NFV MANO Software Market Size & Share Analysis - Growth Trends and Forecast (2026 - 2031)

Global NFV MANO Software Market Trends and Insights

5G Standalone and Network Slicing Orchestration

5G Standalone deployment raises demand for orchestration because network slicing requires coordinated lifecycle management across radio, core, and transport domains. A slice is a logical end-to-end network on shared physical infrastructure, so operators need a platform that can manage its design, activation, scaling, assurance, and retirement across these domains. The NFV MANO software market benefits when operators need to create, modify, and retire slices without relying on manual workflows that can delay service delivery, consume specialist resources, and limit the practical use of differentiated service offers, particularly where enterprise customers expect reliable performance, rapid activation, and clear service-level commitments across a changing mix of applications. Orange selected Ericsson in June 2025 to deploy Service Orchestration and Assurance across its European affiliates after a 5G Standalone slicing trial in Belgium, supporting private networks, geofencing, and fixed wireless access.^{[1]European Commission, “Orange Selects Ericsson to Lead 5G Network Slicing Orchestration Across Europe,” European Commission Digital Strategy, digital-strategy.ec.europa.eu} Faster slice activation can help operators offer enterprise services with specific performance commitments and respond to changes in user needs without rebuilding the underlying network, especially where private networks and fixed wireless access require distinct operating parameters, controlled coverage areas, and service-specific capacity rules, which broadens the role of the NFV MANO software market. O-RAN Alliance Specification Release 5, completed in November 2025, included AI-driven management specifications that extend orchestration requirements into disaggregated radio networks.

Telco CAPEX-to-OPEX Migration

Network virtualization is moving from VNF-based designs toward CNF-native horizontal cloud platforms. This change shifts attention from initial proprietary hardware purchases to shared infrastructure, automation, operating efficiency, and the ability to run workloads consistently across common cloud resources while reducing duplication among separate network domains. Deutsche Telekom documented a Horizontal TelCo Cloud architecture that supports 40 workloads on 200,000 vCPUs and targets 80 workloads by 2028. The company’s 2026 material projected a 16% CAGR for mobile core spending on horizontal cloud approaches between 2026 and 2030, compared with 8% for vertically integrated stacks. The NFV MANO software market therefore favors platforms that can automate lifecycle management across shared cloud resources while retaining the reliability, operational control, and service continuity required for telecom services, including complex workloads that span multiple domains and locations. ETSI expects VNF and CNF environments to coexist during the transition, which keeps unified management interfaces necessary and prevents a simple one-step migration.^{[2]ETSI ISG NFV, “GS NFV-IFA 031 V5.4.1 Management and Orchestration Requirements and Interfaces Specification for Management of NFV-MANO,” ETSI, etsi.org}

Edge Cloud and Distributed Network Function Deployment

Distributed user-plane functions create placement and scaling requirements that were less important in centralized network designs. Orchestration tools must account for latency, resource availability, traffic conditions, and edge-cloud integration across sites that may have limited local capacity, different operational policies, and varying demand patterns. These requirements are important when an application needs processing close to a factory, campus, transport hub, or regional network node, rather than in a distant centralized data center. NEC demonstrated agentic AI-based autonomous lifecycle management of a 5G Core User Plane Function with AWS in February 2026.^{[3]NEC Corporation, “NEC Demonstrates Agentic AI-Driven Autonomous Network Operations in Collaboration with AWS,” NEC, nec.com} NEC stated that the demonstration reduced the time from network design to initial service launch from several weeks to a few hours through AWS Kiro and GitOps automation. This model can shorten regional rollout cycles and reduce the level of specialist effort required at edge sites, while the NFV MANO software market favors platforms that handle edge infrastructure through native management interfaces instead of add-on connections and maintain consistent operating processes across distributed locations.

Closed-Loop Automation and AI-Assisted Service Assurance

Closed-loop automation links network observation, fault diagnosis, remediation decisions, and corrective actions in one operating process. It reduces the number of manual handoffs required to identify an issue, decide on a response, and carry out that response within defined operating controls, while keeping a documented role for human review where risk is higher. Huawei launched AUTINOps in March 2026 with more than 20 AI agents, including agents for mobile broadband faults and risk handling. Nokia and Google Cloud expanded their assurance partnership in June 2026 by embedding 6 Gemini-powered AI agents in Nokia Assurance Center, supporting event triage, anomaly analysis, and resolution across multi-vendor and multi-domain networks. Engineers retain authority at high-risk control points, while Mavenir’s June 2026 framework converts validated operational knowledge into explainable automation templates that can work with existing OSS investments. These offerings make service assurance a value layer alongside basic lifecycle management in the NFV MANO software market and shift competition toward measurable operational efficiency, repeatable fault handling, and more consistent service quality.

