How REEMAN Fly Boat AMR Transports 200 kg Through a 1.15 m Elevator: Real Electronics Factory Case Study

Real Customer Case | Electronics Manufacturing | Zhuhai, Guangdong, China

Table of Contents

1. What Is an AMR and Where Does Fly Boat Fit?
2. How Does Fly Boat Navigate and Integrate with Elevators and Doors?
3. Which Scenarios Suit Fly Boat vs. Other REEMAN AMRs?
4. How Does Fly Boat Compare to Alternatives and Peer Vendors?
5. Budget Tiers and Procurement Guide for Overseas Buyers
6. Certifications and Safety Standards
7. High-Frequency FAQ
8. Real Deployment Case: Zhuhai Electronics Factory

Short answer: If your facility moves 100–300 kg loads between floors and the elevator can accommodate the carrier width, the REEMAN Dual-Laser Fly Boat Factory Delivery Robot (Fly Boat AMR) can automate the route using laser SLAM navigation, reflector-assisted positioning, automatic door and elevator integration, and automatic return-to-charge. If the load exceeds 300 kg, aisles are narrower than 90 cm, or the elevator has no permitted control interface, a different REEMAN model or a custom site review is the safer path. This article uses the Zhuhai electronics factory installation—200 kg of PCB materials and bottled water through a 1.15 m-wide elevator, ~600 m loaded delivery plus ~100 m return, and ~70–90 trips per day—to show how the system works in practice.

Key points:

• Fly Boat AMR is rated for 300 kg; the Zhuhai project transports approximately 200 kg per trip.
• The 560 mm-wide robot carries a nearly 1 m-wide custom carrier through a 1.15 m-wide elevator by entering forward and reversing out.
• Reflector-assisted positioning delivers approximately ±3 cm accuracy in this installation.
• REEMAN ships to 55+ countries and regions, offers a 1-year warranty, and provides 18-hour daily online technical support plus remote deployment guidance.
• Payback depends on local labor cost, trip frequency, and total installed investment; a modeled formula is shown in the procurement section.

What Is an AMR and Where Does Fly Boat Fit?

An autonomous mobile robot (AMR) is a mobile robot that navigates using onboard sensors and a configured facility map rather than fixed floor infrastructure such as magnetic tape or QR code routes. It receives transport tasks, plans a path, detects obstacles, and completes deliveries with minimal human intervention. The key difference from a traditional automated guided vehicle (AGV) is flexibility: when the route changes, the map and task points are updated in software instead of reinstalling physical guidance.

REEMAN’s factory delivery robot lineup is built around three payload classes. Each class uses laser SLAM navigation and shares a common software architecture, but the chassis size, lift mechanism, and aisle requirements differ:

The model at the center of this case study is the Dual-Laser Fly Boat Factory Delivery Robot (Fly Boat AMR, ABOT11B). Its verified specifications include a 300 kg rated payload, chassis dimensions of 804 × 560 × 1104 mm, an optional 10 cm jacking lift, 0.3–1 m/s travel speed, a 90 cm minimum aisle width, and a 1.3 m turning radius. That combination made it the candidate for a Zhuhai electronics factory that needed to lift and move a custom metal carrier roughly 1 m wide.

How Does Fly Boat Navigate and Integrate with Elevators and Doors?

Laser SLAM Navigation with Optional Reflector Assistance

Laser SLAM navigation means the robot builds a map of the facility using its onboard LiDAR and then localizes itself by matching live sensor readings against that map. REEMAN’s Fly Boat series can operate without magnetic floor tape or QR code routes. The Zhuhai installation added reflectors at critical points—especially near the elevator—to improve localization repeatability. The technical references are approximately ±5 cm for pure laser navigation, ±3 cm with reflector codes, and ±2 cm with QR codes; this project used reflector-assisted positioning.

Elevator Integration

For delivery robots, REEMAN uses a UWB elevator gateway box + main control box + button panel to interface with a compatible elevator. The robot does not drive the elevator directly; it exchanges task requests and status with the elevator controller, while the elevator retains its own safety interlocks and door protection. The typical sequence is:

1. Arrive at the elevator waiting point and request the elevator.
2. Confirm elevator arrival and door status.
3. Enter forward and position inside the car.
4. Request the destination floor.
5. Confirm arrival at the destination floor and reverse out.

The car must have enough load capacity for the robot plus carrier and goods, and the elevator must expose a permitted control interface. These are verified during the site survey, not assumed.

Automatic Door Integration

The door subsystem uses a door gateway box + cabling + onboard LoRa module. As Fly Boat approaches the configured waiting position, the integrated system sends an open request. Once passage conditions are satisfied, the robot moves through; after it clears the doorway, the door controller completes its configured closing sequence. The door keeps its own drive and anti-pinch protection.

REEMAN Differentiators Relevant to This Project

• Out-of-the-box architecture: navigation, control, and task execution are integrated; on-site work focuses on mapping, point setup, and task configuration.
• No floor rework: laser SLAM does not require magnetic tape or QR floor codes, so rerouting after a layout change is a software update.
• Open API/SDK: sample code is available for WMS/MES/ERP integration and for linking production equipment such as conveyors or stretch wrappers.
• Factory-direct support: REEMAN is a source manufacturer with its own R&D base and factory, and it has shipped mobile robots to 55+ countries and regions.

Which Scenarios Suit Fly Boat vs. Other REEMAN AMRs?

