Full Agenda
Anaphite
Dry-coating electrodes for Li-ion batteries
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Jennifer Channell
Commercial and Partnerships Lead
Dry-coating electrodes for Li-ion batteries
FAAM
Magnetochemistry for fast charging batteries
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Carmen Cavallo
R&D Senior Material Scientist
Magnetochemistry for fast charging batteries
Fraunhofer ISC
Cathode coatings and electrolyte additives for CEI stabilization
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Guinevere Giffin
Scientific Head
Cathode coatings and electrolyte additives for CEI stabilization
Gaussion
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Aaron Wade
Business Development Lead
International Power Supply
High energy density stationary storage batteries
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Mariyana Yaneva
Chief Operating Officer
High energy density stationary storage batteries
Jena Flow Batteries
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Tobias Janoschka
CTO
Magnera corporation
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Dave Rittenhouse
Head of Advanced Battery Materials Group
National Research Council of Italy (CNR)
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Francesca De Giorgio
Researcher
Scania
Towards quantifying heterogeneous degradation in lithium-ion batteries
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Matthew Lacey
Senior Engineer
Towards quantifying heterogeneous degradation in lithium-ion batteries
Stanford University
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Gabriel Crane
PHD Candidate
TioTech
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Anders Teigland
CEO
Up Catalyst
Battery-grade graphite and carbon nanomaterials produced from CO₂
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Sebastian Pohlmann
CTO
Carbon materials such as graphite and carbon nanotubes (CNTs) are important in energy storage technologies, particularly in lithium-ion batteries. However, their conventional production—through mining or synthesis from fossil-based feedstocks—has large environmental impacts.
A sustainable alternative is converting CO₂ emissions directly into graphite and CNTs using molten salt carbon capture and electrochemical transformation (MSCC-ET). This energy-efficient process operates at lower temperatures, avoids fossil-based feedstock such as petroleum coke, and allows production of battery-grade graphite with a climate-negative footprint.
The resulting materials meet the performance requirements for advanced battery applications and offer a scalable, cost-competitive solution for local carbon material production.
Battery-grade graphite and carbon nanomaterials produced from CO₂
Carbon materials such as graphite and carbon nanotubes (CNTs) are important in energy storage technologies, particularly in lithium-ion batteries. However, their conventional production—through mining or synthesis from fossil-based feedstocks—has large environmental impacts.
A sustainable alternative is converting CO₂ emissions directly into graphite and CNTs using molten salt carbon capture and electrochemical transformation (MSCC-ET). This energy-efficient process operates at lower temperatures, avoids fossil-based feedstock such as petroleum coke, and allows production of battery-grade graphite with a climate-negative footprint.
The resulting materials meet the performance requirements for advanced battery applications and offer a scalable, cost-competitive solution for local carbon material production.
Wood Mackenzie
Batteries and geopolitics: where does Europe stand?
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Alex Cipolla
Senior Research Analyst
Batteries and geopolitics: where does Europe stand?
Zinergy
Printable Zinc batteries
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Pritesh Hiralal
Co-founder and CEO
Printable Zinc batteries
24 Sept 2024
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Tuesday
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