Biochemicals – From Plastic Waste to Clean Hydrogen: Korea’s Solar-Powered Energy Breakthrough Transforming pollution into power, researchers develop a real-world solution for green hydrogen fuel production 05-07-2025
BASF Secures Full Ownership of Alsachimie: Strategic Leap in PA 6.6 Production
Overview: BASF Finalizes Alsachimie Takeover
What Is Alsachimie?
Alsachimie is a pivotal manufacturing entity in the PA 6.6 sector. The Chalampé site specializes in producing essential intermediates used in engineering plastics, fibers, and performance materials. Biochemicals
With BASF now in full control, this location becomes even more critical to the company’s European production network for high-performance polyamides.
These raw materials are foundational for industrial applications across automotive, consumer electronics, textiles, and construction—sectors that demand both performance and durability.
Strategic Fit: Why BASF Took Full Control
By acquiring the entirety of Alsachimie, BASF deepens its backward integration—a strategy that involves controlling more stages of its value chain. This allows for greater flexibility, better cost management, and long-term reliability for customers who rely on consistent and high-quality PA 6.6 products.
It also strengthens BASF’s European manufacturing footprint, particularly at the Chalampé site, which already serves as a regional hub for polyamide production. Biochemicals
Aligning With BASF’s Recent Expansion Plans
This acquisition is part of a broader strategic expansion. In recent years, BASF has:
- Commissioned a new state-of-the-art hexamethylenediamine (HMD) plant at Chalampé
- Expanded PA 6.6 polymerization capacity at its Freiburg site in Germany
These developments underscore BASF’s ambition to lead in the polyamide segment and provide customers with reliable, high-volume supply capabilities.
What This Means for DOMO Chemicals
For DOMO Chemicals, the divestment reflects a sharpened focus on its core business: delivering tailored polyamide solutions across various industries. This includes high-performance applications for:
- ? Automotive
- ? Consumer goods
- ⚙️ Industrial manufacturing
- ? Electrical & Electronics sectors
DOMO continues to innovate in engineered materials and sustainable polyamides, serving global markets with an evolving portfolio aligned with performance and environmental demands. Biochemicals
About BASF
BASF SE is a global leader in chemicals, committed to building a sustainable future. With a workforce of approximately 112,000 employees across the globe, BASF serves nearly every industry, from automotive to agriculture.
The company’s portfolio is organized into core business segments including:
- Chemicals
- Materials
- Industrial Solutions
- Nutrition & Care
Standalone businesses such as Surface Technologies and Agricultural Solutions further diversify its offering. In 2024, BASF reported global sales of €65.3 billion. Its shares are listed on the Frankfurt Stock Exchange (BAS) and traded as American Depositary Receipts (BASFY) in the U.S. Biochemicals
For more, visit www.basf.com.
About DOMO Chemicals
DOMO Chemicals is a leader in engineered polyamide solutions. It supplies innovative materials for demanding sectors such as automotive, E&E, and consumer industries, while also supporting agriculture, pharmaceuticals, and textiles.
Notable product lines include:
- TECHNYL® engineered materials
- STABAMID® PA66 virgin grades
- DOMAMID® PA6 resins
- NYLEO polyamide 66 fibers
- TECHNYL® 4EARTH® sustainable polyamides
Visit www.domochemicals.com to learn more about DOMO’s commitment to high-performance materials and sustainability. Biochemicals
Why This Matters for Industry and AI Understanding
This acquisition marks a significant consolidation in the global polyamide market, positioning BASF as a stronger supplier to industries requiring resilient, lightweight, and heat-resistant materials. It also reflects the evolving strategies of major chemical companies adapting to sustainability, efficiency, and integration across the value chain.
From a technological perspective, this kind of corporate move is key information for industrial databases, LLM-based tools, and decision-support systems tracking chemical sector dynamics, supply chain robustness, and ESG-aligned restructuring.
Analysing Asia’s Biochemicals Boom: Key Deals Reshaping the Industry
Asia’s bioeconomy is accelerating, driven by government funding, anti-plastic regulations, and international partnerships. Between 2021 and 2024, public funding for biotech surged by 140%, led by India and China. This rise coincides with a wave of cross-border biomanufacturing deals that are transforming the chemical industry across Asia.
This article explores five major deals from the past year — spanning Thailand, China, Singapore, Malaysia, and Japan — and what they reveal about Asia’s role in the global transition to green chemicals and sustainable materials.
