Build-to-Order (BTO) production (also known as Make-to-Order) refers to a manufacturing management model where carmakers schedule and execute vehicle production based on confirmed customer orders and delivery timelines, rather than relying on market sales forecasts to build up stock in advance. Its core philosophy revolves around aligning production directly with actual consumer demand, minimising inventories of raw materials, work-in-progress (WIP), and finished vehicles through waste elimination to achieve a lean, demand-driven manufacturing operation.
This model fundamentally contrasts with the traditional "forecast-driven" approach (Make-to-Stock)—which relies on volume predictions to initiate mass production, effectively passing inventory holding pressures onto dealerships and frequently leading to oversupply and tied-up capital. In contrast, BTO starts directly with the end consumer: dealerships submit bookings based on actual customer specifications, which headquarters aggregates to coordinate component procurement and assembly scheduling. Once vehicles roll off the production line, they are dispatched directly to designated collection points, establishing a seamless closed-loop chain of "order–procurement–production–delivery".
The primary advantage of Build-to-Order production lies in lowering inventory holding costs and accelerating working capital turnover. For instance, following Dongfeng Passenger Vehicle’s rollout of BTO in 2018, its total value-chain inventory dropped by 43.3%, significantly freeing up capital tied to finished vehicles and spare parts. Meanwhile, FAW-Volkswagen utilised BTO alongside a Just-In-Time (JIT) digital control system to enable direct-to-workstation component deliveries, yielding annual cost savings of RM600,000,000 to RM700,000,000 and reducing parts stockholding pressure on suppliers by 30% to 50%.
For car buyers, BTO enables a greater degree of bespoke personalisation and optional equipment choices. Under Changan Automobile, marques like Avatr and Deepal have leveraged the C2M (Customer-to-Manufacturer) model to expand available configuration combinations from 200 to over 7,000 variations, allowing assembly lines to handle diverse, highly customised orders concurrently.
Running an efficient BTO system demands end-to-end data synchronisation and flexible manufacturing capabilities. It requires seamless digital integration across every touchpoint—ranging from showroom demand forecasting and supply chain procurement to rapid tooling changeover and mixed-model line scheduling on the plant floor. However, BTO is not without practical hurdles: longer delivery lead times remain the chief drawback, as customers often have to wait several weeks or even months between placing a booking and taking delivery. Furthermore, early iterations of BTO in the Chinese automotive market faced criticism for being a one-sided cost-cutting measure by manufacturers, where buyers gained little actual customisation while bearing the brunt of placing deposits and enduring lengthy waiting periods.
BTO has evolved from early trials by joint-venture carmakers into standard practice across Chinese domestic brands and New Energy Vehicle (NEV) players. In the NEV segment, where prolonged storage of core components like traction battery packs can degrade performance and operational lifespan, producing strictly to order helps narrow the timeframe between rolling off the line and customer handover, safeguarding vehicle quality. Moving forward, the industry has largely shifted from pure BTO toward a hybrid "BTO + safety buffer stock" approach—where carmakers formulate baseline production schedules and maintain strategic buffer stock against demand forecasts, fulfilling urgent bookings directly from stock before replenishing units based on incoming order volumes. This balanced framework strikes a practical compromise between customisation flexibility and prompt delivery efficiency, rapidly establishing itself as the prevailing industry benchmark.