A scroll compressor, comprising: a casing forming an inner space therein; a drive motor provided in the inner space of the casing; a rotating shaft coupled to the drive motor; a frame provided at one side of the drive motor; a first scroll provided at one side of the frame, the first scroll including a first plate portion and a first wrap which is formed on one lateral surface of the first plate portion, a discharge port formed adjacent to a central side end portion of the first wrap, and a plurality of first bypass holes and a plurality of second bypass holes formed around an inner surface of the first wrap and around an outer surface of the first wrap, respectively, wherein the plurality of first bypass holes and the plurality of second bypass holes are formed at intervals along the formation direction of the first wrap; and a second scroll provided between the frame and the first scroll, the second scroll including a second plate portion and a second wrap which is engaged with the first wrap and formed on one lateral surface of the second plate portion, wherein the rotating shaft is eccentrically coupled to the second wrap to overlap with the second wrap in a radial direction; wherein a pair of two compression chambers including a first compression chamber and a second compression chamber are formed between the second scroll and the first scroll while the second scroll performs an orbiting movement with respect to the first scroll, the plurality of first bypass holes and the plurality of second bypass holes communicate with the first compression chamber and the second compression chamber, respectively, and a compression gradient of the second compression chamber is larger than that of the first compression chamber, wherein a total cross-sectional area of the plurality of second bypass holes larger than a total cross-sectional area of the plurality of first bypass holes within a range of a rotation angle of 180 degrees along the first wrap from an inner end of the first wrap with respect to an axial center of the rotating shaft, characterized in that when the plurality of first bypass holes correspond to multiple bypass holes defined as first bypass portions (381a, 381b, 381c) and the plurality of second bypass holes correspond to multiple bypass holes defined as second bypass portions (382a, 382b, 382c), an interval between a bypass portion closest to the discharge port and a next bypass portion adjacent to the bypass portion among the first bypass portions is defined as a first inner interval, and an interval between a bypass portion closest to the discharge port and a next bypass portion adjacent to the bypass portion among the second bypass portions (382a, 382b, 382c) is defined as a first outer interval, the first outer interval is formed to be smaller than the first inner interval. a casing forming an inner space therein; a drive motor provided in the inner space of the casing; a rotating shaft coupled to the drive motor; a frame provided at one side of the drive motor; a first scroll provided at one side of the frame, the first scroll including a first plate portion and a first wrap which is formed on one lateral surface of the first plate portion, a discharge port formed adjacent to a central side end portion of the first wrap, and a plurality of first bypass holes and a plurality of second bypass holes formed around an inner surface of the first wrap and around an outer surface of the first wrap, respectively, wherein the plurality of first bypass holes and the plurality of second bypass holes are formed at intervals along the formation direction of the first wrap; and a second scroll provided between the frame and the first scroll, the second scroll including a second plate portion and a second wrap which is engaged with the first wrap and formed on one lateral surface of the second plate portion, wherein the rotating shaft is eccentrically coupled to the second wrap to overlap with the second wrap in a radial direction; wherein a pair of two compression chambers including a first compression chamber and a second compression chamber are formed between the second scroll and the first scroll while the second scroll performs an orbiting movement with respect to the first scroll, the plurality of first bypass holes and the plurality of second bypass holes communicate with the first compression chamber and the second compression chamber, respectively, and a compression gradient of the second compression chamber is larger than that of the first compression chamber, wherein a total cross-sectional area of the plurality of second bypass holes larger than a total cross-sectional area of the plurality of first bypass holes within a range of a rotation angle of 180 degrees along the first wrap from an inner end of the first wrap with respect to an axial center of the rotating shaft, characterized in that when the plurality of first bypass holes correspond to multiple bypass holes defined as first bypass portions (381a, 381b, 381c) and the plurality of second bypass holes correspond to multiple bypass holes defined as second bypass portions (382a, 382b, 382c), an interval between a bypass portion closest to the discharge port and a next bypass portion adjacent to the bypass portion among the first bypass portions is defined as a first inner interval, and an interval between a bypass portion closest to the discharge port and a next bypass portion adjacent to the bypass portion among the second bypass portions (382a, 382b, 382c) is defined as a first outer interval, the first outer interval is formed to be smaller than the first inner interval.