Legacy OSS/BSS Integration Complexity

Legacy OSS/BSS environments remain a core limitation on adoption because many systems predate NFV architecture and were designed for static, hardware-based service processes. A modern MANO platform must connect with fault, configuration, accounting, performance, and security systems without interrupting established provisioning and charging workflows. This work often requires custom adapters across several vendor systems, which increases the time and coordination required for implementation, testing, maintenance, and ongoing change management. Parallel VNF and CNF operations add different data models, descriptor formats, and resource abstraction layers to the integration task. Integration teams must then support separate technical approaches while preserving service continuity and making sure that service events still reach downstream business systems, including provisioning, billing, charging, and customer-support processes. TM Forum Open API alignment can reduce this burden, but uneven adoption limits its role as a common solution across operator environments with different legacy estates, business processes, and supplier relationships.

VNF and CNF Interoperability Gaps

VNF and CNF coexistence will remain a multi-year operating reality for many network operators. ETSI has proposed a Telecoms Cloud MANO evolution to bring VNF and CNF lifecycle management under a more unified framework. Some CNF products still do not align fully with cloud-native design principles, which limits the benefit of Kubernetes-native orchestration and can force operators to retain separate practices. The O-RAN Alliance’s Spring 2026 PlugFest brought together 31 companies and 9 labs to test multi-vendor integration under practical deployment conditions. The work showed why descriptor compatibility alone cannot ensure end-to-end interoperability when functions, infrastructure, and management tools come from different suppliers and must work together during live network operations. These conditions preserve demand for platforms that can manage older and cloud-native functions without duplicating management systems or creating another disconnected tool chain, while allowing operators to modernize at a pace consistent with their installed base, risk controls, and available technical skills.

*Our forecasts treat driver/restraint impacts as directional, not additive. The impact forecasts reflect baseline growth, mix effects, and variable interactions.

Segment Analysis

By Component: Services Gain Momentum Alongside Solutions

Solutions accounted for 77.72% of the NFV MANO software market share in 2025. This leadership reflected spending on platform licenses, integration middleware, and proprietary descriptor toolchains during initial virtualization programs. Solutions remain central because operators need a common platform for service design, resource coordination, and lifecycle control. The NFV MANO software industry continues to rely on these platforms as networks become more distributed. Yet initial deployment work does not end the need for support. Operators are shifting attention toward daily operations, optimization, upgrades, and cloud-native migration.

Services are projected to expand at a 13.86% CAGR from 2026 to 2031. Managed services, professional services, training, and support are becoming more important as implementation requirements increase. Vendors can turn one-time software transactions into multi-year contracts by providing managed MANO services and automated upgrades. This arrangement can help operators sustain AI-driven assurance, multi-vendor service management, and GitOps workflows. ETSI Release 5 includes management data analytics functions and intent management interfaces that add operating requirements. The NFV MANO software market therefore gives greater weight to delivery capabilities alongside platform functionality.

By MANO Function: Container Infrastructure Changes the Orchestration Mix

NFV Orchestrator held 27.18% of NFV MANO software demand in 2025. It manages service packaging, instantiation, scaling, and termination across infrastructure and network-function management layers. The function also supports service-level commitments, slice management, and end-to-end resource allocation. These responsibilities make it central to operators that are creating differentiated enterprise services. Virtualized Infrastructure Manager and Virtualized Network Function Manager functions continue to cover much of the lifecycle automation in installed operator networks.

Container Infrastructure Service Manager is projected to expand at a 13.39% CAGR through 2031. The pace reflects the move from virtual network functions to cloud-native network functions. Deutsche Telekom reported that CNFs are expected to represent 76% of total mobile core network function expenditure by 2030, compared with 36% in 2025. Wide Area Network Infrastructure Manager is also becoming more relevant as edge deployments increase connectivity requirements among distributed infrastructure points. 3GPP’s Coordinated Closed Control Loop supports zero-touch automation across management functions. This framework is shaping MANO roadmaps for container and infrastructure management, particularly where operators need coordinated automation across cloud resources, network functions, and service-assurance processes.

