The rapid acceleration of global e-commerce is fundamentally reshaping warehouse operations. Fulfillment centers are under mounting pressure to deliver orders faster, handle greater volumes, and manage increasingly complex product assortments with precision. Enterprises are turning to warehouse automation solutions to streamline their fulfillment processes with significant efficiency and performance gains. This case study examines how one of the world’s largest e-commerce and logistics providers is optimizing a critical function within its fulfillment infrastructure by leveraging our x86 super-rugged industrial computer designed for real-time control in demanding environments.
Company Background
The company featured in this case study is a global leader in e-commerce and logistics, known for operating one of the most advanced and efficient fulfillment networks worldwide. With hundreds of distribution and sortation centers, it continues to set industry standards for delivery speed, order accuracy, and throughput. To support its scale and complexity, the company has established a dedicated automation and robotics division focused on developing intelligent systems purpose-built for warehouse automation operations.
One of its recent initiatives involves deploying an Automated Storage and Retrieval System (ASRS) to manage tote movement across fulfillment stages. Within this sophisticated system is the transition of totes from picking and sorting robotics to quality inspection. This transitionary segment is where a central node is managing the conveyor routing for each tote; much like an air traffic control tower managing aircraft flow.
The Challenges
During the evaluation phase, the robotics team identified several critical limitations with their legacy infrastructure. They needed to find a replacement industrial computing platform capable of managing their high-specification tote transfer solution as it is responsible for directing and routing totes throughout a high-density, automated conveyor network.
Legacy System Obsolescence
As the ASRS architecture scaled in complexity and throughput, the existing computing hardware quickly became a bottleneck. The processor was nearing its end-of-life and lacked the computational horsepower required to support modern robotics, real-time automation control, and data-intensive workloads. This system was no longer viable for mission-critical operations, especially under the demand for increased speed, intelligence, and scalability.
High-Density LAN Connectivity Requirements
The updated ASRS design schema introduced more interconnected zones, each requiring communication with multiple intelligent systems ranging from robotic picking arms and AGV/AMRs to vision inspection systems and supervisory controllers. Additionally, the proliferation of IoT sensors demanded a centralized computing node with significantly expanded I/O capabilities. The limited number of network ports on the legacy system hindered connectivity and scalability. To address this, the team prioritized an edge computing solution with multi-port LAN capabilities while maintaining a compact footprint.
Seamless Integration and Reliability in High-Voltage Environments
The replacement system needed to integrate directly into existing high-voltage electrical cabinets, eliminating the need for costly retrofits or redesigns. This imposed strict physical and environmental constraints on the new hardware. The solution required not only a matching form factor but also ensure 24/7 operation with robust thermal management, EMI shielding, and mechanical resilience.
Pre-Certification and Device Qualification Necessities
Industrial-grade compliance was non-negotiable. The hardware platform needed to meet UL 61010 safety certification to ensure safe deployment within electrical enclosures and satisfy internal audit requirements. In parallel, the robotics team required the system to be qualified under AWS IoT Greengrass for seamless edge-to-cloud integration.
The Solution
To overcome the limitations of the legacy infrastructure, the robotics team deployed Premio’s RCO-3000 Series Small Form Factor Computer. This compact yet powerful industrial platform is purpose-built to operate in harsh environments where reliability, performance, and real-time responsiveness are essential. The system’s advanced architecture and modular flexibility aligned precisely with the project’s requirements for intelligent tote management within a high-throughput ASRS framework.
Real-Time Processing
Powering the RCO-3000 Series is a 13th Gen Intel® Core™ TE processor, a CPU platform dedicated to high-performance processing while maintaining extreme efficiency with its performance hybrid architecture. Paired with DDR5 memory, it was engineered to deliver low-latency responses and consistent high-throughput processing for precise execution of routing algorithms across multiple tote conveyor zones.
Rich IIoT-Centric Connectivity
RCO-3000 offers versatile I/O compatibility directly on-board for integration with essential industrial components whether through legacy protocols such as COM and DIO to modern devices with LAN and USB. The system consolidated various IoT sensors and devices from PLCs to robotic sensors to acts as a centralized controller for coordinating complex robotics across the tote handling environment.
Modular EDGEBoost I/O Accommodations
To meet the need for extensive network connectivity requirement, RCO-3000 supports modular EDGEBoost I/O technology. This expansion capability allowed the robotics team to configure up to four additional LAN ports for applications such as EtherCAT communication, upstream network bridging, and debug interfaces all while maintaining a compact footprint.
Rugged Electrical Cabinet Integration & Durability
The integration process was rather seamless. The robotics team confirmed that the RCO-3000 met all the necessary industrial features from form factor to mechanical durability to be retrofitted into their high-voltage equipment cabinet. By following fanless and cableless architecture the RCO-3000 can operate under high levels of shock, frequent vibration, fluctuating power, and extreme temperatures for uninterrupted performance in warehouse environments.
UL 61010 Certified and AWS IoT Greengrass Qualified
To ensure compliance with industrial safety standards, the RCO-3000 Series had been tested and validated to achieve UL 61010 certification, supporting safe deployment within electrical cabinets. Additionally, the platform’s had already been AWS IoT Greengrass qualified enabling secure, cloud-integrated workflows for edge data aggregation, real-time telemetry, and centralized analytics.
The Benefits
Through its collaboration with Premio, the company successfully transitioned to a robust and future-ready tote conveyor management infrastructure. While the RCO-3000 Series provided the technical foundation, Premio’s role extended beyond product delivery by offering the kind of engineering partnership and operational support rarely found in conventional e-commerce-based hardware procurement models.
Dedicated Engineering and Sales Support
From the outset, Premio provided hands-on technical engagement, ensuring the solution was tailored precisely to the application’s demands. Rather than simply supplying off-the-shelf hardware, Premio worked closely with the robotics team to understand specific pain points and operational nuances. This collaborative approach enabled a truly customized integration process, aligning both product and support services with the customer’s broader automation goals.
Custom BIOS Configuration Support
With over 35 years of expertise in industrial edge computing, Premio brings deep knowledge in system-level firmware tuning. For this deployment, engineers delivered a custom BIOS configuration that aligned with the customer’s security protocols, boot sequences, and peripheral requirements. This level of configurability ensured optimal system behavior from the ground up, supporting both performance and compliance objectives.
Accelerated Deployment Timeline
Premio’s advanced manufacturing capabilities allowed for pre-loaded operating system images and pre-configured firmware at the point of manufacture. This plug-and-play approach significantly reduced setup time and complexity, enabling faster rollout across multiple facilities. As a result, the company accelerated its deployment timeline and minimized IT overhead during installation phases.
Conclusion
By partnering with Premio, the e-commerce leader successfully upgraded its tote conveyor management with a rugged, high-performance solution tailored to the demands of its ASRS infrastructure. The RCO-3000 Series delivered the required computing power, I/O flexibility, and industrial durability. Premio’s engineering support, custom BIOS services, and streamlined deployment ensured fast, reliable integration. Together, these advantages enabled greater efficiency, scalability, and operational uptime across their automated fulfillment network.