We have investigated the electron-induced reactions of condensed CF₂Cl₂ at subexcitation electron energies under ultrahigh vacuum conditions. Results of post-irradiation temperature-programmed desorption experiments were used to quantify the electron-induced radiolysis products (C₂F₄Cl₂, C₂F₃Cl₃, and C₂F₂Cl₄) of CF₂Cl₂ as functions of electron energy and electron fluence. While previous gas and condensed phase CF₂Cl₂ experiments show a resonance in the production/desorption of the F^- ion at incident electron energies of 3 eV and 4 eV, respectively, our post-irradiation data demonstrate a resonance in the production of the complementary •CFCl₂ radicals at 3 eV. Furthermore, our results, which do not show a resonance in the production of •CF₂Cl radicals, are consistent with the absence of a resonance in the production/desorption of Cl^-. While numerous studies have revealed chemical damage induced by dissociative electron attachment, our results represent one of the first studies to unambiguously demonstrate chemical synthesis induced by dissociative electron attachment.