TL;DR
Industrial facility construction is a complex, multi-phase process that typically takes 8 to 24 months and costs $75 to $142 per square foot depending on project size. The Southeast remains the nation’s largest construction region, accounting for 38% of all U.S. nonresidential starts. This guide breaks down the 12 critical phases of building an industrial facility, from pre-construction planning through ongoing maintenance, with particular depth on the concrete, site work, and paving decisions that determine long-term facility performance. Getting the foundational trades right is the single biggest factor separating a facility that lasts 5 years from one that performs for 25.
Summary: Industrial Construction Essentials
Industrial facility construction in 2026 is defined by 12 critical steps: Pre-construction planning, site preparation, foundation work, structural concrete, envelope selection (Tilt-up vs. PEMB), floor system design, exterior paving, site infrastructure, MEP coordination, commissioning, handover, and ongoing maintenance.
Average Cost: $77–$142 per square foot.
Average Timeline: 8 to 24 months.
Key Success Factor: Early engagement of concrete and site work trades to prevent subgrade failure—the leading cause of industrial facility depreciation.
Why Industrial Facility Construction in the Southeast Demands a Different Playbook
The Southeast is in the middle of a massive growth phase. Large-scale industrial, data center, and aerospace investments are fundamentally reshaping the region’s economic infrastructure, driven by excellent logistics networks, population growth, and access to major ports. In 2025, the South is projected to produce $293.7 billion in nonresidential construction starts, making it the country’s largest construction region by a wide margin.
But the nature of what’s being built is shifting. The pandemic-era boom in speculative warehouse development has slowed. Mid-size buildings (100,000 to 299,999 square feet) have emerged as the most active and resilient segment. And since 2021, a clear flight to quality has taken hold: occupiers are gravitating toward modern facilities with high clear heights, automation capabilities, and enhanced power infrastructure.
Food and beverage, grocery supply chain, and light manufacturing remain strong growth verticals for new construction, retrofits, and tenant improvements, particularly in Central Florida, Nashville, and Raleigh-Durham where inventory is low.
For anyone planning an industrial facility construction project in this environment, understanding each phase of the process, and where corners cannot be cut, is essential. This guide walks through all 12 critical steps, with particular focus on the concrete, paving, and site work decisions that most guides gloss over but that ultimately determine whether your facility performs as designed.
If you’re planning a project in the Southeast and need a multi-trade concrete and site work partner, contact Wright Construction to discuss your scope.
At-a-Glance: Industrial Construction Methods Compared
Dimension | Pre-Engineered Metal (PEMB) | Tilt-Up Concrete | Hybrid (Steel Frame + Concrete Walls) |
|---|---|---|---|
Best For | Simple storage, smaller footprints, fast timelines | Temperature-controlled, high-durability, 50K+ SF | Large distribution centers, automation-ready |
Typical Cost | $20-$40/sf (shell only) | Higher upfront, lower lifecycle cost | Moderate, balances both |
Construction Speed | Fastest (prefabricated off-site) | Moderate (curing time required) | Moderate |
Thermal Performance | Requires added insulation | Superior (concrete thermal mass) | Good with insulated panels |
Durability | Susceptible to denting and corrosion | Minimal maintenance, high impact resistance | Varies by design |
Fire Resistance | Requires added protection | Inherently fire-resistant | Good |
Design Flexibility | Limited modification post-manufacture | High during design, costly to change mid-build | Highest overall |
1. Pre-Construction Planning and Site Selection
Best for: Setting the entire project up for success before a single piece of equipment hits the ground.
Pre-construction is the most undervalued phase in industrial facility construction. It typically spans 3 to 6 months and establishes the foundation for every decision that follows: scope definition, budget calibration, schedule development, and risk identification.
Key activities include:
Defining project type (manufacturing vs. warehouse vs. distribution vs. cold storage)
Zoning verification and environmental assessments
Geotechnical investigation and soil testing
Utility capacity analysis (power, water, sewer)
Engaging key trade contractors early for constructability input
Practitioners consistently report that early contractor involvement prevents costly rework. A project team at Keeley Construction noted that things like sewer capacity, transformer lead times, and water access can become serious hang-ups if not handled early, and that preconstruction helps spot those friction points in advance.
Power is an especially critical consideration. At a recent Bisnow Industrial Southeast Summit, panelists from FCL Builders emphasized that power concerns are top of mind for every development project, affecting site selection, construction approach, and long-term operational efficiency. Cold storage facilities and data centers draw far more power from the grid than traditional warehouse and distribution buildings.
For a detailed framework on organizing this phase, our commercial concrete project planning checklist covers the coordination steps that prevent downstream problems.
