Jobs to be Done (JTBD)
for Casting of iron and steel (ISIC 2431)
High relevance due to the intense pressure for lightweighting and component consolidation in automotive and aerospace sectors, moving away from commodity casting to high-value solutions.
What this industry needs to get done
When integrating a cast component into a high-precision assembly, I want to eliminate post-casting machining and rework, so I can reduce the total landed cost and cycle time.
Current casting tolerances often require secondary machining, which creates bottlenecks in the supply chain as per MD04: 3/5.
- secondary machining cost as a percentage of total part cost
- cast-to-assembly dimensional variance
When facing high market volatility and supply chain shocks, I want to synchronize casting production schedules with the customer's JIT assembly demand, so I can reduce capital tied up in excess safety stock.
The industry's rigid production cycles clash with modern, volatile demand patterns, a core issue in MD04: 3/5.
- inventory turnover ratio
- average days of raw material and finished goods stock
When designing for lightweighting or electrification, I want to iterate on casting geometries through co-design, so I can ensure optimal strength-to-weight ratios without physical prototyping loops.
Traditional foundry-client silos prevent integrated engineering, failing to address the structural demands of automotive electrification (MD01: 3/5).
- number of design iterations per final part approval
- time from design concept to successful pilot run
When complying with evolving environmental and safety standards, I want to track and report carbon intensity at the batch level, so I can satisfy increasingly stringent OEM procurement requirements.
While reporting tools exist, the data granularity required for true Scope 3 emission accounting remains manual and error-prone (CS03: 3/5).
- carbon footprint per metric ton of metal
- percentage of audit-ready compliance documentation
When marketing to Tier 1 automotive clients, I want to be perceived as a strategic technology partner rather than a commoditized supplier, so I can shift the negotiation away from price-per-ton.
Historical perceptions of foundries as commodity providers limit influence, reinforced by industry commoditization risks (MD01: 3/5).
- average contract duration
- win rate in value-engineered bidding scenarios
When hiring for highly technical production roles, I want to maintain a reputation as a clean, high-tech, and safe workplace, so I can attract talent in a competitive demographic landscape.
Negative perceptions of 'dirty' factory work create significant workforce elasticity challenges (CS08: 3/5).
- employee retention rate
- time-to-fill for specialized technical production positions
When signing a long-term supply agreement, I want to have absolute confidence in the metallurgical quality and delivery consistency, so I can sleep soundly without fearing catastrophic assembly-line shutdowns.
The potential for hidden metallurgical defects creates a persistent fear of failure for production managers (PM01: 4/5).
- scrap rate per 1000 units
- customer-reported defect frequency
When managing legacy casting assets, I want to feel in control of my equipment maintenance and obsolescence roadmap, so I can avoid the anxiety of unpredicted equipment failure.
Standard predictive maintenance tools are widely available, though their implementation is often sluggish due to heritage bias (CS02: 1/5).
- mean time between failure
- overall equipment effectiveness
Strategic Overview
The casting industry is historically product-centric, focusing on tonnage and metallurgical grade rather than the functional outcomes required by OEMs. By shifting to a Jobs to be Done (JTBD) framework, iron and steel casters can reframe their value proposition from selling 'metal components' to selling 'performance-enabled assembly speed' or 'total cost-of-ownership reduction.' This is critical as automotive and industrial machinery clients face extreme pressure to improve fuel efficiency and electrification, where every gram of cast weight matters.
Adopting JTBD allows foundries to move upstream in the design process. Rather than providing quotes based on blueprints, firms can offer co-design services that eliminate secondary machining steps or integrate multi-part assemblies into a single cast, thereby reducing the client's assembly line complexity and logistical burden.
2 strategic insights for this industry
Shift from Component to Performance
Clients do not want castings; they want reduced fuel consumption, higher strength-to-weight ratios, and eliminated post-casting rework.
Prioritized actions for this industry
Establish a Co-Design Engineering Unit
Engaging in early design phases allows foundries to influence material selection and geometry for 'castability,' directly reducing client costs.
Implement Value-Based Pricing Models
Pricing based on the 'job' (e.g., total weight savings achieved) rather than cost-plus per kilo allows for margin capture that commodity pricing lacks.
From quick wins to long-term transformation
- Conduct VOC (Voice of Customer) workshops with tier-1 clients to identify non-casting pain points.
- Invest in simulation software to offer clients rapid prototype validation.
- Transition sales force from commodity account managers to technical solution architects.
- Attempting to solve too many jobs at once, resulting in operational dilution.
Measuring strategic progress
| Metric | Description | Target Benchmark |
|---|---|---|
| Design-In Participation Rate | Percentage of revenue from products where the foundry influenced the initial engineering design. | >30% |
Other strategy analyses for Casting of iron and steel
Also see: Jobs to be Done (JTBD) Framework