Robotics and Industrial Real Estate: What Should We Plan for Now?
By Brent Pennington, CCIM | Metroport Commercial Group, eXp Commercial
Robotics are no longer limited to automotive plants and highly automated manufacturing facilities. Robotic arms, autonomous mobile robots, automated forklifts, machine vision, robotic palletizing, and other forms of automation are becoming relevant to a broader range of industrial businesses.
For an industrial business owner, the natural question is what robotics, or automation might eventually make sense for the operation. From a real estate perspective, there is another question worth asking: Will the facility be capable of supporting it?
You don’t need to know how fast robotics adoption occurs to know that a 7–10 year real estate decision should not ignore it. A company signing a long-term lease or purchasing an industrial building today is making a real estate commitment that could extend across several generations of technological change.
That doesn’t mean every industrial user needs a specialized “robotics-ready” facility. In fact, there probably isn’t a universal robotics-ready specification. A robotic manufacturing cell, a fleet of autonomous mobile robots, and a highly automated storage system can create very different building requirements.
The more practical question is this: What should we be thinking about today so the real estate doesn’t unnecessarily limit the technology the business may want tomorrow?
1. The Floor May Matter More Than We Think
Robotics makes the industrial floor more important, and not simply because of load capacity. A conventional warehouse slab primarily needs to support inventory, pallet racking, forklifts, and normal industrial activity. Robotics and advanced manufacturing can introduce different requirements.
For forklifts and standard pallet racking, a conventional slab in the 5 to 6 inch range, at 3,000 to 4,000 PSI, is often sufficient. Robotics changes the calculation from basic strength to surface precision.
Fixed robotic equipment may need to be anchored to the slab. CNC equipment and precision manufacturing can create concentrated loads or sensitivity to vibration. Autonomous mobile robots, or AMRs, introduce another consideration: the quality and consistency of the surface across which they travel.
AMRs and Autonomous Forklifts: autonomous equipment relies on optical, LiDAR, or magnetic guidance. Surface deviations, unsealed construction joints, rough expansion transitions, and minor slopes can cause sensor misreads and premature drive-wheel wear.
Anchor Points and Vibration: heavy fixed robotic arms and automated cells transfer dynamic torque loads into the slab. Precision CNC machinery can require isolation pads or thicker slab sections to damp vibrations that compromise tolerances.
For conventional industrial users, brokers often think about a slab primarily in terms of condition and load capacity. Robotics can add another consideration: precision. Floor flatness, levelness, joints, transitions, slopes, damage, and other surface irregularities can affect how automated equipment moves and operates.
A floor that performs perfectly well for forklifts may not necessarily perform equally well for autonomous equipment.
That doesn’t mean every building intended for robotics needs an ultra-flat floor. Different robotic systems have different tolerances. It does mean that floor flatness and levelness, the FF and FL numbers under ASTM E1155, should be reviewed during due diligence, not after equipment arrives at the dock.
The robotics supplier, integrator, or engineer should ultimately establish the technical requirements. The real estate advisor’s role is to make sure those questions are being asked before the building decision is made.
2. Robotics May Make Building Geometry More Important Than Building Size Alone
Some of the biggest changes robotics may bring to an industrial facility involve material movement. Autonomous mobile robots and other automated material-handling systems can change how raw materials, work-in-process, and finished goods move through a building.
Total square footage alone can be a misleading metric. A 50,000-square-foot building with awkward column spacing can offer less functional capacity than a 40,000-square-foot clear-span layout.
That makes building geometry and circulation increasingly important. Column spacing, aisle widths, door locations, permanent walls, uneven transitions, congested dock areas, and awkward building depths can interfere with an automated operation even when the building has enough total square footage.
Column Grids: tight 30 by 30 or 40 by 40 foot column bays can obstruct mobile equipment routes and limit where continuous conveyor lines can go. Wider bays, 50 by 50 feet or larger, leave clearer transit corridors.
Shared Traffic Paths: autonomous equipment operates alongside employees, manual forklifts, and staging areas. Narrow primary drive aisles force speed reductions and increase route stoppages.
Transition Zones: ramps, uneven grade transitions between building additions, and narrow interior roll-up doors can restrict mobile robot circulation.
A manufacturer evaluating a facility should therefore think about flow as well as size. Where does raw material enter? How does it reach production? How does work-in-process move between operations? How does finished product eventually reach shipping?
