Kebun Kaki Bukit

Kebun Kaki Bukit Kebun Kaki Bukit
"Natural and Sustainable Agriculture" From small farm experiments to large-scale plantation application.

Kebun Kaki Bukit | Since 2013

A regenerative agriculture platform focused on turning waste into resources and building living soil systems.

WHEN DID WE STOP ASKING WHY?Sometimes I wonder whether agriculture became so modern that somewhere along the way, we for...
16/08/2026

WHEN DID WE STOP ASKING WHY?

Sometimes I wonder whether agriculture became so modern that somewhere along the way, we forgot something very basic.

Go back far enough.

Before fertiliser factories.
Before herbicides.
Before fungicides.
Before foliar programmes.
Before soil conditioners.
Before consultants and laboratories.

Plants were already growing.

Forests didn't receive bags of NPK.

Nobody corrected a yellow leaf.

Nobody sprayed micronutrients.

Leaves fell.

They decomposed.

Nutrients returned to the soil.

Fungi, bacteria, insects and animals played their roles.

Roots searched through the ground.

Water moved through the landscape.

Plants died and new plants grew.

Nature was never perfect. There were droughts, floods, pests and diseases.

But somehow,

the system kept going.

Then humans learnt agriculture.

And we became very good at it.

We selected better plants.

We bred for higher yields.

We learnt to control water.

We supplied nutrients.

We controlled weeds.

We controlled pests and diseases.

Then came machinery, chemistry, genetics, sensors, drones and all kinds of modern technology.

Agriculture became incredibly productive.

That is progress.

But somewhere along this journey, I wonder whether our thinking slowly changed.

Perhaps we started with:

“How does this system work?”

Then moved towards:

“What can we add to make it produce more?”

And eventually, very often:

“What product can solve this problem?”

A leaf turns yellow.

Apply something.

A frond dries.

Apply something.

Disease appears.

Apply something.

Yield falls.

Look for another solution.

And quite often those solutions work.

So naturally, we continue.

Then another problem appears.

Another solution arrives.

Then another.

And another.

Until today agriculture is surrounded by an enormous industry of solutions:

fertilisers, herbicides, fungicides, pesticides, micronutrients, biostimulants, microbial products, soil conditioners, foliar products, special blends and new formulations.

Many are useful.

Some are excellent.

I am certainly not against them.

But perhaps we should occasionally stop and ask:

Why do we need so many solutions in the first place?

And there is another uncomfortable question worth asking.

Who carries the greatest risk?

The farmer or plantation owner carries the land.

The development cost.

The roads and drains.

The machinery.

The workers.

The weather.

The disease.

The crop failure.

The labour shortage.

The commodity price.

And for perennial crops, years of waiting before knowing whether many of our decisions were correct.

Then we purchase a product to solve a problem.

The product arrives.

The invoice is paid.

If it works, fantastic.

But if it doesn't perform as expected under our particular conditions?

Maybe the dosage needs changing.

Maybe the timing was wrong.

Maybe another formulation is needed.

Maybe another product should be added.

Maybe another supplier has a better design.

And we try again.

Who carries the cost of that experiment?

Usually, the grower.

That doesn't make suppliers bad.

They are businesses. Businesses have to make money.

But there is a difference worth understanding:

**A supplier's business grows by selling products.

A grower's business improves by producing more with less unnecessary cost and less risk.**

Those interests can work together.

But they are not automatically the same.

And recently, something in the field brought this whole question back to me.

I was looking at oil palms with fronds showing deterioration and desiccation.

One explanation given was water-table instability.

Maybe.

Water certainly matters.

But then I started looking around more carefully.

I saw other palms with strong green new growth.

I saw healthy crowns.

I saw productive palms carrying good bunches.

I also saw otherwise healthy palms naturally carrying some old drying fronds.

And suddenly the question became more interesting.

Because perhaps:

**A dry frond is not the answer.

It is the evidence that something happened.**

The same applies to a yellow leaf.

Or a nutrient deficiency.

Or poor bunch production.

These things tell us what we can see at the end of the process.

But what happened before that?

What happened at the roots?

What happened in the soil?

Was there enough oxygen?

What was happening with water?

