TECHNOLOGY FOCUS - BIOTECHNOLOGY - Preferred Method: Alternatively, biologically reducing carbon dioxide pollutants comprises: containing at least some carbon dioxide emissions from a carbon dioxide emitter; introducing at least some carbon dioxide emissions from the carbon dioxide emitter into at least one processing reactor; chemoautotrophically digesting carbon dioxide of the at least some carbon dioxide emissions with a set of chemoautotrophic bacteria in the processing reactor; providing a nitrogenous compound energy supply to the set of chemoautotrophic bacteria in the processing reactor; biologically producing at least some biomass from the chemoautotrophic digestion of the carbon dioxide with the chemoautotrophic bacteria; and ecologically reducing atmospheric release of the carbon dioxide emitted from the carbon dioxide emitter. The step of containing the at least some carbon dioxide emissions from the carbon dioxide emitter comprises the step of containing up to about 100% of the at least some carbon dioxide emissions from the carbon dioxide emitter. The industrial carbon dioxide emitter is selected from power generation sources, mining operations, municipal waste landfills, cement producing plants, lime producing plants, coal refineries, oil refineries, refineries, trona processing plants, Fischer-Tropsch synthesis plants, coal-to-liquids plants, gas-to-liquids plants, biomass-to-liquids plants, gasification facilities, non-power generation sources, coal-fired power plants, natural gas-fired power plants, fuel cells, and combustion power plants. The chemoautotrophic bacteria are selected from the genera Nitrosomonas, Nitrosococcus, Nitrosospira, Nitrosolobus, Pedobacter, Nitrobacter, Nitrococcus, Nitrospina, any bacteria that naturally nitrifies, and combinations. The chemoautotrophic bacteria comprise genetically engineered chemoautotrophic bacteria for nitrification. The nitrogenous compound energy supply comprises a reduced nitrogenous compound energy supply to the set of chemoautotrophic bacteria. The reduced nitrogenous compound energy supply is selected from ammonia and ammonium. The reduced nitrogenous compound energy supply comprises nitrite. The step of providing the nitrogenous compound energy supply to the set of chemoautotrophic bacteria comprises the step of recycling the nitrogenous compound energy supply to the set of chemoautotrophic bacteria in the processing reactor. The step of recycling the nitrogenous compound energy supply to the chemoautotrophic bacteria in the processing reactor comprises the step of recycling the nitrogenous compound energy supply from at least one additional processing reactor. The method further comprises the steps of generating the nitrogenous compound energy supply in the additional processing reactor and supplying the nitrogenous compound energy supply to the processing reactor containing the set of chemoautotrophic bacteria; and further comprises the steps of providing a set of ammonifying bacteria in the additional processing reactor; connecting the processing reactor containing the set of chemoautotrophic bacteria to the additional processing reactor containing the ammonifying bacteria; generating nitrate in the processing reactor containing the chemoautotrophic bacteria; supplying the nitrate from the processing reactor containing the chemoautotrophic bacteria to the additional processing reactor containing the ammonifying bacteria; generating ammonia or ammonium in the additional processing reactor containing the ammonifying bacteria; and supplying the ammonia or ammonium from the additional processing reactor containing the ammonifying bacteria to the processing reactor with the set of chemoautotrophic bacteria. The method also comprises the step of providing ammonifying bacteria in the processing reactor; and providing an energy supply to the ammonifying bacteria in the processing reactor. The step of providing the energy supply to the ammonifying bacteria comprises the step of providing organic carbon to the ammonifying bacteria. The ammonifying bacteria is selected from: Bacillus, Campylobacter, Citrobacter, Clostridium, Desulfovibrio, Enterobacter, Erwinia, Escherichia, Klebsiella, Neisseria, Photobacterium, Proteus, Pseudomonas, Salmonella, Selenomonas, Serratia, Streptomyces, Veillonella, Vibrio, Wolinella, any bacteria that ammonify, and any combination. The set of chemoautotrophic bacteria comprises at least one bacteria selected from Nitrosomonas, Nitrosococcus, Nitrosospira, Nitrosolobus, Pedobacter, and at least one additional bacteria selected from Nitrobacter, Nitrococcus, Nitrospina, and Nitrospira. The method as well comprises the step of providing recycled process biomass residue as an electron donor supply to the ammonifying bacteria; providing a set of denitrifying bacteria in the additional processing reactor; connecting the processing reactor containing the set of chemoautotrophic bacteria to the additional processing reactor containing the denitrifying bacteria; generating an element selected from nitrate, nitrite, and a combination in the processing reactor containing the chemoautotrophic bacteria; supplying the element from the processing reactor containing the chemoautotrophic bacteria to the additional processing reactor containing the denitrifying bacteria; generating nitrogen in the additional processing reactor containing the denitrifying bacteria; reacting the nitrogen produced in the denitrifying reactor in a chemical process to produce ammonia; and supplying the ammonia from the chemical process to the processing reactor containing the set of chemoautotrophic bacteria. The step of providing the nitrogenous compound energy supply to the set of chemoautotrophic