Oman Battery Swapping Case Study: TYCORUN & BYoD

Battery Swapping Rollout in Oman

TYCORUN supports BYoD’s electric mobility operation in Oman with a complete battery swapping system built around electric motorcycles, swappable batteries, and battery swap cabinets.

The project scales from an initial baseline into a unified nationwide delivery network:

• Initial Deployment: 120 e-motorcycles, 350 swappable batteries, and 13 swap cabinets
• Target Scale: 2,000+ electric motorcycles, 5,000+ swappable batteries and 80+ battery swap cabinets

Instead of tying each motorcycle to its own charging cycle, the system separates vehicle uptime from battery charging. Riders swap depleted batteries for fully charged packs in minutes, while charging throughput and thermal safety are managed continuously by the backend infrastructure.

Why Battery Swapping Matters to Oman’s Delivery Market

The BYoD deployment is developing as Oman moves toward wider use of electric motorcycles in transport and delivery operations.

In 2026, Oman’s Ministry of Transport, Communications and Information Technology announced a gradual transition toward electric motorcycles in express delivery services. The programme also addresses technical standards, qualified suppliers and operators, and the development of charging and battery swapping infrastructure along delivery routes.

For an operator, this makes fleet electrification an infrastructure question as well as a vehicle question. Where batteries are replenished, how much battery inventory is available and how many vehicles each swapping location can support all become part of deployment planning.

One Integrated System Behind BYoD’s Operation

The BYoD network is built around three connected layers: vehicles create energy demand, batteries carry energy through the network and swap cabinets recharge and redistribute that battery inventory.

2,000+ Electric Motorcycles

At the target fleet size, the engineering objective is not simply to make one motorcycle swappable. Battery dimensions, electrical interfaces and connection standards need to remain consistent so that repeatable battery exchange can be maintained across the fleet.

5,000+ Swappable Batteries

At target scale, the battery pool is more than spare inventory. It is designed to act as an energy buffer between vehicle demand and charging capacity, allowing batteries to move through return, charging and reassignment while motorcycles continue operating.

80+ Battery Swap Cabinets

The swap cabinets are designed to provide both charging capacity and rider-facing exchange points. Their effective capacity depends not only on station count, but also on battery slots, charging demand, expected swap frequency and local fleet density.

Engineering Battery Swapping for Oman’s Operating Environment

Battery swapping infrastructure in Oman also has to operate under environmental conditions that affect outdoor energy systems. Much of the country experiences summer temperatures above 40°C together with strong solar exposure, while dust is a recurring condition across the Arabian Peninsula.

Heat and Solar Exposure

Charging batteries already generates heat. When multiple batteries are charging inside the same cabinet under high ambient temperatures and direct solar exposure, thermal conditions become part of system and site planning. Charging power, airflow, heat dissipation and battery temperature limits all need to be considered together.

Dust, Humidity and Site Conditions

Outdoor cabinets experience continuous exposure rather than short vehicle-level exposure. Dust can affect ventilation paths, connectors, doors and other frequently used points, while regions such as Dhofar can also experience higher humidity, fog and moisture during the Khareef season.

This means cabinet location, environmental protection, maintenance access and operating procedures cannot be based on one fixed assumption for every site.

Planning Charging Demand for a 5,000+ Battery Pool

The visible part of battery swapping takes only a short time, but every returned battery creates charging demand somewhere in the network.

With thousands of batteries planned to circulate, total battery quantity alone does not determine availability. Charging throughput and swap demand also have to be balanced so that depleted batteries can return to service fast enough to support the fleet.

The network therefore has to manage three connected flows:

• Energy consumed by motorcycles on the road
• Depleted batteries returning to swap locations
• Charged batteries becoming available for the next exchange

At target scale, battery swapping becomes an energy-distribution and capacity-planning problem rather than only a mechanical exchange process.

How TYCORUN Turns Operating Requirements Into System Design

For the BYoD project, TYCORUN does not treat heat, battery availability, cabinet capacity and fleet growth as separate issues. The vehicle, battery and swapping system is configured around the combined operating requirements of the deployment.

At the hardware level, electric motorcycles, swappable batteries and battery swap cabinets follow a common system architecture. Battery dimensions, electrical interfaces, cabinet compatibility and charging architecture need to remain consistent so that additional units can enter the same network without creating new integration problems.

At the network level, TYCORUN has to match vehicle demand, battery inventory and charging capacity. The planned 5,000+ battery pool is designed to provide operating headroom while batteries are being returned and recharged, while the 80+ planned cabinets will provide distributed charging and exchange capacity across the deployment.

Site conditions are then considered when that hardware is deployed. Expected swap demand, local fleet density, environmental exposure and maintenance access influence how battery swapping infrastructure is used in the field.

Production consistency is equally important at this scale. Battery interfaces, cabinet slots and vehicle compatibility cannot depend on one-off adjustment after the equipment reaches Oman. Each additional vehicle, battery or cabinet has to fit an established technical architecture.

BYoD at The Gulf Green Mobility Forum in Oman

The BYoD project was presented at The Gulf Green Mobility Forum 2026 in Salalah, Oman, where electric motorcycles and battery swapping infrastructure were shown within the wider discussion around green mobility and transport electrification.

The event took place as Oman was introducing new electric mobility infrastructure and regulatory initiatives, giving BYoD a public setting to demonstrate an operating model built around motorcycles, swappable batteries and dedicated swap infrastructure rather than vehicle-only electrification.

The forum also brought the project in front of transport and mobility stakeholders in Oman, providing another view of the deployment beyond manufacturing and installation.

See the Battery Swapping System at the Forum

TYCORUN also documented the project during the event, showing the electric motorcycles, battery swap cabinets and battery swapping solution presented in Oman.

How the Cooperation Developed

The BYoD cooperation started with an initial deployment of 120 electric motorcycles, 350 swappable batteries and 13 battery swap cabinets. This initial rollout establishes the standardized vehicle-battery-swap architecture that enables the project to scale toward 2,000+ motorcycles, 5,000+ batteries, and 80+ cabinets across Oman.

What the BYoD Oman Project Demonstrates

Fleet Electrification Requires Energy Infrastructure

Replacing gasoline motorcycles with electric motorcycles is only one part of fleet electrification. Operators also need an energy system capable of keeping those vehicles in service, which means battery inventory and swapping infrastructure have to be considered from the start.

Battery Inventory and Charging Capacity Must Scale Together

A larger battery pool can reduce the dependence of vehicle operation on charging time, but batteries still need sufficient charging throughput before they can return to service. Battery quantity, charging capacity and swap demand therefore need to grow as parts of the same system.

Local Conditions Have to Become Engineering Inputs

Heat, solar exposure, dust, humidity, operating routes and fleet density all affect how battery swapping infrastructure should be deployed. The BYoD project shows why a large-scale battery swapping system has to be configured around the operating market rather than treated as a fixed collection of products.