Abstract: Methods, systems, and apparatuses for generating, producing, and utilizing energy.

Abstract: Methods, systems, and apparatuses for generating, producing, and utilizing energy.

Abstract: Methods, systems, and apparatuses for generating, producing, and utilizing energy.

Abstract: Methods, systems, and apparatuses for generating, producing, and utilizing energy.

Abstract: Methods, systems, and apparatuses for generating, producing, and utilizing energy.

Abstract: A system and a method of turnkey neurological solution to provide a variety of stimulations including photo-stimulation, binaural stimulation, and electro-acupuncture in wearable form, such as in glasses. Light may be generated from at least one light source powered by integrated photovoltaic cells and amplified light may be sent to a predetermined direction through the at least one angularly oriented optical window in which one face is covered by an optical film or coating. Also, the system and method may provide that, as an optical window is fabricated, photovoltaics may be fused directly to faces of the optical window for absorption of ambient light energy, and a light source may be fused into grooves on the edge of the optical window, with nanoelectrodes attached for electrical connections to controllers inserted in a housing. It may also be contemplated to provide binaural stimulation and electro-acupuncture effectors on the wearable device.

Abstract: An energy storage capsule for storing energy in the form of photons. The body of the capsule may surround a sealed vacuum environment in which several layers of reactive material are contained, including an inner reflective coating, a first photovoltaic cell, an optical amplification medium, a second photovoltaic cell, and an outer reflective coating, provided in that order. The body of the capsule may also be reflective, for example polished aluminum. Light may be emitted from an LED wafer which may be integrated with the surface of the optical amplification medium, directed at the several layers of reactive material. Some photons may be reflected by the reflective material, storing them within the capsule, while others may be absorbed by the photovoltaic cells, powering the LEDs to transmit more photons. The thermal environment of the energy storage capsule may be maintained such that the LEDs can operate at over 100% efficiency.

Abstract: A system and a method of turnkey neurological solution to provide a variety of stimulations including photo-stimulation, binaural stimulation, and electro-acupuncture in wearable form, such as in glasses. Light may be generated from at least one light source powered by integrated photovoltaic cells and amplified light may be sent to a predetermined direction through the at least one angularly oriented optical window in which one face is covered by an optical film or coating. Also, the system and method may provide that, as an optical window is fabricated, photovoltaics may be fused directly to faces of the optical window for absorption of ambient light energy, and a light source may be fused into grooves on the edge of the optical window, with nanoelectrodes attached for electrical connections to controllers inserted in a housing. It may also be contemplated to provide binaural stimulation and electro-acupuncture effectors on the wearable device.

Abstract: An energy storage capsule for storing energy in the form of photons. The body of the capsule may surround a sealed vacuum environment in which several layers of reactive material are contained, including an inner reflective coating, a first photovoltaic cell, an optical amplification medium, a second photovoltaic cell, and an outer reflective coating, provided in that order. The body of the capsule may also be reflective, for example polished aluminum. Light may be emitted from an LED wafer which may be integrated with the surface of the optical amplification medium, directed at the several layers of reactive material. Some photons may be reflected by the reflective material, storing them within the capsule, while others may be absorbed by the photovoltaic cells, powering the LEDs to transmit more photons. The thermal environment of the energy storage capsule may be maintained such that the LEDs can operate at over 100% efficiency.

Abstract: An energy storage capsule for storing energy in the form of photons. The body of the capsule may surround a sealed vacuum environment in which several layers of reactive material are contained, including an inner reflective coating, a first photovoltaic cell, an optical amplification medium, a second photovoltaic cell, and an outer reflective coating, provided in that order. The body of the capsule may also be reflective, for example polished aluminum. Light may be emitted from an LED wafer which may be integrated with the surface of the optical amplification medium, directed at the several layers of reactive material. Some photons may be reflected by the reflective material, storing them within the capsule, while others may be absorbed by the photovoltaic cells, powering the LEDs to transmit more photons. The thermal environment of the energy storage capsule may be maintained such that the LEDs can operate at over 100% efficiency.

Abstract: An energy storage capsule for storing energy in the form of photons. The body of the capsule may surround a sealed vacuum environment in which several layers of reactive material are contained, including an inner reflective coating, a first photovoltaic cell, an optical amplification medium, a second photovoltaic cell, and an outer reflective coating, provided in that order. The body of the capsule may also be reflective, for example polished aluminum. Light may be emitted from an LED wafer which may be integrated with the surface of the optical amplification medium, directed at the several layers of reactive material. Some photons may be reflected by the reflective material, storing them within the capsule, while others may be absorbed by the photovoltaic cells, powering the LEDs to transmit more photons. The thermal environment of the energy storage capsule may be maintained such that the LEDs can operate at over 100% efficiency.

Abstract: An energy storage capsule for storing energy in the form of photons. The body of the capsule may surround a sealed vacuum environment in which several layers of reactive material are contained, including an inner reflective coating, a first photovoltaic cell, an optical amplification medium, a second photovoltaic cell, and an outer reflective coating, provided in that order. The body of the capsule may also be reflective, for example polished aluminum. Light may be emitted from an LED wafer which may be integrated with the surface of the optical amplification medium, directed at the several layers of reactive material. Some photons may be reflected by the reflective material, storing them within the capsule, while others may be absorbed by the photovoltaic cells, powering the LEDs to transmit more photons. The thermal environment of the energy storage capsule may be maintained such that the LEDs can operate at over 100% efficiency.