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Daily Forecast

Moist onshore winds are bringing showers and storms to northeast NSW and Qld's east. Tropical moisture feeding into a front to the south is generating patchy rain and some storms over WA and SA's west. High pressure clears wind and showers from southwest WA.

Now

Min

Max

Clearing ShowerSydneyNSW

18.1°C

16°C
24°C

Mostly CloudyMelbourneVIC

16.9°C

13°C
24°C

Showers IncreasingBrisbaneQLD

18.6°C

16°C
25°C

Showers EasingPerthWA

17.9°C

13°C
21°C

Mostly CloudyAdelaideSA

21.2°C

17°C
27°C

Fog Then SunnyCanberraACT

10.0°C

2°C
21°C

Mostly CloudyHobartTAS

21.0°C

12°C
25°C

Mostly SunnyDarwinNT

28.1°C

24°C
33°C

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Low Temperature

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Records data is supplied by the Bureau of Meteorology and has not been independently quality controlled.

Latest News


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Today, 5:00AM UTC

Contrails – what are they and why did they appear over Bass Strait today?

At 8:00 am on Friday morning, a smattering of high clouds could be seen passing over Bass Strait and southern Victoria. By 8:30 am, just half an hour later, a thin line of cloud had suddenly appeared, stretching 200 km across the sky to the southeast of Lorne. The peculiar cloud was captured in visible satellite images, appearing as a pencil-thin line of white cloud that was clearly distinguishable from the more ragged cloud formations around it. Image: Satellite images showing a contrail appearing over Bass Strait on Friday, April 24, 2026. Source: Weatherzone. The cloud was one of several contrails that formed over the Bass Strait region on Friday morning. What is a contrail? Contrails refer to clouds that form in the wake of aeroplanes. As the name suggests, these clouds are produced by condensation in the wake of an aeroplane, making a visible condensation trail, or contrail. Condensation in the atmosphere refers to the process where water vapour (a gas) condenses into water droplets (a liquid). This usually happens when the air is cooled until it becomes saturated and can’t hold any more water vapour. Aeroplane engines emit relatively warm and humid air into a very cold layer of the atmosphere when they cruise along at high altitude. This jet engine exhaust is made up of about 30% water vapour. As this warm and humid air exits the jet engine, it quickly cools and mixes into the atmosphere in the jet’s turbulent wake. This rapidly cooling air becomes saturated, causing condensation to occur. The water droplets then quickly freeze into ice crystals. Image: Contrails over northern Florida on the morning of January 9, 2004. Source: NASA Worldview / Terra. Particulate matter emitted by the jet engines also acts as cloud condensation nuclei, providing a surface for the water vapour to condense onto. This particulate matter helps initiate the condensation process, making it easier for contrails to form. What caused the contrails over Bass Strait on Friday? Conditions were ideal for contrails to form above southern Vic and Bass Strait on Friday morning. A layer of upper-level moisture sitting about 9 to 12 km above the ground meant that the air was already close to being saturated. The temperature of this layer was also around -40 to -60°C. When planes flew through this layer of air on Friday morning, their jet engine exhaust easily caused condensation and produced contrails. Are contrails dangerous? Contrails are like naturally occurring clouds and pose no direct health risk to humans. However, contrails are influencing climate change. The cirrus clouds caused by contrails affect how much of the Sun’s radiation enters and exits Earth’s atmosphere. By adding more high-level clouds to Earth’s atmosphere, contrails help trap outgoing longwave radiation, which enhances warming in the atmosphere. This is still an active area of research as scientists try to figure out how much the cirrus clouds caused by contrails will influence climate change in the future.

Today, 1:07AM UTC

Foggy Friday in valleys of Victoria, southeastern NSW

Autumn is the start of the foggiest time of the year in many parts of Australia, and valley fogs can be clearly seen on satellite imagery this Friday morning in parts of Victoria and southern New South Wales. The two-hour satellite loop below illustrates the valley fog effect well, with higher level cloud rushing around in varying directions while the low-lying valley fog stoically refuses to budge. Image: Two-hour satellite loop for eastern Victoria and southeastern NSW on the morning of Friday April 24, 2026. Source: Weatherzone. The Friday morning fog reduced visibility to around 100 metres at Albury Airport and several nearby smaller airports around 8am, while visibility at Canberra Airport was down to 200m around 6:30am. How does fog form and why is it more common in valleys? Fog is essentially just cloud that forms at or near ground level, most commonly in conditions of high humidity, clear skies and light winds. When the air temperature cools to its dew point (the point at which air is fully saturated), water vapour condenses into tiny, suspended water droplets. This is cloud, or fog at ground level. Moisture from local rivers or dams can help fog form by increasing localised humidity and allowing air to reach the dew point. That’s why you’ll often see a "crinkly" pattern on satellite imagery like we’ve got this Friday morning, where fog has clearly formed in river valleys. Fog in river valleys also tends to stick around longer on still mornings, because the local topography traps the layer of cool air that sank to the valley floor during the night. Image: Fog at 8:30am on Friday, April 24, 2026, in eastern Victoria and southeastern NSW. Source: Weatherzone. Does more foggy weather lie ahead? The current run of cool, calm, clear nights being experienced across inland parts of southeastern Australia are ideal conditions for fog to form, which is why further foggy mornings can be expected over the weekend. Canberra could well have a very foggy Anzac Day dawn service on Saturday, as could many other inland locations. READ MORE: Anzac Day weather for the Australian capital cities

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23 Apr 2026, 3:30AM UTC

What does a 'super El Niño' mean for Australia’s weather?

