Jobs to be Done (JTBD)
for Manufacture of engines and turbines, except aircraft, vehicle and cycle engines (ISIC 2811)
The Manufacture of engines and turbines industry is characterized by high capital intensity, long product lifecycles, and deeply integrated customer relationships. Customers are often making significant, long-term investments in critical infrastructure, meaning their ultimate goal is not just a...
Why This Strategy Applies
A methodology for understanding the functional, emotional, and social 'job' a customer is truly trying to get done, which leads to innovation opportunities.
GTIAS pillars this strategy draws on — and this industry's average score per pillar
These pillar scores reflect Manufacture of engines and turbines, except aircraft, vehicle and cycle engines's structural characteristics. Higher scores indicate greater complexity or risk — see the full scorecard for all 81 attributes.
What this industry needs to get done
When operating critical power generation or propulsion systems, I want to minimize the total cost of ownership (TCO) over the asset's lifecycle, so I can ensure predictable profitability and allocate resources effectively.
High and volatile fuel prices, coupled with unpredictable maintenance demands and the long operational lifecycles of industrial engines, create significant financial risk, exacerbated by the potential for rapid technological obsolescence (MD01 Market Obsolescence & Substitution Risk: 4/5).
- Fuel consumption per kWh produced (reduction)
- Unplanned maintenance cost (reduction)
- Parts replacement frequency (reduction)
When running critical industrial operations or maritime transport, I want to ensure continuous and reliable power generation or propulsion, so I can maintain productivity and avoid costly downtime.
Any failure or unscheduled downtime in these mission-critical applications leads to immediate and significant financial losses and operational disruptions, even with robust existing reliability measures.
- Mean Time Between Failures (increase)
- Unplanned downtime hours (reduction)
- Power generation availability % (increase)
When operating industrial engines or turbines, I want to ensure full compliance with increasingly stringent environmental emissions standards, so I can avoid penalties and maintain my license to operate.
Rapidly changing global and local environmental regulations, coupled with the long asset lifecycles and potential for structural toxicity, make continuous and proactive compliance a complex and costly challenge (CS06 Structural Toxicity & Precautionary Fragility: 2/5).
- Emissions levels vs. regulatory limits (compliance rate)
- Environmental audit non-conformance rate (reduction)
- Regulatory fine amount (reduction)
When planning for future energy needs or upgrading existing infrastructure, I want to seamlessly integrate new, low-carbon or zero-carbon energy generation and propulsion technologies, so I can meet sustainability goals and secure long-term operational viability.
The complexity of integrating disparate new energy technologies into existing legacy systems, coupled with uncertainty in policy and market maturity, creates significant technical and financial hurdles for adoption (MD01 Market Obsolescence & Substitution Risk: 4/5, MD08 Structural Market Saturation: 3/5).
- Successful integration project completion rate (increase)
- Carbon emissions reduction % (achieved)
- New energy source adoption rate (increase)
When engaging with stakeholders and the public, I want to visibly demonstrate my organization's commitment to environmental sustainability and responsible energy practices, so I can enhance my brand reputation and attract environmentally conscious customers or investors.
Public scrutiny and investor demand for ESG performance require more than just regulatory compliance; it demands clear, demonstrable action and transparent communication, which can be challenging with complex industrial assets (CS06 Structural Toxicity & Precautionary Fragility: 2/5).
- ESG rating improvement
- Public perception survey scores (increase)
- Investor interest in green bonds (increase)
When making significant capital investments in engines and turbines, I want to feel confident that I will receive consistent, high-quality technical support and spare parts for the entire operational life of the equipment, so I can mitigate future operational risks and ensure asset longevity.
The exceptionally long operational lifespan of industrial engines means dependency on manufacturer support for decades, raising concerns about supplier obsolescence, inconsistent service quality, or fragmented value chains (MD05 Structural Intermediation & Value-Chain Depth: 4/5).
- Service contract renewal rate (increase)
- Customer satisfaction with after-sales support (increase)
- Spare parts availability % (increase)
When seeking new partnerships or market opportunities, I want my organization to be recognized as an industry leader in innovation and a highly reliable provider of industrial engine and turbine solutions, so I can attract top talent, secure high-value contracts, and influence industry standards.
Maintaining a reputation for leadership requires continuous investment in R&D and demonstrably superior product performance in a highly specialized, often conservative market where established players dominate (MD07 Structural Competitive Regime: 1/5).
- Industry awards won (increase)
- Market share in new segments (increase)
- Recruitment of top engineering talent (increase)
When undertaking large-scale engine or turbine installation or upgrade projects, I want to have peace of mind that the project will be delivered on time and within budget, so I can avoid costly delays, internal conflicts, and reputational damage.
The sheer size, complexity, specialized logistical requirements, and temporal synchronization constraints of industrial engine projects introduce numerous potential points of failure and delay, creating significant stress for project managers (PM02 Logistical Form Factor: 4/5, MD04 Temporal Synchronization Constraints: 4/5).
