A Mobile Ad hoc Network (MANET) is a self-organized wireless system consisting of autonomous mobile nodes. It aims to provide reliable and secure communication in the world of wireless mobile devices. Energy consumption poses a significant challenge in MANETs due to limited battery life. Efficient energy management is crucial to sustain network connectivity and prolong the lifespan of individual nodes. To address these challenges, the Internet Engineering Task Force has proposed procedures like bandwidth optimization, transmission quality enhancement, and power control. In wireless networks, energy conservation is vital for sustainable performance and longevity. Limited energy capacity in battery-powered nodes imposes constraints on network performance. Increased network traffic leads to higher energy consumption, depleting individual node reserves. Extending network lifespan and ensuring efficient energy utilization are crucial for MANET sustainability. Reducing energy consumption in specific nodes improves overall network quality and prolongs individual node battery life. A routing protocol capable of analysing energy and power becomes essential in this context. Zone-Based Technology offers a promising solution by creating virtual organizations called zones, where energy consumption can be effectively managed and balanced. Existing energy-aware routing protocols in ad hoc networks have not fully addressed energy consumption issues. Zone-based multipath routing emerges as a potential solution to balance energy levels and prolong network lifespan. In this paper, we propose the Dynamic Load Balancing in Multipath Energy-Consuming Routing Protocol for Wireless Ad hoc Network (DLB-MERP). DLB-MERP is a zone-based protocol derived from the AOMDV (Ad hoc On-Demand Multipath Distance Vector) routing protocol, integrating load balancing capabilities. Leveraging zone-based technology, DLB-MERP selects paths based on high energy and power availability, aiming to reduce energy consumption while ensuring efficient data forwarding. Leader nodes are selected within each zone based on energy level, Load balancing and channel strength. The protocol incorporates energy, distance, load and power analysis to maintain high energy circulation within the network and expedite the path discovery process. Selecting leader nodes and data forward nodes optimizes energy consumption. Multipath technology is employed by each node to enhance network resilience and reliability. Leader nodes play a vital role in gathering data from all zone members within the zone-based environment. Therefore, the design of a zone-based energy-efficient algorithm like DLB-MERP is pivotal in enhancing overall network lifespan and performance.