Global Gas Pipeline Risk Management Market Outlook, 2031

Gas pipeline risk management sits at the intersection of regulatory obligation, integrity engineering, and safety-culture governance, and its scope is defined less by commercial software categories than by the analytical and procedural architecture that regulators require operators to maintain. Title 49 CFR §192.917 requires each gas transmission operator to identify and evaluate all potential threats to each covered pipeline segment, to integrate data from integrity assessments, and to conduct a risk assessment that follows ASME/ANSI B31.8S Section 5, using that assessment to prioritise covered segments for baseline and continual reassessment. The rule explicitly requires operators to account for time-dependent threats such as corrosion and time-independent threats such as third-party damage, to analyse spatial relationships that contribute to risk at a common location, and to compensate for uncertainties in the data used in the risk assessment. ASME B31.8S provides the methodological framework, defining threat categories that include external corrosion, internal corrosion, stress corrosion cracking, manufacturing and construction defects, equipment failure, third-party damage, incorrect operations, and weather-related and outside-force events.

API Recommended Practice 1173 establishes a pipeline safety management system framework built on nine elements: leadership and management commitment, stakeholder engagement, risk management, operational controls, incident investigation and lessons learned, safety assurance, management review and continuous improvement, emergency preparedness and response, and competence, awareness, and training. PHMSA issued Advisory Bulletin ADB-2025-01 in March 2025 in response to an NTSB recommendation, encouraging all pipeline operators to implement a pipeline safety management system voluntarily, and describing the framework as a plan-do-check-act cycle focused on continuous safety improvement rather than mere compliance. The manufacturing and development base is led by integrity-management software and analytics providers with pipeline-specific risk engines, alongside engineering consultancies that deliver risk-assessment services and independent verification. These participants compete on threat-model breadth, data-integration capability across in-line inspection, cathodic protection, and excavation records, geospatial risk visualisation, and the ability to generate audit-ready documentation that satisfies PHMSA inspection protocols. The value chain is marked by certification-driven differentiation in risk-model validation, by the growing integration of risk analytics with integrity-management and geographic-information systems, and by the emergence of services that combine software deployment with independent risk review and safety-culture assessment.

Market Dynamics

Market Drivers • Codified Threat Identification and Risk-Assessment Obligations: The most powerful driver across the global gas pipeline risk management market is the non-discretionary risk-assessment architecture imposed by §192.917. The rule requires operators to identify and evaluate all potential threats to each covered segment, to integrate the results of threat evaluation and data activities into risk results that support baseline assessment scheduling, reassessment intervals, and preventive and mitigative measures. PHMSA enforcement precedent treats the absence of a compliant risk model as a violation, and the agency’s guidance clarifies that risk assessments must meet ASME B31.8S Section 5 and must include procedures for updating the assessment when new information is obtained or conditions change.
• Safety Management Systems and the Shift from Compliance to Continuous Improvement: The migration from prescriptive integrity management toward safety management systems is expanding the scope of risk management beyond pipeline integrity to organisational safety culture and operational governance. API RP 1173’s nine-element framework requires operators to define risk-management processes that build upon integrity management, to establish safe operating conditions, to investigate incidents and apply lessons learned, and to conduct management reviews that drive continuous improvement. PHMSA’s Advisory Bulletin ADB-2025-01 encourages voluntary adoption across all pipeline operators, including gas distribution systems, and the NTSB has recommended that operators implement safety management systems that proactively address safety issues, document procedures, treat errors as system deficiencies rather than punish employees, and continuously identify and address risks for safety-critical aspects.

