BlueShift builds a modular, autonomous mineral processing platform that uses electrochemical technology to extract rare earths, nickel, and other critical minerals from waste streams such as mine tailings and coal fly ash. By minimizing hazardous chemicals and reducing both capital and operating costs, the system enables faster, lower‑cost domestic supply of essential materials for industries like advanced nuclear, space, and AI.
Funding
$75K raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
MCFounders
Product
Problem
Critical mineral supply chains are constrained by declining ore grades, high upfront capital costs, and reliance on hazardous chemical processing in foreign, poorly regulated facilities. Domestic extraction is further limited by the high expense of acid/base reagents and labor, which can represent up to half of total processing costs.
Solution
BlueShift develops a processing‑first mineral platform that reduces lead times and operating expenses for critical mineral extraction. The approach combines modular, autonomous equipment with IoT and AI controls to lower variable O&M costs while maintaining high margins at scale. By applying advanced electrochemical technology, the system can recover rare earth oxides, nickel, and other critical elements from underutilized waste streams such as mine tailings and coal fly ash. This domestic, low‑chemical process aims to increase the abundance of essential minerals for advanced nuclear, space, AI, and other trillion‑dollar industries.
Target Audience
Primary customers are industrial producers and technology manufacturers that require reliable, domestic sources of rare earths, nickel, and other critical minerals, as well as waste‑management firms seeking value‑added recovery of these materials.
Features
- Modular, plug‑and‑play processing units that can be rapidly deployed at diverse waste sites
- Autonomous operation with integrated IoT sensors and AI‑driven process optimization
- Electrochemical extraction technology that minimizes or eliminates hazardous acid/base usage
- Capability to produce high‑purity rare earth oxides (e.g., NdPr, Dy) and nickel from industrial waste streams
- Scalable design that reduces capital expenditures and shortens project lead times