In a world of unparalleled market volatility and fragmented customer journeys, the old customer equity management models based on fixed segmentation and post-hoc analytics have not been sufficient to capture the dynamic development of customer-firm relationships. This paper presents an elaborate reinforcement learning (RL) model of dynamic customer equity optimization, which views marketing decisions as adaptive interventions that are sequential in non-stationary environment. To construct a practically implementable and theoretically based architecture of real-time marketing decision-making, we combine recent developments in the deep reinforcement learning, causal inference, and customer lifetime value (CLV) modeling. The framework combines: (1) multi-response state models that maintain Markov properties whilst learn online customer value signals; (2) conservative Q-learning to ensure reliable policy learning on offline data; (3) factor sensitive reward designs that include time varying customer engagement dynamics; and (4) multi-objective optimization that balances acquisition, retention and profitability goals. Empirical results on a variety of industry applications show that RL-based methods obtain significant improvements over constant baselines, and reported improvements in targeting efficiency of 27% (Qini coefficient), ROI gains of 18-58 and CLV impact gains of 45-85 (Wang and Chen, 2025). We cover theoretical background, issues in implementation and research directions in the future by arguing that dynamic customer equity optimization is a paradigm shift; instead of reactive, campaign-based marketing, dynamic customer equity optimization is proactive, relationship-oriented value co-creation. The paper ends by highlighting research gaps that are crucial to fill and outlining an agenda to further develop the combination of reinforcement learning and customer equity theory.
P. Khan, Muhammad Junaid, M. Ajmal et al.· International Journal of Bus...· 0 citations
The Khewari Block, located in the structurally complex Lower Indus Basin of Sindh, Pakistan, occupies a tectonically favorable yet insufficiently explored sector of a Mesozoic–Cenozoic rifted basin known for its hydrocarbon prospectivity. This study employs an integrated geophysical geospatial workflow to confine subsurface architecture and assess reservoir potential. Extensive interpretation of 2D seismic profiles identifies a system of NE-SW oriented normal faults, horsts, grabens, and local compressional structures, producing a wide range of trap geometries, including fault-bounded closures, rollover anticlines, and tilted fault blocks. Time and depth structure mapping refines horizon geometries and identifies structurally isolated blocks with enhanced trapping potential. Bouguer and residual gravity anomaly maps
further resolve density differences associated with uplifted carbonate platforms and sediment filled troughs, confirming segmentation of the structure based on seismic data. Surface dataset complements, such as DEM-based elevation, slope models, and land-use classification, offer further limitations on terrain accessibility, drainage systems, and operational capabilities. The integration of surface and subsurface datasets reduces the uncertainty in the interpretation process, improves the delineation of traps, and contributes to the most effective well-placement planning. The multidisciplinary approach illustrates the effectiveness of integrating seismic reflection, gravity modelling, and surface-based GIS analysis to create a coherent structural framework of frontier basins. The workflow is transferable to other data-limited regions and provides a robust foundation for evidence-based hydrocarbon exploration and decision making.
Muhammad Junaid, Muhammad Sajid, Taimoor Ahmad et al.· Rudarsko-geološko-naftni Zbo...· 0 citations