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Green Manufacturing and Scope 3 Emissions

Why Türkiye Can Be a Lower-Carbon Manufacturing Node for Europe A data-driven guide to electricity carbon intensity, steelmaking routes, supplier-level emissions, CBAM exposure and how procurement teams can build lower-carbon industrial supply chains.

9 min read FABRIOX Engineering

The next manufacturing RFQ will not always be evaluated on price, quality and lead time alone. For European supply chains, embedded carbon is moving closer to the commercial decision.

Scope 3 emissions from purchased goods and services sit inside the buyer’s value chain. CBAM places a carbon-related compliance and financial mechanism around selected carbon-intensive imports into the EU. At the same time, customers, investors and internal net-zero programs increasingly ask procurement teams to explain where product emissions actually come from.

That changes the sourcing question.

THE NEW SOURCING QUESTION
NOT ONLY: WHO CAN MAKE THE PART AT THE RIGHT PRICE?

ALSO: WHICH MANUFACTURING ROUTE CREATES THE BEST COMBINATION OF COST, QUALITY, LEAD TIME AND VERIFIED CARBON PERFORMANCE?

1. Why Manufacturing Location Can Affect Scope 3

For many manufactured components, a buyer’s Scope 3 Category 1 footprint can be influenced by four layers: material production, manufacturing energy, process emissions and inbound logistics. Geography affects each layer differently.

Carbon layer

What drives it

Why sourcing geography matters

Material

Steel, aluminium, polymers, cast/forged feedstock

Primary vs recycled route, mill technology, electricity and upstream source

Manufacturing electricity

Machining, cutting, forming, welding, molding, assembly

Grid mix, onsite generation, renewable procurement

Process energy

Furnaces, heat treatment, drying, melting

Fuel and process technology can dominate some categories

Logistics

Mode, distance, utilization, packaging

Nearshore distance can help, but mode and load factor matter

Scrap / yield

Buy-to-fly, nesting, casting yield, machining stock

Poor yield embeds material emissions into scrap

Sub-tier processes

Coating, heat treatment, NDT, secondary machining

The Tier-1 footprint can hide emissions elsewhere

CARBON ACCOUNTING PRINCIPLE
THE COUNTRY IS A STARTING VARIABLE. THE SUPPLIER, MATERIAL AND PROCESS ROUTE DETERMINE THE REAL PRODUCT FOOTPRINT.

2. Scope 3 Category 1: What the GHG Protocol Actually Prefers

The GHG Protocol’s technical guidance identifies supplier-specific product-level cradle-to-gate data as the most accurate method for purchased goods and services because it relates to the actual product purchased and reduces the need for allocation.

The practical implication is important: national grid factors are useful for screening, but they should not become a substitute for supplier-specific evidence when better data is available.

Data maturity

Typical evidence

Use

Level 1 — Spend / generic

Spend-based or generic database factors

Portfolio screening; lowest precision

Level 2 — Average product/process

Industry or material-average factors

Category baseline

Level 3 — Supplier activity data

Electricity, fuel, material and output data

Supplier-specific calculation

Level 4 — Product carbon footprint

Cradle-to-gate product-level result

High-quality sourcing comparison

Level 5 — Verified product evidence

Verified PCF / EPD where applicable

Stronger assurance and external reporting

3. Türkiye vs India: The Grid-Carbon Comparison Is Material

This is where the Türkiye case becomes particularly interesting. Türkiye’s Ministry of Energy publishes a national gross electricity-generation greenhouse-gas factor of 0.434 tCO2e/MWh. For electricity consumed at the point of use, the ministry publishes 0.436 tCO2e/MWh for transmission-connected consumers and 0.469 tCO2e/MWh for distribution-connected consumers.

India’s Central Electricity Authority series, reproduced by NITI Aayog, reports a weighted-average grid electricity factor of 0.710 tCO2/MWh for FY2024-25, including renewable generation.

Electricity metric

Türkiye

India

Interpretation

Published national/grid factor

0.434 tCO2e/MWh gross generation

0.710 tCO2/MWh weighted grid, FY2024-25

Türkiye figure is ~39% lower on a simple numeric comparison

Point-of-use reference

0.436 transmission / 0.469 distribution

Method/source differs

Use facility-specific accounting rules for formal claims

Renewable trajectory

Rapid solar/wind capacity growth

Rapid renewable build-out

Both grids are decarbonising; year/version matters

IMPORTANT METHODOLOGY NOTE
THIS IS A SCREENING COMPARISON—not a product-level LCA. The Turkish and Indian published factors use different institutional methodologies, reporting periods and system boundaries. Procurement claims should use consistent accounting boundaries and the supplier’s actual energy data.

