We develop new classes of structural metallic glass alloys that tackle the performance and processing challenges of commercially used ones. They display properties that far surpass those of conventional crystalline metals and offer new engineering solutions for high performance components.
Stronger, harder, cheaper, colorful, corrosion resistant, highly processable, recyclable, low sensitivity to oxygen, our proprietary non-precious alloys offer performance, economy, and sustainable materials for the future.
GlassiZirconium alloys are Zirconium-based metallic glasses that are an alternative to Vitreloy alloys (LM1, LM1b, LM105, LM106a). Beryllium-free and Copper-free, stronger and harder than LM105, GlassiZirconium are the "whitest" Zirconium-based BMGs and can be conversion coated to achieve a wide range of colors to satisfy all your cosmetic requirements.
Applications: consumer goods, electronics, medical devices & components
Our GlassiNickel alloys are Nickel-chromium based metallic glasses that offer ultrahigh strength and hardness combined with excellent corrosion resistance. with a low production cost, GlassiNickel alloys are a prime choice for commodity components that require both performance and price competitiveness in harsh environments. Glassinickel is also 100% recyclable.
Applications: hardware components, civil construction, agriculture, military, aerospace, marine hardware, coatings, medical devices & components
Available in several jewelry trademarks, the collection offers incomparable advantages over their crystalline counterparts to shape beautiful product significantly stronger and harder.
Our GlassiGold alloys are 18-karat white and yellow gold-based metallic glasses. Owing to a proprietary technology, our GlassiGold alloys have a tunable yellow color that would meet all design requirements. Combined with superior scratch resistance, strength and toughness, GlassiGold alloys far outperform their crystalline counterparts.
Application: jewelry, watches
Our GlassiPlatinum alloys offer Nickel-free Platinum-based metallic glasses with 850 Pt to 950 Pt jewelry hallmarks. Our GlassiPlatinum alloys are 3 to 5 times stronger and harder than conventional Platinum jewelry alloys with similar hallmarks. Combined with excellent glass-forming ability , fracture toughness and corrosion resistance, GlassiPlatinum is a prime choice for luxury goods.
Application: jewelry, watches
Our GlassiPalladium alloys are Palladium-based metallic glasses with 500 Pd and 900 Pd hallmarks. GlassiPalladium alloys have exceptional mechanical properties, and are among the most-damage tolerant engineering material known.
Application: jewelry, medical, dentistry, catalytic converters
Metallic Glass FAQ's
Ramp up your team on alloy basics, use the summary below to browse our favorite highlights to kickstart your process. To schedule a live executive briefing, set up a prototype breakout planning session, run a quote and ask questions, get in touch!
When were they invented?
In 1960, Pol Duwez and his group at the California Institute of Technology reported the first Au-Si liquid-metal alloy to be vitrified by cooling from the molten state. These metallic alloys require cooling rates of 1,000,000 degrees per second to suppress crystallization and form a metallic glass, thereby restricting the specimen geometry to micron-thin sections.
How are they formed?
Unlike conventional glasses (e.g. silicate glasses), metallic glasses cannot be found in nature as they cannot evolve by a natural process. They are frozen metallic liquids lacking crystallinity, and can only be processed in the laboratory. Amorphous configurations are retained in the solid state by cooling from the melt with sufficient celerity so as to prevent formation of the equilibrium crystalline structures.
What are the benefits?
Metallic glasses are emerging as a class of materials with unique and unusual properties that make them candidates for many structural applications.
These properties include near theoretical strengths and high hardness combined with high formability, low damping, large elastic strain limits, and the ability to be thermoplastically formed into precision net shape parts in complex geometries, all of which are superior to corresponding crystalline metals and alloys.
"GlassiNickel alloys are 2 to 3 times stronger and harder than high strength Steel and Titanium alloys."
- Bill Johnson, Glassimetal Technology
Compared to their crystalline counterparts, the exceptional properties of metallic glasses enable the design of components with smaller footprints, greater complexity, and enhanced precision and tolerance.
What are the notable recent developments?
For the past 30 years, it has been known that metallic glasses can be directly made in bulk form by solidifying the melt at relatively low cooling rates. In the early 1990's, William L. Johnson and his group at the California Institute of Technology developed Zr-based bulk metallic glasses (BMGs), and in particular the Zr-Ti-Ni-Cu-Be system, that present a low cooling rate of about 1 degree per second allowing casting of large ingots with thicknesses up to 10cm.
Shortly after, the first commercial Zr-based BMG was commercialized and is in use today in several commercial applications due to its unique engineering characteristics.
The Zr-based BMGs are deemed rather "exotic" due to raw material and processing costs exceeding those for mainstream metals such as steel and aluminum. Recently, new ferrous-metal glasses based on Iron and Nickel bearing Chromium have been developed with material and cost structures similar to those for mainstream engineering alloys. Precious metal BMGs made of Platinum, Palladium, and Gold have also been recently introduced intended for use in hallmarked jewelry applications.
What's is the next frontier?
We want to expand the boundaries of metal performance and manufacture of metallic parts. The combination of exceptional materials (Metallic Glasses) and a pioneering processing platform (Rapid Discharge Forming) offers major advantages over conventional metals processing methods such as die-casting, metal powder injection molding, machining... With cycle times on the order of seconds, near net shaping, an environmentally friendly process, high precision, and superior material performance, our technology redefines the cost vs. performance tradeoff achievable for metallic components.