Science and Technology Partnerships and Outreach

Ultra- Fast Boriding Technologies

Argonne’s ultra-fast boriding technologies cut cycle time to ~0.5 hour, enabling high throughput hardening with minimal environmental burden. By leveraging charge-driven boron transport, it achieves superior layer quality while reducing energy consumption
Technology Commercialization Opportunity
IN-06-058 Ultra-Fast Boriding of Metal Surfaces for Improved Properties
  • A method for ultra-fast electrochemical boriding in which a metal component is exposed to a boron-containing molten electrolyte heated by an induction furnace, rapidly forming a boride layer on the metal surface.
IN-11-029 Method for Ultra-Fast Boriding
  • An ultra-fast boriding process for metal-cutting and forming tools—particularly WC inserts, W-alloys, and high-speed/D2 steels—that creates very hard, thick, high-temperature-stable boride layers (e.g., tungsten boride up to ~3500 HV), greatly improving w
IN-23-110 Surface Hardening of Refractory Complex Alloy Materials By Ultrafast Boriding Process
  • A method to harden high-temperature refractory multi-element alloys using ultrafast electrochemical boriding, a reactive thermal diffusion process that avoids coating interfaces. By employing powder-metallurgy alloys with controlled density to speed boron
IN-24-137 Ultra-Fast Boriding of Pipe Interiors
  • A method to electrochemically boride the inner diameter of large tubes that can’t be fully submerged in a molten borax crucible.
IN-25-063 Compositional Optimization of Alloying Elements for Robust Surface Hardening of Ferrous Material
  • Microstructural engineering method of boride surface layers in ferrous alloys, using boriding and tailored alloy compositions to form desirable phases (e.g., alloyed Fe2B, composite layers with Mo/Cr/Ni borides, and Al–Mn–Fe borides). By controlling layer

 

Opportunity & Solution: Conventional pack-boriding is slow (often ~10 hours), is energy-intensive and limits throughput. Argonne’s process cuts cycle time to ~0.5 hour, enabling high throughput hardening. By leveraging charge-driven boron transport, it achieves superior layer quality while reducing energy consumption by 80–90% and releasing almost no hazardous emissions.


Benefit: Components gain tougher, thicker, crack-resistant protection that extends service life, boosts reliability, and reduces maintenance and downtime. This results in immediate cost and productivity gains from shorter furnace occupancy and lowered energy bills.
 

Applications: Wear-, erosion-, and corrosion-resistant hardening for gears, shafts, valves, seals, pump parts, and cutting/earthmoving tools in steels and titanium. Retrofitting or augmenting surface-treatment lines to deliver faster turnaround and consistent, high-performance diffusion layers for demanding duty cycles.


Industries: Automotive powertrains; aerospace (including titanium components); mining, construction, and agriculture equipment; oil and gas drilling and production tools; industrial machinery and OEMs; commercial heat-treat and surface engineering service providers.