Redwood Materials

J.B. Straubel co-founded Tesla, Inc. as one of its earliest employees and served as its Chief Technology Officer from 2005 until 2019, leading development of battery technology, power electronics, motors, and the Gigafactory concept while building one of the company's key engineering teams. He holds a B.S. in energy systems engineering and an M.S. in energy engineering from Stanford University, where he also participated in solar car racing and converted a Porsche into an electric vehicle; prior to Tesla, he co-founded the electric aircraft company Volacom. Straubel currently serves on Tesla's board of directors and has held board seats at companies such as QuantumScape.

Redwood Materials+2

Andrew Stevenson served as head of special projects at Tesla before co-founding Redwood Materials, where he was named as a director and initial CFO in the company's early SEC filings. He later joined Twelve, a company focused on carbon transformation, in a role involving project development and partnerships. Stevenson holds a degree from Stanford Law School.

Contrary Research+2

Colin Campbell spent 17 years at Tesla in progressively senior engineering and leadership roles, most recently as Vice President of Powertrain Engineering, where he oversaw electrical, mechanical, and manufacturing engineering for power electronics, motors, gearboxes, battery packs, and charging systems across vehicle and energy businesses. He earned a B.S. in Physics and an M.S. in Electrical Engineering from Stanford University and has prior experience leading battery modeling and algorithm development for programs including large haul trucks and motorsport applications such as Formula E.

Redwood Materials+2

Deepak Ahuja served as Chief Financial Officer of Tesla, Inc. across two tenures totaling approximately eleven years, helping guide the company from early-stage startup through its 2010 IPO and subsequent growth; he first joined in 2008 and returned in 2017 before departing in 2019. After Tesla, he held CFO and Chief Business and Financial Officer roles at Verily Life Sciences and Zipline, respectively. Ahuja earned degrees from IIT BHU, Northwestern University, and Carnegie Mellon University.

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Cal Lankton previously served as Vice President of Fleet and Global Operations at Lyft and as Vice President of Energy Sales and Operations at Tesla, where he led solar, energy storage, and charging infrastructure initiatives. He holds a B.S. in physics from Appalachian State University and an M.S. in engineering from MIT, and earlier served as a Naval submarine officer and nuclear engineer.

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Mandy Clark has over 20 years of experience in human resources leadership, previously serving as Chief Human Resources Officer at Shutterfly and holding CHRO roles at CentralSquare Technologies and Sierra Nevada Corporation. Her earlier career included HR leadership positions at GE, PepsiCo, Cargill, and CoreLogic, supporting teams across manufacturing, technology, and engineering. She has also founded a consulting firm focused on HR and leadership development.

Redwood Materials+2

Alma Chao previously served as Vice President and Head of Intellectual Property at Marqeta. Prior to that, she spent 11 years at Meta (Facebook), where she led IP licensing and other intellectual property functions. She is a California-licensed attorney with a focus on intellectual property law.

Redwood Materials+2

Alexis Georgeson previously served at Waymo as Head of Corporate and Policy Communications, leading communications strategy as the company transitioned from Google's Self-Driving Car Project to a commercial business. Prior to that, she spent approximately five and a half years at Tesla, where she led product rollouts and announcements from the Model S through the Model 3, including the Gigafactory, Supercharger network, SolarCity acquisition, Autopilot, and corporate and crisis communications. She brings more than 15 years of experience in media relations, strategic communications, brand, product launches, and policy.

Redwood Materials+2

Redwood Energy designs, integrates, and deploys modular, large-scale battery energy storage systems (BESS) using a mix of new battery modules and repurposed second-life EV battery packs, leveraging proprietary Redwood Pack Manager software to handle mixed chemistries and states of health as a single dispatchable asset. The systems target surging demand from AI data centers, industrial sites, and grid applications, offering lower-cost and faster-deployed alternatives to new battery storage by extending the productive life of existing domestic EV assets before final recycling. Launched as a dedicated business unit in 2025, Redwood Energy has scaled deployments including the 12 MW / 63 MWh microgrid at its Sparks, Nevada campus powering a Crusoe AI data center (one of North America's largest second-life installations, with expansion to 7x scale reported in early 2026) and a 1.5 MW / 7.2 MWh system at a GM manufacturing facility in Michigan using approximately 100 repurposed GM packs (deployed and announced June 2026 as part of GM becoming the first automaker partnering across the full battery lifecycle). Additional traction includes a partnership with Rivian deploying more than 100 second-life packs for a 10 MWh system at Rivian's Normal, Illinois plant (announced April 2026) and broader MOU-based collaboration with GM for U.S. deployments. The company has over a gigawatt-hour of reusable batteries in its deployment pipeline (expanding by an additional 5 GWh in the coming year) while designing 100+ MW projects and has met or exceeded new safety benchmarks as of March 2026; it targets 20 GWh of storage capacity by 2028, positioning the business to address structural grid constraints and AI-driven power demand while keeping battery value in domestic supply chains through a full-lifecycle model that prioritizes repurposing before material recovery. This approach benefits from supportive state policies, such as Colorado's 2026 EV battery framework emphasizing repurposing, and partnerships spanning automakers and energy users.

