AI in Construction Market Set for Rapid Growth

AI in Construction Market Set for Rapid Growth

Colorful abstract design depicting rail tracks with blocks, illustrating choice and direction. By Google DeepMind via pexels

AI in Construction Market Set for Rapid Growth

Construction Owners – United States, February 9, 2026

The global Artificial Intelligence (AI) in Construction market is entering a period of accelerated expansion, according to a new study from HTF MI Research, which evaluates market size, trends and forecasts through 2033. The report compiles industry data and competitive analysis aimed at helping executives and construction leaders understand how AI technologies are reshaping project delivery.

The study identifies major technology and equipment providers driving adoption, including Autodesk, Trimble, Bentley Systems, Oracle, SAP, Procore, Hexagon AB, IBM, Microsoft, Nvidia, Caterpillar, Komatsu, OpenSpace, Buildots and Smartvid.io.

What AI Means for Construction

Researchers define the segment as the use of artificial intelligence tools across planning, design and project execution.

“Artificial intelligence in construction refers to the application of AI technologies to planning, design, and project execution. Algorithms optimize scheduling and resource allocation. Predictive analytics improve risk management. Automation enhances productivity and safety. These solutions transform construction operations.”

The market is segmented by solution type — such as AI-based project management tools, computer vision safety systems and predictive analytics platforms — and by applications including construction planning and scheduling, safety monitoring, cost estimation and asset management.

Labor Shortages and Smart Infrastructure Fuel Demand

The report points to several structural forces pushing contractors toward digital transformation:

“Labor shortages drive automation demand, Rising need for project cost optimization supports adoption, Growth in smart infrastructure fuels market, Demand for predictive project management strengthens usage, Safety improvement initiatives enhance growth.”

Emerging trends include wider use of computer vision for site monitoring, integration with digital twins, and growing interest in AI-driven predictive maintenance. Analysts also highlight opportunities tied to smart city programs, construction robotics and adoption by mid-sized contractors.

Geographically, North America currently dominates spending, while Asia-Pacific is projected to be the fastest-growing region as large infrastructure programs and urbanization accelerate technology uptake.

Market Scope and Forecast Approach

The HTF MI study reviews consumption, revenue and market share across regions including North America, Europe, Asia-Pacific, South America and the Middle East & Africa. It also evaluates competitive strategies such as partnerships, acquisitions and new product launches.

Among the objectives, the report aims:

“To carefully analyze and forecast the size of the Artificial Intelligence (AI) in Construction market by value and volume; To estimate the market shares of major segments; To showcase the development of the market in different parts of the world.”

 

Strategic Questions for Contractors and Investors

The research frames several key issues facing the industry:

“How feasible is Artificial Intelligence (AI) in Construction market for long-term investment? What are influencing factors driving the demand for Artificial Intelligence (AI) in Construction near future? What is the impact analysis of various factors in the Global Artificial Intelligence (AI) in Construction market growth?”

Analysts believe answers to those questions will shape how quickly contractors integrate AI into everyday workflows—from automated scheduling to real-time safety alerts and equipment optimization.

About HTF MI

HTF Market Intelligence Consulting Private Limited describes itself as a global research provider with coverage of 60+ geographies and more than 15,000 industry studies. The firm delivers syndicated and custom analysis designed to help organizations navigate complex technology transitions.

For additional information, the company lists contact: Nidhi Bhawsar (PR & Marketing Manager), Phone: +15075562445, sales@htfmarketintelligence.com.

Originally reported by HTF Market Intelligence Consulting Private Limited in Open PR.

Global population living with extreme heat expected to double by 2050

Global population living with extreme heat expected to double by 2050

A vast aerial view of a densely populated urban residential area with diverse building types. By Ludvig Hedenborg via pexels

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Global population living with extreme heat expected to double by 2050

Global population living with extreme heat to double by 2050

Global mean HDDs for three global warming scenarios. Credit: Nature Sustainability (2026). DOI:10.1038/s41893-025-01754-y

A new University of Oxford study finds that almost half of the global population (3.79 billion) will be living with extreme heat by 2050 if the world reaches 2.0°C of global warming above pre-industrial levels—a scenario that climate scientists see as increasingly likely.