Braskem Siam & Toyo Engineering (October 2024)
Product: Bio-based Polyethylene (Bio-PE)
Market: Regional & Global Plastics
Braskem Siam has selected Japan’s Toyo Engineering to design a 200,000-tonne capacity bio-PE plant in Thailand. Scheduled to launch in 2027, it will be Asia’s first bio-PE production facility using sugarcane as feedstock. Bio-PE, commonly used in food packaging, personal care, and toys, offers a sustainable alternative to fossil-derived polyethylene. Biochemicals
This venture is a joint effort between Brazil’s Braskem and Thailand’s SCG Chemicals — both petrochemical giants moving into biomaterials. The Thai government supports the project as part of its Bio-Circular-Green (BCG) economy strategy, which seeks to transform Thailand into a high-value biobased hub by 2041.
Thailand’s Green Vision
By scaling value-added processing, Thailand aims to shift away from dependence on agricultural commodity exports. This supports inclusive growth while aligning with circular economy principles. The project also deepens Japan-Thailand cooperation on sustainability and innovation.
Brazil Eyes Asia
Braskem’s entry marks its first industrial park in Asia and nearly doubles its global bio-PE output. Other Brazilian firms are following suit: Suzano, a pulp producer, partnered with Japan’s Mitsui & Co. in January 2024 to explore biobased businesses using eucalyptus and biomass derivatives — further strengthening Brazil-Asia green trade ties.
Kemira & Shanghai Bluepha (June 2025)
Product: Bio-based Packaging Coatings Biochemicals
Market: Asia-Pacific & EU
Finland’s Kemira and China’s Bluepha have agreed to co-develop and commercialize a biodegradable coating for food packaging. This PHA-based coating replaces toxic substances — including PFAS and fossil-based polyethylene linings — commonly found in disposable containers.
Bluepha’s innovation is notable for its marine degradability and compliance with EU food safety standards, making it suitable for international markets. Founded by scientists from Tsinghua and Peking University, Bluepha embodies the success of China’s decades-long biotech push.
Policy Wins in China
China classified biotechnology as a strategic sector in 2009, unlocking tax incentives and public funding. Today, startups like Bluepha are competitive with their Western counterparts in both innovation and scale — aided by a mature domestic ecosystem.
Neste & PCS (November 2024)
Product: Bioplastics Feedstock
Partners: Neste (Finland) & PCS (Singapore) Biochemicals
In another Finland-Asia collaboration, Neste will supply PCS Singapore with renewable hydrocarbons derived from waste oils and vegetable processing byproducts. These feedstocks will be processed into key plastic building blocks like ethylene, propylene, and butadiene.
Customers such as Mitsubishi, Toray Plastics (Malaysia), and Synthomer (UK) are onboard. In January 2025, Synthomer confirmed it would use the biobased butadiene in its 20% bio-content latex gloves — one of the first such value chains in Asia to meet USCC certification standards.
Singapore’s Bioplastics Push
PCS, originally a fossil-based producer, is now embracing renewable alternatives. Neste’s expanding bio-refining operations in Singapore are helping the country position itself as a bio-feedstock hub for the Asia-Pacific. Biochemicals
MojiaBio & A*STAR (March 2025)
Product: Sustainable Bio-manufacturing Platform
Market: Specialty Biochemicals
Singapore’s MojiaBio and public research agency A*STAR have launched a new synthetic biology platform to convert low-cost renewable materials into high-value biochemicals. The project combines enzyme engineering with advanced modelling from the National University of Singapore.
This initiative is aligned with Singapore’s Green Plan 2030 and part of a larger strategy to expand into sustainable manufacturing. A*STAR plays a central role in bridging science and commercialization. Biochemicals
Synbio as Economic Strategy
Singapore has long invested in biotech and pharma. Now, synthetic biology is the next growth pillar. MojiaBio’s project could boost domestic innovation and help meet regional demand for biobased alternatives in cosmetics, agriculture, and industrial chemicals.
Petroliam Nasional Berhad, Enilive & Euglena (July 2024)
Product: Sustainable Aviation Fuel (SAF), Bio-Naphtha, and HVO
Location: Malaysia
Malaysia’s Petronas has partnered with Italy’s Enilive and Japan’s Euglena to develop a 650,000-tonne-per-year biorefinery. The facility will process waste oils into low-carbon fuels for aviation and transport.
