E3 Lithium has commenced Phase 1
commissioning of its Clearwater Project, advancing large-scale lithium
production in Alberta.
Alberta, Canada: E3 Lithium, a Canadian leader in
lithium development, has officially commenced commissioning of Phase 1 at its
Clearwater Project Demonstration Facility in Alberta, marking a significant
milestone in the advancement of lithium production.
Phase 1 centers on operationalizing the
company’s 30-column Direct Lithium Extraction (DLE) system, complemented by
polishing and purification equipment designed to produce high-quality lithium
chloride. This output will form the foundation for battery-grade lithium
carbonate, a key material supporting global electrification and the energy
transition.
Over the past weekend, brine was
successfully introduced into the DLE system following final testing and
reviews. Commissioning of the system is expected to take approximately one
week, after which the purification units will be brought online. Once both
systems are fully operational, the facility will shift into continuous
operations, demonstrating the ability to produce high-purity lithium chloride
at scale.
The company has secured sufficient brine
to support operations for Phase 1 well into early Q4 2025 and plans to provide
regular updates as progress continues.
“The commissioning of Phase 1
demonstrates that our systems are in working order and represents an exciting
step forward in the development of this facility,” said Chris
Doornbos, President and CEO of E3 Lithium. “The outcomes from this
phase will validate our process, optimize performance, and set the stage for
Phase 2 of the Demonstration Facility, which is scheduled to begin later this
fall.”
According to TechSci Research, the commissioning of E3 Lithium’s
Clearwater Project Demonstration Facility is a significant development for the
chemical industry, particularly in the field of advanced materials. By
operationalizing its Direct Lithium Extraction (DLE) system, the company is
demonstrating an efficient, scalable, and environmentally responsible approach
to producing high-purity lithium chloride. This material is a critical
precursor for battery-grade lithium carbonate, which underpins the rapidly
growing electric vehicle and energy storage sectors. The ability to secure
consistent and sustainable lithium supply will help address global demand
pressures, reduce reliance on traditional mining methods, and support
innovation in battery chemistry. For the chemical industry, this advancement
not only strengthens the supply chain for energy transition materials but also
fosters opportunities for collaboration, technology optimization, and
downstream applications, enhancing competitiveness in a market driven by
sustainability and electrification.