Abstract: A coking method comprises in combination, the steps of providing a quantity of coals, providing a quantity of chemical change agents selected from the class of chemical change agents including: (i) acrylic latex, (ii) styrene-butadiene polymers, and (iii) natural and synthetic polymers, blending said chemical change agent with water in a ratio of about 40:60 to 60:40, spraying the provided quantity of lower quality coal with the blended water and chemical change agent in a ratio of about one ton of coal plus or minus ten percent to about four gallons of blended water and chemical change agent plus or minus ten percent, baking the coated coal in a reducing, heated, oxygen-free environment, including a heating element, at a temperature of about 1700 degrees Fahrenheit, cooling the resultant higher cold strength baked product by exposing said product to a water quench or cooling said product in a dry quench box.

Abstract: A method for converting tire rubber to coke comprising, in combination, the steps of: blending a quantity of tire rubber and a quantity of chemical change agents and motor oil to form a homogeneous mixture; baking the homogeneous mixture in a reducing environment for a corresponding duration of time to form a coke product; and cooling the resultant coke product.

Abstract: A method is provided for converting coal to coke by the steps of blending pulverized coal with water and a binder to a kneadable dough; and baking said dough in a reducing environment.

Abstract: In an electric cell having a solid electrolyte and employing sodium as the iquid anode and sulphur as the liquid cathode, the liquid anode is contained in two compartments separated by a corrosion resistant barrier. Liquid anode is arranged to flow between the compartments through a flow restrictor which permits a rate of flow sufficient to meet the normal charge and discharge requirements of the cell but limits higher rates of flow.One of the compartments has a very limited capacity for liquid sodium and is disposed about one side of the solid electrolyte to define a wicking space to constrain liquid sodium to flow over the solid electrolyte. The other compartment provides a reservoir for containing the bulk of the liquid sodium.In the event of damage to the solid electrolyte, only a very limited amount of liquid sodium is readily available to mix and react with the liquid sulphur.