Two-space one-time dimensional Chern-Simons-Higgs theory is quantized on the light-front in the broken (frozen) symmetry phase of the Higgs potential.Gauge theories in two-space one-time dimensions involving Chern-Simons (CS) term coupled to matter fields describe excitations with fractional statistics [1][2][3][4][5][6][7][8]. Such studies form a broad field of study [1][2][3][4][5][6][7][8]. Recently we have studied the instant-form (IF) quantization (IFQ) [6,7] of this theory in the presence of the Higgs potential (on the hyperplanes: x 0 = t = constant) in the so-called symmetry phase (SP) of the Higgs potential [6] as well as in the so-called broken (frozen) symmetry phase of the Higgs potential [7]. We have also studied the light-front (LF) quantization (LFQ) of this theory in the symmetry phase of the Higgs potential [8]. In the present work we study the light-front quantization (LFQ) of the theory in the broken (or frozen) symmetry phase of the Higgs potential where the phase ϕ(x μ ) of the complex matter field (x μ ) carries the charge degree of freedom of the complex matter field and is, in fact, akin to the Goldstone boson [4,7] under appropriate gauge-fixing using the Hamiltonian [9,10], path integral [10] and BRST [11] formulations using the light-front (LF) [12,13] dynamics (on the hyperplanes defined by the LC time: (τ ≡ x + = (x 0 +x 1 ) √ 2 = constant) [12,13]. The Chern-Simons-Higgs theory in two-space one-time dimensions is defined by the action [1-8]:g μν := diag(+1, −1, −1); μ, ν = 0, 1, 2; 012 = 012 = +1( 1 d )Here θ is the Chern-Simons parameter. The Higgs potential is kept rather general, without making any specific choice for the parameters of the potential except that they are chosen such that the potential remains a double well potential with 0 = 0. In the following, we study this theory in the so-called broken (or frozen) symmetry phase (BSP) [4,6], of the complex matter field [≡ (x μ )]. For this purpose, for the complex matter field we take [4,7]: