TECHNOLOGY FOCUS - BIOTECHNOLOGY - Preferred System: In the culture system for photosynthetic microorganisms, the light array is a rotatable light array. The rotatable light array comprises an axle, a rotational drive connection linked to the axle, and light emitting projections extending outward from the axle. The rotatable light array comprises flat arrays distributed along the axle. Adjacent fiat arrays are separated a distance of 0.5 to 5 cm. A flat array comprises at least 4 light wands. During normal use, the rotatable light array rotates at 0.5 to 10 rpm. The axle is positioned substantially vertically in the tank. The axle is positioned substantially horizontally in the tank. The light array comprises light emitting projections extending upward, where the array is rotatable and rotation of the light array is driven by a central drive shaft. The light array comprises light emitting projections extending downward. The light array is mounted in a generally planar circular mounting body, where the mounting body is positioned above the fluid level in the tank. The light array is rotatable, where the light array is mounted in a generally planar circular mounting body and the mounting body is driven by a rim drive. At least one light array comprises a first array comprising light emitting projections extending upward and a second array comprising light emitting projections extending downward. The first array or the second array or both are rotatable. The light emitting projections of the first array terminate below the light emitting projections of the second array, where the first array or the second array or both are rotatable. The culture system comprises light arrays. The wavelength of light emitted from the light wands is selected to provide effective photosynthesis while reducing power consumption. The culture system further comprises at least one channel for distributing nutrients to culture media in the tank. The culture system further comprises a light controller which controls at least one parameter selected from light intensity, illumination periods, and light wavelength for light emitted from the light wands. The culture system further comprises at least one culture medium sensor, where the controller receives signals from the sensor and controls light emitted from the light wands at least in part as a function of the signals, where the signals correspond to pH or oxidation reduction potential (ORP) or both. The drive causes circulation of culture medium in the culture tank and through the light array. The drive causes circulation of culture medium in the culture tank and through the light array, and also causes rotation of the light array. Photosynthetically effective illumination is provided to substantially all culture medium passing through the light array on substantially the same periodicity and with approximately equal illumination intervals. At least one light array comprises a distribution of downwardly extending or upwardly extending light emitting projections or both arranged over an area in a pattern such that essentially all culture medium within the light array is exposed to photosynthetically effective light. In the system for carbon fixation and product recovery, the array is rotatable. The light emitting projections are mounted on a mounting body. The mounting body is an axle. The light emitting projections are mounted on and extend outward from the axle. The mounting body is a generally horizontal planar structure. The light array comprises light emitting projections extending upward. The array is rotatable and rotation of the light array is driven by a central drive shaft. The light array comprises light emitting projections extending downward. The light array is mounted in a generally planar circular mounting body. The light array is mounted in a generally planar circular mounting body and the mounting body is driven by a rim drive. At least one light array comprises a first array comprising light emitting projections extending upward and a second array comprising light emitting projections extending downward. The first array or the second array or both are rotatable. The light emitting projections of the first array terminate below the light emitting projections of the second array. The system further comprises an oil extractor. The system further comprises a biomass digester which receives biomass from the culture tank. The system further comprises an electrical generator powered by at least one product of the system. The product is an oil-based fuel. The product is biomass or methane. The system further comprises a biomass digester, where CO2 produced in the digester is used as a nutrient in the culture tank. In the modular system for photosynthetic growth of microorganisms, the growth controller is mounted within the support frame. The support frame is a freight container. The growth module is stackable with at least one other the growth module. The modular system comprises growth modules. The modular system further comprises a microorganism processing module which comprises a lipid separator. The modular system further comprises a dewaterer. The modular system further comprises a microorganism processing module which comprises a biomass digester receiving biomass grown in the growth tanks; where methane generated by the biomass digester is used as a fuel for an electrical generator. Each of the tanks in the growth tanks has a liquid capacity of at least 200 liters. The modular system comprises 4-8 growth tanks. At least 20,000 liters of microorganism culture is grown simultaneously. The