Engineering Optimisation

Driving Efficiency, Sustainability, and Value

phnom penh, cambodia from top building
woman engineering

The Challenge

Today’s built environment demands more than functional systems.
We face:

The Opportunity

Optimisation isn’t just about fixing problems; it’s about proactively finding the best possible solutions across the entire project lifecycle, leading to superior performance, reduced impact, and greater ROI.

Our Expertise

We leverage advanced engineering optimisation to empower your projects with intelligent design, sustainable solutions, and disciplined execution.

What is Engineering Optimisation?

Plumbing

Plumbing

Mechanical

Mechanical

to

Electrical

Electrical

to

Definition

It's the systematic, data-driven process of identifying the most effective combination of design variables, operating parameters, and strategic decisions for MEP systems to achieve defined objectives (e.g., minimum energy consumption, maximum occupant comfort, lowest lifecycle cost) while adhering to all constraints (e.g., budget, space, codes, performance).

Moving Beyond Rules of Thumb

We employ rigorous mathematical modelling, simulation, and advanced algorithms to explore a vast solution space and pinpoint truly optimal configurations far beyond what traditional methods can achieve.

Our Focus

Optimising Mechanical, Electrical, and Plumbing (MEP) systems for peak efficiency, sustainability, and project success.

Why is Engineering Optimization Critical for Your Projects

?

Cost Reduction:

◦ Minimise energy bills and operational expenses.
◦ Optimise material use and reduce waste.
◦ Lower maintenance costs through optimised system design.

Performance Enhancement

◦ Improve system reliability and longevity.
◦ Maximise occupant comfort and indoor environmental quality.
◦ Ensure compliance with performance targets.

Risk Mitigation

◦ Identify and resolve design conflicts early (e.g., via BIM).
◦ Ensure compliance with complex regulations and standards.
◦ Reduce rework and costly change orders during construction.

Innovation & Competitive Advantage

◦ Explore novel, high-performing design solutions.
◦ Achieve industry leadership in sustainability and efficiency.
◦ Accelerate project timelines through streamlined design processes.

Services

engineering optimisation map process.

 ◦ Problem Formulation: Clearly define objectives, variables, and constraints (e.g., energy targets, budget, space limitations).

 ◦ System Modeling: Develop accurate digital representations of MEP systems and their interactions (e.g., energy models, CFD, BIM).

 ◦ Algorithm Application: Employ advanced optimisation techniques (e.g., multi-objective optimisation, genetic algorithms, simulation-based optimisation) to identify optimal solutions.

 ◦ Solution Analysis & Recommendation: Interpret results, quantify benefits, and provide actionable design and operational recommendations.

 ◦ Sustainable Design Integration: Embed sustainability from concept to commissioning – considering materials, carbon footprint, and resource use.

 ◦ Renewable Energy Feasibility: Assess and integrate solar PV, geothermal, wind, and other clean energy technologies.

 ◦ Water Conservation Strategies: Implement greywater, rainwater harvesting, and highly efficient plumbing systems.

 ◦ Green Building Certifications: Guide projects to achieve LEED, WELL, EDGE, and other relevant certifications.

◦ Advanced Energy Modeling: Precisely predict building energy performance and identify impactful Energy Conservation Measures (ECMs).

 ◦ Load Reduction First: Prioritise passive design, envelope optimisation, and efficient lighting to reduce energy demand before sizing active systems.

 ◦ High-Efficiency MEP Systems: Specify and optimise the selection of HVAC, lighting, and power equipment for peak performance and minimal consumption.

 ◦ Smart Controls & BAS Integration: Design intelligent Building Automation Systems (BAS) for dynamic control, fault detection, and continuous optimisation.

 ◦ Early Engagement & Coordination: Drive optimisation from schematic design through detailed engineering, ensuring seamless integration across disciplines.

 ◦ Budget & Value Engineering: Balance performance goals with cost-effectiveness, identifying high-value solutions.

 ◦ Risk Management: Proactively identify and mitigate technical, schedule, and cost risks.

 ◦ Clear Deliverables & Communication: Provide transparent reporting and detailed documentation, and maintain open communication channels with all stakeholders.

Our Methodology

From Concept to Commissioning

Phase 1:
Discovery & Scoping

◦ Client Needs Analysis, Data Collection, Stakeholder Interviews.
◦ Define Project Objectives, Constraints, and Success Metrics.

Phase 2:
Modeling & Analysis

- Develop Detailed MEP Models (Energy, CFD, System Sizing).
- Run Optimization Simulations & Sensitivity Analysis.
- Identify Optimal Design Parameters and Operational Strategies.

Phase 3:
Recommendation
& Design Support

- Generate Actionable Recommendations for MEP Systems.
- Collaborate with Design Teams for Integration into Drawings & Specifications.
- Quantify Expected Energy Savings, Cost Benefits, and Environmental Impact.

Phase 4:
Implementation
Support & Verification

- Provide Technical Guidance During Construction.
- Support Commissioning to Ensure Systems Perform as Designed.
- Assist in Setting Up Post-Occupancy Performance Monitoring for Continuous Improvement.

Case Studies / Impact Stories

Challenge (1)

High energy consumption and desire for LEED Platinum.

Our Optimisation

Implemented multi-objective optimisation for HVAC system sizing, building envelope U-values, and lighting controls. Integrated geothermal.
Results 35%

35% reduction in annual energy consumption, achieved LEED Platinum, estimated 10-year ROI.

Challenge (2)

Inefficient cooling and ventilation processes and high operational costs.

Our Optimisation

Optimised chiller plant configuration, introduced heat recovery, and designed demand-controlled ventilation.
Results 20%

20% reduction in peak cooling load, 18% reduction in operational energy costs, and improved indoor air quality.

Challenge (3)

Complex interdependencies between residential, retail, and office MEP systems; tight budget.

Our Optimisation

Used BIM for system coordination and clash detection, optimised central plant sizing and zoning, and applied value engineering.
Results 8%

Eliminated 15+ major clashes pre-construction, achieved 8% project cost savings through optimised material use, and delivered 2 weeks ahead of schedule. (Adapt these with your actual or realistic project examples)

Why Choose MaSet?

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