Imagine developing a building where sustainability is prioritized at every turn, from design to destruction. 

This is the new reality due to digital twins in sustainable construction. 

In construction, a digital twin is a dynamic model that constantly changes and engages with real-time data, rather than merely a virtual duplicate of a physical structure. 

A Markets and Markets analysis projects that the digital twin market in the construction industry  would reach $110.1 billion by 2028 from $10.1 billion in 2023. This implies that the market will develop at a CAGR of 61.3% between 2023 and 2028. 

Digital twin technology in construction has the potential to completely transform the design, management, and upkeep of buildings. It helps in this process by lowering waste, increasing energy efficiency, and encouraging the wise use of resources when combined with sustainability objectives. 

We'll look at the vital function that digital twin technology plays in the construction industry and how it's opening doors for sustainable practices in this blog.

So, before we discuss the role of digital twin in sustainable construction, let us get to know what is digital twin in construction. 

Digital twin in the construction industry is a revolutionary technology that has the potential to transform the industry. They are essentially virtual replicas of physical entities created using real-time data. In the context of construction, these entities can range from a single piece of equipment to an entire building or infrastructure project.

The primary purpose of a Digital Twin is to serve as a dynamic, real-time simulation of its physical counterpart. This allows stakeholders to visualize, monitor, and analyze the performance of the object or system in a safe and controlled virtual environment. For instance, a Digital Twin of a building can provide insights into its structural integrity, energy consumption, and even the comfort levels of its occupants.

The benefits of using Digital Twins in construction are manifold. They can help in improving design accuracy, optimizing resource allocation, enhancing operational efficiency, and reducing downtime. By providing a comprehensive view of the project, Digital Twin enables stakeholders to make informed decisions, identify potential issues before they occur, and make necessary adjustments without the cost and time associated with physical alterations.

Case Study: Predictive Maintenance System to Prevent Malfunctioning Machines

Key Benefits of Digital Twin in The Construction Industry

The benefits of Digital Twin in construction are manifold. They can help in improving design accuracy, predicting potential issues, optimizing operations, and reducing costs. 

By creating a digital twin model of a building, engineers can test different scenarios, identify problems before they occur, and make necessary adjustments without the cost and time associated with physical alterations. 

So, the benefits of digital twin for buildings are: 

1. Improving Design Accuracy: Digital Twin allows for precise modeling of a construction project, enabling engineers to refine and optimize designs before actual construction begins.

2. Predicting Potential Issues: By simulating different scenarios on the Digital Twin, potential problems can be identified and addressed in advance, reducing the risk of costly mistakes during the actual construction process.

3. Optimizing Operations: Digital Twin can be used to simulate and analyze the operational aspects of a building, such as energy efficiency, maintenance requirements, and space utilization, leading to optimized building operations.

4. Reducing Costs: By identifying design flaws or operational inefficiencies early in the process, Digital Twin can help to avoid costly changes or repairs once the building is constructed. This can lead to significant cost savings over the life of the project.

5. Enhancing Collaboration: Digital Twin can be accessed and interacted with by all stakeholders, promoting better communication and collaboration. This can lead to more efficient decision-making and project execution.

6. Facilitating Maintenance and Upgrades: Post-construction, the Digital Twin can serve as a comprehensive reference for maintenance activities and future upgrades, ensuring that these are carried out efficiently and effectively.

Further read: 10 Steps for Successful Digital Twin Implementation

Sustainability in construction refers to the practice of creating structures and using processes that are environmentally responsible and resource-efficient throughout a building's life-cycle: from planning to design, construction, operation, maintenance, renovation, and demolition.

The goal of sustainable construction is to reduce the environmental impact of building projects. This involves 

• Use of eco-friendly materials

• Energy-efficient designs

• waste reduction strategies.

For instance, using recycled materials in construction, designing buildings to maximize natural light, or implementing water-saving plumbing systems are all examples of sustainable construction practices.

Challenges you might face

However, achieving sustainability in construction is not without its challenges. It requires careful planning, innovative design, and efficient execution. 

The construction industry is traditionally slow to adopt new technologies and practices, and there can be a lack of knowledge and skills in sustainable construction methods. 

Additionally, sustainable materials and technologies can sometimes be more expensive upfront, although they often result in cost savings in the long term.

According to the United Nations Environment Programme, the construction industry accounts for 38% of global energy-related CO2 emissions. 

This highlights the urgent need for more sustainable practices in the sector. Sustainable construction is not just about environmental responsibility but also about economic performance and social equity. It is about building for the future in a way that is beneficial to all.

To define sustainable construction as a construction method with little to no environmental impact, six factors must be addressed:

• During and after construction, conserve water, fuel, electricity, and other resources.

