A quadrature mixer arrangement adapted to frequency translate a mixer arrangement input signal (201, 401, 601, 702, 703, 801, 811) by a translation frequency to produce a mixer arrangement output signal (202, 403, 606, 607, 709, 822, 824, 826, 828), wherein the quadrature mixer arrangement is adapted to be operated at a mixer arrangement clock rate that equals the translation frequency times an oversampling rate (203, 402), N OSR, wherein the oversampling rate plus an integer number of one, two or three is a multiple of four, the quadrature mixer arrangement comprising: a sequence generator (406,516, 526) adapted to generate, based on the oversampling rate, an in-phase mixer translation sequence and a quadrature-phase mixer translation sequence, with N OSR positions and N OSR ≥ 6, wherein the in-phase mixer translation sequence is a time-discrete representation of a translation frequency sinusoidal function sampled at the mixer arrangement clock rate and comprises one sample value for each position, and the quadrature-phase mixer translation sequence is a time-discrete representation of the translation frequency sinusoidal function phase-shifted by π/2 plus a phase deviation and sampled at the mixer arrangement clock rate, the phase deviation being a function of the oversampling rate and comprises the same positions as the in-phase translation sequence, the sample values of the in-phase and quadrature-phase sequences being identical aside from a shift in positions, the number of positions that one sequence is shifted with respect to the other corresponding to a phase of the translation frequency period, and the phase deviation being defined as that phase minus π/2, or vice versa; at least one pair of mixers (205, 206, 408, 410, 608, 610, 708, 710, 802, 803, 812, 813), each pair comprising an in-phase mixer (408, 608, 708, 802, 812) and a quadrature-phase mixer (410, 610, 710, 803, 813), wherein the in-phase mixer is adapted to, based on the in-phase mixer translation sequence, translate an in-phase mixer input signal (602, 706, 801, 811) to produce an in-phase mixer output signal (604, 704), the quadrature-phase mixer is adapted to, based on the quadrature-phase mixer translation sequence, translate a quadrature-phase mixer input signal (603, 707, 801, 811) to produce a quadrature-phase mixer output signal (605, 705), and the in-phase mixer input signal and the quadrature-phase mixer input signal depend on the mixer arrangement input signal, and the mixer arrangement output signal depends on the in-phase mixer output signal and the quadrature-phase mixer output signal; and one or more correction networks (207, 412, 414, 614, 712, 804, 814) adapted to, based on the oversampling rate and the phase deviation, compensate for the phase deviation by adjusting at least one of the in-phase mixer input signal, the quadrature-phase mixer input signal, the in-phase mixer output signal, and the quadrature-phase mixer output signal. a sequence generator (406,516, 526) adapted to generate, based on the oversampling rate, an in-phase mixer translation sequence and a quadrature-phase mixer translation sequence, with N OSR positions and N OSR ≥ 6, wherein the in-phase mixer translation sequence is a time-discrete representation of a translation frequency sinusoidal function sampled at the mixer arrangement clock rate and comprises one sample value for each position, and the quadrature-phase mixer translation sequence is a time-discrete representation of the translation frequency sinusoidal function phase-shifted by π/2 plus a phase deviation and sampled at the mixer arrangement clock rate, the phase deviation being a function of the oversampling rate and comprises the same positions as the in-phase translation sequence, the sample values of the in-phase and quadrature-phase sequences being identical aside from a shift in positions, the number of positions that one sequence is shifted with respect to the other corresponding to a phase of the translation frequency period, and the phase deviation being defined as that phase minus π/2, or vice versa; at least one pair of mixers (205, 206, 408, 410, 608, 610, 708, 710, 802, 803, 812, 813), each pair comprising an in-phase mixer (408, 608, 708, 802, 812) and a quadrature-phase mixer (410, 610, 710, 803, 813), wherein the in-phase mixer is adapted to, based on the in-phase mixer translation sequence, translate an in-phase mixer input signal (602, 706, 801, 811) to produce an in-phase mixer output signal (604, 704), the quadrature-phase mixer is adapted to, based on the quadrature-phase mixer translation sequence, translate a quadrature-phase mixer input signal (603, 707, 801, 811) to produce a quadrature-phase mixer output signal (605, 705), and the in-phase mixer input signal and the quadrature-phase mixer input signal depend on the mixer arrangement input signal, and the mixer arrangement output signal depends on the in-phase mixer output signal and the quadrature-phase mixer output signal; and one or more correction networks (207, 412, 414, 614, 712, 804, 814) adapted to, based on the oversampling rate and the phase deviation, compensate for the phase deviation by adjusting at least one of the in-phase mixer input signal, the quadrature-phase mixer input signal, the in-phase mixer output signal, and the quadrature-phase mixer output signal.