There are signs that a very strong, or ‘super’ El Niño could develop in the tropical Pacific Ocean later this year. So, what does this mean for Australia's weather during the second half of 2026? El Niño on the horizon The tropical Pacific Ocean is currently in a neutral state, meaning neither El Niño nor La Niña are occurring. However, there are strong indications that El Niño will emerge as we head into the Southern Hemisphere’s winter. The first indicator of the looming El Niño is a large pool of abnormally warm water sitting beneath the surface of the tropical Pacific Ocean. El Niño occurs when sea surface temperatures in the central equatorial Pacific Ocean – an area called the Niño 3.4 region – become warmer than average. The Bureau of Meteorology’s threshold for El Niño is at or above 0.8°C warmer than average in the Niño 3.4 region, while some other countries, including the United States, use a lower threshold of 0.5°C above average. While ocean surface temperatures in the Niño 3.4 region are currently near average for this time of year, there is a large slab of unusually warm water sitting around 50 to 250 metres below the surface. These above-average sub-surface temperatures have strengthened in the last couple of months, with anomalies exceeding 6°C in some areas. It’s possible that these warm sub-surface waters will upwell towards the surface in the coming weeks and months, which could kick off El Niño. Image: Sub-surface temperature anomalies in the equatorial Pacific Ocean from early March to early April, 2026. The red shading inside the green box shows abnormally warm water lying beneath the surface of the tropical Pacific Ocean. Source: Bureau of Meteorology. A second sign that El Niño is about to emerge is overwhelming agreement between global forecast models. At this time of year, we typically see a lot of uncertainty in forecasts for El Niño and La Niña due to a phenomenon called the autumn predictability barrier in the Southern Hemisphere (spring predictability barrier in the Northern Hemisphere). However, there is strong model consensus that El Niño will develop in the next few months. Some models also predict that the imminent El Niño will become a very strong event – what is sometimes referred to as a ‘super El Niño’ – meaning sea surface temperatures in the Niño 3.4 region will reach 2.0°C above average or higher. According to the National Oceanic and Atmospheric Administration Climate Prediction Centre’s latest forecast, there is roughly a 25% chance of a very strong El Niño occurring towards the end of this year. Image: El Niño forecast plume from the ECMWF SEAS5 model. Each red line represents a forecast from one of 51 different ensemble members from the same model. Each member uses slightly different initial ocean conditions as the basis for its forecast, which helps account for a range of possible scenarios in the forecast. Note that all ensemble members from this model are predicting El Niño conditions from May and most are suggesting a very strong, or ‘super’ El Niño later in the year. Source: ECMWF (annotated by Weatherzone). What does El Niño mean for Australia? El Niño does not guarantee any kind of weather for Australia. However, it does make some types of weather more likely than others, particularly during winter and spring. The maps below show the observed changes to rainfall and maximum temperature from past El Niño events. These maps show conditions averaged out across multiple 9 or 10 El Niño years, representing the general impact of El Niño on daytime temperatures and rainfall. Image: Observed rainfall deciles for the July to September period during 10 El Niño events from 1905 to 2015. The red shading shows where rainfall is below average. Source: Bureau of Meteorology. Image: Observed maximum deciles for the August to October period during nine El Niño events from 1914 to 2015. The orange and yellow shading shows where maximum temperatures are above average while blue is below average. Source: Bureau of Meteorology. In general, El Niño typically causes: Below average rainfall over large areas of Australia during winter and spring. However, its influence on rainfall is usually weaker in summer and autumn. Above average maximum temperatures for most areas outside the tropics, particularly during the second half of the year. In the tropics, El Niño typically reduces maximum temperatures in the dry season and makes days warmer in the wet season. Enhanced evaporation due to above average temperatures and below average rain, which can cause of enhance drought. More intense daily heat extremes in southern Australia, but with a reduced frequency of prolonged heatwaves. Increased frost risk in winter and spring due to enhanced radiative cooling with clearer skies. Increased risk of dangerous fire days in southeastern Australia as temperatures rise in spring and summer. Decreased seasonal peak alpine snow depths and a shorter snow season. The strength of El Niño can also affect how it influences Australia's weather. Stronger El Niño events make it more likely that the impacts mentioned above will occur. However, it is important to point out that stronger events do not always mean bigger weather impacts and even a weak El Niño can cause significant weather and climate impacts in Australia. It’s also worth noting that no two El Niño events are the same and other external influences, such as regional ocean temperatures near Australia, and other climate drivers, such as the Indian Ocean Dipole (IOD), will likely affect how El Niño impacts Australia in the coming months.

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