Climate Change Predictions for the Next 10 Years: What to Expect by 2036

Climate change is no longer something scientists expect to happen in a distant future. We are already living through it.

Record-breaking temperatures, longer heatwaves, severe floods, droughts, wildfires and unusually warm oceans have become increasingly familiar headlines. At the same time, technologies that once sounded futuristic — artificial intelligence, large-scale battery storage, smart electricity grids and carbon removal — are becoming part of the global response.

So, after everything that has happened during the past decade, what could the next 10 years look like?

Based on current climate trends, the period from 2026 to 2036 is likely to bring further warming and more pressure from extreme weather. But there is another side to the story: technology is advancing rapidly, and clean energy is being deployed at an unprecedented scale.

The next decade therefore won’t simply be a story about how much the planet warms. It will also be about how quickly societies can adapt and how effectively technology can reduce future emissions.

What Has Changed in the Climate Over the Last 10 Years?

To understand where we may be going, it helps to look at where we have just been.

According to the World Meteorological Organization, the years from 2015 through 2025 were the 11 warmest years ever recorded.

Even 2025, which experienced some cooling influence from La Niña, remained one of the three hottest years in the observational record.

The global average surface temperature in 2025 was approximately 1.44°C above the average of the pre-industrial period from 1850 to 1900.

That doesn’t mean every location on Earth has warmed by exactly 1.44°C. Climate change affects regions differently. Some places are warming faster, while individual years and seasons still experience natural variations.

But the long-term global direction is unmistakable.

Oceans are storing enormous amounts of heat

The atmosphere gets most of the attention when people talk about global warming, but the oceans are absorbing much of the excess energy trapped by greenhouse gases.

Ocean warming contributes to several major problems:

• marine heatwaves
• coral bleaching
• changing fish populations
• melting ice
• thermal expansion of seawater
• rising sea levels
• potentially stronger rainfall and storms under certain conditions

Because oceans respond slowly, some climate changes can continue for decades even after emissions begin falling.

Extreme Weather Is Becoming a Bigger Economic Issue

Climate change isn’t just about average temperature.

One of its most important consequences is the way additional heat can influence weather extremes.

Depending on the region, communities may increasingly face combinations of:

• dangerous heatwaves
• intense rainfall
• flash flooding
• prolonged drought
• wildfire conditions
• coastal flooding
• water shortages
• agricultural disruption

This is important because a relatively small change in global average temperature can produce much larger changes in extreme conditions.

A city designed around historic summer temperatures, for example, may struggle when exceptionally hot days become much more common.

Infrastructure designed for rainfall patterns from 30 or 50 years ago may also become inadequate when extreme rainfall becomes more intense.

And this brings us to the big question.

What Will Climate Change Look Like Over the Next 10 Years?

No scientist can predict the exact weather of 2036 today.

Climate projections don’t work that way.

Instead, researchers calculate probabilities and long-term trends based on greenhouse gas concentrations, climate models, natural variability and different emissions scenarios.

What those projections broadly suggest is that the next decade will remain warmer than previous decades, with several climate-related risks continuing to increase.

1. Global temperatures will probably remain very high

The warming trend is unlikely to suddenly reverse.

Individual years can still be cooler or hotter because of phenomena such as El Niño, La Niña, volcanic activity and natural variability.

But those fluctuations take place on top of a warmer baseline.

That means a relatively “cool” year in the 2030s could still be much warmer than typical years experienced several decades earlier.

The distinction between temporary temperature fluctuations and the long-term warming trend is crucial.

2. The 1.5°C Threshold Will Remain a Major Climate Issue

You have probably heard about the goal of limiting global warming to 1.5°C.

It is important to understand what this means.

A single year above 1.5°C does not by itself mean the Paris Agreement’s long-term temperature goal has permanently been exceeded. Climate targets are generally discussed in terms of longer-term averages.

However, years approaching or exceeding that level are a serious warning.

The more greenhouse gases humanity releases, the more difficult it becomes to stabilize temperatures near internationally agreed climate goals.

Current global commitments are still insufficient.

UN Environment Programme projections published in 2025 estimated that full implementation of current national climate commitments would put the world on a trajectory of roughly 2.3°C to 2.5°C of warming during this century.

That is better than some previous projections — but still far from a low-risk scenario.

3. Heatwaves Could Become an Even Bigger Problem

One of the most noticeable effects of global warming during the next decade is likely to be extreme heat.

Hot weather that was once considered unusually rare can become more frequent as average temperatures rise.