Most of the impacts will be felt early on as the world passes the 1.5°C target set by the Paris Agreement, the authors warn. In 2010, 23% of the world’s population lived with extreme heat, and this is set to grow to 41% over the next decades.

Regions and populations most at risk

Published in Nature Sustainability, the findings have grave implications for humanity. The Central African Republic, Nigeria, South Sudan, Laos, and Brazil are predicted to see the most significant increases in dangerously hot temperatures, while the largest affected populations will be in India, Nigeria, Indonesia, Bangladesh, Pakistan, and the Philippines.

Countries with colder climates will see a much larger relative change in uncomfortably hot days, more than doubling in some cases.

Compared with the 2006–2016 period, when the global mean temperature increase reached 1°C over pre-industrial levels, the study finds that warming to 2°C would lead to a doubling in Austria and Canada, 150% in the UK, Sweden, Finland, 200% in Norway, and a 230% increase in Ireland.

Infrastructure and adaptation challenges

Given that the built environment and infrastructure in these countries are predominantly designed for cold conditions, even a moderate increase in temperature is likely to have disproportionately severe impacts compared with regions that have greater resources, adaptive capacity, and embodied capital to manage heat.

Lead author, Dr. Jesus Lizana, Associate Professor in Engineering Science, said, “Our study shows most of the changes in cooling and heating demand occur before reaching the 1.5ºC threshold, which will require significant adaptation measures to be implemented early on. For example, many homes may need air conditioning to be installed in the next five years, but temperatures will continue to rise long after that if we hit 2.0 of global warming.

“To achieve the global goal of net-zero carbon emissions by 2050, we must decarbonize the building sector while developing more effective and resilient adaptation strategies.”

Dr. Radhika Khosla, Associate Professor at the Smith School of Enterprise and the Environment and leader of the Oxford Martin Future of Cooling Programme, added, “Our findings should be a wake-up call. Overshooting 1.5°C of warming will have an unprecedented impact on everything from education and health to migration and farming. Net zero sustainable development remains the only established path to reversing this trend for ever hotter days. It is imperative politicians regain the initiative towards it.”

Energy demand and new climate data

The projected increase in extreme heat will also lead to a significant rise in energy demand for cooling systems and corresponding emissions, while demand for heating in countries like Canada and Switzerland will decrease.

The study also includes an open-source dataset of global heating and cooling demand, comprising 30 global maps at ≈60km resolution that capture climate intensity in “cooling degree days” and “heating degree days” worldwide. This dataset provides a strong foundation for incorporating accessible climate data into sustainability planning and development policy.

Publication details

Lizana, J. et al, Global gridded dataset of heating and cooling degree days under climate change scenarios. Nature Sustainability (2026). DOI: 10.1038/s41893-025-01754-y www.nature.com/articles/s41893-025-01754-y

Journal information: Nature Sustainability

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New West Bank settlement would make a Palestinian state impossible

New West Bank settlement would make a Palestinian state impossible

Proposed picture of the future: Circle of sneakers on cobblestone pavement representing diversity and urban fashion. by Ingo Joseph via Pexels

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Israel’s plan for massive new West Bank settlement would make a Palestinian state impossible

Leonie Fleischmann, City St George’s, University of London

Israel OKs settlement project that could divide West Bank : NPR

End of a viable Palestinian state: Israeli finance minister Bezalel Smotrich announces the new development plan. AP Photo/Ohad Zwigenberg

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The Israeli government has approved a plan for construction of a massive new settlement bloc in the controversial E1 area in the occupied West Bank.

In reviving a project first proposed in 1994, which will comprise about 3,500 new dwellings in a line across the West Bank, finance minister Bezalel Smotrich laid bare the intentions of his government. He declared that “approval of construction plans in E1 buries the idea of a Palestinian state, and continues the many steps we are taking on the ground as part of the de facto sovereignty plan”.


