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Technology Can Plant Trees. It Cannot Grow Forests

Why the front-end efficiency of tree planting is masking a back-end crisis in forest survival

Tali Orad in 1treellion · 2026-06-02 10:31 · 0 claps · 3.5 min read paywalled
#forest #climate-change #nature #sustainability #systems-thinking
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Wiki topics: ESG · ESG & Sustainability 🌱 · Environment & Climate 🏔️ · Outdoor & Adventure

Technology Can Plant Trees. It Cannot Grow Forests

Why the front-end efficiency of tree planting is masking a back-end crisis in forest survival

We fund what we can see, but forests survive on what we don’t

We fund what we can see, but forests survive on what we don’t

There is a quiet assumption underneath much of modern restoration: that if we can improve the efficiency of planting, we can improve the outcome of forests.

It is an appealing idea. It fits the logic we use in almost every other domain. Better tools lead to better results. More speed, more precision, more scale.

And to be fair, the tools have improved. We can now map landscapes in detail, model planting strategies, and deploy seeds across areas that would have been inaccessible a decade ago. From a technical perspective, the front end of restoration has advanced quickly.

But forests are not failing at the front end.

They are failing in the years that follow, in ways that are much harder to see and far less convenient to measure.

The problem is not that we are using technology. It is that we are using it inside a system that was never designed to carry what comes after it.

The Transactional Trap

Most restoration today is structured around discrete actions. A project begins, funding is allocated, trees are planted, and a report is produced. The cycle has a clear start and a clear end. It behaves like a transaction.

This structure is not accidental. It is how capital moves. It is how success is verified. It is how accountability is maintained.

But a forest does not behave like a transaction.

It behaves like a system that has to remain coherent over time, under changing conditions, with no clear boundary between where the project ends and the ecosystem begins.

And this is where the mismatch sits.

When we introduce technology into restoration, it integrates seamlessly with the transactional part of the system. It makes planting faster, cheaper, and more scalable. It improves what the system already knows how to do.

But it does not extend the system’s capacity to deal with what happens next.

After planting, the variables that determine survival are not technical in the same sense. They are ecological, social, and institutional. Water availability, grazing pressure, land tenure, local incentives, and long-term maintenance. These are not inputs that can be optimized once. They are conditions that have to hold continuously.

And continuity is not something our current model is built to fund or measure.

This is why we can have increasingly sophisticated planting technologies alongside persistently fragile outcomes. The two are not in conflict. They are operating in different parts of the system.

One is being optimized. The other is largely left to chance.

There is a tendency to frame this as a limitation of nature, as if forests are simply too complex to manage directly. But that framing misses the point.

The issue is not complexity. It is alignment.

We are trying to produce long-term ecological outcomes using short-term structures. We are evaluating success within timeframes that end before the system has been meaningfully tested. We are rewarding visibility at the moment of action, rather than stability over time.

Beyond Carbon: The Thermodynamics of Survival

Measuring the 24 meters above ground and neglecting the infinite systems below

Measuring the 24 meters above ground and neglecting the infinite systems below

A study published in Science (DOI: 10.1126/science.adz8554) illustrates part of what is at stake. Forests regulate climate not only through carbon storage, but through water and energy dynamics that influence temperature directly. In some regions, these biophysical effects rival or exceed the impact of carbon.

But these functions do not appear because trees were planted. They emerge if the forest persists long enough to operate as a system.

Which brings us back to the original assumption.

If the outcome we care about depends on persistence, then improving the efficiency of the initial action is only a partial solution. It addresses the part of the process that is easiest to control, while leaving the part that determines success largely unchanged.

This is not a failure of technology. It is a reflection of where we have chosen to focus.

The Accountability Gap

The harder question is not how to plant more trees, or even how to plant them better.

It is whether we are willing to redesign the system around what happens after planting.

That would mean extending accountability beyond the moment of action. It would mean funding timelines that match ecological timelines. It would mean measuring success at the point where failure is actually visible, not where it is still avoidable.

The cost of funding the canopy instead of the foundation

The cost of funding the canopy instead of the foundation

None of these are technical constraints.

They are structural ones.

And until they shift, technology will continue to improve the part of restoration that already works, while leaving the part that determines whether forests actually grow largely unresolved.


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