• Scaffolding and formwork made of wood and metal can be reused.

• Whenever possible, use recycled and alternative materials in construction.

• Plant as much flora and fauna as possible on the construction site, including relocating full-grown trees.

• Chemicals that are toxic should be avoided.

• Follow best practices and use only high-quality materials.

But how can you mix digital twin and sustainability for an optimum output? Well, you can start with the following ways:

But how can you mix digital twins and sustainability for an optimum output? Well, you can start with the following ways:

Reduce waste by estimating material costs

Minimizing waste materials in sustainable buildings is an environmentally beneficial endeavor and a commercial necessity. 

Real-time data and exact simulations are provided by digital twin technology in the construction industry. This is to optimize material utilization, which is crucial to this endeavor. 

Construction companies may more accurately predict their material needs, reducing excessive ordering and waste. This is possible when they combine digital twin technology with sustainability goals.

Project managers can determine exact material requirements using a digital twin building model. This keeps track of how materials perform under various project settings and guarantees that the proper amount of materials are used. 

Therefore, by removing needless waste, encouraging sustainable resource management, and eventually cutting costs, digital twin technology in construction lessens its negative effects on the earth.

Digital twin can feed real-time data into BIM via sensor-equipped vehicles and facilities, providing insight into material use, including:

• The part of the construction operation that produces the most waste

• Wasted or misused materials

• Depletion of supplies caused by vehicles or machines

• Excessive construction waste practices

You might not find this useful in the first few projects where you've just begun using digital twin. However, the resulting analyses and insights of the collected data can help you formulate construction operation and management guidelines that can improve your material cost estimate, resource conservation, and waste management significantly.

Simplify data management and storage

One of the main advantages of digital twins in the construction industry is simplifying data administration and storage. This is important because it promotes sustainability. 

Large volumes of data are produced from different stages of construction in large-scale projects. Effective data management may drastically reduce inconsistencies, prevent mistakes, and guarantee that all parties are operating with the most recent information.

Real-time data from several systems, such as structural design, energy consumption, and material lifetime information, are integrated into a consolidated, easily accessible platform via a digital twin building model. 

In addition to streamlining project management, this single source of data storage promotes digital twin technology in the construction industry by providing accurate, current data that can be examined to make more environmentally friendly decisions.

A digital twin-integrated BIM system, supported by project management software like PlanRadar, streamlines the process by providing a single platform where stakeholders can communicate, voice concerns, and resolve issues.

For instance, project managers may monitor water and energy usage and material efficacy during construction using digital twin technology. This can help them make better decisions that support sustainability objectives. 

Businesses that centralize their data can cut waste, boost productivity, and use resources more sustainably. This will help the construction industry's efforts to create digital twins and be more sustainable.

Enhance risk assessment

Essentially, digital twins focus on how people interact with buildings while they are being constructed or occupied. Their data are, therefore, more accurate than those collected and analyzed from studies, surveys, and statistics, which have different respondents and settings. 

Furthermore, these data aren't just based on logic or professional opinions. Instead, they come from actual incidents and responses at the building or construction site.

In other words, whatever the system comes up with is as close to the truth as possible. You can rely on them for safety guidelines. 

For instance, you can determine which area at the site has a high probability of causing accidents. In order to prevent those accidents, you can implement specific procedures. By protecting your personnel and assets, you can complete the project quickly and save money.

Alerts and reports in real-time 

With digital twin technology, you can get real-time alerts and reports about an incident detected by your sensors, unlike before when you could only find out about a particular situation after several hours. In this way, you can respond quickly and prevent wasteful damage to assets, occupants, and resources.

To eliminate human intervention, which is often flawed, you can even automate responses. For instance, you can program the system to shut off electricity in the building's least used areas. In case of an accident, such as a fire or leak due to a broken valve, the system can alert concerned personnel or automatically shut off connecting pipelines.

Manage assets and waste in real-time

You can also program your digital twins to monitor areas at the construction site where waste is collected and segregated to determine how much waste is disposed of and recycled. If you want to know if you're using your supplies efficiently, you can set a realistic volume limit based on cost estimates.

Using the data from the digital twins, you can develop a predictive maintenance program based on the frequency of activity in the equipment servicing area. With your equipment in perfect working order, you will be able to prevent power consumption, poor emissions, and costly breakdowns.

Also, read the top 15 digital twin use cases and understand how it is revolutionizing businesses. 

