A method of forming a light emitting device package assembly, comprising: providing a light emitting device package body; defining a chromaticity region in a two dimensional chromaticity space, and subdividing the defined chromaticity regions into at least three chromaticity subregions (146A-146D); providing a plurality of light emitting devices (120A-120D) that emit light having a chromaticity that falls within the defined chromaticity region; selecting at least three of the plurality of light emitting devices (120A-120D), wherein each of the three light emitting devices emits light from a different one of the chromaticity subregions (146A-146D); and mounting the selected light emitting devices on the light emitting device package body; wherein the defined subregions comprise a plurality of pairs of complementary subregions, wherein respective subregions in a pair of complementary subregions are arranged opposite a center point of the chromaticity region from one another, wherein selecting the at least three of the plurality of light emitting devices (120A-120D) comprises selecting at least four of the plurality of light emitting devices (120A-120D) from at least four chromaticity subregions (146A-146D) in pairs from respective pairs of complementary subregions; and wherein selecting a pair of light emitting devices from one pair of complementary subregions comprises selecting a first light emitting device having a first luminous flux from a first subregion that has a center point that is located a first distance from a center point of the chromaticity region, and selecting a second light emitting device having a second luminous flux from a second subregion that is complementary to the first subregion and that has a center point that is located a second distance from a center point of the chromaticity region, wherein the first distance is smaller than the second distance and wherein the first luminous flux is larger than the second luminous flux. providing a light emitting device package body; defining a chromaticity region in a two dimensional chromaticity space, and subdividing the defined chromaticity regions into at least three chromaticity subregions (146A-146D); providing a plurality of light emitting devices (120A-120D) that emit light having a chromaticity that falls within the defined chromaticity region; selecting at least three of the plurality of light emitting devices (120A-120D), wherein each of the three light emitting devices emits light from a different one of the chromaticity subregions (146A-146D); and mounting the selected light emitting devices on the light emitting device package body; wherein the defined subregions comprise a plurality of pairs of complementary subregions, wherein respective subregions in a pair of complementary subregions are arranged opposite a center point of the chromaticity region from one another, wherein selecting the at least three of the plurality of light emitting devices (120A-120D) comprises selecting at least four of the plurality of light emitting devices (120A-120D) from at least four chromaticity subregions (146A-146D) in pairs from respective pairs of complementary subregions; and wherein selecting a pair of light emitting devices from one pair of complementary subregions comprises selecting a first light emitting device having a first luminous flux from a first subregion that has a center point that is located a first distance from a center point of the chromaticity region, and selecting a second light emitting device having a second luminous flux from a second subregion that is complementary to the first subregion and that has a center point that is located a second distance from a center point of the chromaticity region, wherein the first distance is smaller than the second distance and wherein the first luminous flux is larger than the second luminous flux.