You can listen to more articles from The Conversation, narrated by Noa, here.


E1 (“East 1”) refers to 12 square kilometres of unsettled land east of Jerusalem. It sits inside the boundaries of the third most populous Israeli settlement in the West Bank, Ma’ale Adumim.

In 1975, Israel expropriated 30 sq km of land on which seven Palestinian villages had once stood. Here they built Ma’ale Adumim, one of three Israeli settlement blocs that form an “outer ring” around the Israeli-defined municipal boundaries of Jerusalem.

Israeli authorities refer to these blocs as “facts on the ground”. They were initiated in the West Bank by the Israeli government after the 1967 War to ensure that Israeli population centres were protected from potential attacks.

Today, almost 40,000 Israelis live in Ma’ale Adumim – largely secular Israelis and diaspora Jews who have moved to Israel. Far from the makeshift Israeli outposts that are scattered across the rural West Bank, Ma’ale Adumim was designated a city by Israel in 2015. It is considered by the majority of Israeli Jews to be a permanently protected settlement bloc, which will be retained through land swaps in any final agreement with Palestinians.

The E1 development plan would involve a significant expansion of the existing settlement. All settlement building in East Jerusalem and the West Bank is deemed illegal under international law, but the E1 plans are particularly controversial.

At the heart of the controversy is the viability of a Palestinian state. Israeli construction in E1 would cut the West Bank into two separate parts, rendering it impossible to establish a contiguous Palestinian state with East Jerusalem as its capital.

In addition, according to an objection lodged by the Israeli pressure group Peace Now, Israeli construction in E1 would negatively affect the economic development of a future Palestinian state.

Its objection argues the E1 area is essential for expansion of an urban metropolis necessary for economic growth, and is the only land in East Jerusalem suitable for further development in the Palestinian part of the city. It states that E1 should therefore be left for Palestinian rather than Israeli development.

Political threat

The plan to develop E1 was first proposed in 1994 by Israel’s then-prime minister, Yitzhak Rabin, to make sure Ma’ale Adumim was part of a “united Jerusalem”. This was subsequently reaffirmed by Shimon Peres during his prime ministership in 1996, as part of proposed territorial swaps in the framework of a permanent peace agreement.

In 2005, those plans were frozen after the US administration under George W. Bush told Israel that settlement in E1 would “contravene American policy”.

Map of the West Bank.
The proposed E1 development, linking up with the settlement of Ma’ale Adumim, would make a Palestinian state based on contiguous land in the West Bank impossible.
Honest Reporting, CC BY-SA

The plan was reignited by Israel’s current prime minister, Benjamin Netanyahu, in 2012, in retaliation for the United Nations’ extension of non-member status to Palestine. But it was then put on hold for eight years due to international pressure.

In 2020, a week ahead of the third national elections held in Israel in a single year, Netanyahu pledged to revive the E1 project, with the hope of securing votes and to court the ultra-nationalist parties into a potential coalition. In 2022, Netanyahu renewed the E1 construction plans, weeks before then-US president Joe Biden was due to visit Israel.

Opposition and support

Each time the plans have been proposed, the decision to advance construction has been met with both internal and international condemnation. On June 9 2023, the planning hearing was “indefinitely” postponed following a call between Netanyahu and Biden’s secretary of state, Antony Blinken.

In response to the most recent announcement to reinstate the plans, the European Union put out a statement expressing concern. It urged Israel “to desist from taking this decision forward, noting its far-reaching implications and the need to consider action to protect the viability of the two-state solution”.

However, Donald Trump now appears to be breaking with the position of previous US administrations. It was recently reported in the Jerusalem Post that the Trump administration supports the reactivation of the development plans. A spokesperson for the US State Department said “a stable West Bank keeps Israel secure and is in line with this administration’s goal to achieve peace in the region”.

Israel’s latest attempt to initiate construction in E1 shows that, while the plans have consistently been delayed, they have never been abandoned. The question is why did Smotrich, with the apparent approval of Netanyahu, make this announcement now?