Were the nutrients actually available?

Could the roots reach and absorb them?

What was happening biologically?

Was the palm simply ageing an old frond normally, or was it losing productive fronds prematurely?

Those are very different questions.

And this is where one thought keeps coming back to me:

Instead of spending all our time studying the sick palm, why don't we study the healthy palm?

The palm surviving conditions under which another is struggling may contain more useful information than the struggling palm itself.

Maybe that healthy palm is telling us:

“Something here is working.”

So why not investigate it?

Dig around it.

Look at the roots.

Look at the soil.

Look at the biology.

Look at the water.

Look at its history.

Then compare it with the struggling palm.

Maybe the answer is nutrients.

Maybe water.

Maybe roots.

Maybe soil structure.

Maybe biology.

Maybe disease.

Maybe several things interacting together.

I don't know yet.

And that's precisely the point.

Don't assume. Investigate.

For many years, farming has also carried an unfortunate stigma.

"Cannot study? Go farming lah."

As though farming doesn't require much thinking.

Yet a farmer has to deal with biology, soil, weather, water, diseases, machinery, labour, finance and markets — often at the same time.

And unlike many businesses, he controls very few of them.

Perhaps agriculture never needed less thinking.

Perhaps agriculture needs more people willing to keep asking WHY.

Not simply:

What deficiency is this?

But:

Why is it deficient?

Not simply:

What product should I apply?

But:

Why does the plant need me to apply it?

Not simply:

What caused this symptom?

But:

What happened before the symptom appeared?

We have become very good at fixing problems.

Perhaps sometimes too good at compensating for them.

And compensation is not always the same as fixing the foundation.

That doesn't mean abandoning fertilisers.

It doesn't mean abandoning chemicals.

It doesn't mean rejecting genetics, machinery, science or technology.

Quite the opposite.

Before we keep adding another solution, understand how the original system was able to function in the first place.

Then use modern knowledge to strengthen those fundamental processes rather than continuously compensating for their deterioration.

Use chemistry.

Use microbiology.

Use soil and leaf analysis.

Use sensors.

Use drones.

Use genetics.

Use AI.

Use whatever works.

But use those tools to help us understand the system, not simply to give us another thing to apply whenever something goes wrong.

Maybe healthier soil creates stronger roots.

Maybe stronger roots create a more resilient palm.

Maybe a resilient palm handles water and nutrient stresses better.

Maybe it needs fewer corrective interventions.

Maybe fewer unnecessary interventions mean lower cost.

And maybe more of the value created by agriculture then remains with the people actually carrying the risk of producing the crop.

That isn't agriculture going backwards.

That may be agriculture finally moving forward.

For generations we have asked:

“What else can we give the plant?”

Perhaps we should also start asking:

“Why has the plant become so dependent on us giving it so much?”

And when one palm struggles while another thrives, perhaps our first reaction shouldn't always be:

“What should we apply?”

Maybe occasionally we should walk over to the healthy palm and ask:

“What are YOU doing right?”

Then dig.

Observe.

Compare.

Measure.

Question.

And follow the evidence.

Because the answer may not always be waiting inside the next bag, bottle or formulation.

It may have been underneath our feet all along.

Take care of the foundation.
Everything above it depends on what happens below it.

PERHAPS ESG DOES NOT BEGIN IN A BOARDROOM. PERHAPS IT BEGINS HERE.(Swipe through the photos.)A pile of EFB and decanter ...
12/08/2026

PERHAPS ESG DOES NOT BEGIN IN A BOARDROOM. PERHAPS IT BEGINS HERE.

(Swipe through the photos.)

A pile of EFB and decanter cake.

Black Soldier Fly Larvae (BSFL) feeding beneath the surface.

Volvariella mushrooms emerging from decomposing biomass.

At first glance, they may seem unrelated.

But to me, they represent something much bigger.

They represent the future of plantation management.

When people talk about ESG today, we often think of reports, audits, PowerPoint presentations, ratings and certifications.

Those things certainly have their place.

But perhaps we've forgotten where ESG truly begins.

Not in a boardroom.

Not on a slide deck.

But on the ground.

A thought came to me.

