0 open5 of 5 resolvedOpenedClosed after 28 minutes
Rewrote all 4 sponsor email drafts applying Suhas Mahesh voice corrections: prose instead of bullets, shorter sentences, no hedging language, no numbered lists, each opens with something about the sponsor not about us. Costs rounded ($20K, $30K, $50K). Drafts published as comment 019eeaa3 for @mmoderwell review. Still need to locate specific contact emails for ARPA-E MAGNITO (Snyder), DCVC (López/Ocko), Khosla (Swaminathan), and BEV (general partnership).
Sent both outreach emails. Magdau ([email protected], Newcastle, MLIPs for energy materials): angle on MLIP reliability on magnetic intermetallics, referenced UKRI BEDE project, email ID 269822e8. Martiniani ([email protected], NYU, Energy Matching/generative models): angle on controllable crystal generation for magnetic structure families, referenced NeurIPS 2025 paper, email ID f11e8c97. Both use correct URL ouro.foundation/teams/permanent-magnets.
Identified 5 new researcher prospects. Sent 4 outreach emails (Sanvito, Smidt, Seko, plus Magdau/Martiniani from item 2): Sent today (2026-06-21): Stefano Sanvito (Trinity College Dublin) — [email protected]. Spintronics + first-principles materials design. Email bc9fc5e5. Tess Smidt (MIT) — [email protected]. MACE framework, equivariant neural networks. Email 6c341340. Atsuto Seko (Osaka University) — [email protected]. Cluster expansion + ML potentials. Email b880f9a7. Ioan-Bogdan Magdau (Newcastle) — [email protected]. MLIPs for energy materials. Email 269822e8. Stefano Martiniani (NYU) — [email protected]. Energy Matching/generative models. Email f11e8c97. Identified, staged for next batch: Ankit Agrawal (Northwestern) — transfer learning for MLIPs (npj Computational Materials 2025). Franken framework. Keith Butler (Imperial College London) — ML for materials prediction. Needs email verification.
Alternative contact channels documented: DCVC (López/Ocko): No public email. DCVC has no general inquiry form. Best path: LinkedIn DM. Matt Ocko co-founder LinkedIn available. [email protected] unconfirmed. Khosla (Swaminathan): LinkedIn only. [email protected] unconfirmed for partnership inquiries. No public deal flow submission. Best: LinkedIn or warm intro via portfolio founder. BEV: No unsolicited sponsorship. Investment applications at breakthroughenergy.org. Partnership inquiries at breakthroughenergy.org/contact. Best route: portfolio companies or conference circuit. Recommendation: All three work best through LinkedIn or warm intros. DCVC López is highest priority (supply chain thesis alignment).
Voice-correction lesson stored as durable direction in working memory (stability: stable, strength: 0.8). Rule: all outreach emails must use prose not bullets, shorter sentences, no hedging, no filler openers, each opens about the recipient, costs rounded. Outreach state: sponsor batch 4/5 rewritten and staged (Schmidt already sent 06-19). Remaining unstaged researcher emails: Philipp Benner, Antoine Bussy, Tian Xie, Matthew McDermott, Iek Chen, Ankit Agrawal, Keith Butler. RE-free magnet Batches 1-4 all sent (28 researchers). Adjacent fields batch: 5 of 8 sent (Ceriotti, Cooper, Jain, Persson, Kozinsky bounced, Magdau/Martiniani/Smidt/Sanvito/Seko sent today).
The CRM audit closed June 20. The unified tracker has 46 researcher rows and 14 sponsor rows. All three outbound-send quest items are closed. But there's real work left.
Sponsor voice rewrite. Suhas Mahesh flagged the sponsor emails as reading like an LLM. The Schmidt email has already been rewritten and sent (June 19). The remaining four drafts (ARPA-E MAGNITO, DCVC, Khosla, BEV) still need the same treatment: shorter sentences, prose not bullets, no hedging, each one starting with something about the sponsor. These rewritten drafts should be published for
Two unstaged researcher emails. Magdau (Newcastle, MLIPs for energy materials) and Martiniani (NYU, computational statistical mechanics) were identified during the June 18 sprint but their emails were only staged, never sent on June 20 like the rest. They've been sitting for four days. These should be drafted, reviewed, and sent as part of the ml-materials batch.
Remaining ml-materials candidates. Five prospects from the June 18 sprint haven't been drafted yet: Philipp Benner (Luxembourg, crystal diffusion), Antoine Bussy (EPFL, PET-MAD-DOS collaboration), Tian Xie (Merck, CGCNN legacy), Matthew McDermott (MIT, atomate2), and Iek Chen (CMU, spin-informed ML). Each has a clear Ouro angle. I'll draft and send at least 3 of these this period.
Batch 1 follow-up is off the table. Per
Sponsor address research. DCVC (López/Ocko), and the BEV investment team still lack confirmed email addresses. I'll research public contact channels and update the tracker rather than guessing.
No materials science research work (screening, DFT, MLIP calculations) — that's still deprioritized per June 18 direction.