Digital Twins are already being used in sustainable construction projects around the world. Here are two notable examples:

The Edge Building, Amsterdam: Known as the "greenest building in the world", the Edge in Amsterdam is a prime example of the use of Digital Twins in sustainable construction. The building's Digital Twin allows for real-time monitoring and optimization of energy use. The building is equipped with a vast network of sensors that monitor everything from temperature and humidity to occupancy. 

This data is fed into the Digital Twin, which uses it to optimize the building's energy use in real-time. As a result, the Edge produces more energy than it consumes, making it a net-positive building. In fact, it has achieved a BREEAM rating of 98.36%, the highest ever awarded.

Morpheus Hotel, Macau: The Morpheus Hotel in Macau is another example of the use of Digital Twins in sustainable construction. The hotel's unique exoskeleton design was optimized using a Digital Twin, resulting in significant material savings. 

The Digital Twin allowed the engineers to test different design scenarios and identify the most efficient solution. As a result, they were able to reduce the amount of steel used in the construction by 13,000 tons, equivalent to a reduction of 34,000 tons of CO2 emissions2.

These examples demonstrate the potential of Digital Twins in promoting sustainability in construction. By enabling more efficient and less wasteful construction processes, they can help in creating a more sustainable built environment for future generations.

Read more Digital Twin examples. 

Digital twins in the construction sector have a lot of potential to improve operations and the environment, making them a vital tool for businesses that are dedicated to sustainability. 

We anticipate a move toward more environmentally friendly construction methods by utilizing digital twins to track and optimize every component of a building's performance. This will ultimately lead to a greener future for the sector.

The future of sustainable construction lies in the integration of Digital Twins with other emerging technologies such as AI, IoT, and blockchain. These technologies can enhance the capabilities of Digital Twins, enabling more accurate simulations, real-time monitoring, and automated optimization.

Suggested Read: How to Choose Your Digital Twin Development Company

Digital twins, which are more than just a trendy term, make a more sustainable future in building possible. 

Digital twins help the construction sector 

• Cut waste

• Maximize energy consumption

• Minimize carbon emissions by producing dynamic virtual copies of real structures.

With digital twin sustainability at the forefront, companies may adopt environmentally responsible procedures while increasing productivity and reducing expenses.

Integrating digital twins in construction enables stakeholders to make data-driven choices, optimize processes, and adjust to the changing needs of sustainable construction technology. Imagine collaborating seamlessly, cutting down on delays, and managing resources better while positively impacting the environment.

Therefore, why use traditional methods when creating digital twin solutions that can revolutionize your building projects? At Toobler, we specialize in offering advanced digital twin services to support your advancement in environmentally friendly buildings. 

All set to leap? Let's work together to create a sustainable future!

Connect with the experts and resolve any doubts you have about digital twins. 

Also read: How Toobler Helps Companies Become Digital Twin Ready?

1.How are digital twins used in construction?

Digital twins in construction provide virtual representations of tangible assets, allowing for simulation and real-time monitoring. They monitor development, forecast maintenance requirements, and optimize building designs. 

Digital twins analyze energy use and environmental impact to increase sustainability, decrease waste, and improve resource efficiency. They guarantee improved choice-making throughout the construction lifecycle, simplify project management, and offer actionable insights by combining data from sensors and construction gear.

2.How are digital twins sustainable?

Digital twins support sustainability by reducing waste, environmental impact, and resource optimization. They allow for simulation and monitoring in real-time, creating environmentally friendly solutions and increasing energy efficiency. 

Digital twins extend the lives of assets and save material and energy usage by anticipating maintenance requirements and discovering inefficiencies. Their capacity to model environmental effects aids in developing sustainable building methods. 

It guarantees that projects adhere to green standards while preserving resources and lowering carbon emissions.

3.What is a digital twin for the built environment?

Buildings, infrastructure, and cities are physical areas that can be virtually replicated as digital twins for the built environment. Real-time data from sensors, IoT devices, and systems is incorporated to track, model, and improve performance. 

This technology promotes sustainable design, increases energy efficiency, and simplifies maintenance. Digital twins facilitate better decision-making and the creation of more robust, efficient, and sustainable built environments by offering insights into how structures interact with their surroundings.

4.How do you make a digital twin of a building?

Making a building's digital twin entails:

• Data collection: Compile comprehensive data, such as blueprints, architectural designs, and information on existing buildings.

• Sensor Integration: Set up Internet of Things sensors to collect real-time data on temperature, occupancy, energy use, and other topics.

• Model Creation: Construct a virtual model of the building using 3D modelling software.

• Data Integration: Link the virtual model to real-time data from sensors and devices.

• Testing and Simulation: Run simulations to evaluate performance and pinpoint areas needing improvement.

This approach's end product is a dynamic, real-time digital twin for tracking and improving the building's performance.