How to Align Data Governance With Enterprise Risk
How to Align Data Governance With Enterprise Risk
Permalink to “How to Align Data Governance With Enterprise Risk”Enterprise risk has become inseparable from data. Cyber incidents, AI model failures, misreported KPIs, and privacy breaches all originate in how data is created, transformed, and consumed. Yet in many enterprises, risk and data governance still run as separate programs.
The result is familiar. Risk registers talk in terms of ‘model risk’ or ‘financial misstatement,’ while governance teams inventory tables, dashboards, and pipelines. Audit findings sit in one system. Data issues sit in another. Neither side gets the full picture they need to act.
This guide lays out a pragmatic approach to align data governance with enterprise risk, using familiar risk concepts and practical governance building blocks. It is written for data leaders, governance leads, and risk/compliance teams who need to work together without starting from scratch.
Why aligning data governance with enterprise risk matters now
Permalink to “Why aligning data governance with enterprise risk matters now”Most large organizations already have mature enterprise risk management and compliance programs. Many also have some form of enterprise data governance. The problem is that these efforts often run in parallel, using different language, tooling, and incentives.
Aligning them turns governance from a generic ‘good practice’ into a concrete response to specific enterprise risks and regulatory expectations. It also gives data leaders a clearer mandate and budget aligned to ERM priorities, as emphasized in the COSO Enterprise Risk Management framework.
Modern, adaptive approaches to governance make this alignment easier to operationalize across fast-changing data and AI estates (for example, Atlan’s adaptive data governance and data governance framework).
1. How risk and data realities are converging
Permalink to “1. How risk and data realities are converging”Enterprise risk frameworks increasingly recognize data, models, and technology as key risk drivers. Model risk, conduct risk, operational resilience, and third-party risk all depend heavily on data quality, lineage, and access, reflected in supervisory expectations like BCBS 239.
At the same time, cloud data platforms and AI systems have made data estates more complex and faster-changing. Traditional spreadsheet-based controls are no longer sufficient for real-time risk monitoring and regulatory expectations. Recent research on the state of enterprise data and AI shows that context, governance, and data quality are now central to scaling AI safely and effectively - Atlan State of Enterprise Data & AI 2025.
Modern governance programs therefore need to understand not only what data exists, but which data directly underpins critical reports, models, and decisions in the risk universe.
2. What risk leaders expect from data governance
Permalink to “2. What risk leaders expect from data governance”From a CRO or Chief Compliance Officer viewpoint, data governance is not an abstract maturity model. It is a set of capabilities that:
- Ensure key risk, finance, and regulatory metrics are accurate, timely, and reproducible, in line with expectations such as BCBS 239.
- Provide traceable lineage from board-level KPIs back to source systems and controls.
- Demonstrate to regulators that the organization understands where regulated data lives and how it is protected, for example through an accountability approach aligned with the UK ICO’s Accountability Framework.
Data leaders can translate these expectations into targeted initiatives using proven governance patterns like business glossaries, domain ownership, and cataloging, supported by Atlan’s data governance framework and data catalog.
3. Common misalignments between risk and data teams
Permalink to “3. Common misalignments between risk and data teams”Several recurring gaps prevent effective alignment:
- Different languages: Risk talks in scenarios and impact; data teams talk in schemas and pipelines.
- Fragmented tooling: Risk issues in GRC tools; data issues in Jira or in a catalog; access in IAM; models in MLOps platforms.
- Unclear ownership: No single role accountable for a risk across both process and data dimensions.
Acknowledging these misalignments upfront makes it easier to design governance elements that naturally bridge ERM and data domains, rather than adding more silos, in line with the organizational principles in ISO 31000.
Map enterprise risks to data, systems, and processes
Permalink to “Map enterprise risks to data, systems, and processes”The first practical step is to treat data as a risk object, on par with processes, legal entities, and products in the ERM framework. That means starting from the enterprise risk register, not the data catalog, and systematically connecting each material risk to data, as recommended in COSO ERM.
This section outlines a simple, workshop-driven approach to build a ‘risk-to-data’ map that both risk and data teams can own and use.
1. Start from the enterprise risk register
Permalink to “1. Start from the enterprise risk register”Begin with the existing enterprise risk register, including top risks, risk appetite statements, and key risk categories, consistent with ISO 31000.
For each high or medium risk, identify:
- The reports, models, processes, and decisions that evidence or manage that risk.
- Any regulatory mandates that explicitly mention data or reporting requirements (for example, BCBS 239).
- Known past incidents or audit findings tied to data quality, access, or lineage.
Capture these in a simple spreadsheet or in a modern data catalog, so they can later be linked to data domains and assets.