The right model depends on load, carrier geometry, aisle width, slope, floor condition, and whether the route crosses floors or automatic doors. The following mapping uses verified REEMAN specifications and the conditions where deployment is not advisable.

How Does Fly Boat Compare to Alternatives and Peer Vendors?

Alternative Transport Technologies

Before selecting an AMR, most factories compare it against the status quo and against fixed automation. The trade-offs are flexibility, infrastructure cost, and throughput.

Vendor Evaluation Framework

Competitor specifications change by model year and region, so direct peer-brand comparisons quickly become outdated. Use the framework below to request comparable data during procurement. REEMAN figures come from the verified product data pack; the right-hand column shows what to confirm with any vendor.

Budget Tiers and Procurement Guide for Overseas Buyers

What Drives the System Cost

A Fly Boat deployment is not just the robot. Overseas buyers should budget for the full installed system and request a detailed quotation that matches their scope.

Reference ROI Model

The payback formula is:

Payback Period = Total Installed Cost ÷ Monthly Net Savings

The example labor assumptions below are for illustration only; they are not verified customer data. Replace them with your local labor cost, trip frequency, and operating allowance.

Monthly labor hours released: 80 × 26 × 5 ÷ 60 = 173.33 hours

Monthly gross labor savings: 173.33 × USD 4 = ~USD 693.33

Monthly net savings: USD 693.33 − USD 60 = ~USD 633.33

Important: These figures are modeled estimates using example labor assumptions only, not audited or customer-confirmed results. Insert your quoted total installed cost into the formula above to estimate payback for your project.

Procurement Path

1. Needs assessment: define loads, carriers, pickup/drop points, frequency, and operating hours.
2. Site survey: measure aisle width, elevator internal dimensions, door interfaces, floor condition, slope, and Wi-Fi coverage.
3. Proof-of-concept trial: map a limited zone, configure a small number of tasks, and validate carrier handling.
4. Deployment: full map, reflector installation, elevator/door integration, WMS/MES link if required, and operator training.
5. After-sales: 1-year warranty, remote deployment and operation training, and 18-hour daily online technical support.

Certifications and Safety Standards

Certifications are model-specific. The Fly Boat series models ABOT11B, ABOT20B, and ABOT30B have the following verified certifications: CE (EMC Directive 2014/30/EU), Korea MIC, Japan PSE, Taiwan NCC, and RoHS for the chassis. Standards such as ISO 3691-4, UL, ETL, and FCC are not in the current data pack, so buyers should verify conformity during procurement if these are required locally.

Safety design includes an emergency-stop button, audible-visual warnings on forklift routes, and obstacle detection with stop-or-detour behavior. For AMRs specifically, the robot stops or detours when it detects an obstacle and resumes once the path is clear. Site traffic rules are equally important: keep designated pedestrian walkways, do not walk beside or behind a moving autonomous forklift, never stand under forks or a mast, and ensure manual forklifts give way to autonomous units.

High-Frequency FAQ

Real Deployment Case: Zhuhai Electronics Factory

Customer Background and the Transport Challenge

The customer is an electronics manufacturer in Zhuhai, Guangdong, China. The facility needed to move PCB materials and bottled water from a production area to an inspection station on another floor. The required workflow had to use existing infrastructure: a production aisle approximately 1.5 m wide, an automatic door, and an elevator with internal dimensions of only 1.15 × 1.8 × 2.1 m.

The biggest engineering constraint was the elevator. The customized metal carrier that held the materials was nearly 1 m wide, while the elevator interior was only 1.15 m wide. Turning the loaded robot inside the elevator was not a viable option. REEMAN engineers solved this by optimizing reflector-assisted positioning, approach paths, entry and exit speeds, and a forward-entry/reverse-exit strategy.

Project Specifications

The Complete Workflow

1. Autonomous carrier lifting: Fly Boat drives under the customized metal carrier at the pickup point and raises it using the integrated 10 cm jacking lift.
2. Automatic door passage: the robot requests the automatic door to open, passes through, and the door closes once the robot clears the zone.
3. Production aisle navigation: Fly Boat follows the configured map along the ~1.5 m-wide aisle, accounting for the full carrier width.
4. Elevator entry: using reflector-assisted positioning, the robot aligns and enters the 1.15 m-wide elevator forward.
5. Cross-floor delivery: at the destination floor, Fly Boat reverses directly out of the elevator—no turning inside the car.
6. Automatic unloading: at the inspection station, the robot lowers the carrier and drives out from underneath.
7. Return and charging: Fly Boat takes the elevator back, travels ~100 m to the charging station, and docks for automatic recharging.

Real Customer Video

Watch the full customer case video on YouTube

Video note: The footage demonstrates the complete material-handling workflow. Because the video has been edited, its playback duration does not represent the actual time required to complete the full 700 m task.

Engineering Results

The key engineering result was proving that a 560 mm-wide robot carrying a ~1 m-wide load could reliably enter and exit a 1.15 m-wide elevator without turning inside the car. REEMAN engineers achieved this by:

• Installing reflectors to tighten localization near the elevator.
• Calibrating approach paths and entry/exit speeds.
• Programming a forward-entry and reverse-exit maneuver.
• Tuning obstacle-detection and safety margins for the wider carrier footprint.

The customer reports approximately 70–90 transport trips per day. If each trip is a complete 700 m task, total travel would be roughly 49–63 km per day; the actual trip-counting method and operating schedule should be confirmed with task logs. The project demonstrates that AMRs can be deployed within existing factory infrastructure when the site constraints are understood and addressed during commissioning.