This study presents the realization of all-optical temporal logic gates (AND, OR, and NOT) in localized exciton polaritons (EPs) at room temperature. The gates are implemented using a two-pulse excitation scheme, where the interplay between the polariton condensate and exciton reservoir dynamics is precisely controlled. The temporal degree of freedom is used for information processing without spatial flow, enabling ultrafast switching, universality, and compatibility with other dimensional controls. The results demonstrate the potential for building polariton logic networks in strongly coupled light-matter systems. The NOT gate is realized through bosonic cascading relaxation in a ZnO microcavity. A polariton condensate is formed by non-resonant pumping with femtosecond laser pulses. The control pulse interacts with the condensate, depleting the population of the U mode and increasing the population of the L mode, resulting in a 'switching off' behavior for the U mode and a 'switching on' behavior for the L mode. The NOT gate achieves a response time of -80 fs, which is significantly faster than previously reported polariton switches. The AND gate is achieved through dynamic amplification of a localized polariton ensemble. The output of the first stage acts as the input of the second stage without physical propagation, eliminating the need for spatial flow manipulation. The AND gate operates when both input signals are below the condensation threshold but their sum exceeds the threshold. The OR gate is realized by increasing the input signal level such that either one is above the condensation threshold. The study demonstrates that temporal polariton logic gates can be implemented with a simple setup, requiring only two non-resonant laser pulses with controlled time delays. This approach offers advantages over spatially defined transistors, including faster response times, reduced dependence on microcavity quality, and the ability to process information in a single dimension. The results highlight the potential of polariton-based logic gates for future photonic circuits and information processing systems.This study presents the realization of all-optical temporal logic gates (AND, OR, and NOT) in localized exciton polaritons (EPs) at room temperature. The gates are implemented using a two-pulse excitation scheme, where the interplay between the polariton condensate and exciton reservoir dynamics is precisely controlled. The temporal degree of freedom is used for information processing without spatial flow, enabling ultrafast switching, universality, and compatibility with other dimensional controls. The results demonstrate the potential for building polariton logic networks in strongly coupled light-matter systems. The NOT gate is realized through bosonic cascading relaxation in a ZnO microcavity. A polariton condensate is formed by non-resonant pumping with femtosecond laser pulses. The control pulse interacts with the condensate, depleting the population of the U mode and increasing the population of the L mode, resulting in a 'switching off' behavior for the U mode and a 'switching on' behavior for the L mode. The NOT gate achieves a response time of -80 fs, which is significantly faster than previously reported polariton switches. The AND gate is achieved through dynamic amplification of a localized polariton ensemble. The output of the first stage acts as the input of the second stage without physical propagation, eliminating the need for spatial flow manipulation. The AND gate operates when both input signals are below the condensation threshold but their sum exceeds the threshold. The OR gate is realized by increasing the input signal level such that either one is above the condensation threshold. The study demonstrates that temporal polariton logic gates can be implemented with a simple setup, requiring only two non-resonant laser pulses with controlled time delays. This approach offers advantages over spatially defined transistors, including faster response times, reduced dependence on microcavity quality, and the ability to process information in a single dimension. The results highlight the potential of polariton-based logic gates for future photonic circuits and information processing systems.