- AustraliaNorth AmericaWorld
Investing News NetworkYour trusted source for investing success
- Lithium Outlook
- Oil and Gas Outlook
- Gold Outlook Report
- Uranium Outlook
- Rare Earths Outlook
- All Outlook Reports
- Top Generative AI Stocks
- Top EV Stocks
- Biggest AI Companies
- Biggest Blockchain Stocks
- Biggest Cryptocurrency-mining Stocks
- Biggest Cybersecurity Companies
- Biggest Robotics Companies
- Biggest Social Media Companies
- Biggest Technology ETFs
- Artificial Intellgience ETFs
- Robotics ETFs
- Canadian Cryptocurrency ETFs
- Artificial Intelligence Outlook
- EV Outlook
- Cleantech Outlook
- Crypto Outlook
- Tech Outlook
- All Market Outlook Reports
- Cannabis Weekly Round-Up
- Top Alzheimer's Treatment Stocks
- Top Biotech Stocks
- Top Plant-based Food Stocks
- Biggest Cannabis Stocks
- Biggest Pharma Stocks
- Longevity Stocks to Watch
- Psychedelics Stocks to Watch
- Top Cobalt Stocks
- Small Biotech ETFs to Watch
- Top Life Science ETFs
- Biggest Pharmaceutical ETFs
- Life Science Outlook
- Biotech Outlook
- Cannabis Outlook
- Pharma Outlook
- Psychedelics Outlook
- All Market Outlook Reports
Nature published an article looking at recent advances in lithium-ion battery technology, and at current research aiming to push lithium batteries to the limit.
Nature published an article looking at recent advances in lithium-ion battery technology, and at current research aiming to push lithium batteries to the limit.
As quoted in the publication:
Anodes can be made from silicon, which can hold up to ten times as much lithium per gram as graphite and therefore generate more power. But silicon poses its own problem: it expands to more than three times its normal size when the battery is charged and the anode is filled with lithium ions. This swelling breaks down the electrical bonds in the anode and stops the battery from working. It can also break the adjacent parts of the battery, such as the separator and even the battery case, and thus cause a fire.
Yi Cui, a materials scientist at Stanford University, California, who has been developing lithium-ion batteries for 15 years, is one of the scientists working on thinner electrode materials. He is developing silicon nanowires that stick up from the anode like fibres from a carpet and do not break the electrical bonds when they swell. But he says that the technology is still five years from commercialization. He is also experimenting with ways to improve graphite anodes, using two-dimensional graphene to absorb lithium more quickly while charging. But he says that this work too has a long way to go.
Investing News Network websites or approved third-party tools use cookies. Please refer to the cookie policy for collected data, privacy and GDPR compliance. By continuing to browse the site, you agree to our use of cookies.Â