By Deployment Mode: On-Premises Leads While Cloud Use Expands

Cloud deployment held 58.66% of the NFV MANO software market size in 2025, and the same segment grew at the fastest rate of 13.94% through 2031. These designs typically keep control-plane functions on-premises while moving analytics, AI workloads, and less latency-sensitive orchestration processes to cloud capacity. Nokia stated that its Autonomous Networks Fabric is available as a software-as-a-service offering on Google Cloud, on-premises through Google Distributed Cloud, and in hybrid configurations. The design gives operators flexibility, but it can increase reliance on underlying cloud services for AI workloads. Deutsche Telekom’s horizontal-cloud program supports this direction by favoring shared cloud operating models.

On-premises deployment held 41.34% of the NFV MANO software market size in 2025. Data sovereignty, latency, and compliance needs make a full public-cloud move difficult for many core network workloads. Operators also want core network software to run within national boundaries or on operator-controlled infrastructure. These factors continue to support local deployment of MANO platforms. The deployment model is particularly relevant for operators with strict security and service-continuity obligations. It also lets operators maintain direct control over sensitive network functions.

By End User: Telecom Providers Remain Central as Cloud Providers Advance

Telecom Service Providers held 56.81% of NFV MANO software demand in 2025. They own the largest and most complex multi-vendor network estates. Their telecom licenses also create obligations for service continuity and network reliability. This makes automation a practical requirement rather than a discretionary software purchase. Telecom providers remain the primary users of MANO for network transformation programs. Their spending priorities continue to shape the product roadmaps of leading vendors.

Cloud Service Providers are projected to expand at a 13.74% CAGR through 2031. Hyperscalers and regional cloud providers are deploying MANO capabilities for edge infrastructure and telco-cloud offerings. This shifts their role from infrastructure suppliers to operators of orchestration-enabled platforms. Enterprises, government and defense organizations, data center operators, and managed network service providers make up the rest of demand. Government and defense users value rapid network reconfiguration during crisis conditions. Data center operators need lifecycle management for virtual and containerized network appliances, while managed providers need multi-tenant control across customer environments.

By Organization Size: Large Enterprises Lead While SMEs Add Demand

Large Enterprises accounted for 75.37% of NFV MANO software demand in 2025. Their scale and implementation requirements favor feature-rich platforms that can handle large numbers of network functions. Major operators and cloud providers also need multi-domain orchestration across broad geographic footprints. Existing OSS/BSS estates add to the integration requirements for these users. These factors support the continued role of established MANO platforms in large enterprise environments. Large deployments also require deeper support for availability, security, and service-level control.

Small and Medium Enterprises are projected to expand at a 13.67% CAGR from 2026 to 2031. Private 5G use in factories, logistics hubs, stadiums, and campuses is supporting this demand. These users need simplified and cloud-managed lifecycle management without the staffing needs of a telecom operations center. Alcatel-Lucent Enterprise launched an updated private 5G offer with AerFlex in July 2026, using an access-point-only architecture that removes baseband units and dedicated packet cores. The company stated that the design reduces private 5G deployment from months to days, which can simplify initial implementation for users with limited telecom operations resources. Streamlined interfaces and preconfigured automation templates can make the NFV MANO software market more accessible to smaller users.

Geography Analysis

Asia-Pacific held 32.07% of the NFV MANO software market share in 2025. China, South Korea, Japan, and India supported this position through 5G Standalone rollout activity. India’s momentum in cloud-native core architecture supports continuing demand for orchestration tools. South Korean operators are focusing on network slicing monetization after initial Standalone deployments. This requires advanced NFV Orchestrator capabilities and enterprise service-level management.

North America and Europe, the Middle East, and Africa form another major demand concentration. Europe is modernizing core networks through horizontal cloud architectures and greater attention to standards compliance. Deutsche Telekom’s Horizontal TelCo Cloud supports 40 workloads on 200,000 vCPUs and targets 80 workloads by 2028. North American operators continue to extend 5G Standalone infrastructure after their initial investments. ETSI requirements and European cybersecurity frameworks influence procurement criteria for MANO platforms.

The Middle East and Africa presents different conditions across its markets. Gulf Cooperation Council operators in Saudi Arabia and the United Arab Emirates are investing in 5G Standalone and wider network modernization. Africa is projected to expand at a 13.79% CAGR through 2031, the highest regional rate. Greenfield 5G networks can avoid part of the OSS/BSS integration burden faced by operators with older 4G VNF estates. South America is smaller but has increasing demand as Brazil and Argentina advance their Standalone programs. Brazil’s 5G licensing commitments include coverage and quality obligations that support investment in automated assurance and orchestration.