Imagine a plantation where the palms are healthy, yields are consistently good and operations are no longer consumed by daily firefighting.

Instead of spending every day reacting to poor yields, nutrient deficiencies, Ganoderma concerns or operational issues, management finally gains something incredibly valuable.

Time.

Time to innovate.

Time to experiment.

Time to ask a different question.

What else can this plantation become?

An oil palm plantation produces far more than FFB.

It also produces EFB.

Decanter cake.

Palm fronds.

Organic residues.

Rainwater.

Sunlight.

Open spaces.

Even discarded plastics.

Most of us see these as waste streams.

But what if we started seeing them as resource streams instead?

Imagine connecting them into one integrated system.

🌱 EFB and decanter cake support Volvariella cultivation, BSFL production, composting and biochar.

🐛 BSFL convert organic residues into valuable insect protein and nutrient-rich frass.

🐟 That protein supplements fish feed.

🐔 Or poultry feed.

🌾 Poultry manure, pond sludge, BSFL frass and spent mushroom substrate return to composting.

🍍 That compost supports healthier palms, vegetables, fruits, herbs and nursery plants.

♻️ Plastics are properly segregated and recycled instead of being scattered, buried or burned.

One process feeds another.

One by-product becomes another process's raw material.

Nothing is viewed as waste until every practical opportunity to recover value has been explored.

This is what the Circular Economy should look like.

Not a diagram in a sustainability report.

A living system.

A functioning ecosystem.

An estate where biology works with us instead of against us.

And this is also where ESG becomes tangible.

Environmental.

Recover biomass.

Build healthier soils.

Recycle nutrients.

Reduce unnecessary waste.

Reduce dependence on purchased inputs.

Social.

Create new skills.

Generate additional employment.

Produce food.

Improve resilience for workers and surrounding communities.

Governance.

Measure what truly matters.

How much waste was recovered?

How much compost was produced?

How much biomass was converted?

How much external input was reduced?

How much value was created from resources that once had no value?

The report should document the work.

It should never become the work.

PowerPoint should follow practice.

Not replace it.

For years, one vision has stayed in my mind.

Zero Waste.

Not because I believe absolutely everything can be recycled.

Some materials will always require safe disposal.

But Zero Waste is a mindset.

Before we throw something away, we first ask:

Can it become food?

Can it become feed?

Can it become compost?

Can it become biochar?

Can it return nutrients to the soil?

Can another process make use of it?

That simple shift in thinking changes everything.

The plantation is no longer just an oil palm estate.

It becomes a biological production system.

A resource recovery system.

A food production system.

An innovation platform.

A resilient ecosystem.

Perhaps one day, we should stop measuring plantations only by tonnes of FFB per hectare.

Perhaps we should also ask:

How much waste did we avoid?

How much value did we recover?

How much biology did we restore?

How much did we give back to the soil?

Because in the end...

Good yield gives us the capacity.

Circular thinking shows us how everything connects.

ESG proves what we've achieved.

Zero Waste gives us the destination.

The plantation of the future should not merely claim to be sustainable.

It should demonstrate it—through its soil, its biology, its resourcefulness and the way it transforms what was once called waste into opportunity.

09/08/2026

THE MOST IMPORTANT PART OF A PLANTATION MAY BE THE PART WE DO NOT SEE

A teacher once asked her students:

“What is the most important part of a chair?”

Some answered the legs.
Some said the seat.
Others said the backrest.

But the teacher replied:

“The most important part is the part you do not see—the screws holding everything together.”

Without them, even the strongest-looking chair will eventually collapse.

A plantation is very much the same.

Management normally focuses on what can be seen and measured:

FFB production.
Loose fruits left on the ground.
Frond stacking.
Weeding standards.
Time marks.
IKRAR.
Productivity reports.
SOP compliance.

But are these the plantation—or merely the visible parts of the chair?

Beneath every healthy palm is an unseen system of living roots, microorganisms, moisture, organic matter and nutrient exchange.

When these foundations are damaged, the symptoms eventually appear above ground.

Yellowing fronds.
Weak growth.
Lower yields.
Disease.
Palm collapse.

The same applies to the people working in the plantation.

