A meat inspection apparatus comprising: a light source configured to emit a plurality of inspection lights (ILa,ILb) to a plurality of regions (R1, R2) of Z r meat, respectively, wherein the light source comprises a plurality of sub-light sources (110a, 110b) configured to emit the plurality of inspection lights to the plurality of regions respectively, and wherein the light source is further configured to emit the plurality of inspection lights such that adjacent regions of the plurality of regions partially overlap each other; a light detector configured to generate a plurality of emission spectrum signals based on measuring a plurality of fluorescences emitted from the plurality of regions, wherein the light detector comprises a plurality of sub-light detectors configured to measure the plurality of fluorescences emitted from the plurality of regions; and a processor configured to: receive the plurality of emission spectrum signals from the light detector, wherein the processor is further configured to receive the plurality of emission spectrum signals from the plurality of sub-light detectors; generate hyperspectral images of the meat based on the plurality of emission spectrum signals, wherein the processor is further configured to generate a plurality of hyperspectral sub-images of the plurality of regions, merge the plurality of hyperspectral sub-images to generate the hyperspectral images, and remove a hyperspectral image corresponding to a region in which the adjacent regions overlap with each other from one of hyperspectral sub-images of the adjacent regions based on the plurality of hyperspectral sub-images being merged; and obtain a state of the meat based on the hyperspectral images, wherein the processor is further configured to obtain the state of the meat for a plurality of sub-regions in each of the plurality of regions. a light source configured to emit a plurality of inspection lights (ILa,ILb) to a plurality of regions (R1, R2) of Z r meat, respectively, wherein the light source comprises a plurality of sub-light sources (110a, 110b) configured to emit the plurality of inspection lights to the plurality of regions respectively, and wherein the light source is further configured to emit the plurality of inspection lights such that adjacent regions of the plurality of regions partially overlap each other; a light detector configured to generate a plurality of emission spectrum signals based on measuring a plurality of fluorescences emitted from the plurality of regions, wherein the light detector comprises a plurality of sub-light detectors configured to measure the plurality of fluorescences emitted from the plurality of regions; and a processor configured to: receive the plurality of emission spectrum signals from the light detector, wherein the processor is further configured to receive the plurality of emission spectrum signals from the plurality of sub-light detectors; generate hyperspectral images of the meat based on the plurality of emission spectrum signals, wherein the processor is further configured to generate a plurality of hyperspectral sub-images of the plurality of regions, merge the plurality of hyperspectral sub-images to generate the hyperspectral images, and remove a hyperspectral image corresponding to a region in which the adjacent regions overlap with each other from one of hyperspectral sub-images of the adjacent regions based on the plurality of hyperspectral sub-images being merged; and obtain a state of the meat based on the hyperspectral images, wherein the processor is further configured to obtain the state of the meat for a plurality of sub-regions in each of the plurality of regions. receive the plurality of emission spectrum signals from the light detector, wherein the processor is further configured to receive the plurality of emission spectrum signals from the plurality of sub-light detectors; generate hyperspectral images of the meat based on the plurality of emission spectrum signals, wherein the processor is further configured to generate a plurality of hyperspectral sub-images of the plurality of regions, merge the plurality of hyperspectral sub-images to generate the hyperspectral images, and remove a hyperspectral image corresponding to a region in which the adjacent regions overlap with each other from one of hyperspectral sub-images of the adjacent regions based on the plurality of hyperspectral sub-images being merged; and obtain a state of the meat based on the hyperspectral images, wherein the processor is further configured to obtain the state of the meat for a plurality of sub-regions in each of the plurality of regions.