Employee movement also matters. Automated equipment may share portions of the facility with employees, forklifts, production equipment, and visitors. A building that allows all of those activities to move logically through the operation may provide much greater flexibility than another building of exactly the same size.
This is why a simple square-footage requirement doesn’t tell the entire story. Robotics may make building geometry more important than building size alone.
3. Power, Charging, and Distribution Need to Be Considered Together
Robotics provides another reason to understand electrical infrastructure carefully. The question isn’t simply whether the building has 480-volt three-phase power or how many amps are currently installed.
A robotic system can include the robot itself along with controllers, conveyors, machine tools, sensors, vision systems, safety equipment, compressors, cooling equipment, and other supporting infrastructure. As automation increases, the combined electrical requirement can become substantially different from the operation that originally occupied the building.
Mobile robotics can add charging requirements as well. A company operating a fleet of AMRs or autonomous forklifts needs to think about where those units will charge, how much electrical capacity charging will require, whether charging areas interfere with circulation, and how easily additional charging locations could be added as the fleet grows.
Fleet Charging Stations: fast-charging AMRs require localized, high-draw circuits. Staging those stations without sufficient panel capacity nearby can create bottlenecked charging schedules.
Distribution Infrastructure: pulling rigid conduit across a finished slab for every line change gets expensive quickly. Overhead busway lets equipment be plugged in, moved, and re-routed without cutting concrete.
Transformer Lead Times: utility upgrades in major DFW submarkets can take 6 to 12 months. Verifying both building-level panel capacity and available transformer service from the utility provider needs to happen before lease terms are finalized, not after.
Industrial users should therefore consider capacity, charging, and distribution together. Can the building support additional load? Can power be economically delivered to different parts of the production floor? Can electrical distribution change as equipment and production lines move?
Available utility capacity should also be investigated. A building that satisfies today’s electrical requirement may become a constraint if the tenant substantially increases automation several years into a long-term lease.
4. Communications Are Becoming Production Infrastructure
Robotics is easy to think about primarily as mechanical equipment, but modern automation is increasingly dependent on communications. Robots, sensors, machine vision, production equipment, material-handling systems, and software systems increasingly exchange information with one another.
That doesn’t mean an industrial broker needs to become a network engineer. It does mean that communications should increasingly be treated as part of the facility infrastructure rather than simply asking whether internet service is available.
Metal pallet racking, structural steel columns, and running machinery can create signal bounce, dead zones, and interference for standard commercial Wi-Fi, which is part of why communications infrastructure deserves the same scrutiny as electrical service.
Fiber availability, conduit, cable trays, communications pathways, wireless coverage, and the ability to distribute data throughout the production area can affect how easily automation is installed or modified. A building suited for automation typically benefits from dual or redundant fiber entries to avoid communication dropouts, along with adequate overhead mounting points for industrial wireless access points or private 5G distribution. Mobile robotics can make network continuity particularly important because equipment may need reliable communications as it moves through different portions of the facility.
If communications fail, autonomous fleets can shut down in place, which is one reason data infrastructure deserves the same early attention as power.
The specific communications technology will continue to change. The more durable real estate question is whether the building provides the infrastructure and pathways to make future changes relatively easy.
5. Clear Height May Have a New Role
Clear height has traditionally been discussed primarily in terms of warehouse storage. Higher ceilings allow taller racking and greater cubic storage capacity.
For manufacturing and automated operations, vertical space can serve another purpose. Electrical distribution, cable trays, communications, compressed air, process piping, HVAC ductwork, exhaust systems, fire protection, sensors, and other services can be distributed above the production floor.
That creates what might be thought of as an overhead infrastructure zone. Production equipment, robotic cells, and manufacturing lines can then be modified underneath that infrastructure with less interference between building systems and the changing production layout.
Clear height also affects life safety systems. Dense vertical automation, automated storage and retrieval systems, and plastic-heavy mobile fleets can change a building’s fire loading profile. Higher clear ceilings can allow for Early Suppression Fast Response, or ESFR, sprinkler systems, which often eliminates the need for complex in-rack sprinkler modifications that would otherwise restrict floor flexibility.
Different forms of automation will create very different clear-height requirements. A robotic arm serving a manufacturing cell may have relatively modest vertical requirements, while a highly automated storage and retrieval system could benefit substantially from greater clear height.
That is why I would be cautious about establishing a single “robotics-ready” clear-height standard. The more useful question is whether the building provides enough vertical space for both the contemplated automation and the infrastructure required to support it.
