The fascinating two-dimensional (2D) materials are being unconsciously applied in various fields from science to engineering, which is benefited from the glamorous physical and chemical properties of mechanics, optics, electronics, and magnetism. The representative 2D thermoelectric/piezoelectric materials can directly convert thermal/mechanical energy into electrical energy, which can resolve the energy issues and avoid further environmental deterioration. The thermoelectric or piezoelectric properties of various 2D materials, such as graphene, hexagonal boron nitride, black phosphorus, transition metal dichalcogenides (TMDs), arsenene, metal carbides and nitrides (MXenes), and so on, have been investigated in detail. Although tremendous progress has been achieved in the past few years, these properties still need to be improved for their practical application by designing new 2D materials, strain engineering, chemical functionalization, etc. In addition to this, in 2D materials, there are many other novel physical properties, such as magnetism, topology, valley, and so on. The combination of thermoelectricity/piezoelectricity with other unique properties may lead to novel device applications or scientific breakthroughs in new physics. Overall, the emergence of 2D thermoelectric and piezoelectric materials has expanded energy conversion research dramatically. By combing this new device concept with the novel 2D materials, original devices should have potential applications in energy harvesting.
This Research Topic aims to publish Original Research and Review articles related to the computational, theoretical, and experimental design of 2D thermoelectric and piezoelectric materials for functional device applications. The Research Topic includes, but are not limited to:
• Design of novel 2D materials for thermoelectricity and piezoelectricity;
• Engineering and tuning of thermoelectricity and piezoelectricity of 2D materials by strain engineering, external electric field, chemical functionalization, etc;
• Design of multifunctional 2D thermoelectric and piezoelectric materials combined with magnetism, topology, valley, etc;
• New physics and novel device applications in 2D thermoelectric and piezoelectric materials.
The fascinating two-dimensional (2D) materials are being unconsciously applied in various fields from science to engineering, which is benefited from the glamorous physical and chemical properties of mechanics, optics, electronics, and magnetism. The representative 2D thermoelectric/piezoelectric materials can directly convert thermal/mechanical energy into electrical energy, which can resolve the energy issues and avoid further environmental deterioration. The thermoelectric or piezoelectric properties of various 2D materials, such as graphene, hexagonal boron nitride, black phosphorus, transition metal dichalcogenides (TMDs), arsenene, metal carbides and nitrides (MXenes), and so on, have been investigated in detail. Although tremendous progress has been achieved in the past few years, these properties still need to be improved for their practical application by designing new 2D materials, strain engineering, chemical functionalization, etc. In addition to this, in 2D materials, there are many other novel physical properties, such as magnetism, topology, valley, and so on. The combination of thermoelectricity/piezoelectricity with other unique properties may lead to novel device applications or scientific breakthroughs in new physics. Overall, the emergence of 2D thermoelectric and piezoelectric materials has expanded energy conversion research dramatically. By combing this new device concept with the novel 2D materials, original devices should have potential applications in energy harvesting.
This Research Topic aims to publish Original Research and Review articles related to the computational, theoretical, and experimental design of 2D thermoelectric and piezoelectric materials for functional device applications. The Research Topic includes, but are not limited to:
• Design of novel 2D materials for thermoelectricity and piezoelectricity;
• Engineering and tuning of thermoelectricity and piezoelectricity of 2D materials by strain engineering, external electric field, chemical functionalization, etc;
• Design of multifunctional 2D thermoelectric and piezoelectric materials combined with magnetism, topology, valley, etc;
• New physics and novel device applications in 2D thermoelectric and piezoelectric materials.
