Module 1: Why Carbon Has a Price
What a warming world costs, and how emissions get counted
Before you can understand a carbon market, you need to know why anyone would pay for a tonne of carbon at all. This module builds that footing.
Learning Objectives - Describe what climate change already costs Malaysia in money, health and disruption
- Explain what a carbon footprint is and why it is measured in tonnes of CO2e
- Distinguish the three groups of emissions a business is asked to report
- Identify the three pressures pushing companies to start counting carbon
- Compare Malaysia’s climate commitments with those of other countries
What You'll Learn - The December 2021 floods and who actually paid for them
- Heatwaves, haze, and the costs that do not show up as damage
- Greenhouse gases and the common unit they are converted into
- Per-person emissions in Malaysia and around the world
- Direct emissions, purchased electricity, and the value chain
- Customers, banks and border rules as sources of pressure
- Malaysia’s net-zero pledge and its 2030 intensity target
- How Singapore, Indonesia, China, India and the EU compare
The Problem in Plain Terms
Climate change is often introduced through graphs of global temperature. That is not where most people first meet it. In Malaysia, it arrives as water in the living room, a school closed by heat, or a week of grey air.
What one flood cost
The floods of December 2021 are the clearest recent accounting. The
Department of Statistics Malaysia put total losses at
RM6.1 billion, equal to 0.40% of that year’s GDP. Damaged homes accounted for RM1.6 billion, public assets and infrastructure RM2.0 billion, vehicles RM1.0 billion, manufacturing RM0.9 billion and business premises RM0.5 billion. Selangor alone carried roughly half the national total.
The more revealing number is what was covered. Only about a tenth of those economic losses sat with insurers. The rest was absorbed directly by households replacing what they owned, by businesses that stopped trading, and by government budgets that had to rebuild roads and drains. A flood is not paid for by an insurance industry somewhere else. It is paid for by the people standing in it.
The costs that leave no debris
Heat and haze do not produce a damage bill in the same visible way, but they are not free. Malaysia now experiences roughly eight heatwaves a year, about four times as many as in the 1960s, each lasting around five days. A level two heatwave means daily highs of 37 to 40 degrees for at least three days running, and it closes schools: in one such episode, 206 schools in Kedah shut. Haze does the same thing on a larger scale, as in 2019 when 1,484 schools closed and more than a million students were affected.
None of this arrives as a bill addressed to anyone in particular. Work stops, health suffers, harvests fall, and the cost is spread thinly across everyone. That is precisely the problem economists point to, and it is the reason governments started looking for a way to attach a price to the thing causing it.
Watch video: The Problem in Plain Terms
Key Insight: Only about 10% of the December 2021 flood losses were insured. The other 90% was absorbed by households, businesses and the public purse.
Q: What did the Department of Statistics Malaysia estimate as the total losses from the December 2021 floods?
Total losses were put at RM6.1 billion, equal to about 0.40% of that year’s GDP, with Selangor carrying roughly half the national total.
Think back to a flood, heatwave or haze episode that affected you, your family or your workplace. What did it actually cost in time, money or lost work, and who ended up paying for it?
What a Carbon Footprint Really Means
A carbon footprint is a total. It is the quantity of heat-trapping gas released by some activity, over some period, expressed as a single number. That is the whole idea. The complications are all in the details of what gets counted and how different gases are compared.
Why one number, when there are many gases
Carbon dioxide is the most familiar greenhouse gas, but it is not the only one that matters. Methane, which escapes from landfills, livestock and oil and gas operations, traps far more heat per tonne than carbon dioxide, though it breaks down in the atmosphere much sooner. Nitrous oxide, largely from fertiliser and certain industrial processes, is stronger still and lingers far longer.
Tracking each gas separately would make comparison impossible. So every gas is converted into the amount of carbon dioxide that would cause the same warming, and the result is written as
tonnes of carbon dioxide equivalent, usually shortened to tonnes of CO2e. When someone says a factory emits 40,000 tonnes a year, they mean 40,000 tonnes of CO2e. When a carbon credit is sold, it represents one tonne of CO2e. The unit is the foundation of everything that follows in this course, which is why it is worth being clear about it now.
A sense of scale
In 2024 the average person in Malaysia was responsible for about
8.16 tonnes of carbon dioxide, against a world average of roughly 4.73 tonnes. That places Malaysia third in ASEAN behind Brunei and Singapore, and 35th out of more than 200 countries and territories. The usual explanation is straightforward: Malaysia is an upper-middle-income economy with heavy industry, a large manufacturing base and electricity generated mostly by burning fossil fuels.
Always ask: a footprint of what?
The number is meaningless without a boundary. A footprint can belong to a person, a product, a building, a company or a country, and over a year, a lifetime or a single delivery. Two figures that look comparable often are not. Whenever you meet a carbon number, the first question is what it covers.
Watch video: What a Carbon Footprint Really Means
Key Insight: Everything in a carbon market is priced per tonne of CO2e. One credit represents one tonne. Get comfortable with the unit and the rest becomes much easier.
Real-World Example: If your household electricity, car and flights added up to 8 tonnes of CO2e in a year, you would be roughly at the Malaysian average and about 70% above the global one.
Q: Why are different greenhouse gases converted into "carbon dioxide equivalent"?
Methane and nitrous oxide trap more heat per tonne than carbon dioxide. Converting each into the equivalent amount of CO2 allows very different gases to be compared, added together, and traded in one common unit.
What do you think your own biggest source of emissions is - your commute, your electricity, your flights, or something you had not considered? What would you need to know to check?
Three Kinds of Emissions
When a company is asked for its emissions, it is really being asked three separate questions. The split looks bureaucratic at first, but it exists for two good reasons: it stops the same tonne being counted twice by different companies, and it separates what a business controls from what it merely influences.
What you burn yourself
The first group covers fuel burned in things the business owns or controls. Diesel in company lorries, gas in a furnace or a commercial kitchen, a standby generator, and refrigerant leaking from air-conditioning. If you own the equipment and it releases the gas, it belongs here.
The electricity you buy
The second group is the power you purchase. You do not burn anything on site, but a power station burned something on your behalf. In Malaysia that mostly means coal and gas, so grid electricity carries a real carbon cost. The
Energy Commission publishes an official grid emission factor for exactly this purpose, on the order of 0.74 kilograms of CO2 per kilowatt-hour in Peninsular Malaysia. Multiply the kilowatt-hours on your bill by that factor and you have this figure. For most offices, shops and light industry it is the single largest number they can calculate easily.
Everything else
The third group is the whole chain around the business: raw materials bought in, goods delivered out, suppliers, business travel, staff commuting, and what happens to the product once a customer uses and discards it. It is normally the biggest of the three and by far the hardest to pin down, because most of the information belongs to somebody else.
These three groups have formal names, which you will meet constantly:
Scope 1 for what you burn,
Scope 2 for the electricity you buy, and
Scope 3 for the value chain. The words matter less than the logic. A company that knows its fuel and its electricity already knows most of what it can act on directly.
The Three Groups of Emissions
Key Insight: Start with the electricity bill. It is the one carbon number almost every organisation already has the raw data for, sitting in the accounts department.
Q: A company’s monthly electricity bill from the grid falls into which group of emissions?
Purchased electricity is the second group, known as Scope 2. The company does not burn fuel on site, but a power station burned it on the company’s behalf, so the emissions are attributed to the buyer.
For your own workplace, which of the three groups would be easiest to measure, and which would be almost impossible without help from other organisations?
