UK Startup Eqonic Unveils Revolutionary Battery Technology

The world of battery technology has long been a land of grand promises and often, dashed hopes.

For years, we’ve been told that “game-changing” innovations are just around the corner, poised to revolutionize everything from electric vehicles to grid storage.

Yet, more often than not, these pronouncements fade into the ether, leaving behind a trail of skepticism.

It’s against this backdrop that UK startup Eqonic emerges, unfurling claims so audacious they demand a closer look.

Could this relatively new player truly buck the trend, mirroring the quiet, pervasive success of a company like ARM in the semiconductor world?

At the helm of Eqonic is Jas Kandola, a CEO who doesn’t fit the typical mold of a deep-tech founder.

His pedigree lies in the cut-throat world of corporate finance, having navigated the corridors of Barclays in London before building his own financial services startup.

This isn’t a story of a garage inventor; it’s a narrative of strategic foresight.

Kandola, recognizing the undeniable momentum of the decarbonization movement, sought out the areas most ripe for disruption.

“The two big things that people weren’t tackling that well were materials, how to make them more sustainable, and energy,” he explains.

Batteries, he concluded, were the nexus of this challenge.

The battery landscape, however, is a formidable one, dominated by titans like CATL, BYD, LG, Panasonic, and SK On – largely based in Asia.

Eqonic’s ambition wasn’t to compete directly with these manufacturing behemoths, but to carve out a different, arguably more impactful, path.

Their strategy was to start with the fundamental technology, aiming for a “substantial uplift” that would address not just performance, but the systemic flaws embedded in the current supply chain.

Kandola identifies three critical issues: the environmental devastation wrought by rare earth mining, the perilous lack of supply chain diversification (with control concentrated in a single geographical location), and the notoriously difficult end-of-life recycling for lithium batteries.

Safety, too, remains a paramount concern.

These aren’t minor tweaks; they are foundational challenges that, if addressed, could reshape global industry.

Eqonic’s approach was refreshingly pragmatic.

They began by eliminating what wouldn’t work.

Lithium was out, due to its inherent environmental and geopolitical baggage.

Sodium, while promising in some respects, was also ruled out due to scientific limitations.

Instead, Eqonic, in collaboration with leading academics, embarked on a quest for alternative materials – substances that could be sourced more readily from Western countries or through recycling, inherently safe, and capable of forming a battery-grade composite.

The specific materials remain a tightly guarded secret, pending patent applications, though Kandola confirms iron is not among them.

The results, he claims, are nothing short of “phenomenal.”

Eqonic has produced a battery at the lab level, and is now rapidly upscaling for market readiness, with a target of 12 months.

The most striking claim revolves around cost.

Kandola presents a compelling comparison: taking a baseline material cost of 1, Eqonic’s technology comes in at 0.3, compared to sodium at 0.5, LFP at 1.1, and NMC at 1.4.

Given that materials account for 60-80% of a battery’s total cost, Eqonic anticipates its final product could be 60-70% cheaper than existing LFP cells at the manufactured level.

This isn’t just an incremental improvement; it’s a seismic shift that could fundamentally alter the economics of electric vehicles and renewable energy storage.

Performance, too, appears competitive.

Eqonic’s current density levels are on par with sodium and LFP, with a clear roadmap to exceed LFP and approach NMC performance by 2027.

They have developed two variants: a long-life version for storage applications and a high-energy density version for automotive use, with the flexibility to create others.

The ambition is to reach a manufactured cost of below £50 per kilowatt hour.

Beyond cost and density, Eqonic is tackling endurance and safety head-on.

Their batteries boast over 600 deep cycles and 6,000-8,000 shallow cycles, crucially tolerating regular complete discharge – a significant advantage over LFP batteries which prefer to stay above 30% charge.

This makes them viable for demanding sectors like defense and even air transport.

For domestic use, they target 10,000 cycles, and for automotive, 5,000-6,000 cycles, surpassing LFP.

Perhaps most compelling are the safety claims.

Kandola asserts the technology is “intrinsically safe.”

In lab demonstrations, their batteries have been cut in half, pierced with nails, and their electrolyte handled in open air without explosion or fire.

Dendrite control, a common issue leading to short circuits, is also not a problem, and even if it were, Kandola insists it wouldn’t lead to a fire.

Furthermore, REACH-compliant recyclability has been engineered into the design from day one, allowing materials to be extracted and reused – a vital consideration as the first wave of EV batteries approaches end-of-life.

It all sounds almost too good to be true, and the UK has a history of pioneering groundbreaking technology only to see its commercial exploitation happen elsewhere.

Kandola, however, is determined to keep Eqonic’s innovation firmly rooted in the UK, leveraging the nation’s “phenomenal skill set in science and engineering,” drawing parallels to the country’s Formula One prowess.

The company has also bolstered its credibility by bringing heavy hitters like Craig Wilson (former CEO of Williams Advanced Engineering) and Stuart Dyble (ex-Red Bull Racing, Jaguar Land Rover) onto its board.

Crucially, Eqonic isn’t planning to build its own gigafactories.

Instead, it adopts a licensing model, aiming to be “the technology that’s inside.”

This strategic choice, reminiscent of ARM’s hugely successful approach to processor design, minimizes risk and capital expenditure, allowing Eqonic to focus on innovation rather than competing with the manufacturing scale of Asian giants.

It’s a shrewd move, particularly given the recent struggles and ultimate demise of other ambitious battery ventures like Britishvolt.

Kandola envisions Eqonic providing proven technology and manufacturing blueprints to partners, enabling them to integrate it directly into their existing plants.

He hopes to see their automotive technology demonstrated in a car within the next 12 months, possibly sooner, as discussions with corporations accelerate.

Several companies have already visited Eqonic’s labs, interviewed their scientists, and witnessed the battery demonstrations.

Looking further ahead, Eqonic isn’t resting on its initial breakthroughs.

While focusing on a liquid non-water-based electrolyte for now, they have already developed a solid-state electrolyte and are actively working on its integration.

Their vision extends beyond current applications, with plans to tailor technology specifically for niche markets, including space.

Eqonic’s claims are undeniably bold, and the ultimate proof will lie in their ability to transition from lab success to widespread commercial adoption.

The secrecy surrounding their core materials naturally invites a degree of caution.

However, if their promises of dramatically reduced costs, a diversified and sustainable supply chain, and intrinsic safety are realized, Eqonic could indeed emerge as a transformative force, a quiet giant akin to ARM, powering the next generation of global energy.

The next 12 months will be critical in determining if this UK startup can live up to its extraordinary potential.