BENGALURU—The promise sounds almost too clean: feed mixed plastic waste into one end of a machine, skip the expensive, energy-guzzling hydrogenation step that the industry relies on, and pull out petrochemical-grade oil from the other. Yet that's precisely what PolyCycl says it has accomplished.
In early 2025, the Chandigarh-based startup unveiled its Generation VI Contiflow Cracker at a launch event in Bengaluru, billing the continuous pyrolysis system as a way around one of chemical recycling's most stubborn bottlenecks. The company claims conversion yields of 65-80% to liquid hydrocarbons, with purification happening at ambient temperature and pressure—no hydrogen required. If that holds up at commercial volumes, it would be a notable departure from how the rest of the industry operates. And maybe a lucrative one.
By January 2026, PolyCycl had secured Series A backing from Rainmatter, the investment arm of Zerodha, India's retail trading giant. The funding amount wasn't disclosed by the company, though Inc42 pegged it at INR 26 crore (roughly $2.8 million). Not a massive round by Silicon Valley standards, but enough to push the technology from demonstration runs into real deployments—assuming the process works as advertised.
The timing is anything but accidental. India's extended producer responsibility mandates are tightening fast. Rigid plastic packaging must contain 30% recycled material in the fiscal year running through March 2026, climbing to 60% by 2028-29. That's created urgent demand for technologies that can handle the messy, contaminated, multilayer plastics that mechanical recycling can't touch. Chemical recycling—pyrolysis, in particular—offers a route, though the industry is still figuring out whether the economics and technical performance can scale.
The Continuous Challenge
Most pyrolysis systems run in batches. Heat plastic waste in a reactor, break it down into hydrocarbon vapors, condense those into oil, then shut everything down to scrape out the char and contaminants left behind. It's labor-intensive, inefficient, and it limits throughput.
PolyCycl's Gen VI tries to solve that with what it calls AutoCharRemoval—a proprietary mechanism that expels solid residues on the fly, without stopping the reaction. The system pairs primary and secondary cracking stages, integrated distillation, and energy recovery from off-gases. Module capacities range from 15 to 100 tonnes per day, giving potential partners flexibility to scale incrementally or slot the technology into existing infrastructure.
The feedstock is deliberately unglamorous: mixed polyolefins scraped from landfills and municipal waste streams. LDPE, LLDPE, HDPE, polypropylene—the stuff that piles up because nobody else wants to deal with it. According to company materials, the system generates 600 to 800 kilograms of liquefied hydrocarbon oil per tonne of waste processed.
Founder and CEO Amit Tandon, who spent over a decade in chemical recycling after earlier work in semiconductors, described the launch as the payoff from "extended continuous operations in 2025" that brought the platform to Technology Readiness Level 7—industry shorthand for a system that's been demonstrated in an operational environment, though not yet at full commercial scale.
In a January 2026 press release, PolyCycl said its output had been "pre-qualified by petrochemical majors." It didn't name those partners. That's not uncommon in early-stage licensing deals, where incumbents test new technologies quietly before committing publicly, but it does leave outside observers without independent confirmation.
The company's technical stack, as outlined on its website, includes PolyOlefinExtract for feedstock preparation (automated, waterless), the Contiflow Cracker itself, PyOilClean purification, and PolyGreen Oil branding for the end product. It's a soup-to-nuts approach, assuming each component delivers.
The No-Hydrogen Bet
Here's where PolyCycl's pitch gets interesting, and where industry veterans are likely to raise eyebrows.
The startup claims its PyOilClean process strips organic chlorides, halogens, metals, and moisture down to petrochemical specifications without hydrogenation. That's significant, because hydrotreating—the conventional route for upgrading pyrolysis oil—requires high temperatures, hydrogen pressure, and expensive catalysts. It saturates unsaturated bonds, removes heteroatoms, and generally turns crude pyrolysis oil into something a steam cracker or refinery can work with. It also adds substantial cost and energy intensity.
PolyCycl describes PyOilClean as a multi-stage physical and chemical purification system that operates at ambient temperature and pressure. Tandon and company spokespeople have framed this, in statements from April 2025 onward, as a differentiator that could significantly reduce capital and operating expenses for licensees.