This matters for much more than personal comfort.

Extreme heat affects:

• human health
• electricity demand
• agricultural production
• labor productivity
• transportation
• infrastructure
• water resources

Cities face an additional challenge known as the urban heat island effect.

Concrete, asphalt and buildings absorb heat during the day and release it slowly, meaning densely populated urban areas can remain dangerously warm even at night.

Expect heat adaptation to become a much larger part of city planning during the next decade.

4. Water Could Become One of the Defining Climate Issues

Climate change has an unusual relationship with water.

Some regions may experience too little of it.

Others may receive far too much at once.

Higher temperatures increase evaporation, while warmer air can hold more moisture. These processes can contribute to more severe drought conditions in some locations and heavier precipitation events in others.

The next decade could therefore see greater investment in technologies such as:

• water recycling
• smart irrigation
• leak detection
• desalination
• rainwater capture
• precision agriculture
• improved flood management

Water management may become just as important as energy management in climate adaptation strategies.

5. Sea Levels Will Continue to Rise

Sea-level rise isn’t expected to stop during the next 10 years.

Warmer seawater expands, while melting glaciers and ice sheets add additional water to the oceans.

For most people, the biggest immediate concern won’t necessarily be dramatic changes in coastlines within a single decade.

Instead, higher sea levels gradually increase the baseline from which storm surges and coastal flooding occur.

That means a storm that caused moderate flooding decades ago could create considerably more damage when combined with higher sea levels.

Cities are already responding with flood barriers, restored wetlands, improved drainage systems and climate-resilient infrastructure.

Technology Could Change the Climate Story

If climate trends seem worrying, there is an important difference between the coming decade and previous ones.

We now possess technologies capable of replacing substantial amounts of fossil-fuel consumption.

And those technologies are improving quickly.

According to the International Energy Agency, the deployment of solar power, wind energy, nuclear power, electric vehicles and heat pumps between 2019 and 2024 was already preventing approximately 2.6 billion tonnes of CO₂ emissions annually.

Without these technologies, the increase in energy-related global CO₂ emissions during that period would have been around three times larger.

Technology therefore isn’t merely a future possibility.

It’s already changing the emissions trajectory.

Solar Energy Will Continue to Become More Important

Solar power is one of the clearest examples of how quickly energy technology can evolve.

Solar photovoltaic systems have become dramatically cheaper over the past few decades, while manufacturing and installation capacity have expanded around the world.

In 2025, solar PV supplied more than a quarter of the increase in global primary energy demand — the first time a modern renewable source represented the largest contribution to global energy demand growth.

The next major challenge isn’t simply installing more solar panels.

It is integrating enormous amounts of variable renewable electricity into power grids.

That’s where another technology becomes essential.

Battery Storage Could Transform Renewable Energy

Solar panels produce electricity during daylight hours.

Wind turbines generate electricity when the wind is blowing.

But consumers expect electricity whenever they need it.

Large-scale batteries can help close that gap.

Over the next decade, energy storage systems are likely to become increasingly common at:

• homes
• businesses
• factories
• solar farms
• wind farms
• electricity substations

Storage allows renewable electricity generated during periods of high production to be used later.

Combined with smarter grids, batteries could allow electricity systems to support much higher percentages of renewable energy.

Artificial Intelligence Could Become a Powerful Climate Tool

Artificial intelligence often receives attention because of chatbots and automation, but some of its most interesting applications may involve climate and energy.

AI can analyze enormous datasets far more quickly than humans.

Potential climate applications include:

Better weather forecasting

Machine-learning systems can complement traditional forecasting models and potentially provide faster predictions of certain weather patterns.

Earlier and more accurate warnings can give governments and communities additional time to prepare for floods, storms and extreme temperatures.

Smarter electricity grids

AI can predict electricity demand and renewable-energy production.

Imagine a system simultaneously analyzing:

• tomorrow’s weather
• expected solar generation
• wind conditions
• electricity prices
• battery charge levels
• EV charging
• industrial consumption

Software can then decide when electricity should be stored, consumed or redirected.

The grid essentially becomes more intelligent.

Precision agriculture

AI combined with satellites, drones and sensors can help farmers determine when crops actually need water, fertilizer or pest treatment.

Instead of irrigating an entire field equally, systems can target areas that need water.

That can reduce resource consumption while protecting yields.

Electric Vehicles Will Affect More Than Transportation

The transition from combustion engines to electric vehicles is another important part of the climate technology story.

