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Andy Paterson • April 1st, 2026.
By the time a forecast is certain, it’s usually too late to act on it.
Most producers, procurement teams, and operators have access to increasingly accurate AI-driven weather data. But they struggle to know when to act on it and whether they should act at all.
Act too early, when confidence is low, and it could be a wasted investment. Wait too long, and the window to act may be gone, resulting in yield loss. But acting when a weather event hits a pre-determined probabilistic threshold makes decision-making easier and more accurate.
Here’s how to make better decisions, earlier, using probabilistic forecasts
There will never be a 100% correct forecast. Weather is inherently unpredictable, and accuracy decreases the further out the time horizon. This uncertainty should be treated as a factor in decision-making.
Probabilistic forecasts comprising multiple scenarios help factor in this uncertainty, providing a much more decision-useful output than a single binary prediction. It helps business decision-makers assess the likelihood of an event and whether to act now or wait until things become clearer.
This results in:
Knowing when to take action and when to hold off can be the difference between a profitable yield and wasting hundreds of thousands on remediation or mitigation. This cost-versus-risk equation is made easier by probabilities.
Companies should act when the probability of an event makes the cost of inaction greater than the cost of action. For example,
Probabilistic forecasts allow teams to quantify the tradeoff between the cost of action and inaction using a simple decision model:
Expected Value of Acting = (Probability of Event × Potential Loss) − Cost of Action
In other words, you compare the expected loss avoided against the cost of taking action.
Consider a producer deciding whether to harvest early to avoid a potential frost:
At 10% probability:
Expected Value = (0.10 × 100,000) − 20,000
Expected Value = 10,000 − 20,000 = –$10,000
Not worth acting, the cost is higher than the potential for loss.
At 40% probability:
Expected Value = (0.40 × 100,000) − 20,000
Expected Value = 40,000 − 20,000 = +$20,000
Worth taking action and harvesting earlier as the expected benefit outweighs the cost.
While confidence increases over time, the value of making the decision decreases as you get closer to the event. This tradeoff is central to every weather-driven business decision.
Make a decision too far out, and it could be inaccurate. Wait till the confidence level is high, and it could be too late.
| Time Horizon | Confidence | Ability to Act |
|---|---|---|
| 6 months | Low | High |
| 2 weeks | High | Limited |
When to take action depends on the type of weather being forecast, its potential impact, the time of the growing year, and the probability of it occurring.
Whereas the frost damage example above is a little more binary, with frost damage bringing significant potential for losses and either being present or not. Droughts, unpredictable rain, and floods vary in severity and impact along a gradient.
So a producer or food and beverage company may have different probability thresholds across different phenological stages of their crop. For example, a decision matrix for drought during the planting phase of a crop could have different decisions for each probability threshold, for example:
Different decisions require different thresholds. Low-cost, reversible actions may be triggered at lower probabilities, while high-cost or irreversible decisions require higher confidence. In one case, a ClimateAi procurement client used probabilistic climate signals to anticipate a supply disruption and purchase inventory several days before the market reacted.
Most companies still:
Whereas leaders across the agricultural value chain are using probability forecasting to:
Weather data has never been more accessible. The competitive advantage now comes from having better decision-making around that data.
The companies making the best decisions aren’t waiting for certainty. They’re acting earlier, based on probability, while others are still reacting. With probabilistic ranges, producers can decide when the best time to act is, based on the cost of inaction relative to the cost of action.
See how ClimateAi helps teams turn probabilistic forecasts into ROI-driven decisions—identifying where to act, when to act, and what it’s worth.
👉 Book a demo to quantify your climate risk and decision thresholds.
A probabilistic forecast shows the likelihood of different outcomes rather than predicting a single scenario. For example, a 70% chance of extreme heat means that similar conditions led to extreme heat 70% of the time.
Yes—when used correctly. The goal isn’t perfect accuracy, but better decision-making. Businesses use probability thresholds and cost–loss analysis to determine when to act.
You act when the probability of an event exceeds your cost-to-loss ratio. In simple terms, if the expected loss is greater than the cost of acting, it makes sense to take action.
Because accuracy improves as events get closer, but by then, it may be too late to act. The value of a forecast comes from lead time, not just precision.
Industries like agriculture, food and beverage, energy, insurance, and supply chain management rely heavily on probabilistic forecasts to manage risk and optimize operations.
Companies set predefined probability thresholds (e.g., 70%, 80%, 90%) for different actions, such as adjusting sourcing, changing production schedules, taking adaptation measures, or hedging supply, and act when forecasts cross those thresholds.

Andy Paterson is a content creator and strategist at ClimateAi. Before joining the team, he was a content leader at various climate and sustainability start-ups and enterprises.
Andy has held writing, content strategy, and editing roles at BCG, Persefoni, and Good.Lab. He has helped build one of the industry’s most popular newsletters and regularly publishes environmental science articles with Research Publishing.