bacteria comprises the step of supplying the nitrogenous compound energy supply from a catalytic process reaction. The catalytic process is the Haber process. The method also comprises the step of providing denitrifying bacteria in the processing reactor; and providing an energy supply to the denitrifying bacteria in the processing reactor. The step of providing the energy supply to the denitrifying bacteria comprises the step of providing organic carbon to the denitrifying bacteria. The denitrifying bacteria are selected from: Alcaligenes, Agrobacterium, Aquaspirillum, Azospirillum, Bacillus, Blastobacter, Bradyrhizobium, Branhamella, Chromobacterium, Cytophaga, Flavobacterium, Flexibacter, Halobacterium, Hyphomicrobium, Kingella, Neisseria, Paracoccus, Propionibacterium, Pseudomonas, Rhizobium, Wolinella, Rhodopseudomonas, Thiobacillus, Thiomicrospira, Thiosphaera, Alicycliphilus, Kingella, Achromobacter, Micrococcus, Jonesia, Roseobacter, Shewanella, Sterolibacterium, Castellaniella, Comomonas, Paracoccus, Thiobacillus, Thiomicrospira, Thiosphaera, and any combination. The method further comprises the step of providing recycled process biomass residue as an electron donor supply to the denitrifying bacteria. It also comprises supplying an ammonia element selected from ammonia, ammonium, ammonia nitrate, and any combination to the processing reactor; connecting the processing reactor containing the set of chemoautotrophic bacteria to a second processing reactor containing a set of denitrifying bacteria; generating an element selected from nitrate, nitrite, or a combination in the processing reactor containing the set of chemoautotrophic bacteria; supplying the element from the processing reactor containing the set of chemoautotrophic bacteria to the second processing reactor containing the set of denitrifying bacteria; producing nitrogen in the second processing reactor containing the set of denitrifying bacteria; and releasing the produced nitrogen, and further comprises the step of providing an energy supply to the denitrifying bacteria in the processing reactor. The step of providing the energy supply to the denitrifying bacteria comprises the step of providing organic carbon to the denitrifying bacteria. The method additionally comprises the step of providing recycled process biomass residue as an electron donor supply to the denitrifying bacteria. It comprises the steps of: providing a set of nitrate reducing bacteria in the additional processing reactor; connecting the processing reactor containing the set of chemoautotrophic bacteria to the additional processing reactor containing the set of nitrate reducing bacteria; generating nitrate in the processing reactor containing the chemoautotrophic bacteria; supplying the nitrate from the processing reactor containing the set of chemoautotrophic bacteria to the additional processing reactor containing the set of nitrate reducing bacteria; generating nitrite in the additional processing reactor containing the set of nitrate reducing bacteria; and supplying the nitrite from the additional processing reactor containing the set of nitrate reducing bacteria to the processing reactor with the set of chemoautotrophic bacteria. The step of providing the energy supply to the set of chemoautotrophic bacteria comprises the step of providing nitrite ions or nitrite containing compounds to the set of chemoautotrophic bacteria. The step of providing the nitrite ions or nitrite containing compounds to the set of chemoautotrophic bacteria comprises the step of supplying the nitrite ions or nitrite containing compounds from at least one additional processing reactor containing nitrate reducing bacteria. The method further comprises the step of providing a set of nitrate reducing bacteria in the processing reactor; and the step of providing an energy supply to the nitrate reducing bacteria in the processing reactor. The step of providing the energy supply to the nitrate reducing bacteria comprises the step of providing organic carbon to the nitrate reducing bacteria. The nitrate reducing bacteria is selected from Alcaligenes, Agrobacterium, Aquaspirillum, Azospirillum, Bacillus, Blastobacter, Bradyrhizobium, Branhamella, Chromobacterium, Cytophaga, Flavobacterium, Flexibacter, Halobacterium, Hyphomicrobium, Kingella, Neisseria, Paracoccus, Propionibacterium, Pseudomonas, Rhizobium, Wolinella, Rhodopseudomonas, Thiobacillus, Thiomicrospira, Thiosphaera, Alicycliphilus, Kingella, Achromobacter, Micrococcus, Jonesia, Roseobacter, Shewanella, Sterolibacterium, Castellaniella, Comomonas, Paracoccus, Thiobacillus, Thiomicrospira, Thiosphaera, and any combination. The method further comprises the step of providing recycled process biomass residue as an electron donor supply to the nitrate reducing bacteria; providing a set of denitrifying bacteria in the additional processing reactor; connecting the processing reactor containing the set of chemoautotrophic bacteria to the additional processing reactor containing the denitrifying bacteria; generating an element selected from nitrate, nitrite, or a combination in the processing reactor containing the set of chemoautotrophic bacteria; supplying the element from the processing reactor containing the set of chemoautotrophic bacteria to the additional processing reactor containing the denitrifying bacteria; producing nitrogen in the additional processing reactor containing the set of denitrifying bacteria; and releasing the produced nitrogen. The method also comprises feeding fertilizer into the additional processing reactor containing the chemoautotrophic bacteria; providing a set of nitrate reducing bacteria in the additional processing reactor; generating nitrite in