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Across industrial manufacturing, the aftermarket is no longer a stable, incremental revenue stream that can be managed with periodic tweaks to pricing and service contracts. It is becoming the primary arena where competitive advantage is built—or lost. As margins on equipment compress and customers demand uptime guarantees, outcome-based contracts, and digital support, traditional service models are being stretched beyond their limits.

Author Copperberg Editorial Team | *This article was developed using a combination of human expertise and AI-assisted writing. The concept, structure, and editorial direction were defined by our team, while elements of the text were generated with the support of advanced language tools. All content has been reviewed, refined, and approved by humans to ensure accuracy, clarity, and relevance.

Photo: Magnific

A growing number of manufacturers are responding by building internal innovation labs or service testbeds. These are not simply digital teams or pilot projects under a service manager. They are structured environments where new aftermarket concepts can be conceived, prototyped, tested with customers, and scaled—or shut down—without destabilising the core business.

What becomes increasingly evident is that the question is no longer whether to experiment with new service models, but how to do so in a systematic, low-risk way. Internal innovation labs, when designed with rigor, can provide that mechanism.

From Incremental Improvement to Systematic Experimentation

Most manufacturers already innovate in service, but often in fragmented and reactive ways: a local service manager pilots remote diagnostics with a few customers; a regional team tests new pricing bundles; a digital unit launches a customer portal that never fully integrates with field operations.

This pattern creates two structural problems:

  1. Experiments remain local and do not scale.
  2. Core operations feel threatened and resist change.

Internal innovation labs aim to address both issues by turning sporadic experimentation into an institutional capability. Instead of isolated pilots, there is a pipeline of systematically selected, designed, and evaluated service concepts.

Strategic labs typically focus on three intersecting dimensions:

  • Physical service: new field service practices, modular maintenance, advanced repair methods, and logistics execution.
  • Digital enablement: IoT and connectivity, remote monitoring, AI-driven diagnostics, digital twins, and customer-facing platforms.
  • Collaborative models: co-creation with customers, joint risk-sharing contracts, and new partner ecosystems.

This blend reflects the broader shift in manufacturing from product-centricity to outcome-centricity. McKinsey has repeatedly highlighted that advanced services and solutions can drive EBIT margins 25–30 percent higher than product sales, but only when supported by robust capabilities in data, digital tools, and field execution. Innovation labs provide the environment in which those capabilities can be shaped before being rolled out across global service organisations.

What Actually Comes Out of Service Innovation Labs

Executives often ask what tangible outputs these labs generate. The reality is that successful labs rarely focus on a single “big bet.” Instead, they produce a portfolio of concepts that anchor the manufacturer’s service evolution.

Typical prototypes and concepts include:

Digital-first service offerings  

  • Remote service tiers (from basic remote support to fully managed, predictive service)  
  • Self-service portals with guided troubleshooting, parts recommendations, and status visibility  
  • Digital adoption tools that assist technicians and customers via AR, step-by-step workflows, or AI assistants

New contract and revenue models  

  • Uptime or availability contracts, with performance-based penalties and rewards  
  • Subscription maintenance plans and service bundles for installed bases previously served ad hoc  
  • Tiered response-time offerings and critical asset coverage schemes based on risk profiles

Operational and field innovations  

  • Smart dispatching and dynamic technician routing based on real-time asset health and SLA priorities  
  • Pre-emptive parts logistics based on predictive analytics and consumption patterns  
  • Standardized “innovation-friendly” service procedures that collect richer asset and usage data

Collaborative and ecosystem concepts  

  • Co-designed maintenance strategies with key customers, aligned to their production constraints and risk appetite  
  • New ecosystem partnerships with software, IoT, and analytics providers to deliver integrated solutions  
  • Customer councils and user groups embedded into the design cycle of new digital services

Deloitte’s research on Industry 4.0 ecosystems underlines that value creation increasingly happens at the intersection of hardware, software, and services, requiring new forms of collaboration across the value chain. Innovation labs create space to explore these intersections without forcing incomplete models into the main business too early.

Designing Labs Around Users: Customers and Service Teams as Co-Developers

The most sophisticated service concepts fail when they collide with customer realities or field constraints. A frequent weakness of traditional R&D approaches in manufacturing is that service is treated as an afterthought—something to be documented once the product is final.

