Abstract: In one example, we discuss the separation of the captured gases as byproducts, for future/other purposes, coming from conventional power generators or factories or from algae biofuel production facility (or any other similar sources). This increases the energy production, saves the environment, conserves the resources, improves the air quality, reduces the global warming, increases water supply, reduces the cost, and improves agriculture and food resources, around the globe. In one example, we discuss the biofuel production, method, and system.

Abstract: A novel algae bioreactor and biofuel production system is presented that uses an efficient distribution and delivery mechanism for light, water, nutrient, and carbon dioxide. An efficient light delivery system uses multiple LEDs at red and blue wavelengths to enhance/optimize the algal growth. In addition, multiple light rods are immerses in large and deep bioreactor to achieve even growth of algae within the tank. A novel water/nutrient/CO2 delivery and distribution system enhances CO2 retention in the culture, produces even distribution of nutrient and results in even and rapid algae growth throughout the bioreactor tank. A nutrient delivery system is disclosed based on processing of aquatic waste for superior nutrient for algal growth. The modular design of the system allows for scaling and maintenance, for continuous operation of the plant.

Abstract: In one example, we discuss the capture of the gases as byproducts, for future/other purposes, coming from conventional power generators or factories or from algae biofuel production facility (or any other similar sources). This increases the energy production, saves the environment, conserves the resources, improves the air quality, reduces the global warming, increases water supply, reduces the cost, and improves agriculture and food resources, around the globe. In one example, we discuss the biofuel production, method, and system.