View source for 20240013975. SAMARIUM COBALT AND NEODYMIUM IRON BORIDE MAGNETS AND METHODS OF MANUFACTURING SAME simplified abstract (LAWRENCE LIVERMORE NATIONAL SECURITY, LLC)

=SAMARIUM COBALT AND NEODYMIUM IRON BORIDE MAGNETS AND METHODS OF MANUFACTURING SAME=


==Organization Name==

[[:Category:LAWRENCE LIVERMORE NATIONAL SECURITY, LLC|LAWRENCE LIVERMORE NATIONAL SECURITY, LLC]]


[[Category:LAWRENCE LIVERMORE NATIONAL SECURITY, LLC]]

==Inventor(s)==

[[:Category:Sarah Baker of Dublin CA (US)|Sarah Baker of Dublin CA (US)]][[Category:Sarah Baker of Dublin CA (US)]]

[[:Category:Joshua Kuntz of Livermore CA (US)|Joshua Kuntz of Livermore CA (US)]][[Category:Joshua Kuntz of Livermore CA (US)]]

[[:Category:Scott K. Mccall of Livermore CA (US)|Scott K. Mccall of Livermore CA (US)]][[Category:Scott K. Mccall of Livermore CA (US)]]

[[:Category:Christine A. Orme of Oakland CA (US)|Christine A. Orme of Oakland CA (US)]][[Category:Christine A. Orme of Oakland CA (US)]]

[[:Category:Alexander A. Baker of Pleasanton CA (US)|Alexander A. Baker of Pleasanton CA (US)]][[Category:Alexander A. Baker of Pleasanton CA (US)]]

[[:Category:Jonathan R. I. Lee of Livermore CA (US)|Jonathan R. I. Lee of Livermore CA (US)]][[Category:Jonathan R. I. Lee of Livermore CA (US)]]

==SAMARIUM COBALT AND NEODYMIUM IRON BORIDE MAGNETS AND METHODS OF MANUFACTURING SAME - A simplified explanation of the abstract==


This abstract first appeared for US patent application 20240013975 titled 'SAMARIUM COBALT AND NEODYMIUM IRON BORIDE MAGNETS AND METHODS OF MANUFACTURING SAME

==Simplified Explanation==

The abstract of the patent application describes a magnet that has a three-dimensional structure with nanoscale features. This structure is designed to have a near net shape, meaning it closely corresponds to a predefined shape.

* The magnet has a three-dimensional structure with nanoscale features.
* The structure of the magnet closely matches a predefined shape.
* The magnet is designed to have a near net shape, minimizing the need for additional shaping or processing.

Potential Applications:
* Magnetic storage devices: The magnet's nanoscale features could enhance the performance of magnetic storage devices such as hard drives.
* Electric motors: The magnet's three-dimensional structure could improve the efficiency and power output of electric motors.
* Magnetic resonance imaging (MRI): The magnet's nanoscale features could enhance the resolution and sensitivity of MRI machines.

Problems Solved by this Technology:
* Complex shaping processes: The near net shape of the magnet reduces the need for complex shaping processes, simplifying manufacturing.
* Performance limitations: The nanoscale features of the magnet improve its performance in various applications, overcoming limitations of traditional magnets.

Benefits of this Technology:
* Improved efficiency: The three-dimensional structure and nanoscale features of the magnet enhance its efficiency in various applications.
* Enhanced performance: The magnet's design and features improve its performance in magnetic storage, electric motors, and MRI machines.
* Simplified manufacturing: The near net shape of the magnet reduces the complexity and cost of manufacturing processes.


==Original Abstract Submitted==

a magnet includes a three-dimensional structure with nanoscale features, where the three-dimensional structure has a near net shape corresponding to a predefined shape.



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