Key Benefits
1-Informed Decision-Making: Provides stakeholders with clear, data-driven insights to support project planning, design, and operational decisions.
2-Practical Recommendations: Delivers actionable solutions that are realistic, implementable, and aligned with project goals.
3-Regulatory Compliance: Supports adherence to local and international codes, standards, and best practices.
4-Cross-Disciplinary Expertise: Combines knowledge from project management, MEP, energy, and sustainability disciplines to provide well-rounded technical guidance.
1. Mechanical Studies
HVAC System Performance Studies
Failure Mode & Effects Analysis (FMEA) for Mechanical Systems
Hydraulic Calculations (chilled water, domestic water)
Fire Protection Hydraulic Analysis
Equipment Sizing & Selection Studies
Retrofit & System Upgrade Assessments
Related FAQs
To verify that heating, ventilation, and air conditioning systems meet design and operational requirements efficiently.
By identifying potential failures, assessing their impact, and recommending mitigation measures.
To ensure correct flow, pressure, and system efficiency for proper operation and safety.
To verify that water supply and pressure meet fire safety requirements under all conditions.
Correct sizing ensures optimal performance, energy efficiency, and equipment lifespan.
When existing systems need improvements for performance, compliance, or sustainability.
2. Electrical Studies
Load Flow Analysis
Short Circuit Analysis
Protection Coordination Studies
Arc Flash Hazard Studies
Power Quality & Harmonic Analysis
Generator Sizing & Reliability Studies
Lighting & Emergency Power Studies
Failure Mode & Effects Analysis (FMEA) for Electrical Systems
Related FAQs
Load flow analyzes normal operating conditions for voltage, current, and power distribution; short circuit analysis evaluates system response under fault conditions.
To ensure protective devices operate correctly without causing unnecessary outages.
To assess electrical hazards and implement safety measures for personnel and equipment.
It ensures electrical equipment operates reliably and prevents damage from voltage fluctuations or harmonics.
To provide continuous power during outages and ensure operational continuity.
By identifying potential failure points in electrical components and recommending mitigation strategies.
To ensure life safety systems function properly during power outages.
3. Sustainability Studies
Environmental Impact Assessments (EIA)
LEED Gap Analysis Reports
WELL Certification Readiness Studies
Indoor Environmental Quality Studies
Water Efficiency Studies
Life Cycle Cost Analysis (LCCA) Reports
Related FAQs
A study evaluating the environmental effects of a project, typically required for regulatory approval.
By identifying missing credits or areas of non-compliance to guide improvements for certification.
Assessments to ensure building design meets WELL standards for occupant health and wellness.
By measuring air quality, lighting, acoustics, and thermal comfort to ensure a healthy environment.
To evaluate long-term costs of design options, including energy use, maintenance, and operational expenses.
By optimizing water usage, reducing waste, and supporting environmental compliance.
4. Energy Studies
Energy Modeling & Simulation Reports
Energy Audit Reports (ASHRAE Level I, II, III)
Building Performance Benchmarking
Renewable Energy Feasibility Studies (Solar, Wind, etc.)
Energy Conservation Measure (ECM) Studies
Related FAQs
Simulation of building energy use to predict performance, optimize design, and reduce operational costs.
Level I: Preliminary assessment, Level II: Detailed analysis, Level III: Investment-grade audit with detailed financial evaluation.
By comparing energy performance against standards or similar buildings to identify improvement opportunities.
Solar/wind potential, cost, integration with existing systems, and ROI.
Practical strategies to reduce energy use, such as efficient equipment, controls, or building envelope improvements.
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