4. What a 39% Lower Grid Factor Could Mean in Practice

Consider an electricity-intensive manufacturing route using 500 kWh per tonne of finished output. Applying the published screening factors above:

Illustrative calculation

Türkiye

India

Electricity use

0.5 MWh/t output

0.5 MWh/t output

Screening grid factor

0.434 tCO2e/MWh

0.710 tCO2/MWh

Electricity-related emissions

0.217 tCO2e/t output

0.355 tCO2/t output

Difference

—

0.138 tCO2 per tonne higher in this illustration

The calculation does not prove that every Turkish component is lower-carbon than every Indian component. A renewable-powered Indian factory can outperform a fossil-heavy Turkish facility. But it shows why country electricity intensity can materially change the starting point for supplier screening.

5. Türkiye's Renewable Build-Out Is Changing the Manufacturing Baseline

Türkiye’s power system is changing quickly. The Ministry of Energy reports that by the end of August 2026 total installed capacity reached 126,944 MW. Solar represented 22.0%, wind 12.2% and hydro 25.5% of installed capacity; together with geothermal and other renewable sources, renewables accounted for roughly 63% of installed capacity.

Generation is not the same as installed capacity. In 2025, actual generation still included 33.6% coal and 23.0% natural gas, while hydro, wind, solar and geothermal together accounted for roughly 40%. This distinction matters when making carbon claims.

DO NOT CONFUSE CAPACITY WITH CARBON
A HIGH RENEWABLE SHARE OF INSTALLED CAPACITY DOES NOT MEAN EVERY INDUSTRIAL KWH IS ZERO-CARBON.

6. Renewable Electricity Can Be Documented

Türkiye’s YEK-G system, operated by EPİAŞ, provides renewable-energy guarantees of origin. One YEK-G certificate corresponds to 1 MWh of certifiable renewable electricity and is designed to track, prove and disclose the renewable source of electricity supplied to end consumers.

For procurement teams, this creates a practical RFQ question: can the supplier demonstrate the source and contractual treatment of the electricity used for production?

  • YEK-G certificates and retirement evidence where applicable

  • Onsite solar generation records

  • Electricity invoices and meter data

  • Renewable electricity contract / supply documentation

  • Facility-level Scope 2 accounting method

  • Annual electricity consumption and production output

7. Türkiye's Steel Route Is a Strategic Carbon Advantage

For metal-intensive manufacturing, electricity is only part of the story. The upstream steel route can dominate embedded emissions.

Türkiye’s Ministry of Industry low-carbon transition program states that 71.6% of crude steel output originates from electric-arc-furnace and induction-furnace facilities. It explicitly identifies this production structure as a comparative advantage for lower-carbon steel transition because EAF-based steelmaking generally has lower carbon intensity than conventional blast-furnace routes.

WHY THIS MATTERS FOR FABRIOX CATEGORIES
FABRICATION, MACHINING, FORGING AND MANY INDUSTRIAL ASSEMBLIES BEGIN WITH MATERIAL. A LOW-CARBON CONVERSION PROCESS CANNOT COMPENSATE FOR AN UNEXAMINED HIGH-CARBON MATERIAL ROUTE.

8. Türkiye vs India Is Not Just an Electricity Comparison

For EU-bound industrial products, Türkiye can have a broader structural case: lower published grid intensity than India, a high EAF share in steelmaking, geographic proximity to European customers and a manufacturing base already integrated into EU trade.

Dimension

Türkiye structural position

Why it can matter

Grid electricity

Lower published national factor than India in the cited datasets

Lower starting emissions for electricity-intensive conversion

Steel route

High EAF/induction share

Potential advantage for steel-intensive products, subject to mill-specific data

EU proximity

European-adjacent road/sea network

Can reduce transit time and some logistics exposure

CBAM exposure

Highly relevant due EU industrial trade

Creates strong incentive for actual embedded-emissions data

Renewable proof

YEK-G system

Provides documented renewable electricity attributes

Industrial depth

Metalworking, automotive, machinery, cast/forge/fabrication ecosystems

Allows carbon optimization without abandoning manufacturing capability

None of these variables proves a universal country winner. Carbon performance remains supplier-, material-, process- and logistics-specific. The defensible claim is narrower—and stronger: for selected EU-bound industrial categories, Türkiye can offer a structurally attractive platform for lower-carbon manufacturing.

