The global chemical industry is facing a quiet but inevitable reckoning. As the world deliberately transitions away from fossil fuels, the focus is largely on replacing the 87% of the crude oil barrel used for energy and transportation. However, it is the remaining 13%, the portion dedicated to non-energy purposes like plastics, detergents, cosmetics, and pharmaceuticals, that presents the most complex structural challenge.

Because these petrochemical building blocks have historically existed as cheap, subsidised byproducts of massive fuel production, stripping away the energy market forces the chemical industry to completely rewrite its supply chains. To survive, we cannot simply extract our way forward; we must adopt a radical new philosophy: we must grow our chemicals.

As science-based strategist Professor Datuk Dr Ahmad Ibrahim of UCSI University notes, this shift represents a fundamental realignment with the natural world:

"The fastest chemical factory on Earth isn't a refinery in Texas or a mine in Congo. It's a field of corn, a stand of switchgrass, or a vat of engineered yeast. Biochemistry runs on sunlight, air, water, and soil biology — replenished in months, not millions of years."

Crucially, this factory isn't always bound to terrestrial soil. When we expand this concept to marine biology, leveraging high-yield microalgae systems that capture intense sunlight to synthesise lipids at fractions of the footprint of traditional agricultural crops, the potential multiplies. Sunlight operates as the ultimate, free energy input, driving photosynthetic factories that convert carbon dioxide and water into complex carbon chains.

By utilising plants, algae, and microbes, the chemical industry transitions from mining a legacy, finite subterranean asset to managing an abundant, circular surface cycle. Yet, as the oleochemical sector steps up to become the primary engine of this bioeconomy, it faces a tough near-term reality: managing the complex logistics and severe operational volatility inherent to downstream chemical manufacturing plants.

The physical operational challenges of manufacturing these complex carbon chains are highly visible within Malaysia’s downstream landscape, particularly in the history of the Telok Panglima Garang facility in Selangor.

The global Emery Oleochemicals brand we know today entered the Malaysian landscape when German giant Henkel formed its local joint venture during the industry's initial founding wave, officially opening the manufacturing plant's doors in November 1984. The facility became well-known for its specialised production lines, anchored by the Edenor brand, a pioneer in high-purity, natural-based fatty acids, glycerine, and fatty alcohols.

However, the parent brand Emery Oleochemicals later chose to restructure its footprint. It wasn't a corporate split; rather, the global joint venture, jointly owned as a 50:50 partnership between SD Guthrie Bhd (KL:SDG) (formerly Sime Darby Plantation Bhd) and Thailand’s PTT Global Chemical, decided to divest its Malaysian plant to focus entirely on its high-value specialty derivative assets in the US and Germany.

The standalone Malaysian factory was subsequently sold to Edenor Technology (a local joint venture between Mega First Corporation Bhd (KL:MFCB) and 9M Technologies Sdn Bhd) in late 2021. The new owners took on a massive asset rehabilitation challenge, working fiercely to upgrade the ageing infrastructure, stabilise the core operations, and pivot the product mix towards high-margin specialty chemical blends.

Crucially, the turnaround team operated within a tight three-year runway to stabilise cash flow and turn a profit. Ultimately, that window ran out, and the plant entered court-supervised judicial management proceedings in mid-2026. It is critical to note that this turnaround challenge did not stem from feedstock issues. The baseline palm oil and palm kernel oil feedstocks remain abundant, highly accessible, and fundamentally robust across Southeast Asia; the broader structural transition towards pure bioprocessing remains decades away. Instead, the operational collapse was driven by near-term structural, financial, and logistical bottlenecks:

This history proves that a biological feedstock advantage cannot save an industrial asset if its immediate balance sheet, operational liquidity, and component supply chains are left exposed.

While oleochemicals are widely celebrated as "green" and plant-based, most are actually hybrids. Everyday items, from shampoo foaming agents and engine lubricants to standard biodiesel, are made by chemically bonding natural plant oils with petroleum derivatives. Consequently, breaking free from fossil fuels isn't just about switching the primary oil base; the chemical industry must also find clean alternatives for the hidden synthetic agents that keep these products working.

As the global transition towards vehicle electrification accelerates over the coming decades, the demand for traditional biodiesel will inevitably wane. The elimination of government-mandated biofuel blending will trigger an important resource reallocation: millions of tonnes of plant oils previously burnt in internal combustion engines will be freed up.

This shift will fundamentally ease the traditional, highly controversial food-versus-fuel crisis, allowing agricultural outputs to return to the global food supply chain. However, because the global chemical industry must simultaneously source renewable carbons to replace its 13% petrochemical share, a new economic tension will emerge: food versus chemicals.

This shifting dynamic alters the economics of the Biodiesel Paradox. Historically, the downstream oleochemical industry boomed because biodiesel production generated a massive, subsidised 10% byproduct glut of cheap, crude glycerine used to synthesise green plastics and solvents. As biodiesel lines slow down, this cheap byproduct stream will evaporate. To prevent a severe squeeze on global food supplies, the next generation of chemical manufacturing cannot rely solely on land-based agriculture. It must unlock new lipid sources.

Microscopic organisms, including algae and specialised microbes, represent a major leap forward for chemical manufacturing. Unlike traditional farm crops, these cellular "factories" do not require fertile soil, do not compete with food production, and grow exceptionally fast. While growing plant lipids still requires physical surface area to capture sunlight, advanced bioprocessing dramatically reduces our reliance on farmland. By building biorefineries that feed industrial chimney emissions directly into algae growth tanks, waste carbon dioxide can be pulled straight out of the air and turned into useful industrial oils.

Locally, research is already moving in this direction. The MIPO Biorefinery Laboratory at Monash University Malaysia is developing systems to process this microbial biomass into oils, proteins, and carbohydrates, yielding ingredients for food, animal feed, green fuels, and bio-based chemicals. At the same time, biotechnology is replacing energy-intensive manufacturing. Natural biological catalysts (enzymes) can now split and process plant oils under gentle, room-temperature conditions, replacing the harsh, fossil-fuel-heated reactors used in traditional factories.

However, an immediate commercial barrier remains. While microbial and algae products exist today, they are mostly confined to high-value niche markets like cosmetics and specialty supplements. Expanding production to cheap, high-volume chemicals and fuels remains a major hurdle. Unlocking the full potential of these cell-based refineries will require driving down the cost of growing, harvesting, and processing these microscopic organisms.

For Malaysia, the global epicentre of palm-based chemistry, this industrial transition is not a sudden cliff, but a slow and steady tide. The traditional paradigm of simply crushing fruit, splitting oils, and relying on fossil-fuel-subsidised byproducts is hitting its commercial limits.

While advanced molecular synthesis via fermentation tanks will eventually decouple chemical production from land use, that technology remains decades away from matching the millions of tonnes pushed out by global oil crushing mills today. Therefore, the immediate future belongs to the hybrid biorefinery.

Because the global shift away from fossil fuels is a multi-decade marathon, Malaysian players can have several decades to navigate this evolutionary arc. This extended timeline is inextricably linked to the global pace of energy transition. While it means the domestic chemical infrastructure does not need to be rewritten overnight, it is highly prudent to begin preparing, researching, and diversifying now.

The long-term survival of the nation's downstream sector will depend on its ability to systematically merge agricultural efficiency with precision bioprocessing over the next generation. Malaysia can ensure that when the fossil fuel era finally wanes, the nation is positioned to lead the post-petrochemical world.

Qua Kiat Seng is an adjunct senior lecturer at Monash University Malaysia with more than 50 years’ experience in the oils and fats industry, much of which was in oleochemicals.