Why Businesses Started Counting
Very few companies began measuring their emissions out of curiosity. Something asked them to. In Malaysia the pressure has arrived from three directions, and for most firms the first one to land is not the one they expected.
Customers
Large companies that have promised to cut their own emissions cannot deliver on that promise without data from their suppliers. Remember that a supplier’s emissions sit inside its customer’s third group. So the question travels down the chain: a multinational asks its Malaysian contract manufacturer, which asks its component supplier, which asks its logistics provider. For a small firm, the carbon question usually arrives attached to a purchase order rather than a regulation, and answering it badly can cost the contract.
Banks and investors
Lenders and investors have their own reporting obligations and their own view of risk. A business exposed to flooding, or dependent on a process that may become expensive to run, looks different on a credit file than it did ten years ago. Financing terms increasingly reflect that.
Border rules
The third pressure is the most concrete. The European Union operates a
Carbon Border Adjustment Mechanism, usually called CBAM, which puts a charge on the carbon embedded in certain goods entering the bloc. It moved into its definitive phase on 1 January 2026, meaning importers now buy and surrender certificates rather than simply filing reports. It applies to iron and steel, cement, aluminium, fertilisers, electricity and hydrogen, with small importers below a 50-tonne annual threshold left out.
The practical consequence for a Malaysian producer in those sectors is that the emissions figure for its goods becomes a commercial term. Supply verified data and the charge reflects reality; fail to, and a default assumption is applied instead, which is rarely generous. Notice that this pressure does not depend on any Malaysian policy at all. It applies because of where the goods are sold.
Watch video: Why Businesses Started Counting
Key Insight: For most Malaysian businesses, the first carbon question comes from a customer, not a government.
Real-World Example: A Malaysian steel exporter selling into the EU now needs verified emissions data per tonne of product. The buyer will ask for it, because the buyer is the one surrendering the certificates.
Q: Why does a small supplier often face carbon questions before any regulation applies to it?
A supplier’s emissions sit inside its customer’s third group, or Scope 3. Large companies with their own targets need supplier data to report, so the question travels down the supply chain ahead of any regulation.
Has your organisation, or one you know, ever been asked by a customer or bank for information about energy use or emissions? How ready was it to answer?
Malaysia’s Pledge, and How Others Compare
Malaysia has made two climate commitments that get quoted constantly, and they are not the same kind of promise.
The first is to reach
net zero by 2050. The second, submitted under the Paris Agreement, is to cut the economy’s emissions
intensity by 45% by 2030 against a 2005 baseline.
Intensity is not the same as absolute
This distinction is worth slowing down for, because it is the most commonly misread fact in Malaysian climate policy. An intensity target measures emissions per unit of economic output, not emissions in total. If the economy grows faster than emissions fall per ringgit of output, the country can meet its intensity target while its actual emissions still rise. That is not a trick; it is a deliberate choice made by many developing economies that expect to grow. But it means the 45% figure does not promise a 45% cut in the amount of gas going into the atmosphere.
Supporting this is the National Energy Transition Roadmap, launched in 2023, which sets out how the electricity system is meant to shift away from fossil fuels over the coming decades.
How the neighbours have framed it
Target dates vary widely, and the differences reflect economic structure more than ambition. Singapore and the European Union aim for 2050, as Malaysia does. China and Indonesia have set 2060. India has set 2070. Countries that industrialised early generally chose earlier dates; countries still building out their economies chose later ones.
The pledge is not the instrument
A target date is a direction of travel. What actually changes behaviour is the mechanism placed underneath it. Singapore chose a carbon tax, set at S$45 per tonne of CO2e for 2026 and 2027 and intended to reach S$50 to S$80 by 2030 - a visible price that a finance director can plan around. The European Union runs an emissions trading system where the price is set by the market. Malaysia is still assembling its own approach, and the shape of it is the subject of Module 5.
That gap between promise and mechanism is where carbon markets live. The rest of this course is about how they work.
Key Insight: Malaysia’s 2030 target is an intensity target. Meeting it does not necessarily mean total emissions have fallen, only that emissions per unit of economic output have.
Real-World Example: Singapore’s carbon tax gives a company a number it can put in a budget: S$45 for every tonne it emits in 2026. Malaysia has not yet set an equivalent headline price.
Q: What does Malaysia’s 45% target for 2030 actually measure?
It is an intensity target, measured against GDP with a 2005 baseline. Because it is measured per unit of output, total emissions could still rise if the economy grows quickly enough.
Singapore put a visible price on carbon; Malaysia has not yet. If a price of RM45 a tonne appeared next year, what would change first for the organisation you work in?
Module 2: How Carbon Markets Work
Credits, two kinds of market, and where carbon is traded
The mechanics of the market itself: what you are buying when you buy a tonne, who is obliged to take part, and what it costs here and abroad.
Learning Objectives - Explain the reasoning behind paying for emission cuts made elsewhere, and the main objection to it
- Distinguish compliance markets from voluntary ones, and a carbon tax from a trading system
- Describe what a carbon credit is and trace its life from project to retirement
- Identify where carbon is traded in Malaysia and who is allowed to take part
- Compare the European, Chinese and Singaporean approaches and explain why their prices differ
What You'll Learn - Why a tonne cut cheaply counts the same as a tonne cut expensively
- The offsetting objection, and the conditions meant to answer it
- Cap-and-trade versus a carbon tax, in plain terms
- Registries, serial numbers, vintages and retirement
- The Bursa Carbon Exchange and its first auctions
- Kuamut in Sabah, Malaysia’s first domestic nature-based credits
- The European Union, China and Singapore compared
- Why voluntary prices sit far below compliance prices
Paying for Cuts Made Elsewhere
A carbon market rests on one observation. The atmosphere does not care where a tonne of carbon dioxide is avoided. A tonne kept out of the air in Sabah does exactly as much good as a tonne kept out of the air in Stuttgart.
What differs enormously is the cost of avoiding it. Capturing methane at a palm oil mill that currently vents it might cost a few ringgit a tonne. Redesigning a cement kiln so it emits less might cost a hundred times that. If the goal is the largest reduction for the money available, there is an obvious move: let the cheap reductions happen first, and let the organisations facing expensive reductions pay for them.
That is the whole idea. Someone who cannot easily cut their own emissions pays someone who can, and the reduction is credited to the payer.
The objection, stated fairly
There is a serious criticism of this, and it deserves to be met head on rather than buried. Paying for someone else’s reduction can become a way of avoiding your own. A company can buy a stack of cheap credits, announce that it is carbon neutral, and change nothing about how it operates. If the credits turn out to represent reductions that were never real, or that would have happened anyway, then nothing has been achieved at all except a marketing claim.
This is not a hypothetical worry. It has happened repeatedly, and it is the reason large parts of this course are about verification rather than trading.
The two conditions
The defence of carbon markets rests on two conditions. First, credits are meant for the emissions you cannot yet eliminate, bought after you have cut what you reasonably can, not instead of cutting. Second, the credit has to represent a real, additional tonne that would not otherwise have been avoided.
Both conditions fail often enough that you should treat every carbon claim as a question rather than a fact. Module 3 examines whether the tonne is real. Module 4 examines who checks.
Watch video: Paying for Cuts Made Elsewhere
Key Insight: A carbon credit is defensible only when it covers what you cannot yet cut, and only when the tonne behind it is genuinely additional. Neither can be assumed.
Q: What is the economic reasoning behind allowing one organisation to pay for emission cuts made by another?
The atmosphere is indifferent to location, but the cost of avoiding a tonne varies enormously. Letting the cheap reductions happen first buys the largest total reduction for a given amount of money.
