AMC Robotics is progressing construction of a robotics manufacturing facility in Bắc Ninh, Vietnam, with commissioning of its first production line targeted before the end of 2026 and trial manufacturing expected to begin in early 2027.
The facility is being developed through wholly owned subsidiary AMCV Company Limited and is intended to produce AMC’s existing robotic products together with related core modules.
The company says the phase-one line could ultimately manufacture tens of millions of modules at maximum capacity and currently expects approximately $30 million in annual production output based on indicative purchasing interest from prospective customers in the United States, Japan, and Southeast Asia.
Both figures are forward-looking management estimates rather than contracted output. The announcement does not identify the individual module types behind the maximum-volume figure or the orders required to support the projected annual production value.
That distinction is important as the project moves from construction towards manufacturing. Installing production equipment establishes capacity; converting that capacity into stable output depends on customer orders, supply, yield, quality, test performance, labour, and how quickly the line reaches its intended cycle time.
AMC selected Bắc Ninh partly because of northern Vietnam’s established electronics-manufacturing base. The region has developed a substantial supply chain around components, printed circuit assemblies, precision manufacturing, packaging, and export logistics.
That ecosystem has relevance to robotics because modern machines combine mechanical assemblies with motors, drives, sensors, processors, communications equipment, power electronics, wiring, batteries, and control software.
The factory’s management team is led by Aron Wang, General Manager of AMCV, whose background includes more than 20 years in electronics manufacturing across chip-on-board assembly, surface-mount technology, and optical packaging.
AMC expects the local team to reach approximately 20 to 25 employees by early 2027, recruiting primarily from Vietnam’s existing electronics and precision-assembly workforce.
The relatively modest initial headcount is notable beside the stated module-capacity target. It suggests the line is being designed around a high level of automated or repeatable assembly rather than labour-intensive manual construction of complete robots.
The company has not provided a detailed factory equipment list, so the split between in-house manufacturing, final assembly, module production, and outsourced component supply is not yet clear.
That matters because “tens of millions of modules” should not be interpreted as tens of millions of finished robotic systems. A module could represent a much smaller electronic, mechanical, or sensor assembly incorporated into a complete robot.
AMC’s current product portfolio includes Kyro, a quadruped platform aimed at autonomous inspection, security, and operational tasks, and NovaArm, a warehouse logistics sorting robot.
The two machines differ substantially in physical architecture, but both depend on common production disciplines around motor control, electronics, sensing, firmware loading, quality control, calibration, and final functional test.
A manufacturing platform designed around reusable modules can help separate those common systems from product-specific mechanical structures. That makes it easier to reuse production processes across different robot families rather than building an entirely separate supply chain for each machine.
Moving from prototype production into a factory also forces design discipline. An engineering team can often correct or adjust individual prototype units by hand; a manufacturing line needs controlled bills of materials, work instructions, traceability, test fixtures, revision management, and acceptance criteria that deliver the same result repeatedly.
Those requirements frequently expose problems that are not obvious during development. Components that are easy for an experienced engineer to fit to ten machines may be unsuitable for thousands if tolerance variation, assembly access, fastening time, or calibration repeatedly slows the line.
The supply chain has to mature at the same time. Motors, gearboxes, semiconductors, sensors, circuit boards, connectors, machined parts, wiring, batteries, and other components must arrive at consistent quality and volume if the finished production line is to achieve useful utilisation.
Bắc Ninh gives AMC proximity to suppliers already supporting electronics production, but local presence does not remove qualification work. Vendors still have to meet the company’s specifications, documentation requirements, delivery schedules, and quality systems.
The Vietnam project is also intended to diversify AMC’s manufacturing footprint. For robotics businesses trying to scale, dependency on one contract manufacturer or one geography can become an obstacle when product demand rises or component availability changes.
Trial production in early 2027 will provide the first meaningful measure of the new line. The immediate objectives will be process stability, quality yield, test repeatability, and the speed at which the local team can move from controlled trial builds into routine manufacturing.
AMC has not disclosed the capital cost of the plant or confirmed firm customer volumes supporting the $30 million annual-output expectation. Those omissions mean the current announcement is best read as a manufacturing buildout milestone rather than evidence that the factory is already commercially loaded.
By year-end, the more concrete test will be whether Phase 1 reaches commissioning on schedule. After that, attention shifts away from construction progress and towards whether the plant can manufacture repeatable robotic products and modules at the scale implied by AMC’s capacity targets.
