We’re working to realize a prosperous future where energy supplies are secure, and sustainable. Our biggest challenge is the energy trilemma i.e. the transition to secure, equitable, and sustainable energy systems. Energy providers face increasing customer expectations, rising system complexity, and increased uncertainty. The providers of the future will have developed rapidly, while delivering at scale within cost and at increasingly high standards for quality, reliability and safety.
Our approach to enabling transformation begins by exploring the problem. We gain a nuanced understanding by listening to your concerns, and cultivating consensus where needed. Leveraging frameworks tailored to your needs, we develop robust roadmaps to desired future states. Our services help you solve the right problems in the right way. We empower you with the skills you need today, and drive your transformation through disciplined technology delivery.
Management Consulting – “The provision of independent advice and assistance about the process of management to clients with management responsibilities”
ODC - Organizational Design
STSI - Systems Thinking
STSI - Systems Mapping
STSI - Systems Leadership
Financial Accounting Institute - Utility Finance & Accounting
Project Management – “The application of knowledge, skills, tools, and techniques to project activities to meet project requirements”
PMI – Project Management Professional (PMP)
DevOps Institute - DevOps Foundation
Systems Engineering – “a holistic approach to creating and managing the world’s most complex projects”
INCOSE – Certified Systems Engineering Professional (CSEP)
OMG – SysML Model Builder Fundamental (MBF)
Founder and Principal, Wilson Engineering and Energy Consulting, Business Consulting and Services,
Accelerating the energy transition
Systems Architecture Team Lead (Shell TechWorks), Cenergy International Services, Oil and Gas
Cultivated engineering innovation
Drove the adoption of systems engineering and systems thinking
Improved engineering integration
Systems Engineering Fellow (Shell TechWorks), Cenergy International Services, Oil and Gas
Led rapid large scale engineering integration
Technology Group Product Manager, PSE&G, Electric Utility Transmission and Distribution
Championed a customer-centric culture
Aligned technical execution with core business objectives
Initiated and led the ADMS platform upgrade
Improved engineering delivery
Principal Engineer, PSE&G, Electric Utility Transmission and Distribution
Improved engineering delivery
Attained tactical targets while achieving strategic goals
Supported business transformation
Staff Engineer, PSE&G, Electric Utility Transmission and Distribution
Improved asset visibility
Improved asset intelligence
Application Developer (PSE&G), Xoriant, Electric Utility Transmission and Distribution
Improved asset visibility
Support Engineer, BG Group, Oil and Gas
Improved asset visibility
Improved asset intelligence
Consulting & Training Services – Sector: Heavy-Duty Mobility – Role: Engineering Consultant
HD HRS System Study – Developing Heavy Duty Hydrogen Refueling Stations across global hydrogen refueling markets.
Purpose: to enable the cost-effective construction and operation of a Heavy-Duty Hydrogen Refueling Station within 5 years by accelerating concept maturation.
Context: In pursuit of hydrogen supply chain commercialization, a global hydrogen product team faced challenges in its development of a hydrogen refueling station for heavy duty road transportation.
Solutions: Staff engagement including training and workshop facilitation. Tailored application of engineering processes including: Requirements Engineering, Architecture/Design Development, and Concurrent Design Methods. A temporary concurrent design environment including: Requirements Management and Model Based Systems Engineering tools.
Results: The team demonstrated a massive increase in engineering throughput, delivering a 24-month roadmap in under 3 months.
Consulting & Training Services – Sector: Integrated Energy – Role: Engineering Consultant
Systems Engineering Adoption – Improving Engineering Integration on large capital projects across global oil and gas energy sector.
Purpose: to improve risk management, and engineering efficiency across the system lifecycle by implementing Model Based Systems Engineering.
Context: Faced with increasing commercial pressure, a global energy company sought improved project delivery. Success hinges on end-to-end traceability from high-level business goals to technical specs, and ultimately to in service performance. Without this connection the project becomes a liability rather than a vehicle for value.
