Talk to us about your ESG data management project.
Tell us your reporting frameworks, data sources, and where the current process breaks down. We'll scope the platform and give you a fixed cost.
ESG data sitting in spreadsheets across business units, with no way to consolidate it for a board report without a weeks-long manual exercise?
Supplier sustainability data arriving in inconsistent formats -- some via PDF, some via email, some via forms -- with no automated ingestion or validation?
Custom ESG data management software that collects, validates, and consolidates sustainability data across facilities, suppliers, and business units -- giving sustainability teams and CFOs a single verified data store instead of a spreadsheet-per-site exercise before every board report.
Generic data tools handle ESG data poorly. The collection is multi-channel, the formats are inconsistent, the validation rules are domain-specific, and the audit trail requirements are stricter than most operational reporting. A purpose-built platform handles all of that without forcing your team to work around it.
Centralised ESG data collection across facilities, suppliers, and business units
Automated data validation and anomaly detection before reporting
Audit trail for every data point -- source, date collected, who approved
Integration with ERP, energy management systems, and supplier portals
RaftLabs builds custom ESG data management platforms for sustainability teams and CFOs -- centralised data collection from facilities and suppliers, automated validation, and audit-ready reporting. The platform includes full data lineage so every figure can be traced to its source, which is what external assurance providers require. Most ESG data management projects deliver in 10 to 16 weeks at a fixed cost.
Sustainability reporting looks like a compliance problem from the outside. From the inside, it is a data engineering problem -- inconsistent sources, variable formats, manual collection, no validation layer, and no audit trail. The compliance requirement is simply what makes the data engineering problem impossible to ignore any longer.
Most organisations reach a point where spreadsheet-based ESG data collection stops working. The dataset gets too large, the number of facilities or suppliers too high, or the disclosure frameworks too demanding for a manual process to satisfy. A purpose-built ESG data management platform handles collection, validation, centralisation, and audit trail in a way that scales with the reporting obligation -- and gives the data quality that external assurance providers require.
Multi-channel data collection covering web forms for supplier and facility submissions, direct API connections to energy management systems and utility bill providers, flat file upload with parsing logic for Excel and CSV submissions, and AWS Textract OCR processing for utility bill PDFs and scanned invoices where structured digital data is not available. IoT sensor integration using Modbus TCP and BACnet protocols collects real-time energy consumption data from building automation systems and smart meters at facilities where sub-monthly granularity is needed -- useful for Scope 1 and Scope 2 calculations that go beyond annual utility bill aggregation. ERP and EMS data pull via SAP and Oracle API connectors brings production volumes, fleet fuel records, and facility operational data into the collection layer without manual export steps. Structured supplier portals with guided input fields, embedded unit selectors, and field-level validation at the point of entry reduce the volume of unusable submissions that arrive in open-ended formats or with incorrect units. Collection schedules are configurable by data type, reporting period, and organisational unit so the system knows when a submission is late and can send automated reminders before the collection window closes. Every submission is timestamped and source-attributed at the point of ingestion -- before any transformation or calculation is applied -- so the raw input values are always preserved alongside the processed figures.
Rule-based validation applied to incoming data before it enters the reporting store, structured around three quality dimensions: completeness, plausibility, and consistency. Completeness checks confirm that every mandatory field for the reporting period and organisational unit has been submitted -- missing data is flagged before the collection window closes, not discovered at consolidation time. Plausibility checks flag values outside the physically plausible range for the metric, facility type, and reporting period -- an energy consumption figure two standard deviations above the facility's historical range triggers a review request, not a silent pass. Cross-metric consistency checks identify internally contradictory submissions: energy consumption per square metre increasing significantly while reported floor area also increased would be flagged for review with the specific contradiction identified. Year-on-year variance alerts surface significant changes -- greater than a configurable percentage threshold -- that do not have a corresponding operational explanation recorded, prompting the submitter to add a restatement note or confirm the figure is correct. Validation failures are returned to the submitter with specific field-level error descriptions and the expected value range, so the problem is corrected at source by the person who submitted the data rather than by the sustainability team trying to interpret an anomalous figure at consolidation time. The GHG Protocol requires that material errors be restated; catching those errors before submission closes is significantly less work than managing post-publication restatements.