The question—and it's a big one—is whether that actually works at scale. Independent third-party validation wasn't publicly available as of early 2026. Peer-reviewed literature on pyrolysis oils urges caution. A 2023 open-access review in Polymers, along with subsequent industry studies, notes that most pyrolysis oils contain high concentrations of unsaturated hydrocarbons, chlorine, and aromatics. Feed those impurities into a steam cracker without deep upgrading or blending with virgin naphtha, and you risk coking, corrosion, and off-spec outputs.
Whether PolyCycl's process sidesteps those problems without hydrogenation is something commercial deployment will have to answer. For now, it's a technical assertion awaiting proof at tonnage.
Licensing, Not Building
PolyCycl isn't planning to build and operate plants itself. The business model is asset-light: license the technology, sell engineering packages, collect royalties or fees tied to production volumes. It's a familiar playbook in petrochemicals and refining, where technology licensors monetize know-how and let partners bring the capital, feedstock access, and off-take agreements.
The Series A from Rainmatter, announced January 20, 2026, is earmarked for commercial deployments, expanding engineering and execution teams, and deepening relationships with petrochemical companies. PolyCycl had previously raised capital from Spectrum Impact (the Aarti family office), Milestone Gears, Supermorpheus, and a mix of high-net-worth individuals and venture funds, according to coverage in CIOL and other outlets.
The company projects project-level EBITDA exceeding 50%—an optimistic margin that assumes stable feedstock costs, consistent yields, and buyers willing to pay for circular content. It has set a long-term ambition to recycle around 1.6 million tonnes of plastic waste over the next decade, yielding roughly 1.1 million tonnes of circular pyrolysis oil. Those figures, disclosed in January 2026, carry the usual forward-looking caveats. Earlier mentions cited 1.5 million tonnes; the revision is modest but worth noting.
To secure feedstock, PolyCycl signed a collaboration in October 2023 with Re Sustainability (formerly Ramky Enviro) to develop a network of feedstock facilities across India. Separately, Re Sustainability and Aarti Circularity announced a joint venture in January 2025 targeting 500 tonnes per day of resource recovery by 2030, with a first plant planned for Hyderabad. It's a sign that infrastructure for sorted, pre-processed chemical recycling feedstocks is beginning to take shape, though supply chains remain fragmented.
CIOL reported in January 2026 that L&T Technology Services engaged with PolyCycl on engineering design and project execution in 2025, and that Topsoe, the Danish catalyst and technology firm, evaluated the platform for energy transition relevance. Independent public releases from LTTS or Topsoe confirming those engagements weren't located, which leaves those claims in the category of "company says" rather than independently verified partnerships.
A Crowded, Early Field
Globally, chemical recycling is transitioning from demonstration projects to early commercial scale, though the landscape is uneven. Eastman's molecular recycling facility in Kingsport, Tennessee, came online in 2024 and ramped output the following year; the company is pursuing a 110,000-tonne-per-year project in Longview, Texas, plus additional plans in France. Nexus Circular has signed long-term pyrolysis oil supply deals with Chevron Phillips Chemical. Cyclyx, a joint venture backed by LyondellBasell and ExxonMobil, is building Circularity Centers in Houston and elsewhere in Texas to process hundreds of millions of pounds of plastic waste annually.
In India, APChemi launched its PUREMAX pyrolysis oil purification plant in February 2025 with support from the Technology Development Board, claiming commercial production targets by early 2026 and cooperation with Technip Energies dating back to 2022. The field is filling in, but operating histories are short and scale remains limited.
PolyCycl's Gen VI enters that landscape with a technical promise—continuous operation, no hydrogenation, cracker-ready output—that will be tested by commercial deployment, feedstock variability, and the exacting standards of petrochemical buyers accustomed to virgin-quality inputs. The Rainmatter funding provides runway for that validation. If the process delivers on yield and purity at scale, the licensing model could accelerate adoption across India's evolving circular plastics infrastructure.
If not? Well, advanced recycling is littered with technologies that looked compelling in the lab but stumbled when confronted with the messy, inconsistent realities of commercial waste streams and commodity economics. PolyCycl has a chance to prove it's different. The next year or two will tell us whether that confidence is justified.