9. CBAM Changes the Commercial Conversation

The EU Carbon Border Adjustment Mechanism entered its definitive regime in 2026. It applies to selected goods in cement, iron and steel, aluminium, fertilisers, electricity and hydrogen. EU importers must account for embedded emissions and surrender CBAM certificates under the applicable rules.

The European Commission states that CBAM certificate prices reflect EU ETS allowance auction prices. The published certificate prices were €75.36/tCO2 for Q1 2026 and €75.28/tCO2 for Q2 2026.

CARBON BECOMES A COST VARIABLE
WHEN EMBEDDED EMISSIONS CARRY A CARBON PRICE, DECARBONISATION CAN MOVE FROM ESG REPORTING INTO LANDED-COST ECONOMICS.

10. CBAM Is Not a Simple 'Country Carbon Tax'

CBAM should not be modelled by multiplying a national grid factor by shipment weight. Embedded-emissions calculation depends on the covered CN code, production route, direct/indirect emissions rules, installation data and the Commission’s applicable methodology.

The Commission also allows a corresponding deduction where the importer can prove that a carbon price has already been effectively paid in the country of production, subject to CBAM rules.

COMPLIANCE PRINCIPLE
USE NATIONAL DATA TO SCREEN. USE INSTALLATION AND PRODUCT DATA TO COMPLY.

11. Türkiye's Domestic Carbon Architecture Is Developing

Türkiye adopted its first Climate Law in 2025, establishing the legal framework for an emissions trading system. The Climate Change Directorate has continued work on the national ETS and verified emissions infrastructure.

This matters strategically because Turkish exporters serving Europe are operating in an environment where carbon measurement, verification and pricing are becoming progressively embedded in industrial policy.

Buyers should still verify the current legal status and implementation details of Türkiye’s ETS for the relevant reporting year; draft and pilot arrangements can change.

12. The Carbon Footprint of a Part Is a Stack

FABRIOX CARBON STACK
MATERIAL → MATERIAL TRANSPORT → CONVERSION ENERGY → PROCESS EMISSIONS → SCRAP/YIELD → SUB-TIER PROCESSES → PACKAGING → LOGISTICS TO CUSTOMER

Optimizing only electricity can miss the largest source. For a machined steel part, the steel grade and buy-to-fly ratio may dominate. For a casting, melting and yield may matter more. For an injection-molded component, polymer resin and molding energy matter. For an assembly, the BOM may dominate the final footprint.

13. Carbon Hotspots by Manufacturing Process

Process

Likely carbon hotspots

High-value supplier data

CNC machining

Material, machining electricity, buy-to-fly ratio, coolant/waste

Material PCF/EPD, kWh/part, scrap recovery, cycle time

Metal fabrication

Steel plate, cutting, welding, coating, yield

Mill/source, nesting yield, kWh/t, welding gas, coating route

Casting

Metal source, melting energy/fuel, yield, heat treatment

Furnace energy, recycled content, yield, heat-treatment data

Forging

Billet, heating, forging energy, flash/yield, heat treatment

Billet source, furnace fuel, yield, heat-treatment route

Sheet metal

Coil/sheet, cutting, forming, welding, finish

Material source, nesting, electricity, coating

Aluminium extrusion

Billet carbon, extrusion energy, heat treatment, anodizing

Billet source/recycled content, kWh/t, finishing

Injection molding

Resin, molding electricity, scrap/regrind

Resin PCF, kWh/kg, scrap %, regrind policy

Assembly

Purchased components, test energy, rejects, logistics

BOM PCFs, supplier data coverage, test/reject rate

14. Green Manufacturing Starts With Material Selection

Procurement teams often begin carbon programs by asking suppliers about rooftop solar. For metal-intensive products, the material certificate may be more important.

  • Identify mill / smelter / billet source where commercially possible.

  • Request product- or material-specific carbon data rather than country averages.

  • Understand recycled content and production route.

  • Control material substitutions because they can change both engineering performance and footprint.

  • Include yield: one tonne purchased is not always one tonne shipped.

15. Yield Is a Carbon Metric

A part requiring 2.5 kg of input material to deliver 1.0 kg of finished product carries more upstream material burden than a route requiring 1.3 kg, even if both factories use identical electricity.

