Jun 26, 2025 · 37m · catalyst

GM's big new battery tech push

Kurt Kelty · 23m spoken Shayle Kann · 7m spoken
0:00 / 0:00

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In this episode of Catalyst, host Shail Khan interviews Kurt Kelty, Vice President of Battery Propulsion and Sustainability at General Motors, to examine GM's breakthrough Lithium Manganese-Rich (LMR) cathode technology. The discussion details the manufacturing economics, technical trade-offs, and industrial strategies required to onshore resilient battery supply chains across North America.

How this conversation actually went

Every chapter scored 0–10 on four independent dynamics. Hover any point for the reasoning behind the score. Shayle holds 21.7% of the talking time here. How this is scored →

Shayle as informed peer 5.6 Guest teaching 5.7 Guest disagreement 1.5 Shayle pushing back 2.2
05100:0010:0020:0030:004:12–6:27 · Shayle as informed peer 4/10 The State of Domestic EV Battery Manufacturing Shayle asks broad foundational questions about domestic manufacturing. Kurt responds with a comprehensive historical and industrial overview spanning his Tesla days to GM's current 40 GWh factories.6:29–10:23 · Shayle as informed peer 5/10 Mapping the Battery Supply Chain and Nearshore Localization Shayle prompts a breakdown of upstream vs downstream localization. Kurt gives an educational masterclass detailing logistics constraints and geographical sourcing from Congolese cobalt to Indonesian nickel.10:23–15:17 · Shayle as informed peer 6/10 Economic and Policy Calculus in Onshoring Cell Materials Shayle challenges Kurt to isolate pure economic drivers from artificial policy distortions like IRA subsidies. Kurt explains the chemical logistics of nickel sulfate liquids, precursor powders, and the counterproductive risks of excessive tariffs.15:20–21:05 · Shayle as informed peer 5/10 Mid-Episode Sponsor Messages Following the mid-roll break, Shayle contextualizes corporate announcements and frames the chemistries. Kurt lays out the transition from NMC 111 to high nickel and the chemical value proposition of manganese-rich LMR.21:07–23:34 · Shayle as informed peer 7/10 Comparing LMR and LFP Trade-offs in Vehicles and Storage Shayle pushes hard on stationary storage markets, suggesting LMR could swamp LFP if costs and energy density are favorable. Kurt explains the cycle-life trade-off, pointing out that stationary storage requires thousands more daily cycles than automotive use.23:34–25:53 · Shayle as informed peer 5/10 History of LMR Research and GM's Wallace Center Prototyping Shayle asks about the academic origins of LMR and why it stalled historically. Kurt outlines Jeff Dahn's early work at Dalhousie, Argonne's involvement, and GM's scale testing at the Wallace Center.25:53–29:05 · Shayle as informed peer 7/10 Solving Technical Bottlenecks: Cycle Life and Formation Time When Kurt gives high-level historical context about manufacturing challenges, Shayle refuses to let him dodge and explicitly pins him down to name specific technical hurdles. Kurt concedes and explains cycle life degradation and slow formation process times.29:06–32:59 · Shayle as informed peer 6/10 Drop-In Manufacturing Compatibility and Supply Chain Fit Shayle inquires whether LMR requires brand-new manufacturing lines and questions whether chemistry innovation will ever settle on a single winner. Kurt explains that LMR is drop-in compatible with existing high-nickel lines and describes upcoming silicon anode integrations.32:59–36:05 · Shayle as informed peer 7/10 GM's Tri-Chemistry Portfolio and Prismatic Cell Transition Shayle probes whether ultra-low-cost Chinese LFP sets an unbeatable floor for Western automakers. Kurt details GM's multi-chemistry segmentation and notes that switching to prismatic form factors cuts pack part counts by 50%.36:05–37:04 · Shayle as informed peer 4/10 LMR Commercial Roadmap and Final Reflections Shayle wraps up by asking for the tangible commercial production target. Kurt confirms a clear timeline of early 2028 with Ultium and LG.4:12–6:27 · Guest teaching 6/10 The State of Domestic EV Battery Manufacturing Shayle asks broad foundational questions about domestic manufacturing. Kurt responds with a comprehensive historical and industrial overview spanning his Tesla days to GM's current 40 GWh factories.6:29–10:23 · Guest teaching 7/10 Mapping the Battery Supply Chain and Nearshore Localization Shayle prompts a breakdown of