NOVELTY - The renewable energy microgeneration apparatus comprises portable containers (102), a controller, a mixing tank, a chopper, and a gas scrubber. The containers comprise first holding tanks (110), a second holding tank, and a de-watering unit. The first holding tanks are configured to perform pasteurization and/or thermophilic anaerobic digestion on waste with a heater and bugs. The second holding tank is larger than each of the first holding tanks, is present in fluid communication with the first holding tanks, and is configured to perform mesophilic anaerobic digestion on the waste.    USE - The renewable energy microgeneration apparatus is useful for processing organic and septic wastes, which include farm animal manure such as horse, cow, pig and chicken manures, meat, blood and other slaughterhouse wastes, garden and agricultural green wastes, food preparation and kitchen wastes and wasted/leftover/spoiled food and septic tank contents, for producing heat, biogas, electricity and fertilizer in remote villages, remote cellular towers and war zones or disaster relief areas.    ADVANTAGE - The single, modular, mobile and portable renewable energy microgeneration apparatus exhibits compact size and increased throughput, efficiently and economically converts organic waste into energy without environmental pollution, and requires no intervention except daily feeding with muck/waste.    DETAILED DESCRIPTION - The renewable energy microgeneration apparatus comprises portable containers (102), a controller, a mixing tank, a chopper, and a gas scrubber. The containers comprise first holding tanks (110), a second holding tank, and a de-watering unit. The first holding tanks are configured to perform pasteurization and/or thermophilic anaerobic digestion on waste with a heater and bugs. The second holding tank is larger than each of the first holding tanks, is present in fluid communication with the first holding tanks, and is configured to perform mesophilic anaerobic digestion on the waste after the pasteurization and/or thermophilic anaerobic digestion is performed on the waste. The de-watering unit is present in fluid communication with the holding tank, and is configured to dry remaining waste after mesophilic anaerobic digestion is performed on the waste. The controller is configured for automatically moving the waste between the first holding tanks, the second holding tank and the de-watering unit as required to facilitate mesophilic anaerobic digestion in the second holding tank. The containers are configured to be transported to a site, and are placed in fluid communication with each other at the site. The mixing tank is configured for mixing the waste with a liquid. The chopper is present in fluid communication with the mixing tank and the first holding tanks, and is configured to macerate the waste into smaller pieces before the macerated waste is moved to one of the first holding tanks. The mixing tank and chopper are provided in separate containers from the portable containers. The controller is further configured to move the waste to the first holding tanks and the second holding tank in a batch mode. The batch mode comprises: moving a first load of waste to the first holding tanks while pasteurization and/or thermophilic anaerobic digestion is performed on a second load of waste in another first holding tanks; moving the second load of waste from the other first holding tanks to the second holding tank after pasteurization and/or thermophilic anaerobic digestion is performed on the second load of waste; moving a third load of waste to the other first holding tanks while pasteurization and/or thermophilic anaerobic digestion is performed on the first load of waste in the first holding tanks; and moving the first load of waste from the first holding tanks to the second holding tank after pasteurization and/or thermophilic anaerobic digestion is performed on the first load of waste. The first and second holding tanks are further configured to stir the waste, which is disposed in the first holding tanks, with a gas mixer. The de-watering unit is further configured to generate solid fertilizer and liquid fertilizer while drying the remaining waste after mesophilic anaerobic digestion is performed on the waste. Each of the first and second holding tanks comprises a level sensor and a temperature sensor. The waste is automatically moved by: moving the waste into the first holding tank until the level sensor in the first holding tank indicates that a predetermined volume of waste is disposed in the first holding tank; moving the waste from the first holding tanks to the second holding tank after the temperature sensor in the first holding tank indicates that the waste disposed in the first holding tank has a predetermined temperature range for a predetermined period of time; moving the waste from the large holding tank to the de-watering unit after the temperature sensor in the second holding tank indicates that the waste disposed in the second holding tank has the predetermined temperature range for the predetermined period of time; and stopping the waste moved from the first holding tanks to the second holding tank when the level sensor in the second holding tank indicates that a predetermined volume of waste is disposed in the second holding tank. The gas scrubber is present in fluid communication with the second holding tank, and is configured to treat gas generated by mesophilic anaerobic digestion so that the gas is burned as fuel. An INDEPENDENT CLAIM is included for a process for renewable energy microgeneration.    DESCRIPTION OF DRAWING(S) - The diagram show a schematic isometric view of a renewable energy microgeneration apparatus.    Containers (102)    First holding tanks (110)    Gas storage tank (120)    Liquor tank (126)    Propane tank. (170)