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Part 2: The 3 Key Asset Management Models – Capability Delivery

Written by Asset Insider | Jan 24, 2025 10:59:11 AM

In the first part of this article, we explored the foundational models that serve as the cornerstone of asset management. We introduced the Concept Model, which sets the strategic direction, and the System Model, which structures the tactical approach to asset management. Now, we turn our focus to the Capability Delivery Model, which addresses operational decision-making. This model focuses on the day-to-day management of assets, ensuring that they deliver value and align with business goals.

Foreword: A Recap of the Asset Management Fundamentals

As we dive deeper into asset management, it's important to recall the purpose of models and their role in helping us understand complex systems. How do you visualize new concepts and ideas? How does your thought process flow when trying to understand new knowledge? In many disciplines, models are the key tools that allow us to break down complex ideas into individual components and show the relationships between them. This simplification makes understanding easier.

The same principle applies to asset management, where three key models—the Concept Model, the Asset Management System Model, and the Capability Delivery Model—serve as frameworks for understanding the dynamics of asset management. These models help organizations strategically plan, manage, and operationalize their asset portfolios, ensuring that they can maximize value at every stage of the asset lifecycle.

In the first article, we discussed the Concept Model, which outlines the strategic approach to asset management, and the System Model, which deals with the structure and processes that guide tactical decision-making. Now, we turn our attention to the Capability Delivery Model, the most operational of the three, which focuses on how to ensure that assets deliver on their full potential in line with organizational goals.

The Capability Delivery Model

The Capability Delivery Model is the operational framework of asset management. It is concerned with the practical, day-to-day use of assets to achieve business goals. This model translates the strategic objectives set in the Concept Model and the tactical plans developed in the System Model into actionable processes.

It outlines key processes such as demand management, systems engineering, configuration management, acquisition, operations and maintenance, and continuous improvement. By integrating the PDCA cycle (Plan-Do-Check-Act) and leveraging data-driven, risk-based analytics, the model ensures that asset management objectives align with organizational goals while fostering continuous improvement.

Demand Management

The first component of the Capability Delivery Model is Demand Management, which ensures that asset management efforts align with market demand, stakeholder needs, and organizational capabilities. This process creates sustainable relationships between internal and external stakeholders while proactively identifying future business needs.

Effective demand management forecasts what types of assets are required, when they are needed, and how they should be utilized. This step ensures that resources are allocated where they can generate the most value. The cycle concludes with demand forecasting, ensuring that resources are allocated to maximize value and achieve business objectives.

Systems Engineering and Configuration Management

Next, Systems Engineering and Configuration Management play an essential role in ensuring that assets are correctly designed and integrated into the broader system. The first process follows the Systems Engineering ‘V’ model, a step-by-step framework for system development and verification.

  1. Decomposition and Definition - The process begins with understanding user requirements, translating them into functional specifications, and deriving design specifications. These evolve into detailed plans and engineering drawings, laying the foundation for the system’s realization.
  2. Integration and Verification - Once the plans are executed, the focus shifts to inspecting and verifying that the implemented system solutions conform to the original design. This involves assembling and verifying system components, demonstrating functionality, and validating the engineering management system against stakeholder requirements.

The goal of Systems Engineering is to create solutions that achieve a balance between capital expenditures (CAPEX) and operational expenditures (OPEX), resulting in systems that operate at the lowest lifecycle cost while meeting organizational objectives.

Configuration Management complements Systems Engineering by ensuring all system components are accounted for, controlled, and maintained throughout their lifecycle. This process involves managing various data types, such as:

  1. Performance records for monitoring operational efficiency,
  2. Asset specifications to track design and functionality,
  3. Change logs to document modifications, and
  4. Maintenance histories for long-term oversight.

Configuration management ensures that the asset system operates as intended by maintaining accurate records and system configurations. Key elements include:

  1. Version control to manage updates,
  2. Baseline establishment for tracking system states,
  3. Change management to evaluate and approve modifications, and
  4. Status accounting to monitor and report configuration changes.

Together, Systems Engineering and Configuration Management ensure assets are effectively designed, integrated, and maintained, enabling informed decision-making and optimized asset performance over their lifecycle.

Capability Acquisition

The Capability Acquisition process is where assets are acquired, whether through purchase, leasing, or development. It focuses on bringing in the right assets that will deliver value to the organization. The acquisition process emphasizes not just acquiring the right assets but also optimizing their long-term value and minimizing their lifecycle costs.

Taking a long-term perspective, Capability Acquisition focuses on reducing lifecycle costs associated with the acquisition phase while ensuring the assets deliver the required services, outputs, and, where applicable, financial returns. This includes evaluating asset requirements, ensuring assets are fit for purpose, and aligning procurement strategies with the organization’s overarching business goals.

By balancing upfront expenditures with long-term operational efficiency, Capability Acquisition contributes to sustainable and cost-effective asset management practices.

Operations and Maintenance

Once assets are acquired, their operations and maintenance become a key focus. Effective asset management ensures that assets perform as intended and are maintained to meet operational requirements. This stage includes preventive maintenance, corrective maintenance, and statutory/regulatory maintenance, ensuring that assets remain reliable and safe throughout their lifecycle. The activities are defined by the Capability Acquisition discipline according to business needs.

The Maintenance Management Model starts with business needs, which shape the engineering design and determine maintenance requirements, forming the Design Authority. This drives the creation of a Maintenance Plan, which defines:

  1. Configuration Items - Components requiring maintenance.
  2. Tasks - Maintenance actions.
  3. Schedules - Timing and frequency of activities.