Do you find the offsetting idea convincing, or does it sound like paying to avoid change? Hold on to your answer - the next three modules are largely about whether it holds up.
Two Markets: One You Must Join, One You Choose
The phrase "carbon market" covers two quite different things, and confusing them is the most common mistake beginners make.
The compliance market
Here a government requires participation. If your facility is covered, you must account for your emissions and pay for them or surrender permits. You do not get to opt out. The European Union has run such a system since 2005. China launched one in 2021 covering power generation, and expanded it in March 2025 to steel, cement and aluminium, bringing in around 1,500 more companies and roughly 3 billion additional tonnes of CO2e - close to 5% of global emissions in a single decision.
Compliance systems come in two shapes. A
carbon tax fixes the price and lets the quantity of emissions land where it lands. A
trading system, often called cap and trade, fixes the quantity by issuing a limited number of permits and lets the market discover the price. Singapore chose a tax. The European Union chose trading. Each accepts uncertainty on the side the other controls.
The voluntary market
Here nobody compels anyone. A company buys credits because it has made its own commitment, because customers or investors expect it, or because it wants the reputational benefit. Demand is a choice, which as you will see in the final section is the main reason voluntary prices sit far below compliance prices.
Where the two meet
The boundary is not sealed. Singapore allows companies to use high-quality international credits to offset up to 5% of their taxable emissions. That is a deliberate doorway from the voluntary world into the compliance one, and the limit is deliberately low so that firms cut their own emissions first rather than buying their way out.
Malaysia today has a voluntary market. Its compliance instruments are still being designed, which is the subject of Module 5.
Watch video: Two Markets: One You Must Join, One You Choose
Key Insight: A tax fixes the price and lets emissions fall where they fall. Cap and trade fixes the emissions and lets the price move. Neither controls both.
Real-World Example: Two firms emit the same tonne. Under a tax, both pay a known price per tonne. Under cap and trade, both must hold a permit, and what that permit costs depends on how scarce permits are that year.
Q: What is the essential difference between a carbon tax and a cap-and-trade system?
A tax sets the price per tonne and the resulting quantity of emissions is whatever it turns out to be. Cap and trade sets the number of permits and lets the market decide what they are worth. Each gives up control of one variable.
If Malaysia had to choose, would a fixed price or a fixed limit suit the country better? Consider which uncertainty a business could more easily live with.
What a Carbon Credit Actually Is
A carbon credit is a record. One credit represents one tonne of CO2e that has been reduced or removed, checked by an independent party, and entered in a registry under a unique serial number. That serial number is what makes the thing tradeable, because it is what stops the same tonne being sold twice.
The life of a credit
A project is designed against a published methodology, which sets out how the reduction will be measured and what would have happened without it. An independent body reviews that design before anything starts. The project then runs, and its results are measured over a defined period. A separate check confirms those measurements. Only then does a registry issue credits, each with its own serial number and a
vintage - the year in which the reduction actually occurred.
The credit can then be bought and sold, sometimes several times over. The final step is
retirement: the buyer who wants to make the claim cancels the credit in the registry, permanently, so nobody else can use it. Retirement is the point of the whole exercise. A credit that is bought but never retired has not been used to offset anything.
Who keeps the records
The registries are private organisations rather than governments.
Verra, whose credits are called Verified Carbon Units, and the
Gold Standard are the two most widely used. They publish the methodologies, accredit the checkers, and maintain the databases where credits are issued, transferred and retired.
So when you buy a credit you are not receiving a physical thing. You are buying a documented claim that a specific tonne, in a specific place, in a specific year, did not reach the atmosphere. Everything about its value depends on whether that claim is true.
Why two credits are not the same product
One consequence follows immediately. Although every credit represents the same quantity, credits are not interchangeable goods. They differ by project type, by the methodology used, by vintage, by registry, and by whatever additional benefits the project claims for the surrounding community or ecosystem. Buyers treat these as different products and pay accordingly, which is why prices for a single tonne can differ by a factor of ten or more.
The Life of a Carbon Credit
Watch video: What a Carbon Credit Actually Is
Key Insight: Retirement is the point. A credit that is bought and held has offset nothing - only cancelling it in the registry makes the claim real.
Q: What does it mean to retire a carbon credit?
Retirement is the permanent cancellation of the credit in the registry by whoever makes the offsetting claim. Until a credit is retired, it has not actually been used to offset anything.
A credit is a documented claim rather than a physical object. What evidence would you personally want to see before believing that a tonne you paid for never reached the atmosphere?
Where Carbon Is Traded in Malaysia
Malaysia has a functioning carbon exchange. The
Bursa Carbon Exchange, run by Bursa Malaysia, trades carbon credits and renewable energy certificates through standardised contracts, and is the world’s first Shariah-compliant exchange of its kind. It is a voluntary market: nothing obliges a Malaysian company to buy anything on it.
The first auction
BCX held its opening auction on 16 March 2023. Fifteen buyers took 150,000 Verra-registered credits between them. Two contracts were offered. The technology-based contract, carrying credits from a biogas recovery and power generation project in China, cleared at RM18.50. The nature-based contract, carrying credits from the Southern Cardamom project in Cambodia, cleared at RM68.00. The gap between those two prices, for what is nominally the same tonne, is the subject of the next section.
Malaysian credits
Until 2024 everything traded was foreign. That changed with the
Kuamut Rainforest Conservation Project in the Tongod and Kinabatangan districts of Sabah, which protects and restores around 83,381 hectares of tropical forest and is expected to produce roughly 800,000 tonnes of CO2e in reductions a year. It achieved its first issuance under Verra in March 2024, and BCX auctioned the credits on 25 July 2024, clearing at RM50. The project is a partnership between the Sabah Forestry Department, Yayasan Sabah, Rakyat Berjaya and Permian Malaysia - a structure worth remembering when Module 5 turns to who controls land.
Malaysian technology-based credits followed, with methane credits clearing at RM39.60 in June 2025 against a RM36 reserve price.
Who can actually trade
One practical point that surprises people. BCX is not open to individuals. Only incorporated entities can hold an account. If you are studying this course as a private individual, you cannot buy a credit there yourself - you would participate through an employer, a client or an intermediary.
Why buy at all
Since nothing compels a Malaysian company to purchase anything here, it is worth asking why any of them do. The usual reasons are a public commitment the company has made, a customer or investor asking what it is doing about its emissions, and the expectation that a domestic compliance system is coming and that early familiarity will be worth having. Credits bought are retired against the buyer’s own reporting, exactly as described earlier.
Key Insight: Kuamut in Sabah was the first Malaysian project to produce credits traded on the local exchange, clearing at RM50 in July 2024.
Real-World Example: Trading happens three ways on BCX: scheduled auctions, continuous trading, and off-market transactions negotiated directly between two parties and then registered.
Q: Who is permitted to hold a trading account on the Bursa Carbon Exchange?
Retail access is closed. Only incorporated entities qualify, so an individual would take part through an employer, a client or an intermediary rather than directly.
The Kuamut credits come from forest in Sabah, on land the state controls. Who do you think should receive the money such a project earns, and who actually does?
Carbon Markets Around the World
Three markets, three designs, three very different prices. Setting them side by side explains more about carbon pricing than any definition.
The European Union: trading, and a real price
The EU has run its emissions trading system since 2005, making it the oldest and largest of its kind. Permits are capped, the cap tightens over time, and covered companies must hold one for every tonne. Through 2026 the allowance price has traded in the region of 74 to 80 euros per tonne. Convert that and compare it with the RM18.50 to RM68 seen in Malaysian auctions, and the gap is enormous.