DESIGN-FOR-CARBON PRINCIPLE
MATERIAL UTILIZATION IS NOT ONLY A COST KPI. IT IS OFTEN A CARBON KPI.

This creates a direct bridge between DFM, cost reduction and Scope 3 reduction: better nesting, near-net-shape forging/casting, optimized machining stock and part consolidation can improve both economics and carbon.

16. The Nearshoring Carbon Question Is More Nuanced Than Distance

Türkiye’s proximity to Europe can reduce physical distance, response time and inventory compared with Asian sourcing. But logistics carbon depends on mode, utilization, routing and shipment density—not distance alone.

A long-distance ocean shipment can have a low tonne-kilometre intensity, while poorly utilized road freight can be carbon-intensive. Therefore, the correct comparison is shipment-specific.

Logistics variable

Ask for

Mode

Road, sea, rail, air, intermodal

Distance

Actual route, not straight-line distance

Utilization

Load factor / container fill

Packaging

Weight and cube efficiency

Frequency

Full truck/container vs frequent partial shipments

Expedites

Historical airfreight / premium freight

Returnables

Reverse-logistics requirement

17. Inventory Can Be Part of the Sustainability Conversation

Inventory is primarily a financial and service variable, but manufacturing networks with shorter replenishment loops can reduce obsolescence, emergency freight and excess stock. Those effects can indirectly influence carbon performance.

The point is not to assign an arbitrary carbon factor to inventory. It is to recognize that responsive supply chains can reduce waste-generating behaviors.

18. What a Green RFQ Should Ask For

RFQ request

Why it matters

Facility electricity consumption

Baseline conversion energy

Production output / allocation basis

Converts facility data to product data

Electricity source and contractual instruments

Grid vs renewable procurement

Fuel consumption by type

Thermal/process emissions

Material source and grade

Upstream embedded carbon

Material PCF / EPD where available

Supplier-specific upstream evidence

Recycled content / route

Especially important for metals

Scrap/yield rate

Material efficiency

Sub-tier process map

Prevents hidden emissions

Product carbon footprint methodology

Comparability

Verification / assurance status

Data confidence

Logistics origin and packaging

Inbound footprint

RFQ PRINCIPLE
DO NOT ASK 'ARE YOU GREEN?' ASK FOR THE DATA THAT WOULD ALLOW YOU TO CALCULATE THE ANSWER.

19. Supplier Carbon Data: A Practical Evidence Hierarchy

Evidence

Confidence

Procurement use

Marketing claim / renewable target

Low

Context only

ISO 14001 certificate

Management-system evidence

Useful governance signal; not a carbon number

Utility bills + production data

Medium

Activity-based calculation

YEK-G / renewable evidence

Medium-high for electricity attribute

Supports renewable electricity claim under applicable accounting rules

Supplier GHG inventory

Medium-high if methodology clear

Facility-level assessment

Product carbon footprint

High if boundaries/methodology robust

Part-level comparison

Verified PCF / EPD

Higher assurance

External reporting / high-stakes sourcing decisions

20. ISO 14001 Is Useful—but It Does Not Prove Low Carbon

ISO 14001 indicates an environmental management system. It does not by itself establish the carbon intensity of a part, prove renewable electricity use or satisfy CBAM embedded-emissions calculations.

CERTIFICATION PRINCIPLE
CERTIFICATION CAN PROVE A MANAGEMENT SYSTEM. DATA MUST PROVE THE CARBON PERFORMANCE.

21. Build a Carbon-Adjusted Sourcing View

Carbon should not replace cost, quality or delivery. It should become another quantified layer in the sourcing decision.

Decision layer

Example metric

Commercial

Piece price, tooling, payment terms

Landed economics

Freight, duty, inventory, working capital

Technical

Capability, CTQs, process maturity

Quality

PPM, audit, control plan, traceability

Delivery

Lead time, variability, recovery

Carbon

kgCO2e/part, data quality, CBAM exposure

Resilience

Alternate capacity, material/sub-tier concentration

FABRIOX FRAMEWORK
PRICE → TCO → CARBON-ADJUSTED TCO → TOTAL MANUFACTURING ECONOMICS

22. Illustrative Carbon-Adjusted Supplier Comparison

The following is an illustrative decision model, not a market benchmark.