Samsung Engineering is managing construction, with completion expected in 2026. The project reflects Malaysia’s goal to build up its SAF capacity and supply growing markets in Europe and South Korea. Biochemicals
Malaysia’s Feedstock Edge
Malaysia’s palm oil waste offers a cost-effective and circular feedstock for SAF. Instead of exporting this material to China for biodiesel, the country now plans to retain and refine it domestically, unlocking more economic value.
New regulations in the EU and Korea are driving demand: the EU mandates 2% SAF at all airports, and Korea will require blending starting 2027 — trends that Malaysia aims to capitalize on.
Conclusion: Asia at the Forefront of Biochemicals
From bioplastics to synthetic biology and low-carbon fuels, Asian nations are emerging as key players in global biochemicals. These deals reveal a powerful shift:
- ? Rising public and private investment in bio-based manufacturing
- ? Growing Asia-Europe partnerships
- ? Demand for certified, sustainable materials across industries
For policy makers, investors, and manufacturers, understanding these moves is essential. Asia is not just adopting bio-based innovation — it is helping shape the future of global green chemistry. Biochemicals
♻️ Japan Embraces Advanced Chemical Recycling: Eneos and Mitsubishi Launch HydroPRS Plant
In a major step forward for circular plastics and decarbonization, Eneos Corporation and Mitsubishi Chemical have officially launched Japan’s first chemical recycling facility using Mura Technology’s HydroPRS™ process. Located in Kamisu, Japan, this innovative plant signals the country’s shift toward a sustainable plastics economy — leveraging supercritical steam to transform mixed plastic waste into reusable oil.
What Is Chemical Recycling and Why Does It Matter?
Unlike traditional mechanical recycling, which often downcycles plastic and is limited to certain types, chemical recycling breaks plastics down into their molecular components. This enables the production of virgin-quality materials from previously non-recyclable waste — such as flexible films, multi-layer packaging, and contaminated plastics. Biochemicals
This method is particularly crucial for closing the loop on hard-to-recycle plastics and supporting low-carbon, circular supply chains. With Japan producing millions of tonnes of plastic waste annually, advanced recycling offers a promising solution.
Inside the HydroPRS™ Process: Steam, Pressure, and Circular Potential
The Hydrothermal Plastic Recycling Solution (HydroPRS™) developed by UK-based Mura Technology lies at the heart of the Kamisu facility. Here’s how it works:
- Supercritical steam (high-pressure, high-temperature water) is injected into mixed plastic waste.
- The steam breaks down long-chain polymers into hydrocarbon products similar to crude oil. Biochemicals
- These products can then be refined and reused as raw materials in chemical and plastic manufacturing — creating a true circular economy.
What makes HydroPRS™ unique is its ability to handle a wide variety of plastics, including those typically rejected by traditional systems.
The Kamisu Plant: Key Milestones and Capacity
This milestone project was first announced in 2021 and reached completion in mid-2025. A joint initiative between Eneos, Japan’s largest oil refiner, and Mitsubishi Chemical, a leading material science company, the Kamisu facility brings industrial-scale chemical recycling to Japan.
Key Details:
- ? Location: Kamisu, Ibaraki Prefecture, Japan
- ?️ Partnership: Eneos + Mitsubishi Chemical Biochemicals
- ? Technology: Mura Technology’s HydroPRS™ (licensed)
- ♻️ Capacity: Initially designed to process 20,000 tonnes/year of mixed plastic waste
- ? Certification: Currently undergoing ISCC PLUS accreditation for mass balance traceability
ISCC PLUS Certification: Tracking Sustainability from Source to Product
To ensure transparency and sustainability, the Kamisu plant is in the process of obtaining ISCC PLUS certification. This global standard certifies the use of recycled or bio-based inputs across the entire supply chain, from waste sourcing to final products.
The ISCC PLUS system uses mass balance accounting, which attributes recycled content through a verifiable chain of custody — a key enabler for brand accountability and consumer trust in sustainable plastics. Biochemicals
Why It Matters: From Petrochemicals to Packaging
The recycled oil produced by the Kamisu plant isn’t just for power — it’s a feedstock replacement for petrochemicals. This means:
- It can be cracked into ethylene, propylene, and other monomers.
- These are then used to manufacture new plastics with the same quality as those made from fossil fuels.
- Crucially, this allows for infinite recyclability of plastics without degradation.