2. Run a risk-to-data mapping workshop
Permalink to “2. Run a risk-to-data mapping workshop”Next, hold a joint workshop with risk, compliance, data governance, and representative domain owners. The goal is to walk through each priority risk and answer three questions.
For each risk:
- Which business capabilities are involved? For example, credit origination, claims management, or customer onboarding.
- Which data domains support those capabilities? For example, customer, product, transaction, or reference data.
- Which systems and data products are actually used? For example, specific dashboards, data marts, or models.
Use simple artifacts like whiteboards or digital canvases, but plan to record the final mapping in a catalog or governance platform so it can be maintained as things change, using a structured data governance framework.
3. Example risk-to-data mapping table
Permalink to “3. Example risk-to-data mapping table”Convert the workshop outputs into a structured risk-to-data mapping. This provides a shared view for ERM, audit, and data teams. Frameworks like the EDM Council’s Cloud Data Management Capabilities (CDMC) can be helpful for scoping controls and capabilities.
Below is an illustrative table with more than eight rows to show the level of detail to aim for:
| Risk ID | Enterprise risk description | Impacted process / decision | Key reports / models | Critical data domains | Critical data elements | Primary systems / platforms | Regulatory driver(s) |
|---|---|---|---|---|---|---|---|
| R1 | Misstated regulatory capital | Capital adequacy calculation | Capital ratio model; regulatory returns | Finance; risk; reference data | exposure at default; LGD; PD; risk weights | Data warehouse; risk engine; reporting mart | BCBS 239 |
| R2 | Mispriced credit products | Credit pricing & approval | Pricing models; approval workflows | Customer; credit; product | credit score; income; pricing curves | Loan origination system; model platform | ISO 31000 |
| R3 | AML / sanctions breach | Transaction monitoring | AML rules engine; screening tools | Customer; transactions; counterparties | beneficiary name; country; transaction amount | Core banking; AML platform | NIST SP 800-37 |
| R4 | Privacy / data protection breach | Customer data handling | DPIA; privacy risk reports | Customer; consent; marketing | email; phone; consent flags | CRM; marketing cloud; data lake | ICO Accountability Framework |
| R5 | Misstated financial results | Financial close & reporting | P&L; balance sheet; management reports | GL; reference; product | chart of accounts; FX rates | ERP; consolidation tool; BI reports | COSO ERM |
| R6 | AI model bias and unfair outcomes | AI decisioning | Model output dashboards; fairness reports | Customer; behavioral; model features | protected attributes; feature importance | Feature store; ML platform | ISO 31000 |
| R7 | Operational outage of critical reports | Reporting & analytics | Executive KPI dashboards | KPI catalog; operational metrics | uptime; incident count; MTTR | BI platform; incident tool | NIST SP 800-37 |
| R8 | Data exfiltration or insider abuse | Access management | Access review reports; DLP dashboards | Security; access logs | user ID; role; access grants | IAM; data warehouse; DLP tool | NIST SP 800-37 |
| R9 | Third-party data quality failures | Vendor data ingestion | Vendor scorecards; quality reports | Vendor; market data | vendor ID; reference prices | Vendor feeds; data lake | DAMA-DMBOK |
This table becomes a key bridge between ERM and data governance. It guides control design, monitoring, and investment decisions.
Design risk-based data governance controls and policies
Permalink to “Design risk-based data governance controls and policies”Once risk-to-data mappings are clear, the next step is to define controls and policies that explicitly mitigate those risks. This is where traditional data governance artifacts (standards, glossaries, classification schemes) meet risk concepts like control objectives, control types, and assurance levels, as described in COSO ERM.
Using a control library grounded in data governance best practices and frameworks like DAMA-DMBOK and the EDM Council’s CDMC framework helps ensure coverage without reinventing everything from scratch.
1. Translate risks into control objectives
Permalink to “1. Translate risks into control objectives”For each material risk, define clear control objectives that describe what must be true about data, systems, and processes. Good control objectives are:
- Specific to the risk. For example, “Regulatory capital reports are complete, accurate, and reconcilable to the general ledger.”
- Measurable via data quality rules, lineage completeness, or access logs.
- Assignable to accountable owners, both business and technical.
Where possible, align terminology with your existing control frameworks, such as SOX, NIST, or sector standards. This simplifies conversations with audit and regulators. NIST SP 800-37
2. Build a reusable data control library
Permalink to “2. Build a reusable data control library”Instead of designing controls per project, create a reusable library of standard data controls. Map each control to: risk types, control types (preventive/detective/corrective), and data domains.