Redwood Materials+5

Redwood produces high-nickel cathode active materials (CAM) from recovered and refined critical minerals (lithium, nickel, cobalt) via hydrometallurgical processes at its integrated Nevada and South Carolina campuses, creating domestic, high-recycled-content inputs for lithium-ion battery cell manufacturing. The materials are engineered for direct use in EV and energy storage cells, with targeted compositions including approximately 30% recycled nickel, 30% recycled lithium, and 100% recycled cobalt to minimize virgin mining dependence and carbon intensity. Supply agreements are in place with major cell makers, including Panasonic (for its Kansas plant targeted for 2025 operations and Nevada Gigafactory) and Toyota (long-term contract for recycled materials supporting North Carolina battery production). Production has scaled from initial output to support broader commercialization, with the first dedicated CAM building designed for 20 GWh annual equivalent capacity and overall materials production reaching 60,000 metric tons in Nevada during 2025 plus an initial 20,000 metric tons annual addition from South Carolina operations that began critical materials recovery in November 2025. This positions Redwood as a key enabler of closed-loop U.S. battery supply chains under frameworks like the Inflation Reduction Act, reducing reliance on Asian-dominated cathode production while delivering verifiable performance validated by Argonne National Laboratory testing of recycled-content cathodes.

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Redwood manufactures ultra-thin, battery-grade anode copper foil—the first such domestic production in North America—by reclaiming and processing copper from recycled battery materials and scrap at its Nevada campus, supplying a critical current collector component for lithium-ion cell anodes with sub-micron tolerances. The foil is produced in a closed-loop process integrated with upstream recycling and refining, enabling high recycled content and onshoring a supply chain segment previously dominated by imports or Asian manufacturing. Supply agreements include Panasonic for use in its U.S. facilities starting around 2024, with broader offtake tied to cathode partnerships and DOE-supported expansion plans targeting approximately 36,000 metric tons per year at full Nevada campus scale. Production ramped from initial commissioning in the early 2020s, contributing to overall critical minerals output of 60,000 metric tons in Nevada for 2025. This addresses structural U.S. vulnerabilities in battery component supply, supporting IRA-compliant domestic content requirements for EV and storage manufacturers while capturing higher value from recycled feedstocks than traditional scrap metal recovery.

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Redwood operates North America's largest lithium-ion battery recycling network, collecting end-of-life batteries and production scrap from consumer electronics, EVs, micromobility, and manufacturing partners through a nationwide logistics system, retail/community Battery Bins, direct mail programs, and manufacturer take-back agreements before processing via hydrometallurgy to recover over 95% of critical materials (nickel, cobalt, lithium, copper, graphite, aluminum). Input volumes reached over 20 GWh annually (equivalent to approximately 250,000 EVs) as of 2025, representing the majority (roughly 70-90% depending on metric) of all lithium-ion batteries and materials recycled in North America, with operations at Nevada (primary campus), South Carolina (critical materials recovery began November 2025 with 20,000 metric tons annual capacity), and a 10,000-tonne annual capacity facility in Bremerhaven, Germany. The service extends to specialized programs such as the Redwood Battery Bin (launched late 2025 / December 2025) for safe, automated community and retail collection and partnerships with entities including Audi, Rivian, GM/Ultium, Panasonic, Toyota, and e-waste handlers. Recovered materials feed directly into Redwood's refining and downstream CAM/foil production, creating an integrated closed loop that maximizes value extraction per battery compared to standalone recyclers. This model benefits from emerging state-level policies prioritizing domestic recovery and repurposing (such as Colorado's 2026 EV battery framework), structural growth in EV fleets generating predictable end-of-life feedstock, and long-term contracts that lock in supply while reducing reliance on volatile imported virgin minerals.