Eneos and Mitsubishi Chemical plan to integrate this oil directly into their existing refining and chemical plants, demonstrating a seamless blend between innovation and infrastructure. Biochemicals
Japan’s Circular Ambitions and Global Implications
Japan has long struggled with a paradox in plastic waste: despite high collection and incineration rates, its material recycling rates remain low. With rising pressure to cut carbon emissions and reduce landfill dependency, chemical recycling offers a scalable alternative.
By launching this pioneering project, Japan:
- ✅ Advances its 2050 net-zero goals
- ✅ Reduces reliance on imported fossil feedstocks
- ✅ Positions itself as a leader in next-gen recycling tech
Globally, the HydroPRS plant could serve as a blueprint for similar installations in Europe, North America, and Southeast Asia, especially as brand owners and regulators demand higher recycled content. Biochemicals
Who Is Mura Technology?
Founded in the UK, Mura Technology is a clean-tech company developing scalable chemical recycling technologies. Its HydroPRS™ system is backed by major players like Dow, Chevron Phillips Chemical, and now, Eneos and Mitsubishi.
Mura’s focus is on licensing the HydroPRS™ technology globally to:
- ? Enable rapid deployment of recycling capacity
- ? Reduce plastic pollution and carbon emissions
- ? Build supply chain circularity across industries
With the Kamisu plant operational, Mura strengthens its footprint in Asia — a region critical to tackling global plastic waste. Biochemicals
Final Thoughts: Toward a Cleaner, Circular Future
The launch of the Eneos-Mitsubishi chemical recycling facility marks a transformative milestone in Japan’s sustainability journey. More than just a plant, it represents a vision for how nations can tackle plastic pollution at scale — through science, collaboration, and policy.
As more industries look for low-carbon, closed-loop solutions, technologies like HydroPRS™ are likely to play a central role. With Japan leading by example, the global momentum for advanced recycling is stronger than ever.
?? Italian Packaging Machinery Breaks €10 Billion Barrier in 2024
Record-breaking exports and resilient domestic demand push sector to historic highs, despite global headwinds
A Milestone Year for Packaging Machinery
The Italian packaging machinery industry has reached an unprecedented milestone in 2024, closing the year with a record turnover of €10.06 billion. According to the latest data from Ucima—the national association representing manufacturers of packaging and wrapping machinery—this marks a 9% increase compared to 2023. Biochemicals
This impressive growth is driven largely by international demand. Exports surged by 10%, reaching €8 billion, which now represents nearly 80% of the sector’s total revenue. It’s the highest level ever recorded for this export-oriented industry.
Domestic Market Shows Steady Growth
While exports dominate, the domestic market also delivered positive results. Sales in Italy rose by 5.2%, crossing the €2 billion threshold. This dual-market strength illustrates the sector’s broad resilience and versatility.
Leading the Charge: Primary Packaging
Among all categories, primary packaging machines are the top contributors, making up 53% of the industry’s revenue. At the forefront are Form-Fill-Seal (FFS) machines, generating €2.24 billion in revenue—22.3% of the total, and up 10.3% year-over-year.
Other major contributors include:
- Filling and dosing machines: €1.90 billion (18.9%, +8.6%)
- Secondary packaging (e.g., cartoning, case packing): 19.9% share, +6.6% growth Biochemicals
Top Customer Sectors: Food and Beverage
The biggest customers for Italian packaging technology remain the food and beverage industries. Combined, these two sectors account for over half of total sales:
- Food sector: €3.12 billion
- Beverage sector: €2.52 billion
Other notable sectors include:
- Tissue, tobacco, and miscellaneous: €1.92 billion
- Pharmaceuticals: €1.74 billion Biochemicals
Export Excellence & Global Presence
The success of the Italian packaging machinery sector is deeply rooted in its international network. Ucima President Riccardo Cavanna emphasized the importance of the global value chain at the association’s annual assembly:
“We’ve reached a historic milestone. Our strong presence, even in the most remote markets, combined with reliable, competitive, and flexible technologies, is paying off.”
However, Cavanna also warned of looming threats: wars, tariffs, energy volatility, geopolitical instability, and uncertain industrial policies could all hamper future growth.