Behind every tonne of FFB are workers waking before sunrise, walking through mud, carrying heavy loads, enduring rain, heat and difficult terrain.

Yet many of the conditions affecting their performance remain unseen from the office:

Reliable water.
Adequate electricity.
Proper rest.
Safe and decent housing.
Fair incentives.
Respect.
Morale.
A sense that their effort is appreciated.

When electricity is available only for a few hours at night, when water depends on rainfall, and when workers sometimes have to bathe in field drains, can we simply blame them when loose fruits are missed or fronds are not stacked perfectly?

Perhaps what we see in the field is not merely a worker problem.

Perhaps it is the visible symptom of an invisible system that has already started loosening.

Monitoring systems can show us where the chair is wobbling.

But monitoring alone does not tighten the screws.

More inspections cannot replace decent living conditions.
More remarks cannot restore morale.
More SOPs cannot compensate for exhaustion.
More pressure cannot repair a broken system.

And let us be clear:

The workers are not the screws.

They are human beings—the backbone of the plantation.

The “screws” are the conditions, relationships and support systems that allow them to stand strong and perform their work with dignity.

We cannot demand healthy fronds while ignoring the roots.

And we cannot demand excellent work while ignoring the lives of the people doing it.

A plantation rarely collapses suddenly.

It begins quietly—

beneath the soil,
inside the workers’ quarters,
and in the morale of the people—

long before the failure appears in the production figures.

So before asking why the chair is wobbling, perhaps management should first look for the screws it has neglected.

The roots were there. Then they died.This non-mulched palm changed the way I look at root health.When I scraped the surf...
05/08/2026

The roots were there. Then they died.

This non-mulched palm changed the way I look at root health.

When I scraped the surface, I found a surprisingly good network of feeder roots.

So the palm was clearly capable of producing them.

There were even remnants of char in the soil, and the root development looked reasonably commendable despite the generally low water table in this block.

But not long after, many of those fine roots dried up and died.

That is the important part.

The problem was not root formation.

The problem was root continuity.

On exposed peat, favourable moisture may allow feeder roots to emerge. But when the surface dries again, those delicate roots can be lost before they have the opportunity to develop into a stable and functioning network.

The palm then has to rebuild.

Grow.

Lose.

Replace.

Repeat.

Now compare this with the palms where the surface has been protected with mulch.

Under the mulch, the feeder roots are still alive.

They are not merely appearing temporarily. They are surviving, branching and occupying the moist surface layer.

This may be one of the most overlooked benefits of mulching.

We often discuss what mulch adds:

Organic matter.
Nutrients.
Biology.
Carbon.

But perhaps its greatest value is what it helps the palm retain:

Moisture.
Living feeder roots.
Continuous nutrient uptake.
A functioning rhizosphere.

A palm can produce thousands of new feeder roots.

But if the surrounding environment cannot keep them alive, the palm remains trapped in a cycle of rebuilding what it has already lost.

So perhaps the better question is not:

How do we stimulate more roots?

Perhaps it is:

How do we create conditions where the roots already produced can remain alive?

The difference between the two palms may not simply be the number of roots they can grow.

The real difference may be whether those roots are allowed to survive.

Sometimes progress is not about making the palm produce more.

It is about helping the palm keep what it has already produced.

What happens when you simply protect the soil?These two photos were taken from the same oil palm, only a short distance ...
05/08/2026

What happens when you simply protect the soil?

These two photos were taken from the same oil palm, only a short distance apart.

The first photo was taken beneath an EFB mulch layer.

The second photo was taken where there was no EFB mulch.

The difference surprised even me.

Under the EFB, I found a dense network of living feeder roots.

In the exposed area, many of the fine feeder roots were absent or had died back.

We often spend thousands on fertilisers, fungicides and other external inputs, yet how often do we stop and ask a much simpler question...

Are we creating an environment where roots actually want to grow?

Feeder roots are the palm's lifeline. They are responsible for absorbing water and nutrients. If the soil surface is hot, exposed, dries easily, or lacks organic protection, should we be surprised when feeder roots struggle?

EFB mulch doesn't just add organic matter.