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American Battery Technology Company operates a U.S.-based integrated platform combining lithium-ion battery recycling with primary battery metal extraction to produce domestically sourced critical materials including lithium, nickel, cobalt, and manganese for cathode-grade applications. Its proprietary hydro-based processes enable recovery of individual elements from end-of-life batteries, manufacturing scrap, and domestic resources such as Nevada claystone, supporting a closed-loop domestic supply chain. The company runs commercial-scale recycling facilities in Nevada with EPA approvals for handling damaged batteries, providing operational resilience and regulatory positioning in the Western U.S. This dual recycling-plus-primary model offers structural diversification against pure recycling volatility while targeting the same EV, grid storage, and electronics markets as Redwood. Long-term focus on low-cost, low-environmental-impact domestic sourcing aligns with U.S. critical minerals policy and customer preferences for traceable supply. Limitations include a smaller current footprint relative to larger integrated players and execution risks in scaling novel extraction technologies alongside recycling. The business benefits from internal R&D on closed-loop systems but lacks Redwood's announced energy storage repurposing segment. Investors note its positioning as a full-spectrum domestic materials supplier with geographic concentration in Nevada.

American Battery Technology Company+2

Princeton NuEnergy develops and commercializes direct recycling technology for lithium-ion batteries that rejuvenates cathode active materials and produces Advanced Black Mass through its patented low-temperature plasma-assisted separation process. This Cathode-to-Cathode approach minimizes chemical and energy inputs relative to conventional methods, enabling faster turnaround and lower costs for returning materials to battery manufacturers. The company operates a commercial-scale flagship facility in South Carolina that processes manufacturing scrap into battery-grade CAM for NCM and LFP chemistries, with planned expansions that position it for broader North American scale. Funding from the U.S. Department of Energy, Honda, and other strategic investors provides structural support for technology validation and facility buildout. Its focus on high-purity, directly reusable cathode materials overlaps closely with Redwood's materials production goals and customer base in the EV supply chain. The model emphasizes reduced environmental footprint and cost efficiency as durable competitive traits in a capital-intensive industry. While advancing rapidly in direct recycling, PNE remains earlier-stage than Redwood in overall vertical integration and lacks a prominent energy storage repurposing business. Investors see durable value in its IP-protected process efficiencies and policy-backed domestic focus amid tightening supply chain regulations.

Princeton NuEnergy+2

Aqua Metals develops and commercializes a proprietary water-based AquaRefining process for sustainable, closed-loop recycling and refining of lithium-ion battery materials into high-purity critical metals and compounds with a low-carbon footprint. The Reno, Nevada-based company targets the same domestic EV and energy storage supply chains as Redwood by recovering battery-grade materials from black mass and end-of-life batteries while emphasizing environmental and cost advantages over traditional pyrometallurgical or hydrometallurgical routes. Its modular technology platform supports scalable operations and positions the firm for integration into North American critical minerals ecosystems aligned with policy priorities for traceable, low-impact sourcing. Aqua Metals maintains a public listing and has advanced commercialization milestones including product validation, strategic partnerships, and design work for a planned AquaRefining Campus facility targeting substantial annual black mass processing capacity. The business model benefits from structural differentiation in sustainability and process efficiency that could provide durable margins in a commodity-sensitive sector. Limitations include an earlier-stage commercialization profile relative to more vertically integrated peers and dependence on successful scale-up of its novel refining approach. Investors value its focus on clean technology differentiation and geographic proximity to major battery hubs as long-term positioning factors amid growing demand for domestic circular supply.

Aqua Metals+1

Cirba Solutions functions as a North American battery recycling specialist with decades of operational experience collecting, transporting, disassembling, and processing end-of-life and scrap lithium-ion batteries into black mass and recovered critical materials. Its multi-facility footprint across the U.S. and Canada provides one of the largest operational recycling capacities and collection networks, serving thousands of customers across battery chemistries and formats. The company supplies battery-grade metals back into the supply chain, supporting circular economy goals for EV and electronics manufacturers. Long-term DOE grants and facility expansions, including new lithium-ion processing plants, reinforce its role in building domestic refining capacity. This positions Cirba as a key upstream player in the same feedstock and recycling services market as Redwood, though with primary emphasis on black mass production rather than downstream cathode or anode materials. Structural strengths include extensive real-world processing experience and regulatory compliance infrastructure that reduce execution risk in handling complex battery waste streams. The business model benefits from scale in collection logistics but faces competition in moving up the value chain to higher-margin refined materials. Investors value its established operational platform and policy support as a durable foundation in the nascent U.S. recycling ecosystem.