- Project completion on-time %
- Project completion within budget %
- Internal stakeholder satisfaction with project delivery (increase)
When operating my engines and turbines, I want to leverage real-time data and analytics to optimize their performance, so I can achieve peak efficiency, anticipate potential issues, and extend asset life.
While modern industrial assets generate abundant data (PM03 'strong Digital overlay'), transforming this raw information into actionable, predictive insights for operational optimization and maintenance scheduling remains a significant challenge for many operators.
- Energy efficiency % improvement
- Predictive maintenance intervention success rate
- Asset lifespan extension (years)
When manufacturing complex engines and turbines, I want to streamline my global supply chain for critical, high-value components, so I can reduce lead times, mitigate risks, and ensure production continuity.
The intricate global supply chains for specialized engine components are highly susceptible to disruptions, geopolitical risks, and logistical challenges, leading to significant delays and cost overruns due to temporal synchronization and intermediation complexities (MD04 Temporal Synchronization Constraints: 4/5, MD05 Structural Intermediation & Value-Chain Depth: 4/5, PM02 Logistical Form Factor: 4/5).
- Critical component lead time variance (reduction)
- Supply chain disruption recovery time (reduction)
- On-time-in-full (OTIF) delivery from suppliers (increase)
When making long-term investment decisions for power generation, I want to feel secure against future fluctuations in energy costs and availability, so I can confidently forecast operational expenses and maintain financial stability.
Global energy markets are highly volatile due to geopolitical events, policy changes, and supply-demand imbalances, making long-term cost forecasting and budgeting extremely difficult and risky, especially in moderately saturated markets (MD08 Structural Market Saturation: 3/5).
- Energy cost variance from forecast (reduction)
- Hedging strategy effectiveness (increase)
- Long-term budget stability (increase)
When operating and servicing advanced engine and turbine technologies, I want to attract and retain a highly skilled technical workforce, so I can ensure expert maintenance, maximize operational efficiency, and drive innovation.
The increasing complexity and digitalization of engines and turbines demand specialized skills, which are scarce and aging in many regions, making recruitment and retention a significant challenge due to workforce elasticity constraints (CS08 Demographic Dependency & Workforce Elasticity: 2/5).
- Skilled technician vacancy rate (reduction)
- Employee turnover for critical roles (reduction)
- Training program effectiveness (increase)
Strategic Overview
The Jobs to be Done (JTBD) framework offers a critical lens for the Manufacture of engines and turbines industry (ISIC 2811), enabling a shift from product-centric thinking to understanding the fundamental 'jobs' customers are trying to accomplish. Given the industry's challenges such as 'Declining Demand for Legacy Products' and 'High R&D Investment for New Technologies' (MD01), traditional product differentiation based on technical specifications alone is becoming insufficient. JTBD helps uncover the deeper functional, emotional, and social needs that drive purchasing decisions, especially as the energy landscape undergoes significant transformation towards sustainability and decentralization.
By focusing on these underlying 'jobs,' manufacturers can innovate more effectively, develop truly differentiated solutions, and justify premium pricing (MD03) by delivering superior outcomes. This approach moves beyond simply selling a turbine to offering 'sustainable energy independence' or 'guaranteed uptime,' aligning product development, service models, and customer engagement with the evolving needs of the market. It's particularly powerful in an industry characterized by complex, long-term contracts and highly specialized applications, where customer success is intrinsically linked to the performance of the core machinery.
4 strategic insights for this industry
Shift from Product Ownership to Outcome Achievement
Customers in ISIC 2811 are increasingly hiring engines and turbines to achieve specific operational or strategic outcomes (e.g., 'reduce carbon footprint by X%', 'guarantee 99.9% uptime for critical operations', 'achieve energy independence') rather than simply purchasing equipment with certain specifications. This shift is critical given 'Declining Demand for Legacy Products' (MD01) and market pressures for sustainability, moving the value proposition towards 'power-as-a-service' or 'efficiency-as-a-service'.
Unmet Needs in Distributed and Decarbonized Energy
The 'Market Fragmentation by Fuel Type' and 'Uncertainty in Energy Policy' (MD08) highlight a complex landscape where customers struggle to find comprehensive solutions for their evolving energy needs. JTBD can uncover specific 'jobs' related to flexible, localized, and low-carbon power generation for new applications like remote data centers, microgrids, or industrial heat recovery, which existing offerings may not fully address.
Integrated Solutions for Energy Security and Resilience
For many industrial and infrastructure clients, the core 'job' is 'ensuring uninterrupted and secure power supply' or 'managing energy costs predictably.' This suggests that the solution extends beyond the engine or turbine to include integration with energy storage, smart controls, grid services, and lifecycle management. Addressing this holistic job can justify 'Sustaining Premium Pricing' (MD03) through bundled value, rather than competing solely on hardware cost.
