GX

CORA

Circular Operations for Resource Assessment

A data optimization platform for trustworthy data

OVERVIEW

Instead of producing carbon data separately,the data the plant already emits is brought up to standard

It starts by setting out what is emitted, where and how much, in a form that can be measured.

Overview diagram of the CORA data supply pipeline

KEY CAPABILITIES

Four capabilities that make up the carbon data pipeline

From the data inventory through infrastructure and integrated collection to AAS-based interoperability.

Carbon Data Capability

01 / 04

01

Building a data inventory

We systematically identify and catalog the location, form and character of the company's internal data assets. Beyond simply gathering data, we clearly define what data exists where, and how it should be used, for carbon emission accounting and production efficiency optimization.

Management Scope

  • Unit definition
  • Process flow
  • Data catalog
  • System boundary
  • Governance design
Data inventory screen

Data inventory

Every data asset in the organization is located, listed and its state recorded.

SYSTEM ARCHITECTURE

What it connects,and the work it leads to

From the data that goes in to the results on the floor.

01 / INPUT

01Data inventorySite · process · input · output
02Source systemsMetering · MES · ERP · manual records
03Standard criteriaUnit · item · boundary · asset ID

CONNECTED OPERATIONS

EcoLine CORA

Define data location and form
Operate collection, validation, integration
Structure assets on AAS

03 / OUTPUT

✓Standard activity dataData checked for duplicates and gaps
✓Manufacturing digital assetsAsset · submodel · property
✓Environmental data linkageUsed for COTO calculation and reporting
Linked by common identifiers, master data and historyResults checked → fed into the next run
Who uses itEnvironmental data staffOn-site metering staffIT and data managers

A high-quality data pipeline that delivers optimal carbon management

  • Steel and metal manufacturing site

    Steel and metal manufacturing

  • Automotive and battery manufacturing site

    Automotive and batteries

  • Advanced industry production site

    Advanced industries

  • Defense and aerospace industry site

    Defense and aerospace

  • Chemical industry plant

    Chemical industry

  • Construction industry site

    Construction industry

FUNCTION MAP

Function map

How carbon data runs from collection through calculation to reporting.

01 · Reference Data

Reference data

Code systems, emission factors and pollutant items — the reference data used across the whole calculation — are standardized.

Sub-functions10
Function groups2
Set up7
Review3
INPUTRegistered
CORAStandardized
OUTPUTUsed everywhere

Sub-functions

Functions 10 · Groups 2

Set up7

Review3

SUB-FUNCTION INFOGRAPHIC

Reference data · Common code management

Common code management

Code systems used in calculation are standardized so every aggregation reads on the same basis.

  1. 01INPUTCodes and classifications
  2. 02CORA PROCESSRegistered and standardized
  3. 03OUTPUTCodes shared across modules
Module flowRegistered → Standardized → Used everywhere

PROCESS

Build process

From preparation to data exchange, and what each stage leaves behind.

  1. Preparation and infrastructure survey

    • Customer requirements confirmed
    • Equipment and network inspected
    • Compatibility with existing systems checked
  2. Data inventory definition

    • Target products and processes identified
    • Inputs and outputs listed
    • Manufacturing and utilities separated
  3. Infrastructure build and data collection

    • Layout documented and sensors installed
    • Communication protocols standardized
    • Data collection and monitoring
  4. Data exchange and access control

    • Data converted for the platform
    • AAS model access scope set
    • Client whitelist registered

EFFECT

Business impact

What it leaves behind — in cost, reporting time, regulatory readiness and staffing effort.

  • A 3D illustration linking a database, emissions, elapsed time, and the people who run it to a central data core
  • 01

    Cost savings

    System boundary, infrastructure and the AAS conversion engine are put in place in one go, brought in-house as a lasting capability, and a new regulation is met by extending what exists rather than reinvesting.

    Scope of buildin-house capabilityreinvestment
  • 02

    Less time spent aggregating data and writing reports

    Integrated infrastructure shortens data collection, regulatory reports are issued faster, and the hours spent on manual, repetitive administration fall away.

    Collection timeissuing speedmanual work
  • 03

    Regulatory response capability

    Heavy carbon tax penalties are avoided, revenue lost by being dropped from a supply chain is prevented, and damages from customs and delivery delays are headed off.

    Penaltieslost revenuedelay damages
  • 04

    In-house specialist workload

    The pressure to hire environmental specialists eases, rework spent correcting data errors shrinks, and resources for smart-factory upgrades are freed.

    Hiring pressurereworkupgrade resources

CASE STUDY

Case study

Product-level carbon evidence automated into the AAS standard, keeping the European supply chain intact.

A car and a connecting rod

Customer industry

Automotive powertrain parts manufacturing

  • Engine and transmission parts
  • Over 40% of revenue in Europe
  • CBAM compliance

Before01

Company profile

  • 40% of sales in Europe
  • No in-plant measuring
  • Scope 3 unprovable

After02

What was built

  • Boundary set to CBAM
  • Sources inventoried
  • Meters and ERP to AAS

Results

  • Supply data automated
  • Live AAS integration
  • Product evidence filed

Build CORA and export carbon data on an international standard