Internal innovation labs invert this logic. They deliberately place customers and service teams at the center of the design process. This user-centric orientation manifests in several ways:

Structured customer involvement  

  • Early-stage discovery interviews and ethnographic studies to understand how customers actually manage downtime, maintenance windows, and operational risk  
  • Co-creation workshops where customers prioritize use cases, define acceptable risk-sharing, and trial new digital interfaces  
  • Controlled pilots with clear customer selection criteria, contractual safeguards, and feedback mechanisms built into the engagement

Service team integration  

  • Field technicians involved in the design of workflows, ensuring that digital tools and processes match real-world conditions  
  • Service managers helping define operational constraints, pricing logic, and commercial guardrails for pilots  
  • Cross-functional squads (service, digital, engineering, finance) that own concepts from ideation through pilot evaluation

Forrester’s work on customer-obsessed operating models emphasizes that firms that embed customers continuously into product and service development outperform peers in revenue growth and retention. For industrial manufacturers, internal labs are one of the few mechanisms that can realistically operationalize this principle at scale, given the complexity of installed bases and global service structures.

Measuring What Matters: KPIs and Governance for Service Innovation

A persistent challenge in innovation is measurement. Traditional KPIs—such as short-term revenue, margin, or utilization—are often misaligned with early-stage experimentation. At the same time, senior leaders cannot commit resources to a lab without clear visibility of progress and risk.

Leading manufacturers are beginning to adopt a dual-lens KPI framework for service innovation labs:

Innovation health and learning metrics  

These track the performance of the lab as an innovation engine, not the commercial success of any single idea. Typical indicators include:  

  • Number and quality of concepts progressed from idea to prototype, and from prototype to pilot  
  • Learning velocity: time from concept definition to pilot launch; speed of iteration cycles; number of tested hypotheses per quarter  
  • Portfolio balance: proportion of incremental improvements versus transformative bets  
  • Engagement metrics: participation from field teams, customer involvement rate, and cross-functional collaboration levels

Business impact and scalability metrics  

Once a concept reaches pilot stage, more traditional commercial and operational KPIs come into play. These typically focus on:  

  • Asset uptime improvement and reduction in unplanned downtime for participating customers  
  • First-time fix rate and mean time to repair (MTTR) improvements in pilot environments  
  • Service revenue uplift, contract attachment rates, and share of wallet with pilot customers  
  • Cost-to-serve changes for the pilot population, including technician time, travel, and parts consumption  
  • Customer experience indicators such as NPS or satisfaction specifically tied to new services

Bain & Company has argued that successful innovation portfolios balance learning metrics and commercial metrics, shifting emphasis as concepts mature from discovery to scaling. Applied to manufacturing service labs, this means early pilots are judged primarily on validated learning and feasibility, while scale-up decisions are based on robust financial and operational evidence.

Structuring governance around this dual-lens approach is critical. Executive steering groups typically:

  • Define investment thresholds and stage gates (from concept to prototype to pilot to scale)  
  • Set risk tolerance levels, particularly for outcome-based and performance contracts  
  • Ensure alignment with long-term strategic goals, such as servitization, sustainability, or regional expansion  
  • Protect pilots from premature termination due to short-term P&L pressures, while also enforcing discipline when concepts fail to deliver

Lessons from Pilots: What Labs Reveal About the Organization

The most valuable output of a service innovation lab is rarely a single successful solution. It is the insight generated about the organization’s capabilities, limitations, and readiness for new business models. Patterns emerge consistently across manufacturers that run structured pilots.

Lesson 1: Data gaps are the biggest brake on innovation  

Many pilots expose fragmented or incomplete data on installed base, asset performance, and service history. Without this foundation, predictive models underperform, and outcome-based contracts are hard to price and manage. Labs often end up catalyzing data governance and master data initiatives that are essential for broader digital transformation.

Lesson 2: Legacy processes and systems resist “digital wrapping”  

Connecting new digital tools to outdated scheduling, CRM, or ERP systems can cripple implementation. Pilots frequently show that some processes must be re-engineered—rather than simply digitized—before innovative service models can scale. This aligns with Accenture’s findings that digital transformation value is often trapped by legacy processes and fragmented systems.