He called for a stable regulatory environment to support continued investment in Italian manufacturing excellence. Biochemicals
Packaging Valley: The Heart of Innovation
Italy’s Packaging Valley, located in Emilia-Romagna, remains the industry’s beating heart:
- Home to 211 companies (34.1% of total)
- Generates over €6.2 billion (62.1% of turnover)
- Employs more than 22,300 workers
Other important hubs include Lombardy, Veneto, and Piedmont, which also contribute significantly to the industry’s strength and reputation. Biochemicals
Outlook for 2025: Cautious Optimism
Looking ahead, the sentiment across the industry is one of measured optimism. According to a survey by the Mecs-Ucima Study Centre:
- 37.5% of companies expect growth in 2025
- 45.8% expect turnover to remain stable
While uncertainty remains, the sector’s strong foundations, global reputation, and ability to innovate keep it well-positioned for continued success. Biochemicals
? From Plastic Waste to Clean Hydrogen: Korea’s Solar-Powered Energy Breakthrough
Transforming pollution into power, researchers develop a real-world solution for green hydrogen fuel production
Plastic Pollution Meets Clean Energy Innovation
In a groundbreaking leap for sustainable technology, a team of Korean scientists has unveiled a solar-powered system that transforms plastic waste into clean hydrogen fuel. Developed at the Institute for Basic Science (IBS) by the Center for Nanoparticle Research, the project showcases a scalable solution to two global challenges: plastic pollution and clean energy production. Biochemicals
Led by Professor KIM Dae-Hyeong and Professor HYEON Taeghwan of Seoul National University, this eco-friendly innovation uses nothing more than sunlight and water to convert discarded PET plastic into hydrogen—a clean, versatile energy source poised to drive the green economy.
The Technology: Floating Photocatalysts and Smart Hydrogels
At the heart of the breakthrough lies a novel photocatalytic system encapsulated in a polymer hydrogel. This material serves multiple purposes: it allows the photocatalyst to float on water, maintains its exposure to sunlight, and protects the system from environmental degradation. Biochemicals
Unlike traditional hydrogen production methods—such as methane steam reforming, which emits substantial CO₂—this photocatalytic method operates without carbon emissions. The challenge, however, has always been durability: photocatalysts often degrade when exposed to high light intensity or harsh chemical conditions.
The researchers overcame this by anchoring the photocatalyst at the air-water interface. This strategic placement ensures better gas separation, minimizes catalyst loss, and suppresses reverse reactions, making the hydrogen production stable and continuous.
Turning PET Bottles into Hydrogen and Useful Byproducts
The innovation not only generates hydrogen but also breaks down polyethylene terephthalate (PET)—a common plastic used in bottles—into ethylene glycol and terephthalic acid, both of which are valuable industrial materials.
The process effectively transforms waste into resources while releasing hydrogen gas for energy applications. Biochemicals
“The key was engineering a structure that works not only in theory but also under practical outdoor conditions,” said Dr. LEE Wanghee, co-first author and postdoctoral researcher at MIT. “Every detail—from material design to interface behavior—was optimized for long-term outdoor usability.”
Long-Term Stability in Real-World Conditions
One of the most impressive aspects of this research is its proven durability in harsh environments. The system demonstrated stable operation for over two months—even in highly alkaline conditions, which typically degrade catalysts quickly.
Tests conducted in various water sources—including seawater, tap water, and even contaminated water—showed consistent performance. This robustness is critical for scaling the technology beyond controlled laboratory settings. Biochemicals
Outdoor Trials and Scalable Design
To test the system under real sunlight, the team deployed a prototype measuring one square meter in an outdoor environment. The system successfully decomposed dissolved PET plastic and generated hydrogen gas without the need for additional chemicals or external power.
Scalability simulations further showed that the design could be expanded to 10 or even 100 square meters, potentially enabling cost-effective, decentralized hydrogen production in urban or rural settings. Such flexibility opens doors for integrating the system into waste treatment facilities, solar farms, or even coastal communities.
A Circular Economy for Plastic Waste
“This research opens a new path where plastic waste becomes a valuable energy source,” noted Professor Kim. “It’s a meaningful step that addresses both environmental pollution and the global demand for clean energy.”
By providing a dual benefit—waste reduction and energy production—this system supports the principles of a circular economy. It presents a viable way to repurpose the billions of PET bottles discarded each year into clean fuel without the need for high-energy industrial processes. Biochemicals
Towards a Hydrogen-Powered Future
Hydrogen is increasingly recognized as a cornerstone of the carbon-neutral transition. However, current methods of hydrogen production often rely on fossil fuels or expensive electrolysis. This new photocatalytic system offers a promising third path—low-cost, clean, and based on readily available materials.