Market Challenges • Data Fragmentation and the Limits of Risk-Model Validation: A persistent technical challenge in pipeline risk management arises from the fragmentation of data across in-line inspection records, cathodic protection surveys, excavation damage reports, geohazard inventories, and operating-history logs. §192.917 requires operators to integrate data from these sources and to account for uncertainties in the risk assessment, but the underlying data is often incomplete, inconsistently formatted, or held in incompatible systems. The NTSB’s investigation of the Jackson, Mississippi, explosions found that Atmos Energy did not maintain complete records for many of its service lines, limiting its ability to identify high-risk infrastructure, and that its safety management programmes did not adequately address ageing pipelines or soil-related hazards. PHMSA’s guidance acknowledges that the risk assessment process must include elements for validation of results, with knowledgeable personnel comparing risk estimates against their understanding of the system, but validation is inherently judgment-based and difficult to audit.
• Geohazard and Interacting-Threat Blind Spots: The treatment of geohazards and their interaction with other threats constitutes a structural weakness in many risk models. ISO 20074:2019 provides a framework for geological hazard risk management for onshore pipelines, and the INGAA geohazard management framework identifies interacting threats such as circumferential stress corrosion cracking, corrosion, and mechanical damage that can reduce strain capacity and pressure containment capacity in ways that single-threat risk models do not capture. The NTSB’s Jackson investigation found that soil movement loosened underground pipe connections, allowing gas to escape, and that the operator lacked sufficient procedures to regularly recheck known leaks in areas with adverse soil conditions.



Market Trends • Integration of Risk Analytics with Integrity-Management and GIS Platforms: The market is shifting from standalone risk-assessment software toward integrated platforms that combine threat identification, data integration, risk modelling, and geospatial visualisation within a single integrity-management environment. §192.917’s requirement to identify and analyse spatial relationships that contribute to risk at a common location is driving demand for GIS-integrated risk analytics that can overlay pipeline attributes, population density, environmental sensitivity, and geohazard inventories. This trend favours suppliers with broad integrity-management portfolios and data-integration capability over point-solution risk-modelling vendors, because the value proposition shifts from model sophistication to workflow integration and audit readiness.
• Independent Risk-Assessment Services and Safety-Culture Assurance: The market is witnessing growing demand for independent risk-assessment services that combine software deployment with engineering review, model validation, and safety-culture assessment. PHMSA’s guidance encourages operators to validate risk-model outputs against system knowledge, and API RP 1173’s management-review and safety-assurance elements require periodic evaluation of whether risk controls are achieving their intended effect. This trend is expanding the services layer beyond software implementation into independent verification, gap assessment against API RP 1173, and safety-culture maturity evaluation, and it is particularly pronounced among operators preparing for regulatory inspections or responding to incident findings.

Segmentation Analysis

Risk assessment software dominates the global market’s recurring licence and subscription value because §192.917 requires a documented, repeatable, and auditable risk-assessment process that cannot be sustained through spreadsheet-based analysis at transmission-network scale. • The global gas pipeline risk management market is segmented by solution type into risk assessment software, pipeline risk analytics, and risk assessment services. Software represents the dominant structural layer because it provides the threat-identification workflows, data-integration engines, and risk-ranking outputs that regulators expect to see during inspections.
• Risk assessment software must support the threat categories defined in ASME B31.8S, the data-integration requirements of §192.917, and the risk-ranking logic used to prioritise baseline and continual reassessments. PHMSA guidance clarifies that risk assessments must meet ASME B31.8S Section 5 and must include procedures for updating the assessment when conditions change.
• Pipeline risk analytics represents the fastest-growing solution segment, encompassing geospatial risk visualisation, predictive modelling of corrosion and third-party damage, and the integration of in-line inspection and cathodic protection data into segment-level risk scores. The requirement to analyse spatial relationships that contribute to risk at a common location is a direct driver of analytics demand.
• Risk assessment services represent a substantial and recurring layer, spanning independent risk review, model validation, API RP 1173 gap assessment, and safety-culture evaluation. Services are particularly relevant where operators lack in-house modelling capability or where regulatory findings require independent verification.

