This continuation patent builds upon previous work advancing the development of materials with deaggregated diamond nanoparticles for enhanced properties and applications.

These groundbreaking materials utilize deaggregated diamond nanoparticles unlocking new possibilities in materials science and nanotechnology.

These innovative diamond polymer brushes have unique properties and potential applications in various fields including materials science and surface modification.

This is a continuation of the previous patent further developing compositions with nano-particle size diamond powder for enhanced heat transfer capabilities.

This advanced triode device features a diamond microtip emitter enabling precise control and amplification of electrical signals.

These novel compositions use nano-particle size diamond powder for efficient heat transfer revolutionizing thermal management solutions.

This is a highly efficient and robust diode design employing a diamond microtip emitter pushing the boundaries of semiconductor technology.

This patent is a continuation of a prior patent further refining the eyeglass lens with multiple optical zones for superior visual performance in diverse outdoor settings.

This transmission cathode is designed for efficient X-ray production potentially revolutionizing medical imaging and industrial applications.

This method enables the efficient and precise fabrication of vacuum field emitters particularly focusing on diamond emitters.

This chemical sensor uses a chemically sensitive electrode combined with thin diamond layers enhancing sensitivity and durability.

A sensor arrangement for measuring strain using an electromechanical transducer.

An amplifier design with programmable gain control using feedback.