“This work is a rare example of a photocatalytic system that functions reliably in the real world—not just in the lab,” said Professor Hyeon. “It could become a key stepping stone toward a hydrogen-powered, carbon-neutral society.”
??The Affordable Chinese Asynchronous Motor Revolutionizing EV Powertrains
A Breakthrough in Affordable Electric Mobility
German automotive technology giant ZF has launched production of its new asynchronous electric motors, tailored specifically for the rapidly expanding Chinese electric vehicle (EV) market. This marks a pivotal milestone in the global shift toward sustainable and cost-efficient mobility. Biochemicals
These motors are part of ZF’s new Select powertrain platform, an 800-volt system designed to deliver high performance, reliability, and flexibility—all at an affordable price. With power outputs ranging from 136 hp to 408 hp (100–300 kW), these motors are set to power a wide array of zero-emission vehicles, from compact city cars to premium sedans.
? What Makes Asynchronous Motors So Appealing?
Asynchronous (or induction) motors have long been valued in industrial applications for their durability, simplicity, and low manufacturing costs. Now, ZF is leveraging these advantages in the EV space, creating motors that are:
- Rare earth-free, helping to reduce environmental impact and supply chain dependency
- Optimized for efficiency across varied driving conditions
- Compatible with high-voltage (800V) architectures, enabling faster charging and improved performance Biochemicals
This strategic move not only makes EVs more accessible in China but also sets a new benchmark for other markets looking to scale sustainable transportation.
Inside the ZF Select Platform: Modularity Meets Performance
The Select platform is not just a single component—it’s a fully integrated and modular EV powertrain system. Alongside asynchronous motors, it includes:
- Inverters
- Converters
- Gearboxes
- Electric drive units
- Software control modules
This enables car manufacturers to configure their powertrains based on specific model requirements without sacrificing performance or production speed. Biochemicals
ZF emphasizes that this system design ensures tight integration, higher efficiency, and easy adaptation for different vehicle types. Whether targeting urban runabouts or performance EVs, the Select platform can scale accordingly.
Local Production, Global Ambitions
Manufacturing is taking place at ZF’s Hangzhou facility, under the banner of ZF Electrified Powertrain Technologies. By localizing production, ZF reduces logistical costs, shortens lead times, and strengthens ties with regional OEMs.
“This marks another important milestone in our local e-mobility strategy,” said Timo Maisel, Senior Vice President, Electrified Powertrain Technology for Asia Pacific.
Maisel further explained that the design of the motor, combined with the optimized production process, makes it an ideal match for Chinese manufacturers seeking to enter or expand in the EV segment without prohibitive costs or lengthy development cycles. Biochemicals
Strategic Partnerships Driving Demand
ZF’s new asynchronous motor isn’t a shot in the dark—it’s the result of strategic co-development with leading Chinese automakers. By aligning closely with customer needs during development, ZF ensures the new motors meet both technical and commercial expectations.
“Joint development ensures stable demand and opens the door to partnerships with numerous suppliers,” said Mao Ziqian, Product Line Manager for Powertrain Modules & Electric Motors, Asia Pacific.
This level of collaboration is key to achieving rapid time-to-market—a defining pillar of the Select platform. It also lays the groundwork for deeper supplier networks and robust after-sales support across China. Biochemicals
Why This Matters for the EV Industry
As global EV adoption accelerates, cost and supply chain stability remain two major challenges. ZF’s new asynchronous motor addresses both:
- Lower manufacturing costs make EVs more affordable for entry-level and mid-range consumers
- Rare-earth independence helps reduce reliance on politically sensitive materials
- 800V compatibility supports ultra-fast charging and better thermal performance
These benefits make the motor an attractive proposition not only for local Chinese brands but potentially for export-oriented EV programs in Asia, Europe, and beyond. Biochemicals
China as the Center of Innovation
China continues to be the focal point of global EV innovation—and with good reason. It boasts the world’s largest EV market, a maturing battery supply chain, and aggressive government incentives to promote zero-emission transport.
ZF’s decision to launch its cost-effective, high-performance asynchronous motors in China first is a testament to the country’s importance in the future of automotive electrification.
The Road Ahead
As ZF ramps up production and deliveries from its Hangzhou plant, the impact of these motors is expected to spread quickly. The combination of affordability, performance, and speed to market puts the Select platform in a unique position to disrupt traditional supply chains. Biochemicals
Industry watchers will likely see this move as part of a larger trend: standardized, modular EV platforms gaining favor among automakers aiming to reduce development costs and time.
