The present invention is a positive 
electrode active material that can be used in secondary 
lithium and 
lithium-
ion batteries to provide the 
power capability, i.e., the ability to deliver or retake energy in short periods of time, desired for large power applications such as power tools, electric bikes and 
hybrid electric vehicles. The positive 
electrode active material of the invention includes at least one 
electron conducting compound of the formula LiM1x−y{A}yOz and at least one 
electron insulating and 
lithium ion conducting 
lithium metal oxide, wherein M1 is a 
transition metal, {A} is represented by the formula ΣwiBi wherein Bi is an element other than M1 used to replace the 
transition metal M1 and wi is the fractional amount of element Bi in the total 
dopant combination such that Σwi=1; Bi is a cation in LiM1x−y{A}yOz; 0.95≦x≦2.10; 0≦y≦x / 2; and 1.90≦z≦4.20. Preferably, the 
lithium metal oxide is LiAlO2 or Li2M2O3 wherein M2 is at least one tetravalent 
metal selected from the group consisting of Ti, Zr, Sn, Mn, Mo, Si, Ge, Hf, Ru and Te. The present invention also includes methods of making this positive 
electrode active material.