NOVELTY - Super compactor (20) receiving carbon-containing material and delivering brick (50) as fuel for power generation comprises inlet to receive the material; compaction chamber to receive material from inlet and having at least one ram reciprocating along a travel path and exerting predetermined amount of pressure on the material, end effector plate/movable slide gate, and at least one dewatering apertures/membrane; moisture collector (40) capturing moisture that passes through the dewatering apertures/membrane; power unit providing power to the ram; and heated extrusion chamber.    USE - For receiving a carbon-containing material and delivering a brick as fuel for power generation (claimed). Also useful for managing and integrating the functions of locating and gathering raw biomass material, processing the biomass material in compactors, and delivering the processed biobricks to energy-generating plants for use as fuel.    ADVANTAGE - The compressed biomass material has a density of greater than or equal to 1.3 g/ml. The system alleviates the moisture and void space problems; provides novel form of biomass with drastically reduced moisture content of less than 30% and void space characteristics from the original feedstock, with a compaction ratio which equates to a similar reduction in void space. Because moisture is removed from the biomass material before the biomass material is heated, nutrients remain in the water and enhance the desirability of the water that is removed from the compactor as a byproduct. The process also yields biobricks with both a low nitrogen content and low alkalinity (the alkalinity is reduced by more than 50% per MM BTU (heating value or energy content of fuels)). The biobricks also have a moisture content of less than or equal to 30%. The density of the biobricks is increased more than eleven times relative to the raw biomass (from 7-80 lbs/ft3 or 0.11-1.3 g/ml). The net energy value of the biobricks increases by more than 50% per pound. The obtained biobricks successfully and economically supplant such conventional fuels as coal. Transportation costs are reduced by a factor of twenty-two and the shelf life of the biobricks is a matter of years, rather than weeks as for raw biomass.    DETAILED DESCRIPTION - A super compactor (20) receiving a carbon-containing material and delivering a brick (50) suitable as fuel for power generation comprises an inlet adapted to receive the material from an external source; compaction chamber for receiving the material from the inlet and having at least one ram reciprocating along a travel path and exerting a predetermined amount of pressure on the material, end effector plate or movable slide gate against which the material is compressed, promoting the removal of moisture from the material, and at least one dewatering apertures or membrane permitting moisture to pass through but blocking the material; moisture collector (40) for capturing moisture that passes through the dewatering apertures/membrane; power unit for providing power to the ram; and heated extrusion chamber for receiving the material from the compaction chamber and heating and compacting the material to bind the material and form a brick. The compaction chamber operates at a speed that enables the super compactor to process 25 tons of the carbon-containing material per hour. The super compactor further comprises a heat exchanger; and programmable logic controller. The compaction chamber has three, separate rams each having a separate travel path disposed along one of three orthogonal directions. The heating forms a protective coating that retards entry into the composition of liquid or gas, on the brick. The coating comprises lignin, sugar, and/or starch; and binder. INDEPENDENT CLAIMS are included for the following:    (1) method of creating a brick suitable as fuel for power generation from a carbon-containing material involving gathering the carbon-containing material; pre-processing the carbon-containing material to a suitable size and water content; delivering the carbon-containing material to a super compactor; actuating the super compactor to exert predetermined amount of pressure of 2.7x 107 to 1.4x 109 Pa on the carbon-containing material, thus squeezing water out of and collapsing voids in the carbon-containing material; collecting the water squeezed out of the carbon-containing material; and heating the carbon-containing material to form a brick; and    (2) a solid fuel composition formed from a raw biomass material (12) having a first moisture content, first volume, and first alkalinity, comprising at least one compressed biomass material having a second moisture content of less than or equal to 50% of the first moisture content and a second volume that is reduced relative to the first volume by a factor of greater than or equal to 10:1.    DESCRIPTION OF DRAWING(S) - The figure shows a schematic view of biomass super compaction and drying system.    Biomass super compaction and drying system (10)    Raw biomass material (12)    Conveyor (14)    Super compactor (20)    Collection vessel (40)    Biobrick (50)