For some manufacturing users, additional clear height may therefore have value even when high-bay racking isn’t part of the plan. Clear height can provide not only storage capacity, but technological flexibility.
6. Robotics May Change the Labor and Location Equation
Robotics is often discussed as a way to reduce dependence on labor. That may be true for certain repetitive production, warehouse, or material-handling functions, but automation doesn’t necessarily eliminate the labor question.
It can change the labor question.
An increasingly automated operation may depend less on large numbers of employees performing repetitive tasks while becoming more dependent on technicians and employees capable of operating, maintaining, programming, and troubleshooting automated systems.
That has implications for industrial site selection.
A traditional labor study may focus heavily on workforce size, wage rates, commuting patterns, and the availability of warehouse or production employees. For an increasingly automated manufacturer, the availability of technical labor may become another important consideration.
This could affect how companies evaluate different industrial submarkets. A lower-cost location with abundant conventional labor may not necessarily be the best location if the operation increasingly depends upon technicians, engineers, maintenance personnel, or other specialized employees.
Robotics therefore shouldn’t be viewed only as a building issue. It may eventually influence where an industrial business chooses to locate as well.
7. Robotics Can Become a Lease Issue
There is another aspect of robotics that should concern a tenant representative: who pays for the improvements required to accommodate it, and what happens to those improvements at the end of the lease?
A tenant introducing automation may install electrical distribution, busway, charging infrastructure, compressed air, specialized HVAC, equipment foundations, floor reinforcement, penetrations, communications infrastructure, guarding, or other improvements.
Some of those improvements may be highly specific to the tenant’s operation. Others may increase the long-term usefulness of the building for future industrial occupants.
That distinction can become important during lease negotiations.
Which improvements are landlord work and which are tenant work? Will the landlord provide a tenant-improvement allowance? Who owns the improvements after installation? Can the tenant remove them? Is the tenant required to restore the building when the lease ends?
Equipment foundations, floor penetrations, electrical improvements, mechanical systems, and overhead infrastructure can create significant restoration obligations if they aren’t addressed clearly in the lease. Removing floor anchors, patching precision slabs, and taking down overhead infrastructure can run into the hundreds of thousands of dollars when restoration terms aren’t clarified up front.
For a tenant that anticipates substantial automation during a long-term occupancy, these questions may deserve attention before the lease is signed rather than several years later when the equipment is being installed.
Different Robots Create Different Real Estate Requirements
Underlying all of these considerations is an important distinction: robotics is not one technology.
A fixed robotic arm used for welding, assembly, machine tending, or palletizing may require anchoring, power, guarding, compressed air, exhaust, material delivery, and supporting infrastructure. A mobile robot moving materials through a facility may be much more sensitive to floor conditions, circulation, obstacles, communications coverage, and charging locations.
Automated storage systems can create another set of considerations involving clear height, floor tolerances, fire protection, structural requirements, and building geometry.
That is why there probably isn’t a universal robotics-ready industrial building.
The objective shouldn’t necessarily be to select a facility designed around a particular robot. It should be to select real estate with enough physical and infrastructure flexibility to accommodate the forms of automation the business could reasonably adopt during its occupancy.
Bring Robotics Into the Site-Selection Conversation Earlier
Perhaps the most practical change is simply when the conversation occurs.
Industrial companies often begin thinking seriously about automation after they have already occupied the building. At that point, the facility’s limitations are already part of the equation.
For a company considering an expansion, relocation, lease renewal, or acquisition, robotics and automation should be part of the real estate discussion before the commitment is made. That doesn’t require knowing exactly which equipment will eventually be purchased.
Instead, it requires understanding where the business is going. What operations are likely candidates for automation? Where are labor constraints developing? How might material handling change? Could future equipment require more power, charging infrastructure, different environmental controls, or a different production layout?
Most importantly, what characteristics of this particular building could prevent the company from making those changes?
Those are increasingly legitimate industrial site-selection questions.
The Goal Isn’t a Robotic Building
The objective isn’t to find a futuristic industrial building filled with technology. It is to avoid selecting real estate that unnecessarily limits the technologies the business may eventually want to adopt.
Robotics will continue to change, as will automation, manufacturing equipment, communications, and production methods. Industrial real estate changes much more slowly, and a lease or building purchase can commit a company to a facility for many years.
You don’t need to know how fast robotics adoption occurs to know that a 7–10 year real estate decision should not ignore it.