Service and Support as Integral Job Components
The 'job' of operating an engine or turbine inherently includes aspects like maintenance, predictive diagnostics, regulatory compliance, and spare parts management. With the 'Industrial Archetype (with strong Digital overlay)' (PM03), digital services become crucial for addressing the 'job' of maximizing uptime and operational efficiency. Neglecting these service components means only partially addressing the customer's overall job.
Prioritized actions for this industry
Establish Cross-Functional 'Job Discovery' Teams
To genuinely understand customer jobs, dedicated teams comprising engineers, sales, marketing, and service personnel should conduct ethnographic research, in-depth interviews, and observational studies. This moves beyond traditional market research to uncover latent needs and pain points, providing rich insights for innovation.
Develop Outcome-Based Product-Service Bundles
Shift the business model from selling engines/turbines to selling 'guaranteed performance,' 'carbon reduction credits,' or 'uptime-as-a-service.' This aligns the manufacturer's incentives with customer success and allows for 'Sustaining Premium Pricing' (MD03) by delivering measurable value beyond the hardware.
Innovate for 'Decarbonization Jobs' with Integrated Solutions
Focus R&D (MD01) and product development efforts on creating integrated systems (e.g., hydrogen-ready turbines combined with storage, advanced heat recovery systems) that help customers meet their specific decarbonization targets and regulatory compliance requirements. This targets a growing, unmet 'job' driven by 'Uncertainty in Energy Policy' (MD08).
Map End-to-End Customer Journeys for Critical 'Jobs'
For high-value 'jobs' like 'maintaining continuous operation in a remote oil and gas facility,' document the entire customer experience from procurement to decommissioning. Identify all pain points, workarounds, and unaddressed needs across the lifecycle to pinpoint opportunities for new product features, digital services, or support models.
From quick wins to long-term transformation
- Conduct initial qualitative interviews and observational studies with 5-10 key clients to uncover immediate 'job' pain points.
- Train sales and marketing teams on fundamental JTBD concepts to reframe customer conversations from features to outcomes.
- Analyze customer complaints and service requests through a 'job' lens to identify recurring unmet needs.
- Pilot an outcome-based service contract with a willing customer to test new business models and value propositions.
- Integrate JTBD methodology into the initial stages of the R&D pipeline for new product development.
- Develop 'job stories' and customer personas to guide product design and communication efforts.
- Realign organizational structure and KPIs around customer 'job success' rather than just product sales targets.
- Build a robust data analytics infrastructure to track customer 'job progress' and solution performance over time.
- Cultivate a company-wide innovation culture centered on continuously identifying and solving customer jobs.
- Superficial application of JTBD as a marketing buzzword without deep organizational commitment.
- Resistance from an engineering-centric culture accustomed to feature-based competition.
- Failure to translate 'job' insights into actionable product development or business model innovations.
- Underestimating the complexity of changing internal processes and incentive structures to align with outcome-based selling.
Measuring strategic progress
| Metric | Description | Target Benchmark |
|---|---|---|
| Customer 'Job Success' Rate | Percentage of customers who report successfully achieving their core 'job' using the company's products/services, measured through surveys or objective outcome tracking. | >85% |
| New Service/Solution Adoption Rate | Percentage of customers opting for new outcome-based bundles, digital services, or integrated solutions identified through JTBD. | >20% increase YoY in relevant segments |
| Customer Lifetime Value (CLTV) | Increased revenue and profitability from customers over their entire relationship with the company, indicating deeper integration and value delivery. | >10% increase over traditional models |
| Market Share in 'New Job' Segments | Percentage of market captured in emerging categories or 'job' segments identified through JTBD research (e.g., hydrogen-power-as-a-service). | >15% in targeted new segments within 3-5 years |
Software to support this strategy
These tools are recommended across the strategic actions above. Each has been matched based on the attributes and challenges relevant to Manufacture of engines and turbines, except aircraft, vehicle and cycle engines.
Capsule CRM
10,000+ customers worldwide • Includes Transpond marketing platform
Transpond's email marketing and audience tools support proactive brand communication that builds customer loyalty and reduces churn-driven reputational fragility
Cost-effective CRM for growing teams — manage contacts, track deals and pipeline, build customer relationships, and streamline day-to-day work. Paired with Transpond, a dedicated marketing platform for email campaigns and audience management.
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HubSpot
Free forever plan • 288,700+ customers in 135+ countries
Deal intelligence, win/loss analytics, and pipeline data give sales teams the evidence to defend price with ROI proof rather than discounting reactively against commodity competition
All-in-one CRM and go-to-market platform used by 288,700+ businesses across 135+ countries. Connects marketing, sales, service, content, and operations in one system — free forever plan to start, paid tiers to scale.
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Other strategy analyses for Manufacture of engines and turbines, except aircraft, vehicle and cycle engines
Also see: Jobs to be Done (JTBD) Framework