The reason is demand. In Europe the demand is compulsory and the supply shrinks by design. In a voluntary market, every buyer could walk away tomorrow. A price only gets high when someone has no choice but to pay it.
China: the largest by volume, deliberately gentle at first
China launched its national system in 2021 covering power generation, then extended it in March 2025 to steel, cement and aluminium. For that first compliance cycle, producers in the new sectors received allowances equal to their verified 2024 emissions, meaning they did not need to buy anything at all. That was a deliberate soft start: bring the sectors in, build the measuring and reporting habit, and tighten later. It is a design choice worth noticing, because a country building a market from scratch has to decide how hard to squeeze on day one.
Singapore: a tax, with a narrow door
Singapore fixed a price instead. The rate reached S$45 per tonne in 2026, heading towards S$50 to S$80 by 2030, and companies may use high-quality international credits for at most 5% of taxable emissions.
What this means for Malaysia
Malaysia is watching all three. The choices ahead are whether to fix a price or a quantity, how gently to start, and how wide to open the door to credits. Module 5 looks at where that has got to.
Key Insight: Compliance prices sit far above voluntary ones because compulsory demand cannot walk away. That single fact explains most of the price gap between markets.
Real-World Example: The same nominal tonne cost roughly RM18.50 in a Malaysian voluntary auction and the equivalent of several hundred ringgit under the European compliance system. The difference is not quality alone - it is whether the buyer had a choice.
Q: Why do prices in compliance markets tend to sit far above voluntary market prices?
In a compliance system covered companies must hold permits, and the cap tightens over time. In a voluntary market every buyer could stop buying tomorrow, so demand - and therefore price - is far weaker.
Europe squeezed hard from early on; China started gently and plans to tighten. If Malaysia introduces a compliance system, which approach would you argue for, and what would you be trading away?
Module 3: Where Carbon Credits Come From
Forests, waste gas, factories, and the tests every project must pass
The main kinds of carbon project, the Malaysian example that explains the market best, and the two questions that decide whether a credit means anything.
Learning Objectives - Distinguish projects that protect existing carbon from those that add new carbon
- Explain how methane capture at a palm oil mill produces carbon credits
- Describe why grid-connected renewable energy largely stopped qualifying for credits
- Apply the additionality test to decide whether a proposed project deserves credits
- Identify reversal, leakage and over-crediting, and how the market tries to manage each
What You'll Learn - Avoided deforestation and the counterfactual it depends on
- Replanting, restoration and mangroves
- Palm oil mill effluent, methane, and why capture pays
- Malaysia’s biogas rules and what they mean for additionality
- Efficiency, fuel switching, and the collapse of renewable energy credits
- The three ways a project fails the additionality test
- Buffer pools, reversals and displaced deforestation
- The 2023 investigation into rainforest credits and what changed afterwards
Forests: Keeping Carbon and Adding It
Forest projects are the most popular kind of carbon project and the most argued over. They do two quite different jobs, and confusing them causes most of the trouble.
Keeping what is already there
The first job is protection. A forest already holds an enormous quantity of carbon in its trees and soil. If it is cleared, that carbon is released. A project that stops the clearing has therefore avoided emissions, and can claim credits for the difference.
The difficulty is buried in the word "avoided". To know how much was avoided, you must know how much forest would have been lost had the project never existed. Nobody can observe that, because it did not happen. It has to be estimated, and the estimate decides how many credits are issued. Set it high and the project earns a fortune for very little real protection. This single problem is behind almost every controversy in the sector, and Section 3.5 returns to it.
Adding carbon that was not there
The second job is growth. Replanting cleared land, restoring degraded forest, or protecting and expanding mangroves all pull carbon out of the air and store it in new wood and soil. This is easier to defend, because you can measure what has grown, though it is slower and more expensive per tonne.
Mangroves deserve a mention for Malaysia in particular. They store carbon extraordinarily densely, much of it in waterlogged soil rather than in the trees themselves, and they simultaneously buffer coastlines against storms and erosion.
The Malaysian case
The Kuamut project in Sabah, met in Module 2, is a protection and restoration project across roughly 83,381 hectares. It is worth holding in mind through the rest of this module, because every question raised here applies to it.
Why forests dominate the market
Despite the difficulty, forest projects make up a large share of everything traded. They are relatively cheap per tonne, they are easy to photograph and explain to a board or a customer, and they carry benefits beyond carbon - habitat, water regulation, employment for people living nearby. Those extra benefits are genuine and are part of why buyers pay a premium for them, as the Malaysian auction prices in Module 2 showed.
Watch video: Forests: Keeping Carbon and Adding It
Key Insight: A protection project claims credit for a loss that did not occur. Everything depends on an estimate of what would have happened otherwise - which nobody can observe.
Q: Why is it difficult to calculate how many credits an avoided deforestation project deserves?
The claim rests on a counterfactual - a description of something that did not happen. That estimate determines how many credits are issued, and it cannot be directly observed.
If you had to judge whether a forest would have been cleared without a carbon project, what evidence would you look for? Consider how convincing that evidence would really be.
Waste Gas: The Palm Oil Mill Story
If you want one example that explains carbon projects to a Malaysian audience, it is the palm oil mill.
What happens in the ponds
Milling palm fruit produces a large volume of liquid waste known as palm oil mill effluent, or POME. Traditionally it is treated in open ponds, where bacteria break it down without oxygen. That process releases
methane - the gas met in Module 1 that traps far more heat per tonne than carbon dioxide. Malaysian mill data gives a sense of the volumes: roughly a cubic metre of POME can yield around 34 normal cubic metres of biogas, of which a little over half is methane. With around 450 mills in operation on
Malaysian Palm Oil Board figures, the national total is substantial.
What capture does
The fix is not complicated in principle. Cover the pond, collect the gas, and either burn it to generate electricity or flare it. Burning methane turns it into carbon dioxide, which is far weaker as a warming agent. The reduction claimed is the difference between releasing methane and releasing the much smaller warming effect of the carbon dioxide that replaces it.
This is why the sector attracted carbon finance early. Around 37 Malaysian projects were registered under the United Nations Clean Development Mechanism, and a further ten biogas projects sit on the Verra registry.
The complication worth noticing
Malaysia also regulates this. Biogas capture has been mandatory for new mills, and for existing mills seeking throughput expansion, since January 2014, with the expansion rule from May 2021 applying to mills going beyond 270,000 tonnes of fresh fruit bunches a year.
Hold that thought. If the law already requires a mill to capture its methane, can the mill still sell credits for doing so? The next two sections answer that, and the answer is uncomfortable.
Watch video: Waste Gas: The Palm Oil Mill Story
Key Insight: Methane capture is attractive because the gas is escaping anyway, the equipment costs real money, and carbon revenue can close the gap. But regulation changes that calculation.
Real-World Example: A mill covers its effluent pond and runs the captured gas through an engine. It gains electricity it no longer has to buy, and a stream of carbon credits - two revenue lines from the same equipment.
Q: Why does capturing and burning methane from palm oil mill effluent reduce emissions?
Combustion turns methane into carbon dioxide. Carbon dioxide is still a greenhouse gas, but far weaker per tonne, so the swap delivers a large net reduction in warming.
A mill that must capture methane by law and a mill that chooses to do so both reduce the same amount of gas. Should both be able to sell credits for it?
Cleaner Energy and Less Waste in Factories
The third family of projects sits inside industrial operations: use less energy, or use a cleaner form of it.
