Abstract: A hydrogen supply method includes a two-side heat exchange mode in which both introducing a second fluid into a hydrogen storage part after the second fluid exchanges heat with a first fluid in a second heat exchanger in a state in which a compressor is driven to compress the first fluid and introducing the second fluid into the hydrogen storage part after the second fluid is heated or cooled in a thermal device are performed. The method also includes a one-side heat exchange mode in which one of introducing the second fluid into the hydrogen storage part after the second fluid exchanges heat with the first fluid in the second heat exchanger in a state in which the compressor is driven to compress the first fluid and introducing the second fluid into the hydrogen storage part after the second fluid is heated or cooled in the thermal device is performed.

Abstract: The present disclosure relates to a magnetic resonance imaging apparatus. The magnetic resonance imaging apparatus includes a magnetic assembly having a cavity, a cradle on which an object is located and configured to be movable to the inside or outside of the cavity, a cradle guide configured to guide the movement of the cradle, and a buffer member configured to be expandable in at least a part of a space between the cradle and the cradle guide.

Abstract: A magnetic resonance imaging (MRI) device, including a transport table configured to slide; and a radio frequency (RF) coil configured to receive an RF signal, wherein the RF coil may include a main body; at least one fixer installed on the main body, the fixer being configured to contact the transport table; and a decompressor configured to reduce pressure between the at least one fixer and the transport table to detachably fix the main body onto the transport table.

Abstract: Disclosed are an RF receiving coil, which is retained in an interior receiving space of a patient table and is extractable from the patient table, and an MRI apparatus including the same. The MRI apparatus includes a patient table having an interior space, and at least one Radio Frequency (RF) receiving coil integrated with the patient table and retained in the space, the RF receiving coil being movable outward of the patient table.

Abstract: A magnetic resonance imaging (MRI) system comprises, a main magnet, a gradient coil and an RF coil. The main magnet generates a static magnetic field, the gradient coil which is formed inside the main magnet and generates a gradient magnetic field and the RF coil. The RF coil is formed inside the gradient coil and comprises a plurality of different components including: a former supporting the plurality of different components including windings and having a first area and a second area and a groove formed in the second area and in which a component of the RF coil is installed and inset, reducing thickness of the RF coil.

Abstract: A magnetic resonance imaging (MRI) device, including a transport table configured to slide; and a radio frequency (RF) coil configured to receive an RF signal, wherein the RF coil may include a main body; at least one fixer installed on the main body, the fixer being configured to contact the transport table; and a decompressor configured to reduce pressure between the at least one fixer and the transport table to detachably fix the main body onto the transport table.

Abstract: Disclosed are an RF receiving coil, which is retained in an interior receiving space of a patient table and is extractable from the patient table, and an MRI apparatus including the same. The MRI apparatus includes a patient table having an interior space, and at least one Radio Frequency (RF) receiving coil integrated with the patient table and retained in the space, the RF receiving coil being movable outward of the patient table.

Abstract: A magnetic resonance imaging (MRI) system comprises, a main magnet, a gradient coil and an RF coil. The main magnet generates a static magnetic field, the gradient coil which is formed inside the main magnet and generates a gradient magnetic field and the RF coil. The RF coil is formed inside the gradient coil and comprises a plurality of different components including: a former supporting the plurality of different components including windings and having a first area and a second area and a groove formed in the second area and in which a component of the RF coil is installed and inset, reducing thickness of the RF coil.