Cirba Solutions+2

Glencore Battery Recycling operates North American lithium-ion battery recycling assets acquired from Li-Cycle, employing a spoke-and-hub model to break down batteries into black mass and refine them into recoverable metals such as nickel, cobalt, and lithium for re-entry into the battery supply chain. As a division of the global diversified mining and commodities trading company Glencore, it benefits from substantial balance sheet strength, global offtake networks, and integration potential with primary metal production that provide structural resilience against pure-play recycling volatility. The inherited facilities in the U.S. and Canada target the same EV battery feedstock and OEM customers as Redwood, with historical supply agreements demonstrating market access. This positions GBR as a credible competitor in domestic critical materials recovery, backed by a parent with decades of experience in metal recycling and trading. The model leverages Glencore's existing relationships with battery manufacturers and OEMs for feedstock security and product sales. While strong in scale and financial durability, the division may face integration complexities post-acquisition and historically encountered execution challenges under prior ownership. Its focus remains primarily on recycling and metal recovery rather than Redwood's cathode active material manufacturing or energy storage repurposing. Investors appreciate the parent's global platform and commodity expertise as long-term stabilizers in a policy-driven circular economy segment.

Glencore+2

Redwood Materials faces material risk from shifts in U.S. federal clean energy policy and financing, as evidenced by its discontinuation of the $2 billion DOE conditional loan commitment in late 2024 without drawing any funds after initially securing it in February 2023 for the Nevada campus expansion. The company cited its $2 billion in private equity raises and nearly $200 million in 2024 revenue as making the loan unnecessary amid anticipated policy changes, including the July 2025 One Big Beautiful Bill that phases out key tax credits, eliminates transferability, and imposes construction deadlines affecting electrification investments. This withdrawal highlights structural exposure to incentive volatility that could raise costs or slow demand for domestically recycled battery materials and second-life storage systems. The risk is compounded by the company's reliance on policy-supported domestic supply chain priorities that may fluctuate with administrations. However, the strategic importance of U.S. critical minerals independence from China maintains relevance across policy cycles, supported by continued participation from investors including NVentures and Eclipse Ventures in the 2025-2026 Series E rounds at a $6 billion valuation.

U.S. Department of Energy+3

Redwood Materials carries elevated key-person risk through its dependence on founder and CEO JB Straubel, who has led strategy since founding the company in 2017 after serving as Tesla CTO, including oversight of the 2025 launch of the Redwood Energy storage platform and the 2025-2026 Series E fundraising at over $6 billion valuation. Recent senior leadership turnover, including the April 2026 retirement of COO Chris Lister (who joined in late 2023 from Tesla Gigafactory operations roles and was promoted to COO), alongside other VP departures in operations and supply chain, increases execution and continuity risks during a period of organizational change. Straubel's continued centrality to investor relations, OEM partnerships such as those with Panasonic and GM, and the pivot to second-life storage creates governance and operational concentration that could disrupt momentum if his involvement changes. This dependence is structural given the company's history and the absence of publicly detailed succession planning. No specific offsetting succession or distributed leadership structure is documented in available information.

Redwood Materials+3

Redwood Materials faces execution risk from its rapid 2025 pivot into Redwood Energy second-life battery storage systems for data centers and industrial applications, which has required repeated operational adjustments including a 5% workforce reduction in late 2025 followed by a 10% cut of approximately 135 employees in April 2026, plus the COO retirement. The restructuring, communicated internally by Straubel as addressing teams that scaled faster than needed to support the storage direction, signals difficulties aligning recycling operations expertise with new demands for mixed-chemistry battery integration, software controls like the Redwood Pack Manager, and market deployment. This occurs alongside high capital intensity for facilities such as the South Carolina campus and while scaling from $200 million in 2024 revenue. Concrete traction exists through expanded partnerships including with Crusoe for data center microgrids and Rivian for a repurposed system at its Illinois plant, which provide specific offtake and validation for the storage platform amid the adjustments.