But millions of EVs could eventually provide more than transportation.

An electric vehicle contains a substantial battery.

Vehicle-to-grid technology could allow some EVs to temporarily send electricity back into buildings or power grids when necessary.

Imagine millions of parked electric cars collectively functioning as a distributed energy-storage network.

This technology is still developing, but over the next decade it could become an important component of smarter electricity systems.

Buildings Will Become Smarter and More Efficient

Buildings account for a significant amount of global energy demand.

Technology can reduce that consumption considerably.

Expect growing adoption of:

• heat pumps
• smart thermostats
• automated blinds
• high-performance insulation
• intelligent ventilation
• rooftop solar
• home batteries
• energy-management software

A future home may constantly monitor weather forecasts, electricity prices, solar production and battery capacity.

Instead of simply consuming electricity, the building could determine the cheapest and cleanest time to heat rooms, charge an EV or run appliances.

Carbon Capture and Removal Will Probably Grow — But It Isn’t a Magic Solution

Another rapidly developing area is carbon management.

Carbon capture technologies attempt to prevent CO₂ from entering the atmosphere from industrial facilities.

Carbon-removal technologies attempt to remove CO₂ that is already in the atmosphere.

Examples include:

• direct air capture
• bioenergy with carbon capture
• enhanced mineralization
• improved soil carbon storage
• ecosystem restoration

These technologies may become important, particularly for industries where eliminating emissions is extremely difficult.

But they shouldn’t be seen as permission to continue unlimited fossil-fuel consumption.

Capturing carbon is generally more complicated and expensive than avoiding emissions in the first place.

Satellites Will Help Us Understand the Planet in Real Time

Climate monitoring itself is undergoing a technological revolution.

Modern satellites can monitor:

• atmospheric gases
• forest loss
• wildfires
• ice coverage
• ocean temperatures
• drought conditions
• methane emissions
• agricultural health

Combined with AI, this information can identify problems much earlier than traditional monitoring systems.

A methane leak at an oil or gas facility, for example, may increasingly be detectable from space.

That creates a new level of transparency.

Governments and companies will find it progressively harder to treat emissions as something invisible.

Technology Alone Won’t Solve Climate Change

This may be the most important point.

We don’t lack technology.

We already have many technologies capable of dramatically reducing emissions.

The harder challenge is deploying them quickly enough.

Technology interacts with economics, politics, infrastructure, public acceptance and regulation.

A highly efficient solar panel doesn’t reduce emissions while sitting inside a factory.

An electric vehicle doesn’t decarbonize transportation if the electricity powering it comes entirely from high-emission sources.

A smart electricity grid doesn’t help if countries don’t invest in building it.

Technological progress therefore needs to be accompanied by infrastructure, investment and effective public policy.

So, Should We Be Optimistic or Worried About 2036?

Probably both.

The climate evidence provides plenty of reasons for concern.

The last decade has been extraordinarily warm. Oceans continue to accumulate heat. Glaciers continue to lose ice. Extreme weather is producing enormous economic and humanitarian consequences.

And current climate commitments remain insufficient to meet the most ambitious international climate goals.

But there is another trend happening simultaneously.

Clean technology is advancing faster than many people expected.

Solar electricity is expanding rapidly.

Battery storage is improving.

Electric vehicles are becoming mainstream in many markets.

Artificial intelligence is beginning to transform energy management and climate forecasting.

Satellites are giving us unprecedented information about the planet.

Heat pumps can replace fossil-fuel heating.

And smarter electricity networks can connect all of these technologies together.

The Next 10 Years Could Be More Important Than the Previous 10

Nobody can describe exactly what Earth will look like in 2036.

There will be unexpected events, technological breakthroughs, political changes and natural climate variations along the way.

But one thing is increasingly clear.

The choices made during the next decade will influence the climate for much longer than 10 years.

Climate technology isn’t about creating a futuristic world where machines magically repair the planet.

It’s about something more practical.

Producing electricity without burning fuel.

Using energy more efficiently.

Predicting dangerous weather earlier.

Growing food with less water.

Designing cities capable of handling hotter temperatures.

Reducing emissions from transportation and industry.

And understanding Earth’s changing climate quickly enough to respond.

The climate of 2036 will partly reflect decisions already made during previous decades.

But it will also reflect the decisions being made right now.

The technology exists to change part of that trajectory.

The real question for the next 10 years isn’t simply whether technology can help fight climate change.

It is whether we can deploy it fast enough to make the difference that science says is still possible.