Amorphous Metal

Every day we interact with dozens of metals, shaping the world we live in  – from building infrastructure to the cars we drive. At a microscopic level, all these metals have a crystalline atomic structure. This results in the behaviors we are all familiar with, such as denting or bending. Here you will learn how amorphous metals are different than all these other metals.

Typically, when a metal cools from a liquid to a solid, the atoms arrange themselves and grow into organized structures called grains. Where these grains intersect, a boundary is formed.

Microscopic image of grain boundaries

Liquidmetal was formulated to frustrate the movement of the atoms into the organized grain structure as the alloy cools. This results in a liquid-like atomic structure.

Microscopic image of an amorphous metal with scattered crystals

Metals and alloys get their strength from the atomic bonds within the material. These bonds are weakened across a grain boundary due to dislocations and impurities. Liquidmetal does not have grain boundaries, so it is atomically stronger than other alloys.

Technology Evolution of Amorphous Metals

Early amorphous metals could only be manufactured in very thin ribbons, using a melt-spinning method to achieve the massive cooling rates required to defeat the crystallization that occurs when metal changes from a liquid to a solid.

R&D efforts began at NASA and Caltech, continuing on through many universities and Liquidmetal Technologies, to create alloys that will stay amorphous with much lower cooling rates.

Now the technology has driven past the limitation of only making thin ribbons. We can use an injection molding process to produce parts with larger cross sections. This allows us to manufacture useful parts across multiple industries.


Traditional metals and alloys can be dented due to its crystalline grain structure. Liquidmetal is amorphous and cannot be dented.

Liquidmetal Technologies has surpassed the initial limitations. We can mold functional parts that typically fit in the palm of your hand.

Typical Part Sizes

Being Amorphous is not entirely inherent in the alloy.  The material still needs to cool relatively quickly.  If the wall thickness of a part is too great, the material will not cool fast enough and begin to develop a crystalline grain structure.

Consideration must be taken to design your part with a wall section less than 2.5mm (0.10”). Many times, a part that was previously designed for CNC machining can be modified for our molding process by coring out the thick sections.