Method for producing a fully active stack or the green precursor thereof, comprising: - providing a sintered or unsintered stack having the sides A, B, C and D running in each case in the stacking direction, comprising a plurality of alternately successive ceramic dielectric layers and internal electrode layers (2, 2'), wherein the internal electrode layers (2, 2') are embodied in each case in a continuous fashion with respect to the sides A and C and are embodied in each case in a non-continuous fashion with respect to either the side B or the side D, such that one portion of the internal electrodes or the unsintered precursors thereof make contact with the side B, but not with the side D, and another portion of the internal electrodes or the unsintered precursors thereof make contact with the side D, but not with the side B; - combining and temporarily making contact with the internal electrodes (2, 2') that make contact with the respective side or the unsintered precursors of said internal electrodes on one of the sides B or D via an external contact with temporary isozones, such that the internal electrodes that make contact with the respective side can be electrically driven selectively; - electrochemically coating the electrically driven internal electrodes or the unsintered precursors thereof on the sides A and C, - singulating the stack to form a fully active stack or the green precursor thereof with the electrochemically coated internal electrodes or the unsintered precursors thereof on the sides A' and C' characterized in that the process of electrochemical coating is effected by means of plating technology and after the process of electrochemical coating by means of plating technology the coating is converted into an insulating oxide coating by electrochemical oxidation. - providing a sintered or unsintered stack having the sides A, B, C and D running in each case in the stacking direction, comprising a plurality of alternately successive ceramic dielectric layers and internal electrode layers (2, 2'), wherein the internal electrode layers (2, 2') are embodied in each case in a continuous fashion with respect to the sides A and C and are embodied in each case in a non-continuous fashion with respect to either the side B or the side D, such that one portion of the internal electrodes or the unsintered precursors thereof make contact with the side B, but not with the side D, and another portion of the internal electrodes or the unsintered precursors thereof make contact with the side D, but not with the side B; - combining and temporarily making contact with the internal electrodes (2, 2') that make contact with the respective side or the unsintered precursors of said internal electrodes on one of the sides B or D via an external contact with temporary isozones, such that the internal electrodes that make contact with the respective side can be electrically driven selectively; - electrochemically coating the electrically driven internal electrodes or the unsintered precursors thereof on the sides A and C, - singulating the stack to form a fully active stack or the green precursor thereof with the electrochemically coated internal electrodes or the unsintered precursors thereof on the sides A' and C' characterized in that the process of electrochemical coating is effected by means of plating technology and after the process of electrochemical coating by means of plating technology the coating is converted into an insulating oxide coating by electrochemical oxidation.