Design and configure HVAC systems for maximum energy efficiency and indoor comfort, including variable air volume (VAV) and VRF systems.

Simulate energy use using software to guide sustainable design decisions and predict performance.

Ensure healthy indoor environments through adequate ventilation, filtration, and thermal zoning.

Reclaim waste heat from exhaust air or processes to reduce overall energy consumption.

Efficient cooling solutions for multiple buildings using centralized chilled water plants.

Implement LED lighting, daylight-responsive controls, and occupancy sensors to reduce electrical load.

Design solar PV and wind systems to offset grid energy use and reduce carbon footprint.

Deploy real-time energy tracking tools to optimize usage and identify inefficiencies.

Improve electrical system efficiency by minimizing reactive power and avoiding utility penalties.

Control and shift electrical loads to off-peak hours to reduce energy demand and costs.

Specify low-flow faucets, toilets, and showerheads to minimize water consumption.

Treat and reuse water from sinks and showers for irrigation or toilet flushing.

Capture and store rainwater for non-potable uses, reducing demand on municipal water.

Use solar collectors to provide domestic hot water efficiently.

Monitor water systems to detect leaks early and ensure efficient usage.

Assist with certification processes through MEP system alignment with green building standards.

Validate and optimize performance of new and existing building systems.

Design systems that are adaptable to climate-related risks and extreme weather events.

Analyze operational emissions and develop strategies for reduction and carbon neutrality.

Control and automate MEP systems for improved performance and resource efficiency.

Involves selecting building sites that minimize environmental impact, managing stormwater runoff, reducing urban heat islands, and preserving local biodiversity.

Uses modeling to optimize daylight penetration and manage solar heat gain while ensuring thermal comfort for occupants.

Focuses on optimizing the building envelope, using passive strategies (like natural ventilation and daylighting), and integrating renewable energy sources to reduce energy consumption.

Includes designing systems for rainwater harvesting, greywater reuse, efficient irrigation, and low-flow plumbing fixtures to reduce water use.

Provides guidance on selecting sustainable building materials based on life cycle assessments, embodied carbon, recycled content, and indoor air quality performance.

Simulates a building’s energy use to predict performance, inform design decisions, and analyze the cost-benefit of energy-saving measures.

Calculates the embodied and operational carbon of buildings to help achieve low- or zero-carbon goals.

Applies tools like Computational Fluid Dynamics (CFD) to analyze airflow, ventilation, moisture control, and thermal bridging.

Assists with obtaining LEED, BREEAM, WELL, Green Star, or other sustainability certifications through documentation, modeling, and strategy support.

Prepares required reports for planning authorities, evaluating the environmental consequences of proposed developments.

Ensures that building designs meet or exceed local and international energy codes, such as ASHRAE or IECC.

Verifies that building systems are installed and functioning according to design, particularly for sustainable performance goals.

Evaluates building performance and occupant satisfaction after construction, including energy usage and indoor air quality.

Identifies inefficiencies in existing buildings and provides recommendations for retrofits to improve energy performance.

Incorporates IoT and automation for real-time energy monitoring and efficient operation of building systems.

Develops long-term plans to achieve sustainability goals, such as net-zero energy, carbon neutrality, or climate resilience.

Provides training, workshops, and collaborative planning sessions to educate clients and stakeholders on sustainable practices.

Analyzes risks related to climate change, natural disasters, and future utility demands, and proposes adaptive strategies to mitigate those risks.

Promote sustainability and reduce embodied carbon in construction by using industrial by-products (like GGBS and fly ash) in concrete and optimizing materials such as recycled steel, low-carbon concrete, mass timber, or hybrid systems.

Minimizing material use without compromising safety—using advanced modeling and analysis to optimize structural systems.

Encourage reuse and adaptability while reducing construction waste and energy consumption.

Monitor and display total carbon output of ongoing construction projects.

Evaluate energy performance using dynamic progress indicators.

Visualize proportions of different building materials to assess sustainability.

Designing for longevity and resistance to climate extremes, reducing the need for future repairs or rebuilds.

Break down carbon sources by category (e.g., transportation, materials, operations).

Synchronize 3D building models with live environmental data for comprehensive insights.

Track and predict energy use over time to optimize project efficiency.

Generate data-driven reports for sustainability certifications and regulations.

Centralized display for real-time updates on key environmental metrics.

Link field activity to digital dashboards for unified project oversight.