Cathode-anode chamber experiments with carbon nano-tube production

High voltage E-M fields for cathode-anode evacuated chambers, with iron buffers, can cause carbon in oil meniscus (crushed coal in oil) to be liberated and form hexagonal bonds with each other, normally single walled carbon nanotubes (CNT's) or cylindrical spirals, which are antennae. The voltage discharges are usually high and short (narrow full width half maximum) and cause, and cause the CNT's to scatter everywhere, collected, and placed in a substrate where they point in all directions for heterogenous p-n junctions. If broader or spread out with pre- and post-magnetic field alignment, better yet with an AC signal controlled by an oscilloscope to experiment with wave packets and fine tune energy distribution to understand quantum limitations of your atoms in the meniscus, you can force CNT dipole antennae to polarize and capture in a substrate where if pointing the same direction, they are homogenous p-n junctions, for much better potential difference (semiconductor donor versus acceptor) for the two p-n junction types, and 1,000X the transistor densities of current SiO chips, much more efficient solar (photovoltaic) panels, etc. See attached diagram. If you have current access to the discharge chamber equipment, with ability to formulate charcoal meniscus with good AC discharge control, and the testing of the p-n junctions for field alignment (detect changing field strength as a function of orientation) with plotted data, this s information will be valuable on how to perfect and mass produce better IC's and photovoltaic panels.