The answer is most likely that, with the international focus firmly on the continued assault on Gaza, the Israeli government believes it has the breathing space to press ahead with its commitment to building settlements across the West Bank.

Alongside the proposed Israeli takeover of Gaza City, the promise by Smotrich that 2025 would be Israel’s “Year of Sovereignty” – and with it the end of a future Palestinian state – appears to be coming ever closer.The Conversation

Leonie Fleischmann, Senior Lecturer in International Politics, City St George’s, University of London

This article is republished from The Conversation under a Creative Commons license. Read the original article.

The Conversation

How artificial intelligence is helping urban planners

How artificial intelligence is helping urban planners

Planners and researchers are turning to artificial intelligence to better understand how people move, live and work – while keeping human judgment at the heart of city building.GETTY IMAGES

 

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From housing demand to traffic congestion, city planners have long relied on imperfect models to predict how people move and live. Now, artificial intelligence promises to make those forecasts more accurate.

Mohamad Khalil, a transportation engineering researcher who is currently a postdoctoral fellow at the University of Alberta, has been interested in machine learning long before it was trendy.

“I actually started working with machine learning in 2014,” he says. “To me, at the time, it seemed very appealing and very futuristic and an important next step to [urban planning] modelling.” Mr. Khalil says that most urban planning models, which were developed 50 or 60 years ago, are overly simplistic.

“It assumes that humans are 100-per-cent rational and will choose the best option for their own sake,” he says. “For example, you will choose the best route to go to work based on travel time. However, this is not 100-per-cent true. Sometimes, for some reason, you might choose another route.” In comparison, machine learning models are able to use countless data points collected from devices such as mobile phones and vehicle GPS systems to create more complex models, faster and with greater accuracy.

“Machine learning excels with complicated behaviour,” he says.

Mr. Khalil, who conducted his PhD thesis in transportation engineering at the University of British Columbia, built a “modelling suite” – a collection of tools that help simulate and visualize different land-use scenarios using AI to make better predictions that factor in changes across urban, transportation and demographic systems.

“If we’re implementing a policy, how is that policy going to affect a city?” Mr. Khalil says. “If 20 per cent of people are working online compared to 100-per-cent remote, maybe we’ll see less traffic on our roads, maybe people need bigger homes if both partners are working from home and maybe they don’t need two vehicles.”

He envisions his research and modelling tools being adopted by city planners and decision-makers.

“We present to them the different scenarios that could happen,” he says. In turn, planners can make decisions and recommendations to elected officials about infrastructure development such as zoning, building new transit lines and housing.

By considering multiple scenarios, which can be produced quickly and accurately, urban planners can take a more creative and flexible approach to their work by experimenting with different parameters and possibilities.

That ability to test real-world scenarios before making costly infrastructure decisions is already taking hold in Canadian cities.

Ryan Smith, divisional director of planning and development services for the City of Kelowna in the southern interior of British Columbia, has been using predictive modelling to make more informed decisions and recommendations for nearly a decade, although he says the technology has improved recently to analyze larger data sets.

“We’re flying less blind now,” he says. Kelowna has been an early adopter of such technologies. One example is an AI-enabled predictive modelling tool Mr. Smith uses to see what neighbourhoods are likely to be redeveloped soon. These are typically areas with older homes and buildings that might be demolished soon and rebuilt with additional housing density.

“We know what year a house was built, whether or not the owner lives in the house, the improvement value on the property and how much the building is worth,” he says. “We can create a probability of redevelopment with that data and make smarter infrastructure decisions.”

That might look like curb, gutter, sidewalk and street tree improvements, replacing and upsizing sewer and watermains or improving electrical infrastructure in neighbourhoods that are likely to see a higher rate of redevelopment and therefore an increase in residents. These tools allow planners like Mr. Smith to “get ahead” of risks, such as ensuring neighbourhoods have sufficient infrastructure to support more residents.

But while some planners see clear benefits to integrating AI into city planning, others caution against letting the technology steer too much of the process.

Pamela Robinson, a professor at Toronto Metropolitan University’s School of Urban and Regional Planning, cautions against becoming too reliant on it.