the additional processing reactor containing the set of nitrate reducing bacteria; supplying the nitrite from the additional processing reactor containing the set of nitrate reducing bacteria to the processing reactor with the set of chemoautotrophic bacteria; providing an acetate conversion reactor; feeding acetate generated from the nitrate reducing bacteria into the acetate conversion reactor; and generating biomass from the acetate conversion reactor. It as well comprises the step of feeding acetate generated from nutrient production into the acetate conversion reactor. In a second alternative case, biologically reducing carbon dioxide pollutants comprises the steps of: containing at least some carbon dioxide emissions from a carbon dioxide emitter; introducing at least some carbon dioxide emissions from the carbon dioxide emitter into at least one processing reactor; chemoautotrophically digesting carbon dioxide of the at least some carbon dioxide emissions with a set of chemoautotrophic bacteria in the processing reactor; providing a set of sulfur reducing bacteria; providing a set of sulfur oxidizing nitrate reducing bacteria; biologically producing at least some biomass from the chemoautotrophic digestion of the carbon dioxide with the chemoautotrophic bacteria; and ecologically reducing atmospheric release of the carbon dioxide emitted from the industrial carbon dioxide emitter. The method further comprises the steps of: generating nitrate in the processing reactor containing the set of chemoautotrophic bacteria; feeding the nitrate to the set of sulfur oxidizing nitrate reducing bacteria; generating sulfate from the set of sulfur oxidizing nitrate reducing bacteria; feeding the sulfate from the set of sulfur oxidizing nitrate reducing bacteria to the sulfur reducing bacteria; generating sulfide from the set of sulfur reducing bacteria; and feeding the sulfide to the sulfur oxidizing nitrate reducing bacteria. It also comprises the steps of: generating nitrogen from the set of sulfur oxidizing nitrate reducing bacteria; reacting the nitrogen to produce ammonia; and feeding the ammonia to the set of chemo autotrophic bacteria in the processing reactor. The method as well comprises the steps of providing at least one additional processing reactor. The additional processing reactor contains bacteria selected from the set of sulfur reducing bacteria, the set of nitrogen reducing bacteria, and a combination. The nitrogen reducing bacteria comprises denitrifying bacteria. The method further comprises the step of supplying ammonia or ammonium to the set of chemoautotrophic bacteria in the processing reactor. The chemoautotrophic bacteria are selected from the genera Thiobacillus, Paracoccus, Thiovulum, Thiomicrospira, any bacteria that oxidize inorganic sulfur during chemoautotrophic growth, and combinations. The method further comprises using a processing reactor for each of the bacteria. Preferred System: Alternatively, the processing system for biological reduction of carbon dioxide pollutants comprises: at least one processing reactor configured to receive the at least some carbon dioxide emissions from an industrial carbon dioxide emitter; a set of chemoautotrophic bacteria in the processing reactor configured to digest at least some of the carbon dioxide; an amount of biologically produced biomass by the chemoautotrophic bacteria located in the processing reactor; an ecological reduction of atmospheric release of the carbon dioxide emissions; nitrogen containing compounds generated by bacteria; a feed supply of the nitrogen containing compounds to the chemoautotrophic bacteria located in the processing reactor. The system further comprises: an acetate conversion reactor; acetate generated from the sulfate reducing bacteria; a feed supply of the acetate from the nitrogen reducing bacteria to the acetate conversion reactor; and biomass generated from the acetate conversion reactor; and a nutrient production element; acetate generated from the nutrient production element; and a feed supply of the acetate from the nutrient production element to the acetate conversion reactor. The bacteria comprise ammonifying bacteria, and denitrification bacteria, where the bacteria are located in at least one additional processing reactor. The processing system also comprises: nitrate generated by the set of chemoautotrophic bacteria in the processing reactor; and a feed supply of the nitrate to the bacteria. In a second alternative case, the processing system for biological reduction of carbon dioxide pollutants comprises: at least one processing reactor configured to receive the at least some carbon dioxide emissions from an industrial carbon dioxide emitter; a set of chemoautotrophic bacteria in the processing reactor configured to digest at least some of the carbon dioxide; a set of sulfur reducing bacteria in at least one additional processing reactor; a set of set of nitrogen reducing bacteria in the additional processing reactor; an amount of biologically produced biomass by the chemoautotrophic bacteria located in the processing reactor; an ecological reduction of atmospheric release of the carbon dioxide emissions; and nitrogen containing compounds generated by bacteria. The system further comprises: nitrate generated by the set of chemoautotrophic bacteria; a feed supply of the nitrate to the set of nitrate reducing bacteria; sulfate generated from the set of nitrate reducing bacteria; a feed supply of the sulfate from the set of nitrate reducing bacteria to the sulfur reducing bacteria; sulfite generated from the set of sulfur reducing bacteria; and a feed supply of the sulfite to the nitrate reducing bacteria. EXAMPLE - No suitable example given.