Efficiency and fuel switching
Efficiency work is unglamorous and effective. Better motors, recovering waste heat instead of venting it, insulating steam lines, upgrading refrigeration. Fuel switching means moving a process from a dirtier fuel to a cleaner one, most commonly from coal to gas.
Both produce fewer credits than newcomers expect. The baseline is what the plant was already doing, and an efficiency gain is usually a percentage of that rather than a transformation. A project that cuts a factory’s energy use by a creditable 12% has done something genuinely useful and earned a modest number of tonnes.
A category that died
The most instructive story here concerns renewable energy. For years, building a wind or solar farm in a developing country was a standard way to generate carbon credits. The argument was that the project was expensive and would not proceed without the extra revenue.
Then the economics changed. Solar and wind costs fell so far that these projects became the cheapest way to add generating capacity in much of the world - they now get built because they make money, not because of carbon revenue. The registries responded. Both Verra and the Gold Standard stopped accepting new grid-connected renewable energy projects in most countries, with narrow exceptions such as least-developed countries, places where the technology holds less than 5% of grid capacity, offshore wind, and waste-to-energy.
This is not a scandal. It is the system working as intended, and it is the clearest illustration in this course of the principle in the next section. A credit is only meaningful if the project needed it. When solar stopped needing it, solar stopped qualifying.
What remains hard
What has not been solved is heavy industry. Making cement releases carbon dioxide from the limestone itself, not only from the fuel used to heat it, so no amount of clean electricity removes it. Steel, chemicals and glass have similar problems built into their chemistry. These are the sectors where reductions are genuinely expensive, which is exactly why they are the ones most likely to buy credits rather than sell them.
Key Insight: Renewable energy credits largely disappeared not because the projects stopped cutting emissions, but because they stopped needing carbon money to exist.
Real-World Example: A solar farm built in Malaysia today would almost certainly not qualify for credits. It gets built because it is the cheaper way to generate power, so carbon revenue is not what made it happen.
Q: Why did the major registries stop accepting most new grid-connected renewable energy projects?
Falling costs made these projects financially attractive on their own. If a project would happen anyway, carbon revenue is not causing the reduction, so the credit represents nothing extra.
Efficiency projects earn modest numbers of credits but genuinely cut costs. Where in your own workplace is energy being wasted in a way nobody has bothered to fix?
The Honesty Test
Everything in the previous three sections comes down to one question, and it is deceptively simple to state.
Would this have happened anyway?
If the answer is yes, the credit is fiction. The tonne was never going to reach the atmosphere, so paying for it changes nothing except who feels good about it. The market calls this test
additionality, and a project must pass it to deserve credits at all.
Three ways to fail
A project fails if the activity is
already required by law. This is the uncomfortable answer to the palm oil question in Section 3.2: where regulation obliges a mill to capture methane, the capture would occur regardless, and crediting it pays for compliance rather than for a reduction. Where no such obligation applies, the case is much stronger.
A project fails if it is
already profitable without credit revenue. That is what happened to solar and wind.
A project fails if it is
already common practice in that industry and place. If every comparable factory has made the change without carbon money, this one probably would have too.
Why honest people disagree
Applying the test means describing a world that did not happen, and reasonable people reading the same evidence can reach different conclusions. A developer with revenue at stake will tend towards the answer that issues more credits. The independent checking examined in Module 4 exists precisely because of that pull.
The baseline, and erring downwards
Passing the test is not the end of it. The project must then quantify the reduction, which means setting a
baseline: a specific figure for what emissions would have been in the world that did not happen. A mill claiming methane capture has to state how much methane the ponds would have released. A forest project has to state how many hectares would have been cleared.
Because that figure is an estimate, the methodologies apply a principle called conservativeness: where the evidence is genuinely uncertain, choose the assumption that issues fewer credits rather than more. It is a sensible rule. Section 3.5 is largely the story of what happens when it is not followed.
The Additionality Test
Key Insight: Additionality is the whole game. A reduction that was going to happen anyway is not worth paying for, however real the reduction itself may be.
Q: Which of these would cause a project to fail the additionality test?
If regulation already obliges the activity, it would happen without carbon revenue. Crediting it pays for compliance rather than for an additional reduction. The other two failure modes are existing profitability and common practice.
Think of something your organisation already does for environmental reasons. Would it survive all three tests, or does it happen because a rule, a saving, or ordinary industry practice already demands it?
When Things Go Wrong
Even a genuinely additional project can fail to deliver. Three risks recur, and the market has partial answers to each.
The carbon comes back
A forest can burn, be logged, or be cleared a decade later. Carbon dioxide released then undoes the reduction claimed earlier. This is the
permanence problem, and it applies to anything that stores carbon in living systems rather than preventing its release outright. The standard answer is a
buffer pool: projects set aside a share of the credits they generate, typically between 10 and 20 per cent, as collective insurance. If a project suffers a reversal, credits are cancelled from the pool. It is real protection, though whether the pools are large enough for a hotter, more fire-prone world is actively disputed.
The problem moves next door
Protecting one patch of forest may simply push the logging to the next valley. This is
leakage, and it means the true benefit is smaller than the project boundary suggests - occasionally nothing at all. Methodologies require some estimate of leakage, but the displaced activity is by definition happening somewhere the project is not watching.
Too many credits for too little
The largest reckoning came in January 2023, when a joint investigation by the Guardian, Die Zeit and SourceMaterial reported that more than 90% of Verra’s rainforest credits appeared to represent no real reduction. Underlying analysis found that the threat to forests had been overstated by roughly 400% on average. Verra rejected the conclusions, but confidence collapsed and its chief executive stood down. Peer-reviewed work published in Science subsequently supported the core finding that many projects had not reduced deforestation.
The response was structural. Verra released a rebuilt methodology, VM0048, which requires baselines drawn from jurisdiction-wide data rather than each project setting its own. A Berkeley assessment in July 2024 judged that it still risks over-crediting. Treat this as a field correcting itself in public, slowly.
Watch video: When Things Go Wrong
Key Insight: The 2023 rainforest findings were not a scandal at the edge of the market. They were about its largest registry and its most popular product, and they changed how baselines are set.
Real-World Example: A project sets aside 15% of its credits in a buffer pool. If fire destroys part of the forest years later, credits are cancelled from that pool rather than clawed back from whoever bought them.
Q: What is a buffer pool intended to protect against?
Projects set aside typically 10 to 20 per cent of their credits as collective insurance. If a reversal occurs, credits are cancelled from the pool rather than from the buyers who already used theirs.
Knowing that the largest registry was found to have over-credited its most popular product, how much weight would you now put on a company’s claim to be carbon neutral through forest offsets?
Module 4: Making Sure the Numbers Are True
Measuring, checking, counting once, and claims that do not hold up
A carbon credit is a claim on paper. This module is about everything the market does to make that claim believable, and what happens when it is not.
Learning Objectives - Explain why confidence, rather than physical delivery, is what a carbon credit is worth
- Distinguish validation from verification and describe when each happens
- Identify the conflict of interest built into how independent checkers are paid
- Describe the three forms of double counting and how each is prevented
- Recognise a greenwashing claim and explain what makes a claim defensible
What You'll Learn - Why nothing physical is delivered when a credit changes hands
- The two integrity questions: is the tonne real, and what may you say about it
- Monitoring, reporting and verification as a repeating cycle
- Who accredits the checkers, and who pays them
- Double issuance, double selling and double claiming
- Corresponding adjustments between a country and a buyer
- The KLM judgment and the European ban on offset-based neutrality claims
- Malaysia as a hotspot for contested carbon claims
Trust Is the Product
When a shipment of palm oil changes hands, the buyer can inspect it. When a carbon credit changes hands, nothing arrives. There is no cargo, no meter reading the buyer can take, no way to look at the atmosphere and confirm that a particular tonne is missing from it.
