Organic redox flow batteries
Flow batteries using organic molecules in liquid for energy storage, offering scalable and sustainable alternatives to traditional batteries.
Organic redox flow batteries store electrical energy in liquid electrolytes. These liquids contain organic molecules, which are carbon-based compounds, instead of the metal-based materials found in many other battery types.
Think of them like rechargeable chemical tanks. When you need to store energy, the organic molecules in one tank are chemically changed. When you need to release energy, they flow to another tank where they change back, releasing electricity. This design makes them potentially very scalable for grid-level energy storage.
Organic redox flow batteries (ORFBs) store energy in liquid electrolytes containing dissolved organic molecules. Unlike traditional vanadium or zinc-based flow batteries, ORFBs utilize carbon-based compounds, such as quinones or viologens, as active redox species. This organic chemistry offers potential advantages in terms of cost, sustainability, and tunability of electrochemical properties. Tradeoffs can include lower energy density compared to some inorganic chemistries and potential challenges with molecular stability over many charge-discharge cycles.
Microsoft AI is being used to accelerate the discovery of new materials for organic redox flow batteries. This technology is important for energy storage, which is crucial for supporting the massive computational needs of frontier AI models.
- What a battery breakthrough reveals about AI and scientific memoryMicrosoft · Microsoft Source ·
- Microsoft Copilot
- Microsoft Copilot is involved in using AI to speed up the discovery of materials for organic redox flow batteries, a type of energy storage technology.
- Lithium-ion batteries
- These batteries store energy in solid electrodes, not liq
- Solid-state batteries
- These batteries use solid electrolytes instead of liquid
- Capacitors
- These store energy electrostatically, not electrochemically like bat
The concept of using organic molecules for electrochemical energy storage has roots in academic research exploring sustainable alternatives to metal-based redox flow batteries. Specific molecular designs and system integrations are subjects of ongoing scientific publications.
While you can't directly interact with an organic redox flow battery through AI, you can explore AI's role in scientific discovery. Ask Copilot to explain how AI is used in materials science or to summarize recent breakthroughs in battery technology.
The Playbook: reusable how-tos, prompts, configs and tips pulled out of the news.
- PromptRole-play a student struggling with math for AI tutor simulationSimulate a student's math struggles and uncertainty for AI tutor evaluation. · 5 min
- TemplateReusable workflow templates for healthcare teamsTeams can create and share templates for common workflows like documentation or prior authorizations. · 15 min
- TemplateTemplate for building an AI tool tailored to your workA structured approach to defining and building a custom AI tool for specific business needs. · 15 min
- TemplateEvals CSV prompt list for agent skillsA CSV file template for listing prompts used in evaluating agent skills. · 20 min
- HeuristicDouble coding agent task completion with docs linksProviding coding agents with a documentation link significantly increases their task completion rate. · 2 min
Questions people ask
- What makes organic redox flow batteries different?
- They use carbon-based organic molecules in liquid electrolytes, unlike many batteries that use metal compounds. This can make them more sustainable and potentially cheaper.
- Are they good for electric cars?
- Currently, they are more suited for stationary energy storage, like storing solar or wind power for the grid, rather than the high power demands of electric vehicles.
First seen on Subvolts Sep 9, 2026. Updated Sep 16, 2026. Written by an AI model from the items above and reviewed against them weekly; report an error.