.

  • Supplier data collected for one reporting cycle is routinely rebuilt from scratch for the next. Naming conventions, storage structure, and mapping logic determine whether data is reusable or disposable.

  • Supplier data collected for one reporting cycle is routinely rebuilt from scratch for the next. Naming conventions, storage structure, and mapping logic determine whether data is reusable or disposable.

  • Supplier data collected for one reporting cycle is routinely rebuilt from scratch for the next. Naming conventions, storage structure, and mapping logic determine whether data is reusable or disposable.

Why supplier data is the real bottleneck in LCA

After helping teams build supplier data programmes across battery and critical mineral supply chains, one pattern keeps appearing: the model is rarely the constraint. The data is. A life cycle assessment is only as credible as the primary data behind it. For the stages that matter most — battery manufacturing, cathode and anode precursor production, metal refining — secondary database values aren’t enough to satisfy an OEM customer, a third-party critical reviewer, or the EU Battery Regulation. You need site-specific data from the companies actually running those processes. And that is where most programmes stall.

After helping teams build supplier data programmes across battery and critical mineral supply chains, one pattern keeps appearing: the model is rarely the constraint. The data is. A life cycle assessment is only as credible as the primary data behind it. For the stages that matter most — battery manufacturing, cathode and anode precursor production, metal refining — secondary database values aren’t enough to satisfy an OEM customer, a third-party critical reviewer, or the EU Battery Regulation. You need site-specific data from the companies actually running those processes. And that is where most programmes stall.

The three failures that stall most programmes

  • Asking for too much, too early. The instinct is to send suppliers a comprehensive data request covering every input and output. Response rates collapse. Suppliers see a forty-field spreadsheet and deprioritise it. A focused, staged request gets answered; an exhaustive one gets ignored.

  • Collecting data with no governance. Data that arrives by email, gets pasted into a model, and has no record of who submitted it or when cannot be defended. When a reviewer asks where a number came from, “a supplier sent it last year” is not an answer that survives critical review.

  • Building for one cycle instead of many. Most teams treat supplier data collection as a one-off exercise tied to a single report. The next reporting cycle arrives and the same data is requested, reformatted, and re-modelled from scratch — because nothing was structured for reuse.

  • Asking for too much, too early. The instinct is to send suppliers a comprehensive data request covering every input and output. Response rates collapse. Suppliers see a forty-field spreadsheet and deprioritise it. A focused, staged request gets answered; an exhaustive one gets ignored.

  • Collecting data with no governance. Data that arrives by email, gets pasted into a model, and has no record of who submitted it or when cannot be defended. When a reviewer asks where a number came from, “a supplier sent it last year” is not an answer that survives critical review.

  • Building for one cycle instead of many. Most teams treat supplier data collection as a one-off exercise tied to a single report. The next reporting cycle arrives and the same data is requested, reformatted, and re-modelled from scratch — because nothing was structured for reuse.

What a defensible programme actually looks like

The teams that get this right share a common structure. They assign clear internal ownership before contacting any supplier. They map what they already hold internally so they only request what they genuinely need. They start with a minimum viable data request and improve quality only where hotspot analysis shows it changes the result. They define submission, approval, and traceability rules upfront. And they structure naming and storage so the data collected today can be refreshed rather than rebuilt. None of this requires more resource than the ad hoc approach. It requires sequencing the same work in a way that produces data you can actually stand behind.

The teams that get this right share a common structure. They assign clear internal ownership before contacting any supplier. They map what they already hold internally so they only request what they genuinely need. They start with a minimum viable data request and improve quality only where hotspot analysis shows it changes the result. They define submission, approval, and traceability rules upfront. And they structure naming and storage so the data collected today can be refreshed rather than rebuilt. None of this requires more resource than the ad hoc approach. It requires sequencing the same work in a way that produces data you can actually stand behind.

Why this matters more under the EU Battery Regulation

From 2025, EV battery carbon footprint declarations became mandatory on the EU market, with Carbon Performance Classes following from August 2026. These declarations require primary data for the highest-impact supply chain stages, and they must survive third-party verification. A supplier data programme that was “good enough” for a voluntary sustainability report is not good enough for a regulated declaration scrutinised by an auditor. The bar has moved.

From 2025, EV battery carbon footprint declarations became mandatory on the EU market, with Carbon Performance Classes following from August 2026. These declarations require primary data for the highest-impact supply chain stages, and they must survive third-party verification. A supplier data programme that was “good enough” for a voluntary sustainability report is not good enough for a regulated declaration scrutinised by an auditor. The bar has moved.