upstream vs downstream localization. Kurt gives an educational masterclass detailing logistics constraints and geographical sourcing from Congolese cobalt to Indonesian nickel.10:23–15:17 · Guest teaching 7/10 Economic and Policy Calculus in Onshoring Cell Materials Shayle challenges Kurt to isolate pure economic drivers from artificial policy distortions like IRA subsidies. Kurt explains the chemical logistics of nickel sulfate liquids, precursor powders, and the counterproductive risks of excessive tariffs.15:20–21:05 · Guest teaching 6/10 Mid-Episode Sponsor Messages Following the mid-roll break, Shayle contextualizes corporate announcements and frames the chemistries. Kurt lays out the transition from NMC 111 to high nickel and the chemical value proposition of manganese-rich LMR.21:07–23:34 · Guest teaching 5/10 Comparing LMR and LFP Trade-offs in Vehicles and Storage Shayle pushes hard on stationary storage markets, suggesting LMR could swamp LFP if costs and energy density are favorable. Kurt explains the cycle-life trade-off, pointing out that stationary storage requires thousands more daily cycles than automotive use.23:34–25:53 · Guest teaching 6/10 History of LMR Research and GM's Wallace Center Prototyping Shayle asks about the academic origins of LMR and why it stalled historically. Kurt outlines Jeff Dahn's early work at Dalhousie, Argonne's involvement, and GM's scale testing at the Wallace Center.25:53–29:05 · Guest teaching 5/10 Solving Technical Bottlenecks: Cycle Life and Formation Time When Kurt gives high-level historical context about manufacturing challenges, Shayle refuses to let him dodge and explicitly pins him down to name specific technical hurdles. Kurt concedes and explains cycle life degradation and slow formation process times.29:06–32:59 · Guest teaching 6/10 Drop-In Manufacturing Compatibility and Supply Chain Fit Shayle inquires whether LMR requires brand-new manufacturing lines and questions whether chemistry innovation will ever settle on a single winner. Kurt explains that LMR is drop-in compatible with existing high-nickel lines and describes upcoming silicon anode integrations.32:59–36:05 · Guest teaching 5/10 GM's Tri-Chemistry Portfolio and Prismatic Cell Transition Shayle probes whether ultra-low-cost Chinese LFP sets an unbeatable floor for Western automakers. Kurt details GM's multi-chemistry segmentation and notes that switching to prismatic form factors cuts pack part counts by 50%.36:05–37:04 · Guest teaching 4/10 LMR Commercial Roadmap and Final Reflections Shayle wraps up by asking for the tangible commercial production target. Kurt confirms a clear timeline of early 2028 with Ultium and LG.4:12–6:27 · Guest disagreement 1/10 The State of Domestic EV Battery Manufacturing Shayle asks broad foundational questions about domestic manufacturing. Kurt responds with a comprehensive historical and industrial overview spanning his Tesla days to GM's current 40 GWh factories.6:29–10:23 · Guest disagreement 1/10 Mapping the Battery Supply Chain and Nearshore Localization Shayle prompts a breakdown of upstream vs downstream localization. Kurt gives an educational masterclass detailing logistics constraints and geographical sourcing from Congolese cobalt to Indonesian nickel.10:23–15:17 · Guest disagreement 2/10 Economic and Policy Calculus in Onshoring Cell Materials Shayle challenges Kurt to isolate pure economic drivers from artificial policy distortions like IRA subsidies. Kurt explains the chemical logistics of nickel sulfate liquids, precursor powders, and the counterproductive risks of excessive tariffs.15:20–21:05 · Guest disagreement 1/10 Mid-Episode Sponsor Messages Following the mid-roll break, Shayle contextualizes corporate announcements and frames the chemistries. Kurt lays out the transition from NMC 111 to high nickel and the chemical value proposition of manganese-rich LMR.21:07–23:34 · Guest disagreement 2/10 Comparing LMR and LFP Trade-offs in Vehicles and Storage Shayle pushes hard on stationary storage markets, suggesting LMR could swamp LFP if costs and energy density are favorable. Kurt explains the cycle-life trade-off, pointing out that stationary storage requires thousands more daily cycles than automotive use.23:34–25:53 · Guest disagreement 1/10 History of LMR Research and GM's Wallace Center Prototyping Shayle asks about the academic origins of LMR and why it stalled historically. Kurt outlines Jeff Dahn's early work at