“I would argue that AI could be an input into research and decision support, but it shouldn’t be making the decisions,” Ms. Robinson says. “Planners need to stay in charge and be the humans in the loop around the sound professional advice they offer.”

Ms. Robinson sees the potential for AI to improve city building in several different ways, from expediting the approvals process for issuing building permits to platforms for public engagement and consultation and design decisions, such as what types of cladding on a building have lower greenhouse gas emissions. However, she encourages urban planners, decision makers and elected officials to use these technologies with care.

“I think planners are appropriately curious and cautious, and I think that’s a good thing,” she says. “The planners that we’ve worked with want to deliver good outcomes for their residents and they’re committed to their work and the communities where they’re planners. There’s a lot of hype around these tools. It’s early days and I think this kind of curiosity and caution will serve Canadian cities well.”

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Here are the Top 10 Most Sustainable Buildings

Here are the Top 10 Most Sustainable Buildings

Top 10 Most Sustainable Buildings  are as follows, as per Sustainability Magazine.
The top sustainable buildings making a positive impact include the IOC’s Olympic House, skyscraper Taipei 101, DS Group’s headquarters and London City Hall

From busy offices to quiet libraries, buildings play a significant part in modern day-to-day life.

However, the buildings and construction sector are responsible for 39% of energy and process-related CO₂ emissions according to the UNEP.

When done right, buildings can have a positive impact on both the communities they exist in and the environment.

Sustainability Magazine has ranked 10 of the most sustainable buildings.

10. Torre Reforma

Location: Mexico City, Mexico

Owned by: Fondo Hexa

Floor count: 57

Construction completed: 2016

 

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The Torre Reforma resembles the form of an open book encased by a glass facade with a panoramic view of Chapultepec Park.

Openings in the glass provide natural airflow, boosting air conditioning efficiency and lowering energy consumption. Given Mexico’s warm climate, most buildings need strict temperature management.

The sidewalks around Torre Reforma have been widened, prioritising pedestrians and improving access. By encouraging walking instead of driving, the building also helps cut carbon emissions.

9. Bullitt Centre

Location: Seattle, US

Owned by: Bullitt Foundation

Floor count: 6

Construction completed: 2012

Bullitt Centre, Bullitt Foundation

Opened on Earth Day 2013, the Bullitt Centre is designed to be the greenest commercial building in the world.

In its first 10 years, the building has generated 30% more energy than it used from the solar panels on its roof, making it one of the largest net positive energy buildings in the world.

The building has no parking spaces, opting for bike racks instead, and has 26 geothermal wells that extend 120 metres into the ground to help stabilise its temperature.

8. Bank of America Tower

Location: New York, US

Owned by: Bank of America

Floor count: 55

Construction completed: 2009

Bank of America Tower, Bank of America

Designed by Cookfox and Adamson Associates, the Bank of America Tower stands as New York City’s eighth tallest building at 370 metres.

It offers 2.1 million square feet of office space and was the first commercial skyscraper in the US to achieve LEED Platinum certification.

Its energy-efficient features raised construction costs by 6.5%, but are expected to save US$3m in annual energy costs and boost productivity by US$7m each year.

7. One Central Park

Location: Sydney, Australia

Owned by: Frasers Property

Floor count: 34 and 12

Construction completed: 2013

One Central Park, Frasers Property

One Central Park in Sydney, developed by Frasers Property and Sekisui House, is a dual high-rise mixed-use complex.

The building boasts a 5 Green Star rating and its vertical gardens, the world’s tallest at over 50 metres, include more than 35,000 plants on 23 walls.

A cantilever heliostat reflects sunlight and its recycled water system, the largest of its kind, serves 4,000 residents and 15,000 daily users.

6. The Edge

Location: Amsterdam, the Netherlands

Owned by: Edge

Floor count: 14

Construction completed: 2014

 

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The Edge serves as offices for a number of firms including Deloitte, Salesforce and Henkel.

In 2014, it achieved the highest BREEAM rating ever for an office building.