FAQ

Curious to learn more?

Let us support you on the journey.

Let us support you on the journey.

Reach out anytime. We’re happy to answer any questions before you commit to working together.

Strategic Accounts Manager at Minviro

What can Minviro help us understand?

We help teams measure environmental impacts across products, processes and supply chains, then turn the findings into practical decisions.

What do you need to get started?

A short conversation about your product, data and goals is enough to start. We will recommend a clear next step based on where you are today.

How do we speak with an expert?

Get in touch with our team to discuss your project, timeline and the level of support you need.

What can Minviro help us understand?

We help teams measure environmental impacts across products, processes and supply chains, then turn the findings into practical decisions.

What do you need to get started?

A short conversation about your product, data and goals is enough to start. We will recommend a clear next step based on where you are today.

How do we speak with an expert?

Get in touch with our team to discuss your project, timeline and the level of support you need.

authors

The team behind your insights

Robert Pell

Robert Pell

Founder & CEO

Robert Pell is the Founder and CEO of Minviro. His doctoral research at the University of Exeter's Camborne School of Mines focused on responsible sourcing of rare earth elements, pioneering novel Life Cycle Assessment approaches and developing methodology for integrating LCA into mine planning. A published scientist and experienced speaker, Robert holds roles as Chair of the Rare Earth Industry Association (REIA) and the Critical Minerals Association (CMA).

Jordan Lindsay

Jordan Lindsay

Head of Research & Development

Jordan is Head of Research & Development at Minviro, responsible for all academic and industrial research projects including UK and EU grants and commercial collaborations. He leads projects integrating raw material and battery production LCA databases with Minviro's technology solutions, and investigates decarbonisation technology applications including photovoltaics, hydrogen, and electric motors. Jordan completed his PhD in Geology at the University of Exeter, Camborne School of Mines, where he studied platinum-group metal prospectivity using machine learning approaches.

Sahin Alacacayir

Sahin Alacacayir

Sustainability scientist

At Minviro, Sahin is responsible for various academic and industrial research projects, including UK and EU grants and commercial collaborations. He integrates raw material sustainability and recycling impact databases with Minviro's technology solutions, and leads projects investigating decarbonisation technology applications including photovoltaics, semiconductors, and electric motors. He completed his MSc in Mining Environmental Management at the Camborne School of Mines, where he studied ecotoxicity and climate change impacts of acid mine drainage from legacy mine wastes. He has significant experience working with gold extraction prior to joining Minviro.

Robert Pell

Robert Pell

Founder & CEO

Robert Pell is the Founder and CEO of Minviro. His doctoral research at the University of Exeter's Camborne School of Mines focused on responsible sourcing of rare earth elements, pioneering novel Life Cycle Assessment approaches and developing methodology for integrating LCA into mine planning. A published scientist and experienced speaker, Robert holds roles as Chair of the Rare Earth Industry Association (REIA) and the Critical Minerals Association (CMA).

Jordan Lindsay

Jordan Lindsay

Head of Research & Development

Jordan is Head of Research & Development at Minviro, responsible for all academic and industrial research projects including UK and EU grants and commercial collaborations. He leads projects integrating raw material and battery production LCA databases with Minviro's technology solutions, and investigates decarbonisation technology applications including photovoltaics, hydrogen, and electric motors. Jordan completed his PhD in Geology at the University of Exeter, Camborne School of Mines, where he studied platinum-group metal prospectivity using machine learning approaches.

Sahin Alacacayir

Sahin Alacacayir

Sustainability scientist

At Minviro, Sahin is responsible for various academic and industrial research projects, including UK and EU grants and commercial collaborations. He integrates raw material sustainability and recycling impact databases with Minviro's technology solutions, and leads projects investigating decarbonisation technology applications including photovoltaics, semiconductors, and electric motors. He completed his MSc in Mining Environmental Management at the Camborne School of Mines, where he studied ecotoxicity and climate change impacts of acid mine drainage from legacy mine wastes. He has significant experience working with gold extraction prior to joining Minviro.

LCA with Minviro

The foundation for
all our work

The foundation for all our work

Our data focuses on materials and processes where environmental performance varies sharply by route, geography, and technology, exactly where industry averages fall apart. Choose individual routes from across the critical minerals, battery, magnet, and heavy-industry value chains. Each one lands in XYCLE as a working model: open the unit processes, see where the impact sits, test a different supplier or energy grid, and watch the number move, defensible enough for a regulatory filing, transparent enough to act on.

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300+

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global offices in London, Perth and Shanghai