Corrosion and material failure is the largest risk-category segment globally because corrosion is the most pervasive time-dependent threat to pipeline integrity and the threat most directly addressed by in-line inspection, cathodic protection, and integrity-assessment regulation. • By risk category, corrosion and material failure represents the dominant share, encompassing external corrosion, internal corrosion, stress corrosion cracking, and manufacturing and construction defects. ASME B31.8S identifies these as core threat categories, and §192.917 requires operators to address them in the risk assessment.
• PHMSA incident data show corrosion as a leading cause of significant gas pipeline incidents, and the agency’s integrity-management rules require periodic assessment and reassessment of corrosion threats.
• Third-party damage represents the second core risk category, encompassing excavation damage, mechanical damage from construction or agricultural activity, and delayed failure from previously damaged pipe. PHMSA data identify outside force, excavation, and natural forces as causes in a substantial share of significant incidents.
• Geohazards and environmental threats represent a specialised but high-consequence category, covering soil movement, subsidence, seismic activity, flooding, and temperature-related ground movement. ISO 20074:2019 provides the framework for geohazard risk management, and the NTSB’s Jackson investigation illustrated how soil movement can loosen connections and create leak pathways.
• Operational risks represent a cross-cutting category, encompassing incorrect operations, equipment failure, control-system malfunctions, and human factors. API RP 1173’s operational-controls and incident-investigation elements are the primary governance mechanisms for this category.

Gas transmission operators are the largest end-user segment globally because they are the primary subjects of §192.917 and ASME B31.8S risk-assessment obligations, and because transmission pipelines carry the highest consequence of failure in terms of population exposure and gas volume. • By end user, gas transmission operators represent the dominant share, encompassing interstate and intrastate pipeline companies that operate covered segments in high-consequence areas and must maintain integrity-management plans with documented risk assessments.
• Gas distribution utilities represent the second core end-user group, subject to distribution integrity management requirements and increasingly encouraged to adopt API RP 1173 safety management systems. PHMSA’s Advisory Bulletin ADB-2025-01 explicitly extends the voluntary PSMS encouragement to gas distribution systems.
• Offshore pipeline operators represent a specialised end-user segment, where risk management must address geohazards, wave and current loading, corrosion in marine environments, and third-party interference from anchoring and fishing activity. Offshore operators rely more heavily on geohazard and structural-integrity analytics than onshore distribution utilities.

Regional Analysis

North America leads in regulatory-driven risk-management specification because 49 CFR §192.917, ASME B31.8S, API RP 1173, and PHMSA enforcement create an explicit risk-assessment and safety-management architecture, while Europe leads in geohazard standards and hydrogen-network risk assessment, and Asia-Pacific grows with pipeline expansion and integrity-management maturity. • North America is the most prescriptive market for pipeline risk management, with §192.917 requiring risk assessments that follow ASME B31.8S Section 5, PHMSA enforcement precedent treating risk-model deficiencies as violations, and API RP 1173 providing the safety management system framework that PHMSA encourages operators to adopt voluntarily.
• Europe is shaped by ISO 20074:2019 for geohazard risk management and by hydrogen-network risk-assessment programmes, where the introduction of hydrogen blending creates new threat categories around embrittlement, leak behaviour, and altered failure modes that existing risk models were not designed to capture.
• Asia-Pacific is a growth-driven market tied to pipeline construction and integrity-management maturation, with risk-management adoption driven by international standards, operator specifications, and the need to manage geohazards and third-party damage across large linear infrastructure networks.
• The Middle East and Africa are project-driven markets concentrated in transmission and export pipeline risk management, where geohazard, third-party damage, and operational risk assessments are specified alongside pipeline construction.
• Latin America shows moderate growth potential, with risk-management adoption tied to pipeline integrity programmes, regulatory modernisation, and the need to address ageing infrastructure and geohazard exposure.

Considered in this report
• Historic Year: 2020
• Base year: 2025
• Estimated year: 2026
• Forecast year: 2031

Aspects covered in this report
• Gas Pipeline Risk Management Market with its value and forecast along with its segments
• Various drivers and challenges
• Ongoing trends and developments
• Top profiled companies
• Strategic recommendations

By Solution Type
• Risk Assessment Software
• Pipeline Risk Analytics
• Risk Assessment Services

By Risk Category
• Corrosion and Material Failure
• Third-Party Damage
• Geohazards and Environmental Threats
• Operational Risks

By End-User
• Gas Transmission Operators
• Gas Distribution Utilities
• Offshore Pipeline Operators