Cryo | Aims and Scope Update

To further enhance the quality of Cryo and the papers published in it, under the guidance of our Editor-in-Chief, Prof. Dr. Yanzhong Li, the journal has updated and revised its aims and scope. The original scope and the updated version are listed below:

Aims (new version):	Aims (old version):
Cryo (ISSN 3042-4860) is an international peer-reviewed open access journal focused on low temperature physics, quantum science and technology, cryogenic engineering and technology, cryogenic materials, spintronics and magnonics, as well as their interdisciplinary fields, covering scientific problems and technological applications ranging from deep cryogenic to low temperature range. The journal focuses on publishing reviews, regular research papers (articles), and short communications, but other article types will also be considered. Cryo aims to encourage scientists to publish their experimental and theoretical results in as much detail as possible. Therefore, the journal has no restriction on the maximum length of the papers. Research methodology must be provided in sufficient detail so that results can be reproduced. Cryo covers topics of interest, including, but not limited to, the following:	Cryo (ISSN 3042-4860) is an international open access journal focused on cryoengineering and cryogenics. Cryo publishes reviews, regular research papers (articles), and short communications. Our aim is to encourage scientists to publish their experimental and theoretical results in as much detail as possible. Therefore, there is no restriction on the maximum length of papers. Full experimental details must be provided so that the results can be reproduced.
Scope (new version):	Scope (old version):
Low-Temperature Physics Superconducting basics; Quantum fluids and solids; Strong correlations and quantum magnetism; Low-temperature spectroscopy and quantum transport; Superconducting quantum computing; Quantum simulation; Low-temperature electronics; Spintronics and magnonics; Extreme condition physics; RF superconductivity. Cryogenic Engineering and Technology Refrigeration cycle and thermodynamics; Cryogenic liquefaction and separation; Insulation and heat transfer technology; Storage and transfer technology; Cryogenic measurement and metrology; Cryogenics in energy and propulsion; Aerospace cryogenics; Low-temperature detectors; Cryo vacuum pumps; Large helium/hydrogen cryogenics and cryocoolers; Ultra-low-temperature cryogenics (below 1 K); Application of cryo-technology. Cryogenic Materials and Devices Structural materials; Superconducting materials; Functional materials; Magnetic topological materials; Applied superconductors; Quantum devices; Magnonic devices; Topological spin structures; Two-dimensional magnetic materials.	Various applications of cryogenic techniques Properties of cryogenic fluids under various conditions Properties of materials at the cryogenic temperature Cryogenics instrument and process control Heat transfer and thermo-physical properties Cryogenic two-phase flow Cryogenic design Low-temperature thermal conductivity Low-temperature dislocation structure Cryogenic thermal insulation technology Fusion magnets and superconductors Cryogenics for fusion energy Superhelium and superconductors Cryogenics for large-scale scientific facility Cryocooler and refrigerators Space cryogenics Cryogenic fuel Cryogenic rocket engine Cryogenic propellants Cryogenic quantum computing Hydrogen energy Liquid/cryogenic hydrogen storage and transportation Liquid hydrogen production and application Liquefied Natural Gas (LNG) Modern refrigeration cycles Dilution refrigeration for quantum computing, astrophysics, and other applications New methods and technology regarding cryogenics

For more detailed information, please visit the following link: https://www.mdpi.com/journal/cryo/about.

Cryo Editorial Office