What the buyer receives is a claim: a serial number in a registry, attached to a documented assertion that somewhere, at some time, a tonne was reduced or removed. If that assertion is not believed, the credit is worth nothing. Not a little less - nothing. This is unusual among traded goods, and it explains why so much of the carbon market is machinery for producing belief.
Confidence is the price
The market prices this directly. Credits from projects that rate well on independent assessment command large premiums over credits from projects that do not, even where both nominally represent one tonne. In Module 2 you saw a technology-based contract clear at RM18.50 and a nature-based one at RM68.00 on the same day, on the same exchange. Part of that spread is project type and co-benefits. Part of it is simply how much a buyer believes.
Two different questions
It helps to separate two things that often get muddled. The first is whether the tonne is real: additional, measured properly, and not going to come back. The second is what a company may then say in public about having bought it.
These now have separate custodians. The
Integrity Council for the Voluntary Carbon Market publishes Core Carbon Principles addressing credit quality, and the
Voluntary Carbon Markets Integrity Initiative publishes a Claims Code addressing what may be claimed. Supply side and demand side. Keep both questions in mind and you will assess carbon claims better than most people who work with them.
Key Insight: Nothing is physically delivered when a credit is sold. If the claim behind it is not believed, the credit is worth nothing at all - which is why verification is the entire industry.
Q: Why is a carbon credit unusual compared with most traded goods?
A buyer receives a serial number and a documented assertion, not a cargo. If that assertion is not credible, the credit is worth nothing rather than merely less.
Think about something you buy where you cannot inspect the product - insurance, a professional service, a qualification. What makes you trust it? Carbon credits rely on the same kind of machinery.
Measure, Report, Check
Behind every credit sits a repeating three-step cycle. The market calls it MRV, for monitoring, reporting and verification, but the plain words are more useful than the acronym.
The three steps
First,
measure. The project collects data in the way its methodology requires. A mill meters the volume of gas it captures and burns. A forest project measures tree growth in sample plots and tracks land cover from satellite images. What gets measured, how often, and to what precision are all fixed in advance, not chosen afterwards.
Second,
report. Those measurements are compiled into a report covering a defined period, setting out what was done and what reduction is claimed.
Third,
check. An independent body examines the report and the evidence behind it, sometimes visiting the site, and forms an opinion on whether the claimed reduction is supported. Only then can credits be issued.
Two different checks, easily confused
One distinction causes endless confusion, so it is worth being precise.
Validation happens before the project starts and examines the plan: is the methodology applied correctly, is the baseline defensible, is the project additional.
Verification happens afterwards and examines the outcome: did the reduction the project claims actually occur.
Validation asks whether the promise is sound. Verification asks whether the promise was kept.
Verification is not a one-off. It repeats for every monitoring period across the project’s life, which for a forest project may be decades. A project registered in 2015 will have been through many rounds of checking, and its credits carry different vintages accordingly.
When the check goes badly
Verification is not a formality with a guaranteed outcome. A checker who finds the evidence thin can require corrective action, reduce the number of credits the project may claim for that period, or decline to sign off at all. Each round costs the project money and time, which is one reason small projects struggle: the cost of being checked does not shrink in proportion to the tonnes involved.
Validation Before, Verification After
Watch video: Measure, Report, Check
Key Insight: Validation checks the plan before the project starts. Verification checks the outcome afterwards, and repeats for every monitoring period across the project’s life.
Q: What is the difference between validation and verification?
Validation asks whether the promise is sound - method, baseline, additionality. Verification asks whether the promise was kept, and repeats for each monitoring period.
What gets measured is fixed in advance rather than chosen afterwards. Why does that ordering matter so much, and what would go wrong if a project could decide after the fact what to count?
The Independent Checker’s Job
The people who perform validation and verification work for accredited firms, known in the trade as validation and verification bodies. Registries approve them, and it is their opinion that a registry relies on when deciding to issue credits. They read the project documents, test the calculations, and visit sites. Without them there is no market, because there is nothing to believe.
Who pays
Here is the structural problem, and it is worth stating plainly rather than glossing over.
The project developer hires and pays the checker. The firm reviewing whether a project deserves credits is selected and remunerated by the party that benefits from the answer being yes.
Anyone who has followed financial auditing will recognise the arrangement immediately, and the consequences are similar. It does not require anybody to be corrupt. It requires only that, at the many points where evidence is genuinely ambiguous, interpretation drifts gently towards the client. A study reported in 2025 found exactly that pattern: nominally independent auditors systematically overvaluing the projects they assessed.
What is being done
The responses are partial. Registries require conflict of interest declarations for each project. Some rules separate the body that validates a project from the body that later verifies it, so the same firm is not marking its own homework. The Integrity Council has published work on strengthening oversight of these bodies specifically.
Treat independence here as a design goal rather than an achieved fact. When you meet a carbon claim, it is fair to ask who checked it and who paid for the checking.
There is also a simple capacity problem. The number of firms accredited to do this work is small relative to the number of projects wanting to be checked, and each firm needs people who understand both the technical subject matter and the methodology being applied. That shortage slows the market down.
This is also, in plain career terms, where a good deal of the work is. Module 5 returns to that.
Key Insight: The developer hires and pays the body that decides whether the project deserves credits. That conflict is structural, widely acknowledged, and only partly mitigated.
Real-World Example: A developer that dislikes a checker’s findings can, at the next monitoring period, hire a different firm. Nothing improper has occurred, and yet the incentive is obvious to everyone involved.
Q: What is the structural conflict of interest in carbon credit verification?
The firm deciding whether a project deserves credits is selected and paid by the party that benefits from a yes. A 2025 study found auditors systematically overvaluing the projects they assessed.
If you were redesigning the system, who should pay for verification, and where would the money come from? Every alternative has its own problem - see how far you get.
Counting the Tonne Only Once
A reduction can only honestly be claimed by one party. Making sure of that is harder than it sounds, because there are three separate ways it can go wrong.
Double issuance happens when the same reduction is certified by two different standards, producing two certificates for one tonne. Double selling happens when one credit is sold to two buyers, by error or by fraud. Both of these are essentially record-keeping problems, and the registry apparatus from Module 2 handles them: unique serial numbers, a single authoritative database, and permanent cancellation on retirement.
The hard one
Double claiming is different, because the two parties are not both companies. A project in Malaysia reduces a tonne. Malaysia counts that tonne towards its own national climate target, because it happened inside Malaysia. A Japanese company buys the credit and counts the same tonne towards its own commitment. Both are behaving reasonably. The tonne has been counted twice.
No registry can fix this on its own, because one of the claimants is a country. The agreed answer sits in Article 6 of the Paris Agreement and is called a
corresponding adjustment. When the host country authorises a credit to be transferred abroad, it adds that tonne back to its own emissions account - giving up the benefit so the buyer can have it. The country is choosing to sell the reduction rather than count it.
What this means for a buyer
Two credits can look identical and differ entirely on this point. One may be authorised by its host country with an adjustment applied; the other may not. A buyer who needs the claim to survive scrutiny now has to ask which they are holding. Module 5 examines how Malaysia handles that decision.
The market has begun pricing the difference, treating authorised and unauthorised credits as separate products. The adjusted credit costs more, because the buyer is paying the host country to give up something it would otherwise have kept.