TechCrunch+3

Redwood Materials is exposed to regulatory and operational risks inherent in collecting, transporting, and processing diverse end-of-life lithium-ion batteries at industrial scale, including compliance with Damaged, Defective, or Recalled (DDR) shipping requirements that demand special permits, custom packaging, and coordination with agencies like the EPA to mitigate fire hazards. The company's facilities must handle inconsistent inputs from consumer electronics to large EV packs, creating challenges in process optimization, safety protocols, and environmental compliance at its Nevada and South Carolina campuses. Recent expansions into energy storage add layers of standards development, such as participation in UL 9540 task groups for ESS certification pathways for repurposed batteries. These burdens are structural to the recycling and second-life model and have required dedicated regulatory strategy resources. No single incident or quantified penalty is documented, but the scale of operations amplifies the ongoing exposure without a cited broad mitigant beyond internal safety benchmarking achievements for storage products.

Tech Briefs+2

Independent commentators and journalists frequently highlight Redwood Materials' impressive operational growth and market position. Sawyer Merritt notes that in 2024 alone Redwood recycled 20 GWh of batteries (equivalent to ~250,000 EVs) and accounts for 90% of North American lithium-ion battery and materials recycling. Ashlee Vance reports that more than 70% of US end-of-life lithium-ion batteries flow through the company, making it the largest US cobalt producer. The Limiting Factor calls the company "absolutely crushing it" on 20 GWh recycled in 2024. Chris Hadfield praises the 95% metal recovery technology. These takes emphasize hands-on scale, domestic production without new mining, and real throughput achievements over hype. Recent coverage continues to reference sustained ~20 GWh+ annual throughput as a leadership benchmark.

Sawyer Merritt on X+3

Recent independent coverage and operator commentary portray Redwood's expansion into repurposing EV batteries for grid-scale and data-center storage (Redwood Energy) as a pragmatic, revenue-generating move amid AI power demand. Ashlee Vance and Core Memory produced detailed tours highlighting solar-plus-repurposed-battery systems powering data centers. Bradford G Smith calls the factory tour and storage applications "eye-opening" for the circular economy meeting the AI crunch, noting cost advantages vs. China. GM Authority and related posts note expanding GM partnerships across the battery lifecycle including second-life storage. Heatmap.news frames the pivot as paying off with a $425M Series E round. Voices see it as extending asset life before full recycling. The June 2026 expansion of the GM partnership—making GM the first automaker to engage Redwood across manufacturing scrap, end-of-life recycling, and second-life storage with a new 1.5 MW / 7.2 MWh deployment at a Michigan plant—is widely reported as validation of the strategy, with estimates of multimillion-dollar savings and emphasis on domestic circular supply chains.

Ashlee Vance on X+5

TechCrunch and Energy-storage.news report Redwood's April 2026 layoffs of ~135 employees (~10% of workforce), following a prior 5% cut, alongside COO retirement and other executive exits, presented as restructuring to sharpen focus on the growing energy storage business after a $425M raise and $6B+ valuation. Coverage places this in the context of a broader US battery recycling sector facing capital intensity and complexity, with peers like Ascend Elements filing Chapter 11 bankruptcy and Li-Cycle previously entering protection. Analyst notes in Sacra and Contrary Research highlight ongoing risks such as commodity-tied pricing power, feedstock dependency, China competition, and shifting policy incentives. Anonymous employee input in reports describes targeted cuts in engineering and operations. No widespread independent claims of distress; instead, positioned as adaptation where Redwood continues raising capital while others falter. Subsequent May 2026 hiring of former Tesla CFO Deepak Ahuja (with TechCrunch noting positioning for growth and "too early" for IPO) and June partnerships reinforce the focused-pivot narrative.

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Policy and industry voices emphasize Redwood's contribution to US supply chain resilience and lower environmental impact. John Raymond Hanger highlights up to 80% reduction in environmental cost of EV materials via 95% profitable mineral recovery and domestic production capacity for 1.3 million EVs by 2028. Stanford analyses cited in coverage show significantly lower emissions vs. mining and traditional refining. Partnerships (e.g., GM, BMW recycling deals noted on Reddit) and policy support for repurposing-first frameworks are seen as strengthening domestic capabilities. Nihal Shetty notes the strategic value of production scrap feedstock access. These takes position the company as advancing circular economy goals without over-relying on foreign sources. Recent GM full-lifecycle deal and Colorado EV battery policy win underscore ongoing relevance.

John Raymond Hanger on X+2