It helps:
🌱 Moderate soil temperature.
🌱 Reduce moisture loss.
🌱 Feed the soil food web as it decomposes.
🌱 Create a more favourable environment for beneficial microbes.
🌱 Provide a habitat where feeder roots can thrive.

To me, this is a reminder that regenerative agriculture isn't only about adding more products.

Sometimes it's about rebuilding the conditions that allow nature to do what it has always done.

Healthy soil → Healthy roots → Healthier palms.

What do you observe in your own plantations? Have you noticed differences in root growth under mulch compared to exposed soil?

I'd love to hear your field experiences.

What do you see when you look at this pile of EFB?Most people see mill waste.Some see mulch.Others see potassium and org...
02/08/2026

What do you see when you look at this pile of EFB?

Most people see mill waste.

Some see mulch.

Others see potassium and organic matter.

But when I look closely, I see a living process beginning almost immediately.

This is where the story starts.

Fresh empty fruit bunches fall from the mill chute extremely moist, still warm and full of exposed plant fibres. From my repeated observations, within about 24 hours, an orange mould begins colonising almost every fresh batch.

At first glance, the orange colour could easily be mistaken for residual palm oil, carotenoids or fruit material left after processing.

But I have also seen what appears to be the same orange mould contaminating our oyster-mushroom bags made from rubberwood sawdust and rice bran—where there is no palm fruit or palm-oil carotenoid.

That gives us an important clue:

The EFB is not simply staining the fungus orange.
The fungus is producing the orange colour itself.

It is likely a fast-growing Neurospora/Chrysonilia-type mould, although the exact species cannot be confirmed without laboratory identification.

The orange colour comes from carotenoid pigments produced by the fungus for its own protection. The carotenoid does not attract the fungus, and it is not produced especially to nourish the oil palm.

The fungus appears because fresh EFB provides almost ideal conditions:

Moisture.

Warmth.

Oxygen between the fibres.

Freshly exposed organic material.

And fungal spores already present in the surrounding environment.

The mill sterilisation process may also reduce many organisms originally present on the bunch. Once the EFB leaves the chute, the first fast-growing airborne colonisers may therefore face relatively little competition.

But the orange stage is only the beginning.

As the EFB ages, the visible orange mould fades.

White mycelium begins spreading through the fibres.

Different mushrooms appear at different times.

The bunches gradually darken, soften, lose their original structure and become increasingly easy to pull apart.

This does not necessarily mean that one fungus completes its job and neatly hands the EFB over to the next.

It means that conditions within the pile are continually changing:

The readily available food changes.

Moisture and temperature change.

The structure of the fibres changes.

Competition among microorganisms changes.

And as those conditions change, different members of the decomposer community become visible.

The mushrooms are only the fruiting bodies.

Most of the fungal organism remains hidden inside the EFB as networks of mycelium, producing enzymes and gradually dismantling the fibres.

Eventually, fungal tissue also dies, is consumed by other organisms or becomes part of the decomposing organic matter.

Fungi support bacteria.

Fungal and bacterial biomass feed small soil organisms.

Millipedes and larvae begin occupying the pile.

Later, when the material becomes cooler and more decomposed, other soil organisms may move in.

So when I look at this pile, I no longer see only “EFB mulch.”

I see a newly available habitat being colonised.

I see a changing fungal community.

I see hard fibres being biologically dismantled.

I see moisture being stored.

I see future shelter for feeder roots.

And eventually, I see a mill by-product becoming part of the soil system.

Perhaps we should not ask only:

“How much nutrient does EFB contain?”

Perhaps we should also ask:

“What biological processes can EFB support before those nutrients become available?”

Because decomposition is not one event.

It is a succession.

And these photographs show several chapters of that story.

When does an observation become a pattern?For more than a year, this block had been struggling.Average bunch weight (ABW...
29/07/2026

When does an observation become a pattern?

For more than a year, this block had been struggling.

Average bunch weight (ABW) hovered around 9+ kg, and bunches above 10 kg became increasingly rare.

Like many plantations, the obvious solution would have been...

Apply more fertilizer.
Apply more chemicals.
Apply more external inputs.

But I couldn't help asking myself...

What if the problem wasn't what the palm lacked... but what the soil had lost?

Instead of focusing only on feeding the palm, I started a small regenerative field trial aimed at rebuilding the soil ecosystem.