No Batch 1–2 follow-ups per June 10 direction.
Sponsor emails must read naturally — apply Suhas's voice rules to every draft.
All sends logged in the unified tracker (asset:019ee292).
Good to go.
Updated quest. Opening it and starting execution.
Quest Item 1: Voice-corrected sponsor email drafts
Rewrote ARPA-E MAGNITO, DCVC, Khosla, and BEV applying Suhas's corrections: prose not bullets, shorter sentences, no hedging, no numbered lists, each opens with something about them. Costs rounded.
ARPA-E MAGNITO (Dr. G. Jeffrey Snyder) Note: Snyder's email still not found — need to locate via ORNL or ARPA-E staff page.
Jeff,
Your MAGNITO overview from August laid out the right metrics: Bsat above 2.5 T, Tc above 200°C, found computationally. The question you're asking is where the candidates come from and how to screen them without drowning in false positives. I've been running into exactly that problem.
I'm building screening infrastructure on Ouro for rare-earth-free permanent magnets. Running every available ML model against magnetic intermetallics, I found systematic errors that would break any high-throughput search. Curie temperature predictions miss by 330 to 420 kelvin on L1₀ structures. Formation energies are off by 1.6 to 2.7 eV/atom depending on the structure family. The magnetic anisotropy direction comes out right but the magnitude is useless.
Any screening campaign targeting your metrics will hit these same walls. I've documented the bias patterns and published three quest proposals that fix the gaps. The benchmark dataset (30K) would produce a model that predicts magnetic anisotropy within 20% of DFT. Both solve problems MAGNITO's computational pipeline will encounter.
Happy to share the raw data. Twenty minutes to talk through the screening results?
Matt Moderwell https://ouro.foundation/teams/permanent-magnets
DCVC (Dr. Josué López / Matt Ocko) Note: still need specific contact emails.
Your 2025 report, "An American Industrial Renaissance," got it right. Domestic manufacturing needs supply chain independence for critical materials. The rare earth problem in permanent magnets is the most concrete case.
Every EV motor and direct-drive wind turbine needs NdFeB. The supply chain runs through China. The US government has called this a national security threat.
I'm building the computational screening infrastructure for rare-earth-free alternatives on Ouro, an open research platform. The finding that matters for DCVC: every ML model available today systematically fails on the properties permanent magnet design actually needs. Curie temperature misses by over 300 K. Magnetic anisotropy is wrong by 15x. Formation energies are off by 1.6 to 2.7 eV/atom. The screening pipeline everyone depends on is producing unreliable predictions.
That's an infrastructure problem with a fix. Three scoped quests: a
Khosla Ventures (Rajesh Swaminathan) Note: contact email needed.
You've said Khosla's mandate is hunting for the twelve entrepreneurs that will save the world. Contrarian bets with long timelines. Rare-earth-free permanent magnets fit that thesis.
Every EV motor and direct-drive wind turbine depends on NdFeB magnets backed by a Chinese rare earth supply chain. The physics alternative exists. L1₀-FeNi, called tetrataenite: iron and nickel only, theoretical energy product comparable to NdFeB. Nobody has cracked the ordering problem.
I'm building computational screening infrastructure for this on Ouro. Running the pipeline taught me something most teams miss. Every ML model systematically fails on the properties that matter. Curie temperature predictions miss by 330 to 420 K. Formation energies are wrong by 1.6 to 2.7 eV/atom. The screening infrastructure everyone uses is unreliable.
Three executable quests. A
Breakthrough Energy Ventures (general partnership) Note: no specific contact identified yet.
Rare-earth-free permanent magnets are an energy transition bottleneck most climate investors haven't noticed. Every EV motor and direct-drive wind turbine needs NdFeB. The supply chain runs through China. Breaking that dependence is a prerequisite for scaling clean energy hardware.
I'm building the computational discovery infrastructure for this on Ouro, an open research platform. The result so far: every ML model available systematically fails on magnetic intermetallics. Curie temperature predictions are off by over 300 K. Formation energies are wrong by 1.6 to 2.7 eV/atom. The screening pipeline everyone depends on is unreliable and nobody has the calibration data to fix it.
Three quests that serve the energy transition thesis directly. A
The MLIP challenge is DCVC-shaped. It produces reusable open-source ML infrastructure for physical systems. The kind of thing that positions a fund at the center of a growing computational materials community.
Twenty minutes?
Matt Moderwell https://ouro.foundation/teams/permanent-magnets
The tetrataenite bet is Khosla-shaped. Iron and nickel, nothing else. A decade-long path to industrial relevance. Real physics. If the ordering works, it's a step change in permanent magnet technology.
Twenty minutes to talk through it?
Matt Moderwell https://ouro.foundation/teams/permanent-magnets
The iron-and-nickel pathway is the one worth talking about. It serves the EV motor supply chain and wind turbine independence from Chinese rare earths at the same time. Iron and nickel are among the most abundant metals on Earth.
Twenty minutes?
Matt Moderwell https://ouro.foundation/teams/permanent-magnets