Magnetism is very important in various areas of science and technology, ranging from magnetic recording through energy generation to trapping cold atoms. Physicists have managed to master magnetism—to create and manipulate magnetic fields—almost at will. Surprisingly, there is at least one property that has been elusive until now: how to 'switch off' the magnetic interaction of a magnetic material with existing magnetic fields without modifying them. Here we introduce the antimagnet, a design that conceals the magnetic response of a given volume from its exterior, without altering the external magnetic fields, in some respects analogous to recent theoretical proposals for cloaking electromagnetic waves with metamaterials. However, unlike th...
Three-dimensional magnetic cloak working from d.c. to 250 kHz Jianfei Zhu1,*, Wei Jiang1,*, Yichao L...
To shield solutions carrying hyperpolarized nuclear magnetization from rapid relaxation during trans...
Invisibility to electromagnetic fields has become an exciting theoretical possibility. However, the ...
Cloaking a three-dimensional object in free space from electromagnetic waves has recently become a t...
Magnetism is present in our daily life – it is found at the basis of technologies such as electric g...
We theoretically predict and experimentally verify the illusion of transforming the magnetic signatu...
Magnets are used in electronics to store and read information. A magnetic moment is rotated to a des...
Magnetically sensitive experiments and newly developed quantum technologies with integrated high-per...
The control of magnetic fields, essential for our science and technology, is currently achieved by m...
Electrostatic gating confines and controls the transport of electrons in integrated circuits. Magnon...
Artificially structured metamaterials have enabled unprecedented flexibility in manipulating electro...
Premi Extraordinari de Doctorat concedit pels programes de doctorat de la UAB per curs acadèmic 2017...
Concentrating magnetic energy in a desired volume is an important requirement for many technologies....
The term “metamaterial” was first introduced in electromagnetics to include a wide variety of struct...
Homogeneous magnetic fields are needed in many applications. The resolution of medical imaging techn...
Three-dimensional magnetic cloak working from d.c. to 250 kHz Jianfei Zhu1,*, Wei Jiang1,*, Yichao L...
To shield solutions carrying hyperpolarized nuclear magnetization from rapid relaxation during trans...
Invisibility to electromagnetic fields has become an exciting theoretical possibility. However, the ...
Cloaking a three-dimensional object in free space from electromagnetic waves has recently become a t...
Magnetism is present in our daily life – it is found at the basis of technologies such as electric g...
We theoretically predict and experimentally verify the illusion of transforming the magnetic signatu...
Magnets are used in electronics to store and read information. A magnetic moment is rotated to a des...
Magnetically sensitive experiments and newly developed quantum technologies with integrated high-per...
The control of magnetic fields, essential for our science and technology, is currently achieved by m...
Electrostatic gating confines and controls the transport of electrons in integrated circuits. Magnon...
Artificially structured metamaterials have enabled unprecedented flexibility in manipulating electro...
Premi Extraordinari de Doctorat concedit pels programes de doctorat de la UAB per curs acadèmic 2017...
Concentrating magnetic energy in a desired volume is an important requirement for many technologies....
The term “metamaterial” was first introduced in electromagnetics to include a wide variety of struct...
Homogeneous magnetic fields are needed in many applications. The resolution of medical imaging techn...
Three-dimensional magnetic cloak working from d.c. to 250 kHz Jianfei Zhu1,*, Wei Jiang1,*, Yichao L...
To shield solutions carrying hyperpolarized nuclear magnetization from rapid relaxation during trans...
Invisibility to electromagnetic fields has become an exciting theoretical possibility. However, the ...