The Equipment Register supports Corrective Maintenance – Planning and Control (P&C) by extracting task information, providing Performance Feedback to Engineering Design, and generating Work Orders.

Maintenance Cycle

The cycle includes Preventive, Corrective, and Statutory/Regulatory Maintenance:

  • Preventive Maintenance Focuses on defect detection and planned repairs through:
    • Condition Monitoring - Detecting early signs of issues.
    • Hard Time Activity - Scheduled maintenance.
    • Functional Testing - Verifying system functionality.
  • Corrective Maintenance - Addresses failures with:
    • Unplanned Repair - Immediate fixes.
    • Planned Repair - Scheduled interventions.
    • Renewal - Cost-optimized replacements.
  • Statutory/Regulatory Maintenance
    • Ensures legal compliance through Planned Repairs.
Supporting Functions

The Resources Unit ensures:

  1. Availability of spare parts and consumables.
  2. Timely asset requests and fulfillment.
  3. Accurate planning and budget allocation.

This process fosters continuous improvement by addressing the full lifecycle of asset maintenance, ensuring sustainability and alignment with organizational goals.

Continuous Improvement

Finally, Continuous Improvement is a central aspect of the Capability Delivery Model. This ongoing process ensures that asset management practices evolve over time, adapting to changing business needs and conditions. Continuous improvement involves regularly assessing performance, identifying areas for optimization, and implementing corrective actions to enhance efficiency and effectiveness.

The Role of Continuous Improvement in Asset Management

In asset management, Continuous Improvement is not just a set of activities—it is a culture and mindset that drives long-term success. This cyclical process includes the following steps:

  1. Measurement - Tracking performance metrics to gauge the effectiveness of asset management processes.
  2. Analysis - Examining data to uncover trends, patterns, and areas for improvement.
  3. Action - Implementing corrective and preventive measures to optimize asset performance.
  4. Review - Refining processes to maintain alignment with business objectives.

The Continuous Improvement Cycle enables organizations to optimize their assets continually, reduce downtime, improve reliability, and maximize overall value.

Key Elements of Continuous Improvement

Continuous Improvement is structured around key methodologies and tools:

  1. Business Analysis Pyramid - From business objectives at the top, through a hierarchy of assets and asset management objectives, to Failure Mode, Effects, and Criticality Analysis (FMECA) for identifying failure risks.
  2. Reliability-Centered Maintenance (RCM) - A methodology for developing predictive and preventive maintenance strategies.
  3. Level of Repair Assessment (LORA) - Optimizing in-house and outsourced repair decisions.
  4. Task Analysis & Packaging - Organizing maintenance tasks for maximum efficiency.
  5. Condition Monitoring - Early detection of potential failures.
  6. Maintenance and Operations Planning - Aligning in-house and contractor tasks with operational goals.

These techniques not only ensure effective maintenance but also reduce lifecycle costs by integrating predictive, preventive, and corrective measures.

By embedding Continuous Improvement across the Capability Delivery Model, organizations create a dynamic, adaptable framework that delivers sustained asset value while evolving with changing business needs.

Applying the Capability Delivery Model

To apply the Capability Delivery Model successfully, it is essential to integrate it with the Concept Model and System Model. This ensures that demand management, systems engineering, configuration management, operations, and maintenance practices are all aligned with the organization's strategic objectives.

By following the Capability Delivery Model, organizations can maximize the performance of their assets, improve resource utilization, and ensure that assets contribute to achieving business goals.

Artifacts from the Asset Management Capability Delivery Model

Effective asset management requires a range of key documents to guide the process. These documents help ensure that systems are designed, maintained, and operated in a way that delivers maximum value. Some essential documents in the Capability Delivery Model include:

  1. Systems Engineering Management Plan - Integrated Engineering Program Management.
  2. Configuration Management Plan - How business capacity management will be done.
  3. Operations Management Plan - Management and provision of functions of an asset or system of assets to achieve objectives.
  4. Integrated Logistics Support Plan - Required Logistics Support Activities.
  5. Capital Expenditure - Funds to acquire or upgrade capabilities.
  6. Operating Expenses - Annual recurring funds to keep operations running.
  7. Safety Management Plan - Activities to achieve approved and managed safety objectives.
  8. Environmental Management Plan - Activities to achieve approved and managed environmental objectives.
  9. Heritage Management Plan - Activities to achieve approved and managed heritage objectives.

The Capability Delivery Model is more extensive than the previous two models. It provides mechanisms for asset management to identify and achieve the desired balance of cost, risk, and performance.

Conclusion

The Capability Delivery Model provides the operational framework for asset management, focusing on how assets are used day-to-day to achieve organizational goals. When integrated with the Concept Model and System Model, it forms a comprehensive system that ensures assets are utilized efficiently, maintained effectively, and continuously optimized to meet business needs.

By applying the Capability Delivery Model and embracing Continuous Improvement, organizations can ensure their assets deliver long-term value, maximize resource utilization, and align asset performance with strategic business objectives.

Sources

  1. The Asset Management College. (2018). *The Asset Management Models* [Graph]. Retrieved December 1, 2025, from https://theamcollege.com.au/wp-content/uploads/2019/09/The-AM-Models.png
  2. Systems_Engineering_V_Diagram. (2007, May 15). Wikimedia. Retrieved January 23, 2025, from https://upload.wikimedia.org/wikipedia/commons/9/9b/Systems_Engineering_V_diagram.jpg
  3. Maintenance-management-model. (2019, September). The Asset Management College. Retrieved January 24, 2025, from https://theamcollege.com.au/wp-content/uploads/2019/09/maintenance-management-model.png