Dalhousie, Argonne's involvement, and GM's scale testing at the Wallace Center.25:53–29:05 · Guest disagreement 3/10 Solving Technical Bottlenecks: Cycle Life and Formation Time When Kurt gives high-level historical context about manufacturing challenges, Shayle refuses to let him dodge and explicitly pins him down to name specific technical hurdles. Kurt concedes and explains cycle life degradation and slow formation process times.29:06–32:59 · Guest disagreement 1/10 Drop-In Manufacturing Compatibility and Supply Chain Fit Shayle inquires whether LMR requires brand-new manufacturing lines and questions whether chemistry innovation will ever settle on a single winner. Kurt explains that LMR is drop-in compatible with existing high-nickel lines and describes upcoming silicon anode integrations.32:59–36:05 · Guest disagreement 2/10 GM's Tri-Chemistry Portfolio and Prismatic Cell Transition Shayle probes whether ultra-low-cost Chinese LFP sets an unbeatable floor for Western automakers. Kurt details GM's multi-chemistry segmentation and notes that switching to prismatic form factors cuts pack part counts by 50%.36:05–37:04 · Guest disagreement 1/10 LMR Commercial Roadmap and Final Reflections Shayle wraps up by asking for the tangible commercial production target. Kurt confirms a clear timeline of early 2028 with Ultium and LG.4:12–6:27 · Shayle pushing back 1/10 The State of Domestic EV Battery Manufacturing Shayle asks broad foundational questions about domestic manufacturing. Kurt responds with a comprehensive historical and industrial overview spanning his Tesla days to GM's current 40 GWh factories.6:29–10:23 · Shayle pushing back 1/10 Mapping the Battery Supply Chain and Nearshore Localization Shayle prompts a breakdown of upstream vs downstream localization. Kurt gives an educational masterclass detailing logistics constraints and geographical sourcing from Congolese cobalt to Indonesian nickel.10:23–15:17 · Shayle pushing back 2/10 Economic and Policy Calculus in Onshoring Cell Materials Shayle challenges Kurt to isolate pure economic drivers from artificial policy distortions like IRA subsidies. Kurt explains the chemical logistics of nickel sulfate liquids, precursor powders, and the counterproductive risks of excessive tariffs.15:20–21:05 · Shayle pushing back 1/10 Mid-Episode Sponsor Messages Following the mid-roll break, Shayle contextualizes corporate announcements and frames the chemistries. Kurt lays out the transition from NMC 111 to high nickel and the chemical value proposition of manganese-rich LMR.21:07–23:34 · Shayle pushing back 4/10 Comparing LMR and LFP Trade-offs in Vehicles and Storage Shayle pushes hard on stationary storage markets, suggesting LMR could swamp LFP if costs and energy density are favorable. Kurt explains the cycle-life trade-off, pointing out that stationary storage requires thousands more daily cycles than automotive use.23:34–25:53 · Shayle pushing back 1/10 History of LMR Research and GM's Wallace Center Prototyping Shayle asks about the academic origins of LMR and why it stalled historically. Kurt outlines Jeff Dahn's early work at Dalhousie, Argonne's involvement, and GM's scale testing at the Wallace Center.25:53–29:05 · Shayle pushing back 6/10 Solving Technical Bottlenecks: Cycle Life and Formation Time When Kurt gives high-level historical context about manufacturing challenges, Shayle refuses to let him dodge and explicitly pins him down to name specific technical hurdles. Kurt concedes and explains cycle life degradation and slow formation process times.29:06–32:59 · Shayle pushing back 2/10 Drop-In Manufacturing Compatibility and Supply Chain Fit Shayle inquires whether LMR requires brand-new manufacturing lines and questions whether chemistry innovation will ever settle on a single winner. Kurt explains that LMR is drop-in compatible with existing high-nickel lines and describes upcoming silicon anode integrations.32:59–36:05 · Shayle pushing back 3/10 GM's Tri-Chemistry Portfolio and Prismatic Cell Transition Shayle probes whether ultra-low-cost Chinese LFP sets an unbeatable floor for Western automakers. Kurt details GM's multi-chemistry segmentation and notes that switching to prismatic form factors cuts pack part counts by 50%.36:05–37:04 · Shayle pushing back 1/10 LMR Commercial Roadmap and Final Reflections Shayle wraps up by asking for the tangible commercial production target. Kurt confirms a clear timeline of early 2028 with Ultium and LG.