Its ceilings feature approximately 28,000 sensors monitoring real-time CO₂, humidity, movement, temperature and lighting.

Heating and cooling are managed by an aquifer thermal energy storage system, which regulates temperature using hot and cold water stored in wells.

5. Shanghai Tower

Location: Shanghai, China

Owned by: Yeti Construction and Development

Floor count: 133

Construction completed: 2014

Shanghai Tower, Yeti Construction and Development

Shanghai Tower, one of just four finished ‘megatall’ skyscrapers, rises 632 metres and houses offices for firms such as JPMorgan, Alibaba and Allianz.

Designed by Gensler, its tiered structure enhances energy efficiency and divides the building into nine zones for office and retail purposes.

The tower’s double-layered façade lessens wind pressure, enabling a 25% reduction in structural steel compared to a standard skyscraper of the same height.

4. London City Hall

Location: London, England

Owned by: Greater London Authority

Floor count: 10

Construction completed: 2012

London City Hall, Greater London Authority

Formerly called The Crystal, London’s city hall was initially constructed and launched by Siemens to host a permanent sustainable architecture exhibition.

It became the world’s first building to achieve both an ‘Outstanding’ BREEAM rating and a LEED Platinum award.

The facility features ground source heat pumps, solar photovoltaic and thermal panels, a 60,000 litre rainwater tank and carpets crafted from recycled fishing nets.

3. Dharampal Satyapal Group (DS Group Headquarters)

Location: Delhi NCR (Noida), India​​​​​​​
Owned by: Dharampal Satyapal Limited​​​​​​​
Floor count: 5
​​​​​​​Construction completed: 2014

 

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The DS Group is a leading FMCG conglomerate and multi-business corporation. Its headquarters houses the Corporate Office, a dedicated R&D Centre and advanced manufacturing facilities for confectionery, flavours and fragrances and edible gold and silver embellishments.

In 2024, DSHQ achieved the prestigious LEED Platinum certification under the USGBC’s LEED v4 for Existing Buildings: Operations + Maintenance (O+M) programme, securing an exceptional 109 out of 110 credits.

This one-of-a-kind, state-of-the-art building is a benchmark in modern architecture and sustainable design, with lush outdoor landscapes covering 51% of the total area.

The campus is powered by one of the highest percentages of green energy and is also certified as LEED Zero Carbon by the USGBC, underlining the Group’s commitment to sustainability and environmental responsibility.

2. Taipei 101

Location: Taipei, Taiwan

Owned by: Taipei Financial Centre Corporation

Floor count: 101

Construction completed: 2003

Taipei 101, Taipei Financial Centre Corporation

Taipei 101 was the world’s first skyscraper to exceed half a kilometre in height and remains the eleventh tallest building globally.

It has received Platinum LEED certification in recognition of its energy efficiency and environmentally sustainable design.

The building uses recycled water for 20–30% of its total water requirements, which helps reduce the diversion of freshwater from sensitive ecosystems.

Additionally, Taipei 101 is equipped with double-glazed windows that block 50% of external heat.

This feature significantly lowers the energy consumption needed for air conditioning and temperature control in the hot climate.

These design elements contribute to the building’s overall sustainability and reduced environmental impact.

1. Olympic House

Location: Lausanne, Switzerland

Owned by: International Olympic Committee

Floor count: 5

Construction completed: 2019

 

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Developed by Danish architecture firm 3XN, Olympic House in Switzerland became home to the International Olympic Committee in 2019.

The building incorporates rigorous criteria in energy and water efficiency, while optimising the health and wellbeing of its users

“When we set out on this project to construct a new home, we wanted it to be more than just another office building,” says Thomas Bach, IOC President.

“We wanted Olympic House to incorporate the elements of sustainability, credibility and youth – the same three pillars of Olympic Agenda 2020.

“Olympic House takes sustainability to the next level. The building has been constructed according to the highest sustainability standards in every way.”

Mahesh Ramanujam, US Green Building Council President, said: “LEED buildings are about leadership, but when you try to attempt platinum you are going for extraordinary leadership, you are trying to define what’s possible.”