A magnetic field mediates a group of physical characteristics known as magnetism, which refers to an object's ability to cause both attracting and repulsive behaviours in other objects. A magnetic field is created by electric currents and the magnetic moments of elementary particles, and it exerts its influence on additional currents and magnetic moments. One manifestation of the coupled phenomenon known as electromagnetism is magnetism. The effects in ferromagnetic materials—which are strongly drawn to magnetic fields and may be magnetised to become permanent magnets—where magnetic fields themselves are produced—are the most well-known. It is also feasible to demagnetize a magnet. Few materials are ferromagnetic; the most popular ones are iron, cobalt, and nickel, as well as their alloys. Neodymium and samarium, two rare-earth elements, are less typical instances. Since lodestone, a kind of natural iron ore known as magnetite, Fe3O4, is where permanent magnetism was originally discovered, the prefix ferro- denotes iron. Every material possesses some form of magnetism. The classification of magnetic materials is based on their bulk susceptibility. The majority of the effects of magnetism that are observed in daily life are caused by ferromagnetism, however there are other forms of magnetism as well. Antiferromagnetic elements, such as chromium and spin glasses, have a more complicated connection with a magnetic field than paramagnetic materials, such as aluminium and oxygen. Diamagnetic materials, such as copper and carbon, are weakly repelled by a magnetic field. Because the force of a magnet on paramagnetic, diamagnetic, and antiferromagnetic materials is typically too faint to be felt and can only be detected by laboratory equipment, these materials are frequently referred to as non-magnetic in normal language. Temperature, pressure, and the magnetic field that is being applied all affect a material's magnetic state or magnetic phase. As these factors alter, a material could display many magnetic modes.
We present a path to tailor adapted magnetic properties in carbon chains. Our undoped carbon chains show p-orbital ferromagnetism up to 400K experimentally. As the ferromagnetism of carbon chains…
Sessions are CPD-accredited; certificates issued to every registered delegate within two weeks of the conference.
Oral and poster slots for original Magnetism 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 Magnetism 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 Magnetism track is a dedicated stream within Materials 2027 covering the latest research, methods, and applications in Magnetism. 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 Magnetism 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 Magnetism 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.
