The Technology

The Case for Wide Bandgap Semiconductors

As we reach the limits with today’s technology in our electronics, where do we go next? The answer is to lift the barriers that prevent us from developing smaller, more powerful, and more energy-responsible electronics. With this goal in mind, a new frontier has emerged: Wide Bandgap (WBG) semiconductors.

The impact of implementing WBG semiconductors would result in substantial economic savings. WBG semiconductors:

  • Can operate at temperatures of over 300 degrees, reducing the costs required for cooling systems and overheating-related repairs
  • Handle 10 times higher voltages, allowing new technologies to utilize higher power without needing more material
  • Operate with over 90 percent increased power efficiency by reducing the ambient power loss compared to current technology

These advantages will allow electronics to be developed and sold at a lower cost while also saving users billions of dollars in energy.

These are some of the advantages identified by the U.S. Department of Energy. Watch the video

AKHAN's Approach and Solution: The Miraj Diamond™ Platform

AKHAN’s approach to this frontier is to identify the most ideal material for the job, and research and refine it into a cost-efficient, effective solution for consumers in all major industries.

This priority has led to the development of the Miraj™ Diamond Platform.

Superior Characteristics

Diamond is known to be the "Ultimate Wide Bandgap semiconductor material" due to its inherent properties. Its ability to conduct heat far surpasses that of materials used on current electronics (five times better than copper, 22 times better than silicon). It also has the unique ability to isolate massive voltages with a small fraction of the material required compared to present technologies. In isolating 10,000V, the amount of diamond needed is 50 times less than that of silicon. These attributes present diamond to be the ideal successor technology.

Cost-Responsible Manufacturing

Considering diamond’s status as a luxury material to most, the idea of integrating it with electronics may appear costly. AKHAN SEMI has overcome this hurdle by developing a state-of-the-art manufacturing process that takes common methane gas as the input, and produces the perfect diamond wafers needed for electronic production.

At a basic level, the process is to crack the methane gas onto a heated platform using a ball of plasma. This process occurs inside of an "MPCVD" reactor.

The final product is a diamond wafer which can be used as a platform for fabricating the semiconductor devices.


Using diamond as a semiconductor material in electronics has many advantages, and two of the most prevalent applications will be inside of the diode and transistor components, both of which are used many times in almost all electronic devices.

Diodes are electronic components that allow electricity to flow one way through the circuit, preventing backflow that could disrupt or damage other components. Diodes play a major role most electronics, and almost every device charger.

Transistors are the building blocks of “logic gates,” the systems that make computers and other smart devices “smart.” Computer processors use many billions of transistors across their cores. Integrating diamond into this component will start a new age of computing technology.

While the effect of AKHAN SEMI’s diamond semiconductors will impact all industries, some of the most notable applications will include faster supercomputers, advanced radar and telecommunications, hyper-efficient hybrid vehicles, electronics in extreme environments, and next-generation aerospace and avionics.