modular system further comprises a dewatering system which removes water from biomass grown in the growth tanks; and a water recycling system which recycles the water back to the growth tanks. The nutrient injection system comprises a connection for CO2 from an external CO2 generator, where the external CO2 generator is a power plant burning carbon-based fuel. The nutrient injection system comprises a CO2 storage tank. The modular system comprises at least four of the photosynthetic microorganism growth modules, where the modular system also comprises a remote monitoring and control system. The monitoring and control system includes an internet link. In the system for obtaining lipids from microorganisms, at least 50% of the energy of the microwave radiation is 300 MHz to 300 GHz. At least 50% of the energy of the microwave radiation is 300 MHz to 1 GHz. At least 50% of the energy of the microwave radiation is 1-30 GHz. At least 50% of the energy of the microwave radiation is 30-300 GHz. The microwave radiation is scanned over multiple frequencies. The conduit comprises a shielded pipe. The system further comprises a culture concentrator positioned before the inline microwave system. The culture concentrator comprises a vortex separator. The culture concentrator removes at least 75% of the water of the aqueous medium. The system further comprises an oil:water separator positioned to receive medium after passing through the static mixer; where the separator separates a lipid phase and an aqueous phase; and where the aqueous phase comprises biomass, and the system further comprises a digester which receives the biomass. In the system for renewable carbon sequestering production of electricity, the CO2 collector comprises a CO2 separation column which receives combined methane and CO2 from the digester and removes CO2 leaving at least partially purified methane. The system further comprises a static mixer which receives methane from the digester and oxygen from the culturing system and micron mixes the methane and oxygen prior to burning in the methane powered electrical generator. Preferred Array: The array is configured to provide photosynthetically effective light in a photobioreactor. The light mounting body is an axle. The light distribution array comprises flat arrays of light emitting wands mounted on the axle. The light emitting wands are distributed along the axle over a distance of at least 0.5 m. The array comprises light emitting wands oriented in a generally upward orientation when the array is mounted in a photobioreactor. The array comprises light emitting wands oriented in a generally downward orientation when the array is mounted in a photobioreactor. The light emitting wands comprises at least one light source which is a light emitting diode (LED), a cold cathode fluorescent light (CCFL), or an external electrode fluorescent light (EEFL). Preferred Method: Growing photosynthesizing microorganisms comprises exposing photosynthetic microorganisms in a growth medium in a photobioreactor to photosynthetically effective light from a light array, where the light array comprises light wands spaced such that substantially all of the growth medium between successive light wands in the light array receives photosynthetically effective illumination. Growing photosynthetic microorganisms comprises culturing photosynthetic microorganisms in a modular system for photosynthetic growth of microorganisms, where the modular system comprises at least one photosynthetic microorganism growth module comprising a support frame; growth tanks mounted in the support frame, where each the growth tank comprises a growth sensor set and a light array comprising light sources arranged such that photosynthetically effective light is provided by the light sources to substantially all of the culture medium within the volume described by the light array, a nutrient injection system, where at least one growth process parameter is controlled by a growth controller in response to at least one signal from the growth sensor set. The method for extracting lipids from microorganisms in a suspension further comprises passing the suspension through an oil:water separator. Extracting is performed using a system above. In the method for lysing microorganisms, at least one the frequency is selected to preferentially target cell membrane lipids. At least one the frequency is selected to target one or more major cell wall constituents. The conduit is shielded and functions as a wave guide. In the method for providing an inline electromagnetic radiation lysing system, the electromagnetic radiation includes microwave radiation. The electromagnetic radiation includes infrared radiation or ultraviolet radiation. The electromagnetic radiation is adsorbed by the cell membrane lipids or cell wall components at least 0.5 of the level of absorption by water. The electromagnetic radiation is adsorbed by the cell membrane lipids or cell wall components at least at the level of absorption by water. In the method for renewable carbon sequestering production of electricity, the combustible fuel is methane. Oxygen from the culture system is used in burning the combustible fuel. The CO2 is separated from the methane prior to the burning. The culture water is used in separating the CO2 from the methane. Oxygen from the culture system is micron mixed with methane from the digester prior to burning in the electrically generating system. The CO2 is collected from the exhaust gas of the burning and is recycled in the algae culture system. EXAMPLE - No suitable example given.