Solutions: Staff training and engagement to drive adoption. Tailored application of engineering processes including: Business or Mission Analysis, Requirements Engineering, Architecture/Design Development, and the Trinity Method. Improvements to existing project management and integrated engineering processes. An integrated digital engineering environment including the requirements management system and Model Based Systems Engineering (MBSE) tools and infrastructure.
Results: The organization gained the capability to transform engineering from a cost centre to a value driver by reducing technical risk, slashing rework through design reuse, and ensuring compliance via automated, end-to-end traceability.
Consulting Services – Sector: Mining – Role: Systems Engineering Manager
Electrification of Mining – Decarbonizing mining haul trucks with minimal operations impact via industry consortium.
Purpose: to decarbonize mining haul trucks with minimal operations impact by developing an ultrafast and modular end-to-end charging solution
Context: The global mining industry sought to significantly decarbonize mining operations by issuing a technology innovation challenge to accelerate commercialization of electric haul truck charging solutions.
Solutions: A concept development team rapidly scaled to guide a joint venture consortium of industry partners. Tailored application of engineering processes including: Requirements Engineering, Architecture/Design Development, System Integration, Technical Planning, and Organizational Project Enabling Activities. Tailored application of project management frameworks. An open architecture and system requirements set for heavy duty electric vehicles.
Results: Our efforts accelerated the decarbonization of haul trucks, stimulated IP generation among JV partners, and resulted in the drafting of the Megawatt Charging Standard.
System Delivery – Sector: Electric Utility Transmission & Distribution – Roles: Engineer, Manager
Energy Strong Advanced Technologies – Improving reliability and resilience of the electric distribution grid.
Purpose: to improve electric grid resiliency and reliability by implementing advanced utility technologies.
Context: Faced with several unprecedented weather events the utility sought to improve their ability to withstand and recover from severe storms. Successful implementation of advanced technology was an important part of this.
Solutions: Staff training and engagement to drive adoption. Tailored application of engineering processes including: Requirements Engineering, Architecture/Design Development, System Integration, and Verification and Validation. Evolution of organizational processes for System Operation, Planning, and Support. An Advanced Distribution Management System (ADMS).
Results: The program marked a transition toward improved grid intelligence. By upgrading our distribution systems, we built the foundation necessary to handle the bidirectional power flows and intermittency inherent in a modern, renewable-heavy energy grid.
System Delivery – Sector: Electric Utility Transmission & Distribution – Role: Engineer
Transformer Monitoring Program – The digital transformation of utility asset management and maintenance.
Purpose: to improve reliability of Electric Transmission and Distribution Assets by enabling Condition Based Maintenance.
Context: An electric utility sought to maintain the reliability of aging electric grid statewide without disrupting capital allocation. The core assets of the electric transmission and distribution system (power transformers) are: more likely to fail as they age, and are both costly and difficult to replace. This drove the need for a new approach.
Solutions: Staff training and engagement to drive adoption. Tailored application of engineering processes including: Architecture/Design Development, and System Integration. A custom Supervisory Data Acquisition & Management System (SDAMS), and enhanced Computerized Maintenance Management System (CMMS).
Results: Improved asset intelligence and visibility enabling intervention before failure, which protected SAIDI/SAIFI scores and optimized capital deployment.
System Delivery – Sector: Integrated Energy – Role: Engineer
Natural Gas Production Systems – Evolution of production optimization and carbon accounting.
Purpose: to improve gas operations in the dimensions of efficiency, and sustainability by implementing an integrated Production Data Management System (PDMS)
Context: Faced with commercial pressure, a natural gas producer sought to optimize production without major capital expenditure. Geographically isolated sites contributed to shared goals with little co-ordination, and low visibility (24 hr lag in production data). With insufficient awareness of asset performance, both production optimization and site support remained costly and ineffective.
Solutions: Staff training to enable integration of include Carbon Accounting, Operations Support, Production Technology and System Support into an expanded Production Optimization department. Tailored application of engineering processes including: Requirements Engineering, and Architecture/Design Development. An integrated PDMS, state of the art Operations Support Centre (OSC)
Results: Improved asset intelligence and visibility with the transformation from siloed operations to an integrated, data-driven model. While the OSC allowed for leaner, and more responsive remote support.