Watch video: Counting the Tonne Only Once
Key Insight: Serial numbers stop the same credit being issued twice or sold twice. They cannot stop a country and a company both counting the same tonne - only a corresponding adjustment does that.
Real-World Example: A tonne reduced in Sabah can count towards Malaysia’s national target, or towards a foreign buyer’s claim. Under the Paris rules it cannot honestly do both unless Malaysia adds it back to its own account.
Q: What does a corresponding adjustment require the host country to do?
The host country gives up the benefit so the buyer can have it, adding the tonne back to its own account. It is choosing to sell the reduction rather than count it towards its own target.
If Malaysia authorises its best reductions for export, they stop counting towards Malaysia’s own target. Under what circumstances would that trade be worth making?
Claims That Do Not Hold Up
Greenwashing means claiming more environmental benefit than the evidence supports. In carbon markets it usually takes one particular shape: a company buys credits, declares a product or a service carbon neutral, and changes very little about how it operates.
The courts have started to say no
In March 2024 the District Court of Amsterdam ruled against the airline KLM, finding that fifteen of nineteen advertising claims were misleading and therefore unlawful. The judgment specifically covered the suggestion that its offsetting products compensated for the climate impact of flying. It was the first greenwashing judgment against an airline anywhere.
Then the rules changed
Europe has gone further and legislated. Under the Empowering Consumers Directive, from
27 September 2026 it becomes a prohibited commercial practice across all twenty-seven member states to describe a product as carbon neutral, climate neutral or climate positive where the claim rests on offsetting outside the product’s own value chain. Vague terms such as eco-friendly and green are also banned without substantiation. A claim that was ordinary marketing becomes an illegal one, and Malaysian firms selling into Europe are inside that rule.
Malaysia is not a bystander
A regional tracker has identified misuse of carbon offsets as the most common form of greenwashing in Southeast Asia, with Malaysia among the hotspots for contested claims. The watchdog RimbaWatch recorded fourteen instances across nine companies operating here, concentrated in oil and gas and automotive, and has since filed a judicial review against two ministries over their handling of Shell Malaysia’s carbon-neutral claims - Malaysia’s first climate litigation of its kind.
The safe claim describes what you actually did. "We cut our emissions by 18% and bought credits covering 400 tonnes we could not yet cut" is specific, checkable and defensible. "Carbon neutral" is increasingly neither.
Malaysia has no dedicated greenwashing statute, but general consumer protection law against false or misleading representations applies to environmental claims as much as any other, and disclosure rules have been tightening in parallel.
Watch video: Claims That Do Not Hold Up
Key Insight: From 27 September 2026 the European Union treats offset-based carbon neutral product claims as a prohibited commercial practice. Describing what you did is replacing declaring what you cancelled out.
Real-World Example: A Malaysian exporter labelling a product carbon neutral on the strength of purchased offsets may find the label unlawful in its European market from late September 2026, whatever it says at home.
Q: What changes in the European Union from 27 September 2026?
The Empowering Consumers Directive bans describing a product as carbon neutral, climate neutral or climate positive where the claim rests on offsetting outside the product’s value chain, along with unsubstantiated generic terms.
Look at a sustainability claim from a company you know - on a website, a package, a report. Does it say what the company did, or what it says it cancelled out? Which would survive a court asking for evidence?
Module 5: Malaysia’s Rules and Your Place in It
Who decides, what is still being decided, and where you might fit
How Malaysia governs carbon, why land makes that complicated, what communities should get out of it, and the roles this market is creating.
Learning Objectives - Explain why land and forests being state matters complicates Malaysia’s national climate commitments
- Describe the national carbon market policy and the climate legislation being prepared
- Judge a carbon project by whether the people on the land consented and benefit
- Identify the roles a working carbon market creates and which suits your background
- Choose a realistic first step into carbon work from where you are now
What You'll Learn - Federal commitments against state control of land and forests
- Sarawak’s carbon ordinance and what it means for the rest of Malaysia
- The national carbon market policy and its four pillars
- Climate legislation, a national registry, and the postponed carbon tax
- Free, prior and informed consent, and the Sabah agreement that tested it
- The roles a biogas project and a forestry project each need
- What is known and unknown about how many jobs this creates
- Certification, self-study, and starting where you already are
Who Decides, and Why Land Makes It Complicated
Malaysia’s carbon governance has one structural feature that explains almost everything else about it, and it is constitutional rather than technical.
The promise and the land are held by different governments
The federal government makes Malaysia’s international commitments. Net zero by 2050 and the target lodged under the Paris Agreement are federal promises, and it is the federation that answers for them.
But
land, forests and water sit on the State List of the Ninth Schedule of the Federal Constitution. They belong to the states. Environment, meanwhile, appears on no list at all, which makes it a residual matter under Article 77.
Put those together and the shape of the problem appears. Most of the tonnes worth protecting in Malaysia are in forests, and those forests are controlled by state governments that made none of the international promises. A federal net-zero target cannot simply be imposed on land the federation does not govern.
Sarawak went first
Sarawak did not wait. Its Environment (Reduction of Greenhouse Gases Emission) Ordinance was passed in November 2023 and came into force on 1 March 2024, making Sarawak the first and so far only state with standalone carbon trading legislation. It sets a state net-zero goal, and regulates carbon credits and related activity within Sarawak.
The coordinating machinery
On the federal side, the Ministry of Natural Resources and Environmental Sustainability acts as the designated national authority - the body that approves Malaysia’s participation in international carbon-credit projects. A national decarbonisation committee exists to bring federal and state governments into the same conversation.
This is not a uniquely Malaysian difficulty. Indonesia and Brazil face the same shape of problem: national governments making international commitments over forests that subnational authorities control. Malaysia’s version is simply written into a constitution.
The practical consequence is that almost nothing in Malaysian carbon policy can be delivered by one government alone. A national registry needs state forest data. An international transfer needs both federal authorisation and state consent to the underlying project. Coordination is not an administrative detail here; it is most of the work.
Federal Promise, State Land
Key Insight: Land and forests are state matters under the Ninth Schedule. The federal government makes the climate promises but does not control most of the land where the carbon is.
Q: Why does Malaysia’s constitution complicate national carbon policy?
Land, forests and water sit on the State List of the Ninth Schedule. Most tonnes worth protecting are on land the federation does not govern, yet the federation answers for the national target.
If you were advising a state government, would you write your own carbon law as Sarawak did, or wait for a federal framework? What does each choice gain and risk?
The Rules Taking Shape
A note before you read this section. Everything here describes the position as at this course’s last update in August 2026. This is the fastest-moving material in the course and the part most likely to have changed. Treat the direction as reliable and the dates as provisional, and check anything you intend to rely on.
The market policy came first
On 21 April 2026 the Minister of Natural Resources and Environmental Sustainability launched the National Carbon Market Policy, the first national framework of its kind. It rests on four pillars: building a market with high integrity; putting supporting infrastructure in place, including a national carbon registry and coordinated measurement and reporting; acting as a trade catalyst through international cooperation, including Article 6 arrangements and agreements with partners such as Korea and Singapore; and driving decarbonisation sector by sector. It aims at reductions in the range of 15 to 30 million tonnes of CO2e by 2035.
The legislation
Alongside it, a national climate change bill and a companion bill establishing a climate authority have been in preparation. Between them they would create a national measurement and reporting system using one consistent method across all sectors, impose reporting obligations on facilities above a size threshold, establish the national registry, and provide the legal basis for a trading system later.
