A system for charging vehicles comprising: a renewable energy collection device configured to collect renewable energy from a renewable energy source, said renewable energy source comprising at least one of: solar power, wind power, and hydroelectric power; a high voltage capacitor in communication with the renewable energy collection device; a first high temperature superconducting cable in communication with the capacitor, wherein the first high temperature superconducting cable includes a cryogenic dielectric having a coaxial configuration comprising a high temperature superconducting conductor cooled by liquid nitrogen or liquid helium flowing through a flexible hollow core, and a high temperature superconducting return conductor cooled by circulating liquid nitrogen or liquid helium; a transformer in communication with the first high temperature superconducting cable; a second high temperature superconducting cable in communication with the transformer, wherein second high temperature superconducting cable includes a cryogenic dielectric having a coaxial configuration comprising a high temperature superconducting conductor cooled by liquid nitrogen or liquid helium flowing through a flexible hollow core, and a high temperature superconducting return conductor cooled by circulating liquid nitrogen or liquid helium; a plurality of rechargeable vehicle batteries; at least one demultiplexer in communication with the second high temperature superconducting cable, said at least one demultiplexer configured to engage a relay circuit, said relay circuit configured to deliver converted electrical energy to the plurality of rechargeable vehicle battery; and wherein at least one of the high-voltage capacitor and the transformer is in communication with at least one multiplexer (16a, 18a); and wherein the said at least one demultiplexer is configured to deliver an electrical voltage of up to about 1000MW to the plurality of rechargeable vehicle batteries. a renewable energy collection device configured to collect renewable energy from a renewable energy source, said renewable energy source comprising at least one of: solar power, wind power, and hydroelectric power; a high voltage capacitor in communication with the renewable energy collection device; a first high temperature superconducting cable in communication with the capacitor, wherein the first high temperature superconducting cable includes a cryogenic dielectric having a coaxial configuration comprising a high temperature superconducting conductor cooled by liquid nitrogen or liquid helium flowing through a flexible hollow core, and a high temperature superconducting return conductor cooled by circulating liquid nitrogen or liquid helium; a transformer in communication with the first high temperature superconducting cable; a second high temperature superconducting cable in communication with the transformer, wherein second high temperature superconducting cable includes a cryogenic dielectric having a coaxial configuration comprising a high temperature superconducting conductor cooled by liquid nitrogen or liquid helium flowing through a flexible hollow core, and a high temperature superconducting return conductor cooled by circulating liquid nitrogen or liquid helium; a plurality of rechargeable vehicle batteries; at least one demultiplexer in communication with the second high temperature superconducting cable, said at least one demultiplexer configured to engage a relay circuit, said relay circuit configured to deliver converted electrical energy to the plurality of rechargeable vehicle battery; and wherein at least one of the high-voltage capacitor and the transformer is in communication with at least one multiplexer (16a, 18a); and wherein the said at least one demultiplexer is configured to deliver an electrical voltage of up to about 1000MW to the plurality of rechargeable vehicle batteries.