A single authoritative data store for all ESG metrics across GHG Protocol Scope 1 (direct emissions from owned sources), Scope 2 (purchased electricity and heat, calculated using both market-based and location-based methods), and Scope 3 (value chain emissions across the 15 upstream and downstream categories) -- alongside energy, water, waste, social metrics, and governance indicators, all organised by facility, business unit, supplier, and reporting period. The GHG calculation engine applies emission factors from EPA eGRID (US electricity grid), ECOINVENT (lifecycle emission factors), and DEFRA (UK conversion factors) based on the facility location and activity type, maintaining version-controlled emission factor libraries so the basis of calculation is reproducible and documentable. Market-based Scope 2 calculations apply contractual instrument data -- Renewable Energy Certificates, Power Purchase Agreements, and supplier-specific emission factors -- separately from location-based calculations, with both figures maintained so disclosures can report either method as required. EU Taxonomy alignment tagging records which activities qualify as environmentally sustainable under Taxonomy criteria, supporting the Taxonomy disclosure requirement for EU CSRD reporting. Organisational hierarchy configuration allows data submitted at entity level to be consolidated to group level with clearly defined aggregation and boundary rules. Multiple time series maintained for the same metric record restated prior-period figures alongside original submissions. The single source of truth that gives a consistent, auditable answer to "what were our total Scope 1 and 2 emissions last year?" regardless of who asks.
Every data point stored with its full provenance record -- source system or submission channel (API, web form, file upload, OCR extraction), collection date and time, submitting entity, emission factor applied and its version, transformation calculation steps, validation outcome, reviewer, and approval status. An immutable append-only log records every data modification, version change, approval action, and restatement with the user ID, timestamp, and stated reason for each change -- the log cannot be edited or deleted, only appended. Prior-period restatements are tracked with the reason for revision, the original figure, the restated figure, and the recalculated derived metrics, so the full audit trail of what changed and why is available years after the original disclosure. GRI, SASB, and TCFD framework mapping records which data points contribute to which disclosure metrics, so an auditor can trace from a published disclosure figure back through the calculation to the raw source submissions. XBRL and iXBRL tagging support is included for organisations preparing SEC climate disclosure rule submissions or EU CSRD digital reporting requirements. The data lineage that allows any figure in a published ESG report to be traced directly to its source record, the emission factor applied, and the person who approved it -- which is what Workiva, Watershed, Persefoni, and independent assurance providers require before they will sign off on sustainability disclosures.
Structured data output aligned to GRI Standards, SASB industry-specific standards, TCFD recommendations, and CDP questionnaire format -- with each disclosure metric mapped to the underlying data points in the repository so the output is generated from live data rather than manually assembled at reporting time. EU CSRD double materiality assessment workflow supports the identification of financial and impact materiality for each sustainability topic, with assessment records and documentation stored alongside the reporting data. Export formats match what each disclosure platform and framework accepts: XBRL and iXBRL for SEC climate disclosure rule electronic filing and EU CSRD digital reporting, CSV and Excel for CDP and investor disclosure questionnaires, PDF for board packs and integrated annual reports. Calculated metrics -- emission factors applied with version reference, intensity ratios computed against the correct denominator (revenue, square metres, tonnes produced), boundary adjustments with explanation, and market-based vs. location-based Scope 2 figures -- are included alongside raw activity data in all export formats so the basis of each figure is transparent. Third-party verification access provides assurance providers with a read-only view of source data, calculation steps, transformation records, and approval history for the specific metrics in scope -- without requiring access to commercially sensitive financial data or operational data outside the assurance engagement.