Variable

Supplier A — distant/high-carbon route

Supplier B — Türkiye/verified lower-carbon route

Piece price

€100

€106

Landed non-carbon cost

€12

€7

Embedded emissions

2.2 tCO2e/t product

1.2 tCO2e/t product

Illustrative carbon price

€75/tCO2

€75/tCO2

Carbon value per tonne product

€165

€90

Data quality

Industry average

Supplier/activity data

Operational distance

Long

European-adjacent

The purpose is not to claim that carbon automatically makes the Turkish supplier cheaper. It is to show that once carbon becomes measurable and priced, a sourcing comparison can change.

23. The CBAM Trap: Buying 'Green' Without Data

A supplier may have solar panels and still be unable to provide the installation, material and process data needed for a compliant embedded-emissions calculation.

Conversely, a supplier without a polished sustainability presentation may have strong primary data and a lower-carbon process.

DATA PRINCIPLE
GREEN MANUFACTURING WITHOUT TRACEABLE DATA IS DIFFICULT TO BUY, REPORT OR MONETIZE.

24. Türkiye's Opportunity Is Bigger Than 'Green Electricity'

The strongest proposition is the combination of industrial capability and decarbonisation potential: EAF-based steel, expanding renewable capacity, renewable-energy certification infrastructure, proximity to the EU and increasing domestic carbon-governance capability.

For a European OEM, that combination can make Türkiye more than a nearshore cost play. It can become part of a carbon-aware manufacturing architecture.

25. Where Türkiye Can Be Particularly Compelling

  • Steel-intensive fabricated components for European customers

  • Machined parts where material source and machining electricity can be documented

  • Cast/forged components with controlled melt/billet and heat-treatment routes

  • Sheet-metal programs using traceable lower-carbon steel/aluminium

  • Assemblies where a high share of BOM can be regionally sourced

  • Programs exposed to CBAM-covered upstream materials

  • Products with frequent engineering changes where proximity reduces waste and expedite risk

26. Where Türkiye May Not Be Lower-Carbon

Credibility requires stating the exceptions.

  • A supplier relying heavily on coal-intensive or fossil captive energy may underperform a renewable-powered Asian supplier.

  • A Turkish component made from high-carbon imported primary material may carry more embedded emissions than a recycled-content alternative elsewhere.

  • Road freight can offset some proximity benefit when shipments are small or poorly utilized.

  • Energy-intensive thermal processes can be dominated by furnace fuel rather than grid electricity.

  • Country averages can hide large facility-to-facility differences.

  • An Indian supplier with captive renewable power and low-carbon material can outperform a Turkish grid-connected supplier.

CREDIBILITY PRINCIPLE
LOWER-CARBON SOURCING IS A VERIFIED SUPPLIER DECISION—not a NATIONALITY CLAIM.

27. A Practical Scope 3 Sourcing Roadmap

Phase

Action

Output

1. Baseline

Map purchased-goods emissions by category/material

Scope 3 hotspot map

2. Prioritize

Identify high-emission, high-spend, high-substitutability families

Carbon sourcing backlog

3. Screen

Compare material route, grid/process energy and logistics

Supplier/region shortlist

4. RFQ

Request carbon evidence with technical/commercial data

Comparable data pack

5. Verify

Audit energy, material, sub-tier and allocation logic

Confidence level

6. Pilot

Measure actual production and shipment data

Supplier-specific baseline

7. Improve

Optimize material, yield, energy, packaging and logistics

Reduction plan

8. Report

Use appropriate Scope 3 / CBAM methodology

Auditable sourcing result

28. The 12 Questions Procurement Should Ask

  • What material route creates most of this part’s embedded carbon?

  • What is the supplier’s electricity consumption per unit of output?

  • Which grid or electricity contract serves the facility?

  • Can renewable electricity claims be evidenced?

  • What fuels are used in furnaces and heat treatment?

  • What percentage of material becomes saleable product?

  • Where do critical sub-tier processes occur?

  • Is product-level carbon data available?

  • What accounting boundary and methodology were used?

  • Has the data been independently verified?

  • How much of the footprint is logistics versus production?

  • Does the product fall within current or potential CBAM exposure?

29. The Bigger Shift: Carbon Becomes Manufacturing Data

For decades, procurement systems were designed around price, quantity and delivery. Quality systems later added traceability, process capability and inspection evidence. The next data layer is carbon.

The future manufacturing record may increasingly connect drawing revision, material heat, supplier, production route, energy data, quality result, shipment and product carbon footprint.

