Allotrope of carbon having increased electron delocalization

1. A carbon material, comprising a multilayered three dimensional nanocarbon array present in catenated states, wherein stabilizing electron delocalization crosses between layers in an interlayer connectivity bonding system involving the whole carbon array; and wherein the carbon material is derived from a catenated fullerene carbon nano-onion (CNO) precursor.

2. The carbon material of claim 1 , wherein the fullerene carbon nano-onion (CNO) precursor has a low polydispersity regarding onion size.

3. The carbon material of claim 1 , wherein the fullerene carbon nano-onion (CNO) precursor is devoid of miscellaneous carbon impurities.

4. The carbon material of claim 1 , wherein the fullerene carbon nano-onion (CNO) precursor is devoid of carbon nanotubes (CNTs) and graphene.

5. The carbon material of claim 1 , wherein a normally ubiquitous hydrogen atom is not present to any measurable extent even regarding moisture.

6. The carbon material of claim 1 , wherein the carbon material, from which the nanomaterial is derived, has a multilayered generally spherical, spheroidal or quasi-spherical form.

7. The carbon material of claim 1 , wherein individual crossene units are produced in oligomerized, polymerized or catenated states with properties thereby enhanced as in applications in composites and electrical conductivity.

8. The carbon material of claim 1 , wherein the carbon material is doped with one or more heteroatoms.

9. The carbon material of claim 1 , wherein the carbon material is functionalized using a 1,3-dipolar addition reaction, a carbene reaction, a nitrene reaction, a radical addition reaction, a halogenation reaction, an alkylation reaction, or a redox reaction.

10. The carbon material of claim 1 , wherein the carbon material is used in applications selected from the group consisting of the following: material science, metallurgical modifications, aerospace, solar energy, 3D printing, polymers and plastics, polymer or plastic or inorganic composites or matrices, emf thermoset plastic curing, paints and coatings, oxidation/combustion resistance applications, glass treatments, thermal insulation, electronics, electrical transmission, batteries or capacitors, emf attenuation/reception, catalysis, tribology, optical limiting, water resistance, cancer and dermatological treatments, preventive medicine, biological ablation therapy, emf-therapy, radiation protection, bioimaging technologies, drug or gene agent delivery, and toxin and heavy metal removal.

11. The carbon material of claim 1 , wherein the carbon material is used in health applications as an antioxidant, an anti-inflammatory agent, a skin-burn or insect irritant relief agent, a kidney stone relief agent, a detoxification agent, an emf absorption protection agent and a general health restorative agent as with migraine headaches and reestablishing homeostasis in fortifying the body against attacks, disease and assaults on the body.

12. The carbon material of claim 1 , wherein the carbon material is used in electrical conductivity applications of low resistance and low heat generation, as in electrical transmission; computers with lower heat output; or 2D and 3D printing, used alone or in combination with other conductive materials.

13. The carbon material of claim 1 , wherein the carbon material is used in paints and coatings for tough, long enduring surface protection from uv radiation and from oxidation due to the antioxidant properties of the carbon material, and also the innate reactive exterior of the carbon material serves to improve matrix strength and adherence.

14. The carbon material of claim 1 , wherein the carbon material is used in emf protection applications.

15. The carbon material of claim 1 , wherein the carbon material is used in lubricants.

16. A carbon allotrope comprising a multilayered three-dimensional carbon array of nanocarbon proportions but not excluding larger arrays beyond the 100 nm nanocarbon limits, and wherein the array comprises catenated chains of carbon nano-onion structures; and

wherein the array comprises a stabilizing electron delocalization that crosses or proceeds between layers as well as along layers in multiple directions within a continuous cyclic structure with an interlayer connectivity bonding system involving the whole carbon array apart from incidental defects, and wherein the allotrope is derived from a catenated fullerene carbon nano-onion (CNO) precursor.

17. The carbon allotrope of claim 16 , wherein the carbon array is fixed in place in a most thermodynamically stable configuration of irregular multilayered and multilayered ribbon-like structures.

18. The carbon allotrope of claim 16 , wherein the array comprises a spheroidal or -quasi-spherical structure possessing a void or hole of irregular dimensions central to the overall multilayered carbon array.

19. The carbon allotrope of claim 18 , wherein the spheroidal or quasi-spherical structure comprises predominantly long stretches of multilayered planar regions within the carbon array.

20. The carbon allotrope of claim 19 , wherein the planar regions are optimally aligned by the spheroidal or quasi-spherical structure for inducing a hopping effect of electrons between layers, and thus generating the electron delocalization crossing or proceeding between layers.

21. The carbon allotrope of claim 20 , wherein the planar regions are optimally aligned according to a kind of graphene stacking arrangement of “AA,” “AAA,” “AAAA . . . ” orientations.

22. The carbon allotrope of claim 16 , wherein the allotrope has a combustion temperature (in air) >600° C.

23. The carbon allotrope of claim 16 , wherein the allotrope is used in electrical conductivity applications.