Seer Robotics Lifting Robots

Seer Robotics lifting robots move racks, carts, and heavy loads autonomously, using laser navigation to streamline material flow in warehouses and factories.

  • SEER Robotics AMB-150 (AMB-150)
  • SEER Robotics AMB-300 (AMB-300)
  • SEER Robotics AMB-300XS (AMB-300XS)
  • SEER Robotics SBA-400EU (SBA-400EU)
  • SEER Robotics AMB-300JZ (AMB-300JZ)
  • SEER Robotics AMB-1000JS & AMB-500JS (AMB-1000JS & AMB-500JS)
  • SEER Robotics SJV-SW600 (SJV-SW600)

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Seer Robotics Lifting Robots for Automated Material Flow

Lifting robots are compact autonomous mobile platforms that drive beneath a rack, cart, or fixture, raise it with an integrated lifting mechanism, and transport it to a destination. This goods-to-person and goods-to-line pattern removes long walking and pushing distances from daily operations, letting people focus on picking, assembly, and quality tasks while robots handle transport. This category presents lifting robots built on Seer Robotics navigation technology, suited to warehouses, e-commerce fulfillment, and manufacturing intralogistics.

The concept is deliberately simple: standardize loads onto liftable racks or trolleys, and let the fleet move them. Because the robots slip underneath their loads, they use aisle space efficiently and can operate in dense layouts where larger vehicles would struggle.

Key Capabilities

  • Integrated lifting mechanism: A powered platform that raises and lowers racks, shelves, or custom fixtures for transport.
  • Laser SLAM navigation: Localization against the facility's natural features, typically without tape, wires, or reflectors.
  • Precise positioning: Accurate docking under racks and at handover stations, supporting repeatable workflows.
  • Fleet scheduling: Central software that assigns tasks, manages traffic, and coordinates charging across many robots.
  • Safety sensing: Scanning sensors and protective behavior for operation among people and manual equipment.
  • System integration: Interfaces to WMS, MES, and ERP systems so transport tasks flow automatically from business processes.

Typical Applications

  • Goods-to-person picking: Bringing rack shelves to pick stations in e-commerce and distribution operations.
  • Line-side replenishment: Delivering components to production cells and returning empties in manufacturing plants.
  • Work-in-progress transport: Moving assemblies between process steps without manual carts.
  • Order consolidation: Staging and moving completed orders toward packing and shipping areas.
  • Cart logistics: Automating existing trolley-based flows by adapting carts for robotic lifting.

Planning a Lifting Robot Deployment

Start by cataloging the loads to move: their footprints, weights, and current storage or transport method. Load standardization is the main design lever; the more uniform the racks or carts, the simpler the automation. Next, map flows and volumes to size the fleet, and identify station locations for picking, replenishment, and charging. Floor quality, aisle widths, and clearance heights should be checked along all routes. On the software side, decide how tasks originate, whether pushed from a WMS or triggered by operators, and what reporting the operation needs. Pilot deployments covering one focused flow are a proven way to validate assumptions before scaling.

Pricing and Availability

Lifting robot solutions are quoted per project, since payload class, fleet size, rack design, software integration, and site conditions all shape the configuration. Submit an inquiry describing your loads, flows, and facility, and a specialist can respond with a recommended setup, a tailored quotation, and current availability details. No pricing is published, as each deployment is engineered to its requirements.

Frequently Asked Questions

What loads can a lifting robot move?

Models in this segment cover a range of payload classes for racks, carts, and fixtures. Match the robot's rated capacity and lifting interface to your load dimensions and weight during the selection process.

Do I need special racks or carts?

Loads must be liftable from underneath at defined points. Many operations adapt existing trolleys or adopt standardized racks; the right approach is settled during project design.

How do lifting robots avoid collisions with people?

They use scanning safety sensors and protective fields that slow or stop the robot when obstacles appear, combined with site traffic rules established during deployment.

Can the fleet grow after the initial installation?

Yes. Fleet management software is designed to scale, so additional robots and stations can usually be added as volumes increase, provided charging and traffic capacity are planned accordingly.

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