The basic rule of lever claims: Fm1 * Dm1 = Fm2 * Dm2 and Fm1 * Md2 = Fm2 * Md1 which results in Md1 * Dm1 = Md2 * Dm2 where Md is an equilibrium mass in geometrical space and Dm is an equilibrium distance in gravitation space. and Fq1 * Dq1 = Fq2 * Dq2 and Fq1 * Qd2 = -Fq2 * Qd1 which results in Qd1 * Dq1 = -Qd2 * Dq2 where Qd is an equilibrium charge in geometrical space and Dq is an equilibrium distance in electrical space. also Gq1 * Mq1 = Gq2 * Mq2 and Gq1 * Qm2 = -Gq2 * Qm1 which results in Mq1 * Qm1 = -Mq2 * Qm2 where Mq is an equilibrium mass in electrical space and Qm is an equilibrium charge in gravitation space. If we review all the distances from common eqiulibrium point then: we have the system of following equations: D1 * M1 = D2 * M2 and M1 * Q1 = -M2 * Q2 and Q1 * D1 = -Q2 * D2 The product of all left sides = to the product of all right sides so D1^2 * M1^2 * Q1^2 = D2^2 * M2^2 * Q2^2 finding the square root yields D1 * M1 * Q1 = -D2 * M2 * Q2 where if (D1,M1,Q1) is matter particle then (D2,M2,Q2) is its balancing antimatter particle and D,M,Q are distance, mass and charge regarding same equilibrium point. Impresive A?