For industrial users, the question isn’t whether the next building has robots. The better question is whether the floor, layout, power, communications, clear height, location, and lease structure will allow the business to use them if and when the time comes.
Frequently Asked Questions
Does every industrial building need to be “robotics-ready”?
No. There probably isn’t a universal robotics-ready specification. A robotic manufacturing cell, a fleet of autonomous mobile robots, and a highly automated storage system can create very different building requirements. The more useful goal is real estate with enough physical and infrastructure flexibility to accommodate the forms of automation a business could reasonably adopt.
Why does the floor matter for robotics, not just load capacity?
Fixed robotic equipment may need to be anchored to the slab, and autonomous mobile robots are sensitive to the flatness, levelness, and consistency of the surface they travel across. A conventional 5 to 6 inch slab is often adequate for forklifts, but autonomous equipment can be affected by surface deviations and unsealed joints that a forklift would never notice. Floor flatness and levelness, the FF and FL numbers, deserve a place in due diligence when automation is being considered.
How does clear height affect a building’s ability to support automation?
Vertical space can double as an overhead infrastructure zone, carrying electrical distribution, cable trays, compressed air, ductwork, and other services above the production floor while equipment below is modified underneath it. It also affects fire protection: higher clear ceilings can allow ESFR sprinkler systems instead of the in-rack sprinkler modifications that dense automated storage often requires. Different forms of automation create very different clear-height requirements, so the useful question is whether the building has enough vertical space for both the automation and the infrastructure that supports it.
What electrical factors matter when a building may eventually support robotics?
Capacity, charging, and distribution need to be considered together, not just whether the building has 480-volt three-phase power or how many amps are currently installed. A robotic system’s combined electrical requirement, including controllers, conveyors, sensors, and supporting equipment, can be substantially different from what the original occupant needed, and mobile robotics adds charging infrastructure to the equation as well. Utility transformer upgrades in major DFW submarkets can take 6 to 12 months, so verifying available capacity early matters.
Can robotics affect lease negotiations?
Yes. Automation-related improvements raise questions about which work is landlord versus tenant responsibility, whether a tenant-improvement allowance applies, who owns the improvements, and whether the tenant is required to restore the building at lease end. Removing floor anchors and overhead infrastructure at lease end can run into significant cost if restoration terms aren’t addressed clearly, which is why those questions are worth resolving before the lease is signed.
When should robotics be part of the real estate conversation?
Before the commitment is made, not after the building is already occupied. That doesn’t require knowing exactly which equipment will eventually be purchased. It requires understanding where the business is going, what operations are likely candidates for automation, and what characteristics of a particular building could prevent those changes later.
About the Author
Brent Pennington, CCIM | Advisor, Senior Vice President
Metroport Commercial Group (eXp Commercial)
Brent Pennington, CCIM, is an Advisor, Senior Vice President with Metroport Commercial Group (eXp Commercial), specializing in tenant representation, buyer representation, and the sale of excess property for industrial business owners and chain operations. A Baylor University graduate with degrees in Accounting and Entrepreneurship, Brent brings a rare combination of financial literacy and operational credibility to every client engagement.
With 35+ years of prior experience as a business owner in manufacturing, distribution, and retail, he understands industrial real estate from both sides of the transaction, as the operator who occupied the space and as the advisor who guides owners through dispositions, acquisitions, leasing strategies, and sale-leaseback structures. That dual perspective gives his clients something most brokers cannot offer: counsel grounded in how a building functions as a business asset. Brent also serves as a mentor to newer commercial brokers and as an expert witness in litigation.
As a member of NTCAR and holder of the CCIM designation, the commercial real estate industry’s most rigorous analytical credential, and Accredited Land Consultant, Brent is a recognized thought leader on North Texas industrial market trends, owner exit strategies, and CRE wealth preservation.
Connect with Brent at 817-999-8266 | brent@metroportcommercial.com | metroportcre.com
The content on this site is provided for informational purposes only and does not constitute legal, financial, tax, or investment advice. Commercial real estate transactions involve complex variables that differ by property, market, and individual circumstance. Readers should consult qualified legal, tax, and financial professionals before making any real estate or business decision. Brent Pennington, CCIM, and Metroport Commercial Group (eXp Commercial) make no representations regarding the accuracy or completeness of information presented and assume no liability for decisions made in reliance on this content. All market information reflects conditions at the time of publication and is subject to change.
