top of page

Air

Light

Thermal

Noise

Safety

Nutrition

Movement

Mind

Water

Objects

Energy

Waste

Why it's important

Every time we flick a switch or adjust a thermostat, our indoor spaces consume energy. Refining how this energy is used is crucial. Efficient energy consumption not only reduces household bills but also diminishes strain on our planet's resources. 


By adopting smarter appliances, design choices, and behaviors, we can have spaces that perform brilliantly while using less. It's not merely about saving on costs—it's about creating indoor environments that work in harmony with the world around us, ensuring a sustainable future.

Quick tips

1. Energy-Efficient Lighting:

Switch to LED bulbs or other energy-saving light sources, which consume less power and have a longer lifespan than traditional bulbs.


2. Smart Thermostats:

Install programmable thermostats to regulate heating and cooling efficiently, adjusting temperatures based on your daily routines and reducing energy use during off-peak hours.


3. Seal and Insulate:

Ensure windows, doors, and walls are well-sealed to prevent drafts. Add insulation where needed to maintain desired indoor temperatures, reducing the load on heating and cooling systems.


4. Efficient Appliances:

Upgrade to Energy Star-rated appliances, which are designed to operate more efficiently and consume less energy compared to their non-rated counterparts.


5. Vampire Power Solutions:

Unplug electronics or use advanced power strips to prevent devices from drawing power when not in active use. These "energy vampires" can add up to significant consumption over time.

Scientific facts

Buildings' Contribution to Global CO2 Emissions:

Buildings and construction activities together account for nearly 40% of global CO2 emissions, with operational emissions (from energy used to heat, cool, and light buildings) amounting to 28%.


Energy Consumption in Buildings:

Buildings, in total, consume about 36% of the world's final energy, making energy efficiency in this sector crucial for reducing overall energy demand.


Potential for Energy Efficiency Improvement:

There's an estimated potential to reduce energy consumption in buildings by up to 50% in some regions by 2050, with adequate policies and investments in technologies.


Renewable Energy in Buildings:

As of 2021, renewable energy sources provided only about 10% of the energy used in buildings, emphasizing the need for a transition to greener energy sources in this sector.


Water Consumption in Energy Production:

Thermoelectric power plants, which produce electricity with heat, account for about 40% of total freshwater withdrawals in countries like the U.S.

How to improve

1. Before Design Phase: Assessment & Planning

  1. Energy Audit:

    • Evaluate the current energy consumption of the space using energy monitoring tools.

    • Identify energy "hotspots" or areas of high energy usage.

  2. Client Consultation:

    • Understand the client's energy-saving goals and budgetary constraints.

    • Discuss any previous energy-saving measures they have tried or are interested in.

  3. Research:

    • Familiarize yourself with local building codes and regulations related to energy efficiency.

    • Stay updated on new energy-efficient products and technologies in the market.

2. During Design Phase: Selection & Implementation

  1. Insulation & Sealing:

    • Ensure walls, ceilings, and floors are adequately insulated to prevent energy loss.

    • Seal windows, doors, and any gaps to prevent drafts and heat loss.

  2. Window Design:

    • Opt for double-glazed or energy-efficient windows to reduce heat transfer.

    • Consider the orientation of windows to utilize passive solar heating and reduce the need for artificial heating.

  3. Energy-Efficient Lighting:

    • Choose LED or CFL lights over incandescent bulbs.

    • Design spaces to maximize natural light, reducing the need for artificial lighting during the day.

  4. Efficient Appliances & HVAC:

    • Encourage the use of ENERGY STAR-rated or other high-efficiency appliances.

    • Design a zoned HVAC system or consider energy-efficient HVAC options, such as geothermal systems.

  5. Smart Thermostats & Systems:

    • Install programmable thermostats to optimize heating and cooling cycles.

    • Consider integrating smart home systems that can optimize energy consumption based on user behavior.

  6. Sustainable Materials:

    • Choose materials that are sustainably sourced and have low embodied energy.

    • Opt for finishes and materials that improve indoor thermal comfort, reducing the need for heating or cooling.

3. After Design Phase: Monitoring & Maintenance

  1. Post-Occupancy Energy Monitoring:

    • Use energy monitoring tools to track energy consumption post-implementation.

    • Compare the post-design energy consumption data with the pre-design data to gauge improvements.

  2. Client Education:

    • Provide guidance on how to use new systems or appliances efficiently.

    • Share best practices on maintaining energy efficiency, like periodic HVAC maintenance or sealing checks.

  3. Continuous Feedback:

    • Stay in touch with clients to understand how the implemented solutions are performing.

    • Make adjustments based on their feedback and any new advancements in technology.

  4. Stay Updated:

    • Regularly update yourself on emerging energy-efficient technologies, materials, and design practices.

    • Consider certifications or courses on sustainable or green design to further enhance your expertise.

bottom of page