to the realization that neutrinos are massive, is one of the biggest motivation for physics beyond the Standard Model (SM). A large number of models have been suggested to explain neutrino masses and mixings either by the seesaw mechanism [@csaw] or through loop induced processes [@rad]. The Zee model [@zee] is one of the simplest such scenarios where neutrino masses are generated at one-loop by extending the SM scalar sector with an extra doublet and a charged singlet scalar field. The charged singlet scalar can mix with other charged scalars while also having non-zero flavor violating couplings with leptons, giving rise to neutrino masses at one-loop. Unfortunately the simplest form of the Zee model was shown to be ruled out by experimental neutrino data [@zee-out]. However its extensions might still be viable. In this work we study an extended Zee model in a left-right symmetric (LRS) framework [@lr]. The model was proposed and studied in context of the LHC in [@pavel1] and the low energy flavor violating processes were discussed in [@pavel2]. In this work we examine its viability from neutrino oscillation data, study the scalar potential in detail and derive charged Higgs spectrum, as well as analyze the possible 