speaking balance: gold is Shayle, purple is the guest (3 minute bins)

0:00 · Shayle 35.6% · guest 64.4%0:00 · Shayle 35.6% · guest 64.4%3:00 · Shayle 54.2% · guest 45.8%3:00 · Shayle 54.2% · guest 45.8%6:00 · Shayle 9.1% · guest 90.9%6:00 · Shayle 9.1% · guest 90.9%9:00 · Shayle 30.8% · guest 69.2%9:00 · Shayle 30.8% · guest 69.2%12:00 · Shayle 0% · guest 100%12:00 · Shayle 0% · guest 100%15:00 · Shayle 21.5% · guest 78.5%15:00 · Shayle 21.5% · guest 78.5%18:00 · Shayle 20.7% · guest 79.3%18:00 · Shayle 20.7% · guest 79.3%21:00 · Shayle 12.2% · guest 87.8%21:00 · Shayle 12.2% · guest 87.8%24:00 · Shayle 13.9% · guest 86.1%24:00 · Shayle 13.9% · guest 86.1%27:00 · Shayle 7.9% · guest 92.1%27:00 · Shayle 7.9% · guest 92.1%30:00 · Shayle 12.7% · guest 87.3%30:00 · Shayle 12.7% · guest 87.3%33:00 · Shayle 34.7% · guest 65.3%33:00 · Shayle 34.7% · guest 65.3%36:00 · Shayle 40.6% · guest 59.4%36:00 · Shayle 40.6% · guest 59.4%
Sharpest disagreement ▶ 26:14 Kurt dismisses the viability of automakers manufacturing cells independently

Kurt points to failures like Northvolt and his arguments with Elon Musk to flatly assert that auto OEMs cannot make cells alone without dedicated partners.

Hardest push from Shayle ▶ 28:05 Shayle refuses generalities and demands specific technical hurdles

After Kurt answers a technical question with corporate partnership anecdotes, Shayle interrupts to pin him down directly on the exact technical failure modes.

Biggest teaching moment ▶ 11:30 Kurt details the chemical and physical logistics of precursor refining

Kurt educates Shayle on why shipping nickel sulfate liquid is economically irrational compared to converting it to precursor powder at the extraction site.

Shayle holds their own ▶ 20:24 Shayle probes stationary storage market dynamics and system-level trade-offs

Shayle demonstrates deep market knowledge by challenging Kurt on why GM is not using LMR to disrupt LFP in stationary storage where balance-of-system costs scale with density.

the scores for every segment, with the reasoning behind each
ChapterTopicShayle as informed peerGuest teachingGuest disagreementShayle pushing backWhy
The State of Domestic EV Battery Manufacturing 4611 Shayle asks broad foundational questions about domestic manufacturing. Kurt responds with a comprehensive historical and industrial overview spanning his Tesla days to GM's current 40 GWh factories.
Mapping the Battery Supply Chain and Nearshore Localization 5711 Shayle prompts a breakdown of upstream vs downstream localization. Kurt gives an educational masterclass detailing logistics constraints and geographical sourcing from Congolese cobalt to Indonesian nickel.
Economic and Policy Calculus in Onshoring Cell Materials 6722 Shayle challenges Kurt to isolate pure economic drivers from artificial policy distortions like IRA subsidies. Kurt explains the chemical logistics of nickel sulfate liquids, precursor powders, and the counterproductive risks of excessive tariffs.
Mid-Episode Sponsor Messages 5611 Following the mid-roll break, Shayle contextualizes corporate announcements and frames the chemistries. Kurt lays out the transition from NMC 111 to high nickel and the chemical value proposition of manganese-rich LMR.
Comparing LMR and LFP Trade-offs in Vehicles and Storage 7524 Shayle pushes hard on stationary storage markets, suggesting LMR could swamp LFP if costs and energy density are favorable. Kurt explains the cycle-life trade-off, pointing out that stationary storage requires thousands more daily cycles than automotive use.
History of LMR Research and GM's Wallace Center Prototyping 5611 Shayle asks about the academic origins of LMR and why it stalled historically. Kurt outlines Jeff Dahn's early work at Dalhousie, Argonne's involvement, and GM's scale testing at the Wallace Center.
Solving Technical Bottlenecks: Cycle Life and Formation Time 7536 When Kurt gives high-level historical context about manufacturing challenges, Shayle refuses to let him dodge and explicitly pins him down to name specific technical hurdles. Kurt concedes and explains cycle life degradation and slow formation process times.
Drop-In Manufacturing Compatibility and Supply Chain Fit 6612 Shayle inquires whether LMR requires brand-new manufacturing lines and questions whether chemistry innovation will ever settle on a single winner. Kurt explains that LMR is drop-in compatible with existing high-nickel lines and describes upcoming silicon anode integrations.
GM's Tri-Chemistry Portfolio and Prismatic Cell Transition 7523 Shayle probes whether ultra-low-cost Chinese LFP sets an unbeatable floor for Western automakers. Kurt details GM's multi-chemistry segmentation and notes that switching to prismatic form factors cuts pack part counts by 50%.
LMR Commercial Roadmap and Final Reflections 4411 Shayle wraps up by asking for the tangible commercial production target. Kurt confirms a clear timeline of early 2028 with Ultium and LG.

