NOVELTY - Generating electrical energy for building, or group of buildings involves connecting microbial fuel cell bioreactor, with unit for transferring electrical energy from the bioreactor to energy distribution system for the building or the group of buildings; connecting the bioreactor to first sensors; connecting second sensors to devices gaining their energy from the microbial fuel cell. The bioreactor comprises housing with opening to facilitate contact of feedstock and fuel cell components; cathode; anode; and biofilm, where the biofilm comprises genetically modified microbes.    USE - For generating electrical energy for a building, or group of buildings (claimed).    ADVANTAGE - The method is reliable, safe, cost effective and environmentally friendly for supplying energy to houses, offices and other buildings, or complexes of buildings. The Pseudomonas aeruginosa has a reduced proliferative capability as compared to a non-genetically modified cell; has a reduced virulence as compared to a non-genetically modified cell, where the reduced virulence is in mammals or plants; exhibits reduced motility as compared to a non-genetically modified cell; exhibits altered pilus sticking as compared to a non-genetically modified cell; and exhibits altered twitching motility as compared to a non-genetically modified cell.    DETAILED DESCRIPTION - Generating electrical energy for a building, or group of buildings involves connecting a microbial fuel cell bioreactor, with a unit for transferring electrical energy from the bioreactor to an energy distribution system for the building or the group of buildings; connecting the bioreactor to a first sensors, where the first sensors provide operating data about the bioreactor, and can transmit the data to an external network operations center; connecting a second sensors to devices gaining their energy from the microbial fuel cell, where the second sensors provide operating data about the devices and can transmit the data to the external network operations center, where the external network operations center makes adjustments to the energy distribution system, or bioreactor, based on the data received from the first sensors, and the second sensors. The bioreactor comprises housing with at least one opening to facilitate contact of feedstock and fuel cell components; a cathode; an anode in electrical communication with the cathode; and a biofilm functionally associated with the anode, where the biofilm comprises genetically modified microbes that break down the feedstock and donate electrons to the anode, to generate electrical energy. An INDEPENDENT CLAIM is included for system for generating electrical energy for a building, or group of buildings, comprising the microbial bioreactor; a computer implemented external network operations center; an implemented distributed network of sensors; and an energy distribution system, where the computer implemented external network operations center comprises an activity module that monitors the activity from one of sensors from the distributed network of sensors, a display module that displays the activity from the sensors to at least one registered user of the external network operations center, where the distributed network of sensors provide operating data about the bioreactor, and energy usage in the building, or the group of buildings, and can transmit the data to the external network operations center, where the energy distribution system connects the bioreactor to at least one energy consuming device associated with the building or the group of buildings, and where the energy distribution system is also connected to at least one alternative energy source, where the computer external network operations center is adapted to make adjustments to the energy distribution system, or the bioreactor based on the data received from the distributed network of sensors.    DESCRIPTION OF DRAWING(S) - The figure shows a view of electrogenic bioreactor (EBR) Proposed Network Architecture.