An example extract with 15 controls:
| Control ID | Control name | Control type | Description | Primary risk(s) addressed | Data scope |
|---|---|---|---|---|---|
| DC-01 | Critical data element (CDE) inventory | Preventive | Maintain approved list of CDEs for each risk and domain, with definitions and owners. | Misstatement; regulatory non-compliance | Finance; risk; customer |
| DC-02 | Lineage for regulatory reports | Preventive | Maintain end-to-end lineage from regulatory reports back to source systems. | Regulatory reporting failure | Finance; risk |
| DC-03 | Data quality rules on CDEs | Detective | Implement rules for completeness, validity, and reconciliation on CDEs. | Misstatement; model risk | All critical domains |
| DC-04 | Break resolution workflow | Corrective | Route data quality breaks to owners with SLA, approvals, and evidence tracking. | Operational risk; reporting gaps | All |
| DC-05 | Access control by sensitivity | Preventive | Enforce role-based access and masking based on classification. | Privacy; insider abuse | Customer; HR; transactions |
| DC-06 | Periodic access reviews | Detective | Quarterly review of privileged and high-risk access with sign-off. | Privacy; data exfiltration | All sensitive domains |
| DC-07 | Policy-based retention and deletion | Preventive | Apply retention schedules and automated deletion jobs per policy. | Privacy; legal holds | Customer; logs; content |
| DC-08 | Model input and output logging | Detective | Log inputs, outputs, and versions for high-risk models. | Model risk; conduct risk | AI / ML |
| DC-09 | Reference data governance | Preventive | Approve and control changes to reference and pricing data. | Mispricing; P&L errors | Reference; market data |
| DC-10 | Vendor data onboarding checks | Preventive | Validate vendor data completeness, format, and contracts before production use. | Third-party risk | Vendor data |
| DC-11 | KPI catalog and certification | Preventive | Maintain a catalog of KPIs with definitions, owners, and certification workflows. | Misleading reporting | Enterprise KPIs |
| DC-12 | Change impact assessment | Preventive | Assess data and risk impact before schema or pipeline changes. | Operational outages | All |
| DC-13 | Incident and breach logging | Detective | Centralized logging of data incidents with root cause and remediation. | Security; privacy | All |
| DC-14 | Encryption and tokenization | Preventive | Encrypt data at rest and in transit; tokenize high-risk fields. | Security; privacy | Sensitive data |
| DC-15 | Data classification automation | Preventive | Automatically classify PII, PCI, PHI, and critical fields using patterns and metadata. | Privacy; model drift | All |
Active metadata platforms such as Atlan can host this control library, link controls to specific assets, and embed them into workflows like schema changes or access approvals, as described in Atlan’s data governance framework and active data governance. The Atlan Blueprint provides templates and assessments to stand up this kind of control library efficiently.
3. Policy-as-controls specification example
Permalink to “3. Policy-as-controls specification example”To move from ‘policy PDFs’ to enforceable governance, express policies as structured control specifications. This makes them testable, automatable, and auditable, in the spirit of capability models like CDMC.
Below is an example for a regulatory capital data quality policy, specified as ‘policy-as-controls’:
policy_id: P-REGCAP-DQ-001
policy_name: Regulatory capital data quality
risk_id: R1
risk_statement: Misstated regulatory capital due to incomplete or inaccurate risk exposure data.
scope:
domains: [finance, risk]
systems: [risk_engine, data_warehouse, reporting_mart]
critical_data_elements:
- exposure_at_default
- loss_given_default
- probability_of_default
control_objectives:
- CO-1: All CDEs required for regulatory capital reports are present and complete.
- CO-2: Aggregated exposure values reconcile to the general ledger within defined thresholds.
controls:
- control_id: DC-03
type: detective
description: Data quality rules for completeness and reconciliation on RWA CDEs.
frequency: daily
thresholds:
completeness: 100%
reconciliation_diff: <= 0.1%
- control_id: DC-04
type: corrective
description: Breaks routed to data owner with 2-business-day SLA.
workflow_system: governance_platform
monitoring:
kpis:
- name: reg_cap_dq_pass_rate
target: '>= 99.5%'
- name: dq_issue_mttr_days
target: '<= 2'
evidence:
- dq_rule_results
- reconciliation_reports
- workflow_logs
owner:
business_owner: Head of Regulatory Reporting
data_owner: Finance Data Owner
review:
frequency: annual
approvers:
- CRO
- CDO
This structured approach enables governance policies to be ingested into governance platforms, audited, and evolved without manual re-documentation.
Coming up: Operationalizing this framework day-to-day, measuring it, and evolving it as the organization and risks change.
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Atlan is the next-generation platform for data and AI governance. It is a control plane that stitches together a business's disparate data infrastructure, cataloging and enriching data with business context and security.
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