Statements from this episode (15)

Insight
Khan: EV battery startups face an almost impossible OEM gauntlet
“The timeline, the capital intensity, the requirements of the vehicle OEMs, who are your ultimate customers if you're trying to build one of these businesses, they all present this nigh impossible gauntlet to cross for a startup.”
Shayle Kann Jun 26, 2025 ▶ 2:37
Insight
Khan: Most EV battery startup pitches make identical zero-downside promises
“Second though, to a first order, virtually all of these battery technology pitches kind of sound the same. At least on their surface. They promise better performance at lower or equivalent costs. Lots of upside, no downside. And so it becomes a little bit of a…”
Shayle Kann Jun 26, 2025 ▶ 2:50
Assertion Supported
Kelty: GM is the largest North American OEM battery cell producer
“And we're now at a point where we are the largest OEM producer of battery cells in North America with these two factories.”
Kurt Kelty Jun 26, 2025 ▶ 6:03
Assertion Supported
Kelty: Battery anode supply is currently almost 100% sourced from China
“The anode right now is almost a hundred percent from China.”
Kurt Kelty Jun 26, 2025 ▶ 7:45
Prediction Not checkable as stated
Kelty: GM will localize its battery supply base eightfold by 2028
“So between now and twenty-twenty-eight, we're going to localize the supply base by about eightfold between now and 28.”
Kurt Kelty Jun 26, 2025 ▶ 9:47
Insight
Kelty: Tariffs to force domestic battery production increase EV prices and stifle demand
“Like, if you want, if you're really trying to encourage domestic production, ah, in the US, you would put in tariffs to increase the cost overseas, and you'd, you'd incentivize local production. The problem with that is that your cost would end up going up hig…”
Kurt Kelty Jun 26, 2025 ▶ 14:18
Assertion Open · timeframe Jun 2028
Kelty: LMR cathode achieves intermediate range at LFP battery cost
“So that, that's the advantage, is that you get something in between there, in terms of your driving range, but you're able to do it at the cost of the LFP.”
Kurt Kelty Jun 26, 2025 ▶ 20:12
Opinion
Kelty: LFP beats LMR for daily-cycling stationary energy storage
“LMR is, is good for some energy storage applications that are cycling periodically, that are cycling 30 times a year, 50 times a year, something like that. LMR would be great for that, because you'd have a smaller footprint that would be required for it compar…”
Kurt Kelty Jun 26, 2025 ▶ 23:11
Disclosure
Kelty convinced Elon Musk to partner with Panasonic for Gigafactory cells
“Starting back in my days at Tesla when Elon wanted to get into cell manufacturing, and I really argued that, no, we shouldn't do that argued with him the second time, we shouldn't do that, because he really wanted to get into cell manufacturing, because no one…”
Kurt Kelty Jun 26, 2025 ▶ 26:15
Assertion Open · timeframe Jun 2028
Kurt Kelty: LMR batteries use GM's existing Ultium high-nickel manufacturing lines
“So this is one of the beauties of LMR is that it really piggybacks off all the work that we've done with high nickel. So it's the same manufacturing process. So we'll use the same Ultium factories. The it's the same electrode manufacturing process. The packagi…”
Kurt Kelty Jun 26, 2025 ▶ 29:18
Insight
Kelty: LFP batteries have little room left for major improvements
“LFP's been around now, For 20 odd years, it's been commercialized. They've come down that cost curve over time, and so there's not a whole lot of improvements that you can make with LFP. You've got to jump to a new chemistry.”
Kurt Kelty Jun 26, 2025 ▶ 31:40
Disclosure
Kelty: GM does not conduct internal solid-state battery R&D
“We're not doing solid state R&D. Within GM. What we're doing is we're evaluating and leveraging all those startup players that are out there and the major manufacturers like Samsung's a big solid state developer as well.”
Kurt Kelty Jun 26, 2025 ▶ 32:33
Prediction Open · timeframe Jun 2030
Kelty: Tri-chemistry EV battery market will persist over the next five years
“So we see a future over the next five years where you're going to have these three chemistries.”
Kurt Kelty Jun 26, 2025 ▶ 34:49
Prediction Open · timeframe Jun 2028
Kelty: GM's next-gen prismatic packs will reduce part count by over 50%
“Just as an example, the prismatic cells on our next generation pack will reduce our piece count by over 50% compared to our current pouch cell packs.”
Kurt Kelty Jun 26, 2025 ▶ 35:07
Disclosure
GM targets early 2028 to launch vehicles with LMR batteries
“So we've got a real clear target beginning of twenty-twenty-eight is when we're going to start introducing vehicles with LMR.”
Kurt Kelty Jun 26, 2025 ▶ 36:14
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