AMRs in Manufacturing: 5 Applications Worth Automating

Not every material-handling application needs an AMR. But some are almost made for them.

The challenge is knowing which applications are worth automating — and where an Autonomous Mobile Robot (AMR) can deliver measurable value.

In manufacturing, material movement is often one of those necessary activities that doesn’t directly add value to the product. Raw materials need to reach production. Work-in-progress needs to move between processes. Components need to be replenished. Finished goods need to get where they’re going.

When those movements happen repeatedly throughout a shift, they can consume significant amounts of employee time, create bottlenecks, and limit production flexibility.

That’s where AMRs can make a difference.

Unlike fixed material-handling systems, AMRs can navigate dynamic environments and adjust their routes as production requirements change. But the goal isn’t to automate material movement simply because the technology is available.

The goal is to identify the applications where automation can create the most value.

5 Applications Worth Automating With AMRs

1. Raw Material Delivery

Getting materials to the right place at the right time is fundamental to keeping production moving.

In many facilities, operators or material handlers make repeated trips to retrieve raw materials, components, totes, or other supplies. Those trips may only take a few minutes, but repeated throughout the day, they can add up quickly.

An AMR can automate these recurring material runs, transporting materials from a warehouse, staging area, or supermarket directly to the production floor.

This can be especially valuable when:

  • Materials are delivered to production multiple times per shift
  • Production areas are spread throughout the facility
  • Employees regularly leave their workstations to retrieve materials
  • Material demand changes throughout the day
  • Forklifts are being used for relatively small or repetitive movements

The opportunity isn’t simply eliminating walking or driving time. It’s allowing employees to spend more of their time on work that requires their skills and attention.

2. Work-in-Progress Movement

Manufacturing processes rarely happen in one location.

A part may move from machining to inspection, from assembly to testing, or through several production cells before it’s complete. When those transfers are handled manually, material can spend unnecessary time waiting for the next operation.

AMRs can provide a consistent method of moving WIP between processes while adapting to changing production requirements.

This can be particularly useful in high-mix manufacturing environments where production routes and layouts change frequently.

Instead of building permanent infrastructure around today’s process, an AMR can provide a flexible material flow solution that can evolve with the operation.

3. Line-Side Delivery and Replenishment

Keeping production supplied is critical to maintaining throughput.

When components run low at a workstation, someone has to stop what they’re doing and retrieve more. If that happens frequently across multiple production areas, the cumulative impact can be significant.

AMRs can automate these replenishment runs by delivering components, totes, or other materials directly to the point of use.

For example, an AMR can:

  • Receive a replenishment request
  • Pick up the required materials
  • Navigate to the appropriate workstation
  • Deliver the materials
  • Return for its next assignment

This creates a more consistent material flow while reducing the number of manual trips required from production personnel.

And because AMRs can be dynamically dispatched, the system can respond to actual production needs rather than following a fixed schedule.

4. Kitting and Assembly Support

Kitting is another application where AMRs can connect material movement with production.

Components can be gathered into kits and transported directly to an assembly or production area. Finished kits can then be moved to their next destination without requiring an employee to handle each transfer.

The AMR provides the mobility, while the equipment mounted to it determines how materials are transported.

Depending on the application, AMRs can be configured with carts, racks, roller conveyors, bins, shelves, or other custom payload solutions.

That flexibility is important because there isn’t a single material-handling configuration that works for every manufacturing environment.

The right combination of AMR and top module can be designed around the size, weight, quantity, and handling requirements of the materials being transported.

5. Finished Goods and Internal Logistics

Material movement doesn’t stop when production is complete.

Finished products may need to move from production to staging, inspection, warehousing, or shipping. In facilities with frequent internal transportation, these movements can represent another opportunity for automation.

An AMR can move finished goods through the facility without requiring an employee or forklift operator to make each trip.

This can be particularly attractive when:

  • Travel distances are significant
  • Routes are repetitive
  • Products move between several locations
  • Forklifts are frequently tied up with smaller loads
  • Production volume creates a high number of transportation tasks

Automating these movements can help create a more predictable internal logistics process while freeing personnel and other equipment for higher-value activities.

What Makes an Application Worth Automating?

Not every material movement justifies an AMR.

Before evaluating a specific robot or system, look at the process itself.

A few questions can help determine whether an application is a good candidate:

How frequently does the movement happen?

A task that occurs once a day may not justify automation. A task that happens dozens or hundreds of times per shift deserves a closer look.

How far does the material travel?

Longer travel distances generally create more opportunity to reduce non-value-added labor.

How much employee time is involved?

Look beyond the actual transportation time. Consider the time spent walking to retrieve a cart, waiting for a forklift, delivering the material, and returning to the workstation.

Is the route repetitive?

Highly repetitive transportation tasks are often strong candidates for automation.

How often does the process change?

If your facility regularly changes layouts, production schedules, or material destinations, flexibility becomes an important consideration.

What is the payload?

The size, weight, dimensions, and handling requirements of the material all influence what type of AMR and payload solution will be appropriate.

What happens when the material doesn’t arrive on time?

A material delivery problem that creates production downtime may have a much greater impact than the transportation task itself.

These factors help determine whether an AMR can provide a meaningful return — and what type of system would be appropriate.

AMRs vs. Conveyors and AGVs

AMRs aren’t automatically the best solution for every material-handling application.

Conveyors can be highly effective when materials consistently move between the same locations. AGVs can also be a good fit for predictable, defined transportation routes.

The advantage of an AMR is flexibility.

AMRs use sensors and navigation technology to move through their environment and dynamically determine their routes. That makes them particularly attractive for facilities where layouts, traffic patterns, production requirements, or destinations may change.

The right question isn’t:

“Are AMRs better than conveyors or AGVs?”

It’s:

“Which technology best fits the application?”

In some cases, the answer may be an AMR. In others, a conveyor, AGV, or another automation solution may make more sense.

Start With One Application

One of the advantages of AMRs is that manufacturers don’t have to automate their entire material-handling operation at once.

Start with one repetitive, measurable application.

Identify the current process. Measure the time and resources involved. Determine what is causing the inefficiency. Then evaluate whether an AMR can improve the process.

From there, the application can be tested, measured, and refined.

If it delivers the expected results, the same approach can be applied to other material-handling challenges throughout the facility.

This creates a practical path toward automation without requiring a complete overhaul of existing operations.

The Right AMR Application Starts With the Process

AMRs can help manufacturers improve material flow, address labor challenges, reduce repetitive transportation tasks, and create greater flexibility within their facilities.

But the robot is only one part of the solution.

The most successful AMR applications start with understanding the process — the material, payload, distance, frequency, workflow, production requirements, and challenges that make up the application.

At Sure Controls, we start there.

Our team can help evaluate your material-handling process, determine whether an AMR is the right fit, and develop the automation solution around your specific requirements.

Because the best AMR application isn’t necessarily the biggest one. It’s the one that solves a real manufacturing problem.