Abstract: A method for synthesizing a medicinal, nutraceutical, or food fullerene composition, including providing anisotropy in polar and non-polar C60 fullerene hemispheres to create one face of C60 fullerene having a small number of OH-groups clustered to the polar face; providing an amount of a polyhydroxylated fullerene from C60 fullerene; and blending the amount of the polyhydroxylated fullerene with an acceptable ionomer or an acceptable carrier or both. The polyhydroxylated fullerene includes fullerol-'x? and the amount includes 200 ppm or 500 ppm, wherein ‘x’ is less than 22. The acceptable ionomer includes honey, or a mixture of 3% by wt. sucrose, 1% by wt. proline, 0.2% by wt. magnesium citrate, and 1% by wt. beta-cyclodextrin. The acceptable carrier includes water or a gelatin. A stent, a medical bandage, medical packing material, medical drainage material, acupuncture support, topical ointment, or suture material is impregnated with an anisotropic polyhydroxylated fullerene for antimicrobial action.

Abstract: A metamaterial structure, forming an atomic forcipes, including a topological conductor, a topological insulator abutting the topological conductor, and a gallery between the topological conductor and the topological insulator. The topological conductor has deuterons as chemical adducts. The topological insulator expresses a net negative surface charge and has paramagnetic properties. The gallery has charged intercalated ions. The topological conductor includes deuterated ferromagnetic graphene sheets. The topological insulator can include a clay sheet disposed between the graphene sheets. The atomic forcipes includes a nuclear magnetic isotope disposed in the gallery and formed as an adduct to the clay sheet. The atomic forcipes includes a transceiver, a transmitter, a receiver, a sensor, or an actuator. Included is a body-machine interface where atomic forcipes is disposed in or on a biological structure.

Abstract: Atomic forcipes is a nanomechanical magnetoelectric element having an insulator, an atom-thick conductive graphene sheet suspended as a heterostructure onto the insulator, and a gallery between the insulator and the graphene sheet. Atomic forcipes can be actuated acoustically or electromagnetically. Activation generates a chemical potential of directionally enhanced chemical reaction rate. Atomic forcipes can be formed by selecting enhanced graphene having a particle size, providing piezoelectric smectite clay of the particle size, combining graphene particles with clay, adding a compatibilizer, and irradiating with ultrasound, UV, or microwaves. Isotope separation apparatus and methods are supported by atomic forcipes.