The crucial elements of significant energy-related technologies are storage and conversion. In "Advanced Batteries: Materials Science Aspects," the crucial characteristics that regulate the behaviour of advanced electrochemical storage devices are described using materials science concepts and methods. A battery's positive terminal functions as the cathode and its negative terminal as the anode while it is delivering electricity. The source of the electrons that will go from the terminal labelled "negative" to the terminal labelled "positive" is an external electric circuit. Redox reactions transform high-energy reactants into lower-energy products when a battery is coupled to an external electric load, and the free-energy difference is sent to the external circuit as electrical energy. Historically, a battery was a device made up of many cells; however, the term's usage has changed. But the usage has developed to encompass things like single-cell gadgets. The alkaline battery used in flashlights and a variety of portable electronic gadgets is a popular example of a primary single-use or "disposable" battery that is used once and then discarded since the electrode materials are permanently altered after discharge. The original chemical makeup of the electrodes can be recovered by applying reverse current to secondary rechargeable batteries, which can be depleted and recharged several times. Batteries are available in a wide variety of forms and sizes, ranging from tiny cells used to power hearing aids and wristwatches to, at the greatest end, enormous battery banks the size of rooms that supply backup or emergency power for telephone exchanges and computer data centres. Compared to typical fuels like gasoline, batteries have substantially lower specific energy energy per unit mass. The better efficiency of electric motors in transferring electrical energy to mechanical work as compared to combustion engines in vehicles somewhat offsets this.
Metal-air batteries (MABs) are promising electrochemical energy conversion and storage devices due to having high energy density, while being safer than most batteries. They are composed of a pure…
Today, Lithium ion batteries have been used extensively in mobile electronic devices. Especially for electric vehicles, usually these kind of batteries are widely implemented. These intensive…
Sessions are CPD-accredited; certificates issued to every registered delegate within two weeks of the conference.
Oral and poster slots for original Batteries work, reviewed by the scientific committee.
Meet materials researchers, engineers, and academics from around the world across three days.
Accepted abstracts appear in the indexed conference proceedings with a citable DOI.
Plenary lectures from leading voices shaping Batteries research and practice.
Attend in person in Singapore or join virtually — same programme, same certificate.
Oral and poster slots for your work — in person in Singapore or online. Not presenting? Attend as a delegate to learn from the field.
The Batteries track is a dedicated stream within Materials 2027 covering the latest research, methods, and applications in Batteries. It brings together researchers, engineers, and academics for oral presentations, posters, and discussion.
Materials researchers, engineers, educators, doctoral students, and R&D leaders with an interest in Batteries are all welcome — whether presenting or attending.
Yes. Submit an abstract for oral or poster presentation. All submissions are peer-reviewed by the scientific committee; accepted abstracts appear in the indexed proceedings.
Yes. Materials 2027 is a hybrid conference — attend the Batteries track in person in Singapore or join live online, with on-demand access afterward.
Singapore · March 18–20, 2027· Hybrid · in-person & virtual
Attend without presenting.