Bidirectional API integration with ERP systems -- SAP S/4HANA, Oracle Fusion, and Microsoft Dynamics 365 -- pulls production volumes, headcount records, fleet fuel purchase data, and revenue figures that are required as activity data inputs for Scope 1 and Scope 3 calculations and as intensity metric denominators. Energy management system integration with Schneider Electric EcoStruxure, Siemens Building X, and Johnson Controls Metasys connects facility-level energy consumption data from building automation systems, pulling sub-monthly granularity data rather than relying solely on annual utility bill totals. For facilities instrumented with IoT energy meters, Modbus TCP and BACnet protocol adapters collect real-time consumption readings from meters that do not have a higher-level API. Supplier portal integration ensures supplier sustainability data flows directly into the collection layer via API or structured web form submission rather than arriving by email in inconsistent formats that require manual normalisation. Finance system integration pulls the revenue and production volume denominators used in intensity ratio calculations so the denominator data and the numerator data share the same source-of-truth timestamps and are not manually reconciled at reporting time. Integration scope and architecture -- API vs. data export vs. real-time streaming -- is assessed during the discovery phase based on what systems you have, what data they hold, and what API access or export capabilities they support.
Frequently asked questions
Commercial ESG platforms -- Salesforce Net Zero Cloud, IBM Envizi, Watershed, and Persefoni -- handle standard GHG accounting and framework reporting well for organisations whose data sources, organisational structure, and reporting obligations fit the platform's configuration model. The case for custom software is when your data sources involve non-standard ingestion paths such as IoT sensors via Modbus or BACnet, your organisational consolidation hierarchy does not match platform assumptions, or your reporting requirements span GRI, SASB, TCFD, EU CSRD, and SEC climate disclosure in combinations that commercial tools handle via expensive add-on modules. The platform licence cost relative to the number of users and reporting scope is also a relevant consideration -- for a mid-size sustainability team with complex data sources but a limited reporting footprint, the all-in licence cost of commercial platforms can exceed the cost of a purpose-built tool that does exactly what you need and no more. We give you an honest assessment of whether a commercial platform fits your requirements before recommending a custom build, and we will tell you directly if we think a commercial tool is the right starting point.
Supplier data ingestion uses a layered approach. The primary channel is a structured supplier portal -- a guided web form with mandatory fields, unit selectors, and field-level validation at the point of entry -- which produces clean, schema-consistent data without requiring any post-submission parsing. For suppliers who submit via Excel or CSV templates, the ingestion layer includes a parser that maps common column naming variations to the standard schema and flags rows that cannot be mapped for manual review. For suppliers who send PDF attachments, AWS Textract OCR extracts values from structured tables and invoice layouts, with extracted values reviewed before entering the validation pipeline. The ingestion layer normalises all submissions to a standard schema -- consistent units, consistent field naming, consistent period boundaries -- before validation rules run. When a supplier's submission fails validation, they receive specific feedback identifying which field failed, what value was received, what the acceptable range or format is, and what they should resubmit. The error message is specific enough that the supplier can correct and resubmit without a back-and-forth conversation with your sustainability team.
A platform covering data collection, validation, and reporting output for a single reporting scope typically takes 10 to 14 weeks. A more complete system with supplier portals, multi-scope coverage, ERP integration, and audit trail for external assurance typically takes 14 to 22 weeks. The timeline depends on the number of source system integrations, the complexity of the organisational hierarchy, and the assurance access requirements. Fixed cost agreed before development starts -- scoped after an assessment of your data sources, reporting frameworks, and organisational structure.
Yes. ERP integration (SAP, Oracle, Microsoft Dynamics) is a standard part of ESG data management builds where financial and operational data feeds into emissions calculations -- production volumes for intensity metrics, headcount for social metrics, and financial turnover for normalisation denominators. Energy management system integration (Schneider Electric EcoStruxure, Siemens, Johnson Controls) handles facility-level energy consumption data. The integration scope depends on what systems you have, what data they hold, and whether that data is currently accessible via API or requires a data export approach. Both are assessed during discovery before scoping.
What clients say
Three-year average engagement. Founders and operators describing the work in their own words. No marketing varnish.

All of the sprints were completed on schedule and on budget. We highly recommend RaftLabs!
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Tell us your reporting frameworks, data sources, and where the current process breaks down. We'll scope the platform and give you a fixed cost.