Nuclear-cored battery
A nuclear-cored battery having a spherical core that emits radiation and is surrounded by a ceramic phosphor material having a structural defect such that the ceramic material within the ceramic phosphor material is used to shield and absorb the radiation emitted by the nuclear core while the phosphors are excited by the radiation causing them to produce energy in the form of photons. Surrounding the ceramic phosphor material is a photovoltaic layer that transforms the photons into a flow of electrons to create an energy source in the form of a sphere. A P and N layer sandwiches a plurality of spheres therebetween to harness the electron flow created by the photovoltaic layers of the spheres.
1. An energy source, comprising:
a plurality of spheres, wherein each sphere comprises:
a spherical core of nuclear material;
a ceramic phosphor layer surrounding the spherical core, said ceramic phosphor layer serving to shield radiation emitted from the core by absorbing said radiation and converting said radiation to photons;
a photovoltaic layer surrounding said ceramic phosphor layer for converting said photons into a spherical flow of electrons; and
a conductive material surrounding said photovoltaic layer; and P and N layers sandwiching the conductive layer therebetween for harnessing the electron flow created by the photovoltaic layer.
2. The energy source of claim 1 , wherein the ceramic phosphor layer comprises a high temperature ceramic material.
3. The energy source of claim 1 wherein the ceramic phosphor comprises a matrix MO.(Al 2 O 3 ):EuR wherein M is an alkaline metal and R is a lanthanide. wherein M is an alkaline metal and R is a lanthanide.
4. The energy source of claim 3 , wherein the alkaline metal comprises a mental selected from the group consisting of strontium, calcium and barium.
5. The energy source of claim 1 wherein the photovoltaic layer comprises an amorphous silicon.
6. The energy source of claim 1 wherein the core of nuclear material comprises a beta emitting nuclear material.
7. The energy source of claim 1 wherein the core of nuclear material comprises a gamma emitting nuclear material.
8. The energy source of claim 1 wherein the core of nuclear material comprises an alpha emitting nuclear material.
9. The energy source of claim 1 wherein the ceramic phosphor layer comprises a matrix Al2O3:C.
10. The energy source of claim 1 wherein the ceramic phosphor layer comprises a matrix of MO.(Al 2 O 3 ):C wherein M is an alkaline metal.
11. The energy source of claim 10 wherein ceramic phosphor layer includes 0.05% to 10% by weight of europium dopant and 0.05% to 10% by weight of a lanthanide dopant.
12. The energy source of claim 1 wherein the ceramic phosphor layer comprises a matrix MOS:Mg,Ti,Eu wherein MO is selected from group consisting of MgO, ZnO, ZrO, CuO, Yttrium Oxide, and Gallium Oxide.
13. A nuclear-cored battery comprising:
a solid spherical core of nuclear material;
a ceramic phosphor layer having a carbon defect to create a light dissipating material surrounding and in direct contact with said spherical core;
a photovoltaic layer surrounding and in direct contact with the light dissipating material to produce a flow of electrons;
a conductive material surrounding and in direct contact with the photovoltaic layer; and
a P and N layers sandwiching to the conductive material to produce electricity;
wherein the ceramic phosphor layer comprises a high temperature ceramic material.
14. The nuclear-cored battery of claim 13 wherein the nuclear core emits beta radiation.
15. The nuclear-cored battery of claim 13 wherein the nuclear core emits gamma radiation.
16. The nuclear-cored battery of claim 13 wherein the nuclear core emits alpha radiation.
17. The nuclear-cored battery of claim 13 wherein the ceramic phosphor having a carbon defect in part comprises a matrix MO.(Al 2 O 3 ):C wherein M is an alkaline metal.
18. The nuclear-cored battery of claim 13 where the conductive material comprises a sulfidized polymer.