Not one miracle product.

Not one miracle microbe.

Not one miracle seaweed.

A holistic approach, because nature has never relied on a single solution.

The observations so far...

🌴 Typical bunch from this block: ~9 kg

🌴 Same trial palm
• First harvest: 17 kg
• Second harvest: 22 kg, followed by another 14 kg and 8 kg bunch from the same harvesting round.

Am I claiming victory?

Absolutely not.

Two harvests don't prove a theory.

But they do justify asking better questions.

Nature has sustained healthy forests for millions of years without fertilizer schedules or herbicide programmes.

A commercial plantation is different—we harvest FFB, so nutrients leave the system and external inputs will always have their place.

But perhaps we've become so focused on feeding the palm...
..that we've forgotten to feed the soil.

I'll continue documenting every harvest.

If this is merely luck, time will expose it.

If it is a genuine response, time will prove it.

Either way...

The palms will tell the story.

We're getting better at treating sick palms… but are we asking enough questions about why they become sick?Over the past...
27/07/2026

We're getting better at treating sick palms… but are we asking enough questions about why they become sick?

Over the past few weeks, we carried out two separate field trials.

The first involved a new trunk injection gun for applying Hexaconazole/Tebuconazole against Ganoderma.

The objective was straightforward:

• Reduce chemical spillage.
• Improve consistency.
• Increase operational efficiency.

However, the field trial produced the opposite.

There was greater chemical spillage, inconsistent pressure, and the injector repeatedly lost its prime, requiring frequent re-priming before work could continue.

The second trial involved modifying a Canycom crawler for soil injection during termite treatment.

The rationale was understandable.

Since termite galleries may extend deeper below the soil surface, placing the chemical deeper was expected to provide better contact than conventional soil drenching.

However, the field trial presented another set of challenges.

After treating only a few palms, the injector assembly could no longer cope with the operating pressure.

Hoses repeatedly detached.

Chemicals were lost through spillage.

Work had to stop several times to reconnect and repair the equipment.

Meanwhile, workers carrying out trunk spraying and soil drenching moved ahead while soil injection became the bottleneck.

The equipment can certainly be improved.

Different injectors.

Different nozzles.

Different hose connections.

Lower operating pressure.

These are all reasonable engineering improvements.

Both trials were valuable because they highlighted operational challenges. But they also prompted a much bigger question than equipment design.

Are we investing more effort into improving treatments than understanding why those treatments became necessary in the first place?

Take termites as an example.

The discussion immediately becomes:

"How do we deliver the chemical deeper into the termite colony?"

That's a reasonable question.

But perhaps another question deserves equal attention.

Why did this particular palm become vulnerable enough to require termite treatment, while many neighbouring palms did not?

The same question applies to Ganoderma.

The same question applies to nutrient deficiencies.

The same question applies to many plantation problems.

We have become very good at discussing:

• Which chemical works better.
• Which injector is more efficient.
• Which application method penetrates deeper.
• Which dosage should be used.

These discussions are important.

But perhaps we should spend just as much time asking:

• What is happening below the soil surface?
• Are feeder roots healthy and protected?
• Is organic matter continuously being returned to the field?
• Is the soil functioning as a living ecosystem?
• Are we reducing the factors that make palms vulnerable in the first place?

A healthier plantation ecosystem is not a guarantee that pests and diseases will disappear.

But healthier soils, healthier roots and a functioning biological system can improve palm resilience and potentially reduce how often rescue interventions become necessary.

To me, that should be one of the long-term goals of plantation management.

Medicine doesn't only develop better surgery and better medicines.

It also studies why people become sick in the first place.

Agriculture should be no different.

We should continue improving our treatment methods.

But we should invest the same effort into understanding and addressing the conditions that make those treatments necessary.

Because every improvement in treatment solves today's problem.

Every improvement in the plantation ecosystem has the potential to reduce tomorrow's.

Perhaps the greatest innovation in oil palm won't be a better injector.

Or a better nozzle.

Or even a better chemical.

Perhaps it will be a better understanding of the soil beneath our feet.

Because healthy palms don't begin at the trunk.

They begin below ground.....

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