Taking　inspiration　from　the　human　eye＇s　information　processing　capabilities,　the　artificial　optoelectronic　neuronic　device　(AOEND)　offers　a　promising　approach　to　creating　a　bionic　eye　that　performs　real-time,　low　-power　processing　by　integrating　optical　sensors,　signal　processing,　and　electronic　neurons　into　a　single　device.　Despite　significant　advancements,　the　current　AOEND　still　faces　challenges　in　terms　of　power　consumption,　flexibility,　bio-compatibility,　and,　most　importantly,　achieving　photo-sensitivity　across　the　same　broadband　perceivable　wavelength　range　(380nm　to　740nm)　as　the　human　eye.　In　this　study,　we　present　a　commercially　ready,　dual-gated　thin-film-transistor　(TFT)-based　AOEND.　Our　device　exhibits　exceptional　photo-response　to　specific　wavelengths　by　utilizing　an　organic　TIPS-pentacene　material　as　the　channel　layer　and　intentionally　tailoring　its　optical　bandgap　to　approximately　1.6eV.　Additionally,　the　device　successfully　replicates　various　photon-triggered　synaptic　characteristics　and　performs　visual　sensing,　memory　processing,　and　other　functions　with　low　power　consumption.　Our　findings　present　a　viable　strategy　for　the　development　of　future　integrated　sensing-memory-processing　flexible　devices　for　optoelectronic　artificial　retina　perception　applications.