Lesson 3: Incentive structures shape adoption more than technology  

Field technicians and sales teams play a decisive role in scaling new services. If their incentives are tied primarily to billable hours, parts sales, or product volume, they are unlikely to champion remote diagnostics, uptime contracts, or subscription services. Pilots reveal where incentive schemes conflict with innovation objectives, enabling leaders to redesign them before global roll-out.

Lesson 4: Customers require a journey, not a leap  

Even among progressive customers, a full jump to outcome-based contracts or remote-only support is rare. Pilots demonstrate that adoption is more successful when structured in stages: from enhanced visibility, to remote assistance, to predictive maintenance, and finally to shared-risk performance agreements. Labs that build modular offerings and migration paths typically see higher conversion and retention.

Lesson 5: Servitization demands new capabilities, not just new offerings  

Repeatedly, pilots surface capability gaps in areas such as commercial modeling of risk, data science, digital product management, and legal frameworks for performance-based contracts. These findings are strategically valuable, as they inform hiring, upskilling, and partnership decisions. The World Economic Forum has emphasized that advanced manufacturing business models depend as much on human and organizational capabilities as on technology itself.

Aligning Labs with Enterprise Transformation

When properly positioned, internal innovation labs are not side projects. They are instruments of transformation that sit at the intersection of strategy, operations, and technology.

For this alignment to hold, several strategic principles are critical:

Connection to corporate strategy  

The lab’s mandate must be explicitly linked to strategic priorities—servitization, recurring revenue share, sustainability targets, geographic expansion, or industry vertical plays. This ensures that concept selection and pilot design reinforce, rather than distract from, long-term direction.

Clear “bridge” into the core business  

Without a defined path from pilot to scale, labs risk becoming innovation theater. Mature organizations establish industrialization teams or “scale-up squads” that take proven concepts and integrate them into standard service catalogues, operating models, and IT landscapes.

Balanced protection and accountability  

The lab needs protection from quarterly pressures to explore higher-risk ideas. At the same time, it must be accountable for disciplined experimentation and transparent reporting. Executive sponsorship is decisive here—particularly from service, operations, and finance leadership.

Ecosystem participation, not isolation  

While the lab is internal, its success often depends on external partners: technology providers, start-ups, universities, or even customers themselves. Orchestrating this ecosystem around a clear innovation thesis accelerates access to capabilities and reduces time to market.

Conclusion: From Isolated Pilots to a Repeatable Innovation Engine

Service innovation in manufacturing has moved beyond experimenting with individual tools or one-off pilots. The shift toward outcome-based models, AI-assisted service, and digitally enabled aftermarket ecosystems demands a more intentional approach.

Internal innovation labs offer manufacturers a structured way to test new service models—blending physical service, digital tools, and customer collaboration—without jeopardizing the stability of the core business. They institutionalize experimentation, provide a safe arena for learning, and generate the insights needed to redesign processes, capabilities, and business models.

For senior leaders, the critical questions are now:

  • Is there a clear mechanism to continuously test and refine new service offerings with customers?  
  • Can the organization measure innovation progress without forcing every pilot to meet full P&L expectations from day one?  
  • Are lessons from pilots systematically fed back into strategy, capability building, and operating model design?  

Those able to answer positively are building not just new services, but an enduring innovation muscle. In an aftermarket landscape defined by volatility, digital acceleration, and rising customer expectations, that muscle will increasingly determine which manufacturers lead—and which are left reacting to others’ innovations.

About Copperberg AB

Founded in 2009, Copperberg AB is a European leader in industrial thought leadership, creating platforms where manufacturers and service leaders share best practices, insights, and strategies for transformation. With a strong focus on servitization, customer value, sustainability, and business innovation across mainly aftermarket, field service, spare parts, pricing, and B2B e-commerce, Copperberg delivers research, executive events, and digital content that inspire action and measurable business impact.

Copperberg engages a community reach of 50,000+ executives across the European service, aftermarket, and manufacturing ecosystem — making it the most influential industrial leadership network in the region.

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