SIGNATURE LINE
CARBON WILL NOT SIT BESIDE MANUFACTURING DATA. IT WILL BECOME MANUFACTURING DATA.

30. Key Takeaways

  • Scope 3 Category 1 makes purchased goods a material decarbonisation lever for manufacturers.

  • Türkiye’s published national electricity-generation factor is materially lower than India’s latest cited weighted grid factor, although formal comparisons require aligned methodologies.

  • Türkiye’s high EAF/induction share creates a structural decarbonisation advantage in steel-intensive manufacturing.

  • Renewable installed capacity continues to expand rapidly, but installed capacity should not be confused with actual electricity consumed by a supplier.

  • YEK-G gives Turkish industrial consumers a mechanism to document renewable electricity attributes.

  • CBAM makes embedded emissions commercially relevant for selected EU imports from 2026 onward.

  • Country averages are screening tools; supplier- and product-specific data should drive high-quality decisions.

  • Material route, yield and sub-tier processes can matter more than factory electricity.

  • Türkiye can be particularly compelling for carbon-aware EU-bound industrial manufacturing—but only where the actual supplier route supports the claim.

  • The strongest green-manufacturing strategy connects carbon to TCO, quality, resilience and execution.

Frequently Asked Questions

Is manufacturing in Türkiye automatically lower-carbon than India?

No. National grid data gives Türkiye a materially lower starting electricity factor in the cited datasets, but supplier electricity, material route, fuel use, yield and logistics can reverse the result.

How much lower is Türkiye’s published electricity factor than India’s?

Using the cited 0.434 tCO2e/MWh Turkish gross-generation factor and India’s 0.710 tCO2/MWh FY2024-25 weighted grid factor, Türkiye is about 39% lower numerically. Treat this as screening because methodologies and periods differ.

What is Scope 3 Category 1?

Under the GHG Protocol, Category 1 covers emissions associated with purchased goods and services, generally on a cradle-to-gate basis for the reporting company’s purchases.

What data should I request from a Turkish supplier?

Material source/PCF where available, electricity and fuel consumption, output allocation, renewable-energy evidence, scrap/yield, sub-tier map, product carbon methodology and verification status.

Does ISO 14001 prove a supplier is low-carbon?

No. It demonstrates an environmental management system; it does not quantify the carbon footprint of the purchased product.

What is YEK-G?

Türkiye’s renewable-energy guarantee-of-origin system operated by EPİAŞ. Each certificate represents 1 MWh of certifiable renewable electricity and supports tracking and disclosure of renewable energy attributes.

Why does EAF steel matter?

Electric-arc-furnace steelmaking, especially with scrap and lower-carbon electricity, can have lower emissions than conventional blast-furnace/basic-oxygen routes. Actual product emissions remain mill-specific.

Does CBAM apply to every manufactured component?

No. CBAM currently covers selected goods in defined sectors and CN codes. Classification and embedded-emissions rules must be checked for the actual imported product.

What is the CBAM carbon price?

CBAM certificate prices track EU ETS auction prices under the Commission methodology. The published Q1 and Q2 2026 prices were €75.36 and €75.28 per tCO2 respectively.

Can a carbon price paid in Türkiye reduce CBAM liability?

EU rules provide for deduction where a carbon price has demonstrably been paid in the country of production, subject to the CBAM requirements. The actual eligibility and documentation must be assessed under the applicable rules.

Is logistics always lower-carbon from Türkiye to Europe than from India?

Not automatically. Türkiye is closer, but mode and utilization matter. Ocean freight can be efficient per tonne-kilometre; shipment-specific calculation is preferable.

What manufacturing processes benefit most from lower-carbon electricity?

Electricity-intensive machining, cutting, forming, molding, melting and some finishing operations can benefit, but thermal fuels and material emissions may dominate other processes.

How should procurement compare suppliers on carbon?

Use consistent system boundaries, prioritize supplier-specific primary data, assess data quality, and integrate carbon with price, landed cost, quality, delivery and resilience.

What is a carbon-adjusted TCO?

A sourcing view that adds quantified carbon exposure or internal carbon value to conventional total-cost-of-ownership factors. It is a decision framework, not a standardized accounting term.

Why is Türkiye strategically interesting for EU buyers?

It combines European proximity with industrial depth, a lower published grid factor than India in the cited datasets, high EAF steelmaking share, growing renewable capacity and increasing carbon-reporting infrastructure.

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