Molecular pyrodisaggregator

A molecular pyrodisaggregation system comprising:

• a pyrodisaggregator, said pyrodisaggregator comprising:
• a furnace, said furnace having a chamber;
• a fuser tube within said furnace chamber, said fuser tube comprising a metal alloy and having an entrance at a first end of said fuser tube;
• an Archimedes screw within said fuser tube for moving material to be disaggregated through said fuser tube;
• a first exit at a second end of said fuser tube for inert materials to exit said fuser tube;
• a second furnace exit at said second end of said fuser tube for gases to exit said fuser tube;
• and
• a third furnace exit for fumes circulating through said furnace chamber;
• a loading column connected to said pyrodisaggregator for loading materials to be disaggregated into said entrance at said first end of said fuser tube,
• a thermal propeller connected to said, furnace chamber wherein said thermal propeller comprises:
• a combustion and pyrolysis chamber formed by:
• at least one side wall comprising a refractory material, wherein said refractory material comprises at least two selected from the group of alumina, silicon, carbide and corundum;
• a primary fuser slab and a secondary fuser slab forming a bottom of said combustion and pyrolysis chamber, said primary fuser slab positioned to receive solid fuel from a fuel tank and said secondary fuser slab positioned to receive solid fuel from said primary fuser slab;
• and
• a lid for closing said combustion and pyrolysis chamber;
• a condenser connected to said second furnace exit;
• and
• a nozzle through which hot post-combustion gases exit the combustion and pyrolysis chamber and enter said furnace chamber around said fuser tube;
• wherein said thermal propeller, said furnace and said third furnace exit are arranged to cause hot furnace from said thermal propeller to circulate in said furnace chamber around said fuser tube and flow in a direction from said second end of said fuser tube toward said first end of said fuser tube.

A molecular pyrodisaggregation system comprising:

• a pyrodisaggregator, said pyrodisaggregator comprising:
• a furnace;
• a fuser tube within said furnace, said fuser tube comprising a metal alloy and having an entrance at a first end of said fuser tube;
• a channel within said furnace surrounding said fuser tube;
• an Archimedes screw within said fuser tube for moving material to be disaggregated through said fuser tube;
• a first exit at a second end of said fuser tube for inert materials to exit said fuser tube;
• a second exit at said second end of said fuser tube for gases to exit said fuser tube;
• and
• a third exit for fumes circulating through said channel to exit said furnace;
• a loader connected to said pyrodisaggregator for loading materials to be disaggregated into said first end of said fuser tube;
• a source of hot fumes connected to said channel in said furnace, wherein said source of hot fumes, said furnace and said third furnace exit are arranged to cause hot fumes from said source of hot fumes to circulate in said channel of said furnace around said fuser tube and to flow in a direction from said first end of said fuser tube toward said second end of said fuser tube;
• and
• a condenser connected to said second exit, wherein said condenser comprises:
• an entrance structure connected to said second exit from said furnace for receiving gases from said pyrodisaggregator;
• a cold water chamber surrounding said entrance structure for cooling said gases received from said pyrodisaggregator;
• first and second condenser columns each for providing a cooled path for gas flowing into said condenser columns, each condenser column comprising:
• a batting within said each condenser column for slowing a flow of gas within said condenser column;
• an air lock space within each said condenser columns for circulating water used to cool gas;
• a connection manifold connecting said first condenser column to said second condenser column, wherein gas from said entry structure flows into and through said first condenser column then through said connection manifold and then through said second condenser column;
• a primary hopper connected to said entrance structure and said first condenser column for collecting oil condensed out of said gases received from said pyrodisaggregator;
• a secondary hopper connected to said second condenser column for receiving light hydrocarbons from said second condenser column.

A molecular pyrodisaggregation system comprising:

• a pyrodisaggregator, said pyrodisaggregator comprising:
• a furnace, said furnace having a chamber;
• a fuser tube within said furnace chamber, said fuser tube comprising a metal alloy;
• an Archimedes screw within said fuser tube for moving material to be disaggregated through said fuser tube;
• a first furnace exit for inert materials from said fuser tube;
• a second furnace exit for gases from said fuser tube;
• and
• a third furnace exit for fumes circulating through said furnace chamber;
• wherein
• said fuser tube is connected to said first exit and said second exit;
• a loading column connected to said pyrodisaggregator for loading materials to be disaggregated into said fuser tube in said furnace;
• a thermal propeller connected to said furnace, wherein hot fumes from said thermal propeller circulate in said furnace chamber said fuser tube;
• and
• a condenser connected to said second exit, wherein said condenser comprises:
• an entry dome connected to said second exit from said furnace for receiving gases from said pyrodisaggregator;
• a cold water chamber surrounding said entrance dome for cooling said gases received from said pyrodisaggregator;
• a primary hopper connected to said entrance dome for collecting oil condensed out of said gases received from said pyrodisaggregator;
• first and second vertical condenser columns for proving a cooled path for gas flowing into said condenser columns, each condenser column comprising:
• a channel through which gases flow;
• and
• an air lock space for water used to cool gases within said channel:
• a connection manifold connecting said first condenser column to said second condenser column, wherein gas from said entry dome flows into and through said first condenser column then through said connection manifold and then through said second condenser column;
• a secondary hopper connected to said second condenser column for receiving light hydrocarbons from said second condenser column;
• and
• wherein said thermal propeller comprises:
• a combustion and pyrolysis chamber formed by:
• at least one catalytic side wall comprising a refractory material, wherein said refractory material comprises at least two selected from the group of alumina, silicon, carbide and corundum;
• a primary fuser slab and a secondary fuser slab forming a bottom of said combustion and pyrolysis chamber, said primary fuser slab positioned to receive solid fuel from a fuel tank and said secondary fuser slab positioned to receive solid fuel from said primary fuser slab;
• and
• a lid for closing said combustion and pyrolysis chamber;
• a first lower chamber beneath said primary fuser slab;
• a second lower chamber beneath said secondary fuser slab;
• and
• a stoichiometric air carburetor connected to said combustion and pyrolysis chamber and said first lower chamber, wherein said stoichiometric air carburetor comprises a plurality of valves for controlling a flow of air into said combustion and pyrolysis chamber and into said first lower chamber.