The tax that did not arrive
A carbon tax on iron, steel and energy was announced in Budget 2026. Then on the same day the market policy was launched, the minister said the tax would be postponed rather than introduced, to avoid adding cost pressure on businesses and households.
That sequencing is the most useful thing in this section. Malaysia has chosen to build the measuring and registry apparatus first and leave the price until later. It is a defensible order - you cannot tax what you cannot measure - and it means the skills the market needs now are measurement and verification skills, not trading ones.
Watch video: The Rules Taking Shape
Key Insight: The direction has stayed consistent even as the timing has slipped. Measurement and registry infrastructure comes first, and a price follows once there is something reliable to put a price on.
Real-World Example: The tax was postponed and the market policy launched on the same day. Read together, the message is not retreat but sequencing: infrastructure first, price second.
Q: What does the sequencing of Malaysia’s carbon policy suggest about priorities?
The tax was postponed while the market policy was launched. You cannot tax what you cannot measure, so the apparatus for measuring and recording is being built first.
This section is dated on purpose. Before relying on any of it, where would you go to check what has changed - and how would you tell a primary source from a summary of one?
Communities, Land Rights and Fair Benefit Sharing
A forest carbon project raises a question that no methodology answers. The carbon is in the trees, the trees are on land the state controls, and people already live there. Who agrees to the project, and who gets paid?
What happened in Sabah
In October 2021 an agreement was signed covering the rights to carbon and other marketable ecosystem services across more than
two million hectares of Sabah’s forests - over half the state’s forest area - for a term of 100 years, with the possibility of a further 100. The counterparty was a company registered in Singapore.
When the deal became public, Indigenous groups, who account for more than half of Sabah’s population, said they had not been consulted or informed. United Nations experts questioned the transparency of the agreement and whether it met the standard of free, prior and informed consent. In February 2022 the state attorney general stated that it would not come into force until key provisions were satisfied.
The standard that was tested
That standard has a name worth knowing.
Free, prior and informed consent means exactly what the words say: agreement given without pressure, obtained before the decision is made rather than after, and based on a real understanding of what is being agreed. A hundred-year agreement over land people live on, signed without their knowledge, fails all three parts at once.
Consent is not the whole of it
Even a properly consented project leaves the harder question: who receives the money, how much, and for how long. Compare the Kuamut project from Module 2, structured with the state forestry department and a state foundation among its partners. Similar disputes have run in Peru and Brazil, where the same combination of valuable forest, weak documentation of customary rights and long contracts has produced the same arguments.
Watch video: Communities, Land Rights and Fair Benefit Sharing
Key Insight: Free, prior and informed consent means freely given, obtained beforehand, and genuinely understood. A project can satisfy every carbon methodology and still fail this test.
Real-World Example: A hundred-year agreement over two million hectares, signed before the people living there had heard of it, is the clearest illustration of why consent rules exist in carbon projects.
Q: What does free, prior and informed consent require?
All three parts matter. The Sabah agreement, covering two million hectares for a century and signed without the knowledge of the people living there, failed each of them.
Suppose a project on land near you is properly consented and legally sound, but the revenue goes almost entirely to the developer and the state. Is that a good project? What would make it fair?
The Jobs This Creates
A working carbon market needs people, and the roles are more varied than the phrase "green job" suggests.
The specialist roles
The core roles are carbon project developers, greenhouse gas specialists, measurement and reporting specialists, and validation and verification professionals - the independent checkers from Module 4. Around them sits a much wider group: engineers, technicians, data scientists, auditors, sustainability professionals, and legal and financial experts who understand how carbon works.
What a real project actually needs
Take the two project types from Module 3. A biogas project at a palm oil mill needs engineers and plant technicians to build and run the capture equipment, methane-monitoring specialists to measure what is captured, emissions experts to convert that into a defensible tonnage, independent verifiers to check it, and financial professionals to structure the deal.
A forestry project needs a different set: people who understand forest management, ecologists, geographic information system specialists, field workers walking sample plots, and remote-sensing analysts working with satellite imagery.
Notice how few of these are jobs that did not previously exist. Most are existing professions applied to a new subject.
They also sit in more places than people expect. Consultancies and engineering firms advise on projects. Accredited bodies employ the verifiers. Project developers build and run the schemes. Large companies hire in-house sustainability and reporting staff. Government agencies need policy, registry and oversight people. Banks and funds need analysts who can judge whether a carbon revenue stream is real.
Being honest about the numbers
How many jobs? Nobody credibly knows. The responsible agency has declined to estimate over the next three to five years, because it depends on how fast implementation moves, how much investment arrives, and how many projects are actually built.
What can be said is narrower and firmer. Green investment of RM7.88 billion in 2024 generated more than 2,000 green jobs. Broader estimates put Malaysia’s whole green transition at around 300,000 jobs by 2050 - but that is the entire transition, not the carbon market, and the two should not be quoted as though they were the same thing.
Key Insight: Most carbon roles are existing professions applied to a new subject. The question is not whether you can retrain from scratch, but which part of your current skill transfers.
Real-World Example: An accountant moves into emissions measurement and assurance. An engineer moves into project design and monitoring. A GIS analyst moves into forest measurement. In each case the underlying skill is unchanged.
Q: What can honestly be said about the number of jobs Malaysia’s carbon market will create?
The 300,000 figure refers to the whole green transition by 2050, not the carbon market. What is firmer is that RM7.88 billion of green investment in 2024 produced more than 2,000 green jobs.
Look at the roles listed in this section. Which one is closest to what you already do, and what is the single largest gap between your current skill and that role?
Your First Steps In
Four routes in, roughly in order of how quickly you can start.
Start where you already are
The cheapest first step costs nothing. Take your own organisation’s electricity bills and fuel receipts and work out its emissions, as Module 1 described. That is a real skill, it produces something a manager can use, and it is the same task a consultant would be paid for. Nobody will stop you.
Read primary sources
The registries publish their methodologies and every registered project’s documents free of charge. Read one project design document all the way through - what it claims, how it justifies its baseline, what the verifier said. One document teaches more than a shelf of articles, and it is how you learn to spot a weak project.
Get credentialled, with realistic expectations
ISO 14064 is the international standard behind organisational greenhouse gas accounting, and courses on it are widely available in Malaysia through certification bodies and training providers, many of them claimable against employer training levies. Malaysia’s green technology agency runs its own academy, and universities are being urged to add carbon accounting to accounting and economics syllabuses.
Be clear about what a certificate does. It teaches vocabulary and signals seriousness. It does not make you a verifier - that requires working inside an accredited body, under supervision, for years.
Bring your existing profession to it
The most common route is lateral. An auditor who understands assurance, an engineer who understands process measurement, or a lawyer who understands land title already holds most of what is needed.
A closing word
You now know what a tonne is, how it is priced, where credits come from, who checks them, and who decides in Malaysia. That is more than most people in the room will know. Keep the sceptical habit this course has tried to build: ask whether the tonne is real, ask who checked, and ask who paid for the checking.
Key Insight: The fastest way in is not a certificate. It is doing the smallest real piece of the work - measuring something - with data you already have.
Real-World Example: Working out your own employer’s electricity emissions from twelve months of bills takes an afternoon, needs no permission and no software, and is the first thing any carbon role would ask you to do.
Q: What does an ISO 14064 course realistically give you?
Becoming a verifier means working inside an accredited body under supervision for years. A course teaches the language and shows commitment, which is genuinely useful but different.
Pick one thing to do within a fortnight: calculate your organisation’s electricity emissions, read one project design document, or find one course and check what it actually qualifies you for. Which will you choose?