Common pitfalls:
Selecting a site based on price alone without confirming utility capacity
Skipping geotechnical investigation (this directly impacts foundation design and cost)
Waiting until design is complete to engage concrete and site work contractors
The 2026 “Impact Gap”: Power & Data Infrastructure
As automation and EV fleet adoption accelerate, the “Impact Gap” between a site’s available power and its operational needs has widened.
EV Readiness: New facilities must now account for heavy-duty EV charging pads, requiring reinforced concrete thick enough to handle the concentrated weight of battery-electric Class 8 trucks.
Automation Loads: Automated Storage and Retrieval Systems (ASRS) create dynamic loads that differ from static racking; this requires a Level 3 Structural Audit during the design phase.
2. Site Preparation and Earthwork
Best for: Establishing the physical platform that every other trade builds upon.
Before any structure goes up, the site itself must be prepared to handle the loads and drainage requirements of an industrial facility. This phase includes clearing, mass grading, subgrade preparation, and installation of temporary erosion controls.
Critical elements:
Clearing and grubbing to remove vegetation, topsoil, and debris
Cut-and-fill grading to establish final elevations
Subgrade compaction to specified densities
Drainage system rough-in (storm pipe, swales, temporary retention)
Stone base installation for building pads and paving areas
Southeast-specific challenges make this phase especially consequential. Clay soils are prevalent across Tennessee, Alabama, and the Carolinas. These soils expand and contract with moisture changes, creating differential settlement risks that can crack slabs and buckle pavements years after construction. High water tables in coastal areas add another layer of complexity.
The quality of the stone base directly determines the performance and longevity of both the concrete slab and the exterior pavement. Cutting corners on compaction or stone depth during this phase is one of the most common, and most expensive, mistakes in industrial facility construction.
What practitioners say:
Sometimes a seemingly inconsequential product selection, one made to bring down construction costs, can have monumental impact on site performance and safety downstream, resulting in costly closures and repairs. That observation from FCL Builders applies nowhere more than in subgrade and base preparation.
3. Foundation Construction
Best for: Supporting the structural loads, equipment weights, and operational demands that define industrial use.
Industrial foundations are not residential foundations scaled up. They must accommodate heavy equipment, racking systems, vehicle traffic, and dynamic loads from machinery, all while resisting settlement in soils that may be far from ideal.
Foundation types for industrial facilities:
Slab-on-grade: The most common approach for warehouses and distribution centers. Industrial slabs range from 6 to 12 inches thick depending on anticipated loads and typically include steel fiber or rebar reinforcement with carefully designed joint patterns to control cracking.
Pier foundations: Used when soil conditions cannot support spread footings or when concentrated point loads from heavy equipment require deeper bearing. These consist of concrete piers or beams set deep into the ground.
Deep foundations (driven piles or drilled shafts): Required in areas with poor bearing capacity at shallow depths, common in parts of the Gulf Coast and river delta regions.
One coordination point that many project teams miss: the foundation engineer and the rack engineer must work together early. As Arlin Keck, Principal Engineer at Steel King Industries, has noted, the strength of the concrete slab-on-grade has become increasingly important in recent years because operations are doing everything they can to maximize storage capacity. If racking layouts change after the slab is poured, the foundation may not support the revised loads.
For a deeper look at how slab-on-grade foundations are designed and built for commercial and industrial applications, see our slab-on-grade construction guide. For broader foundation planning guidance, our commercial concrete foundations owner’s guide covers decision criteria, common problems, and what to expect from your contractor.
Common pitfalls:
Designing slabs without confirming final racking and equipment layouts
Insufficient reinforcement for actual operational loads
Ignoring soil conditions that warrant pier or deep foundation systems
4. Structural Concrete Work
Best for: Building the load-bearing skeleton that supports the entire facility envelope and interior systems.
Structural concrete encompasses the walls, columns, beams, elevator pits, and other load-bearing elements that form the building’s core structure. In industrial construction, these elements must handle not just gravity loads but also lateral forces from wind, seismic activity, and equipment vibration.
Key structural concrete components:
Columns and beams: Carry roof loads and support crane systems in manufacturing environments
Structural walls: Provide lateral bracing and often serve as fire-rated separations
Elevator pits and equipment pits: Require precise dimensions and waterproofing
Dock walls and loading dock structures: Must withstand repeated impact from trailer backing
Industrial specialists like Hermosillo recommend comprehensive planning based on Lean Construction methodologies, including pre-construction meetings to define coordination, roles, and responsibilities between all stakeholders before starting concrete pours. This approach ensures correct execution and avoids issues that could affect project quality.
For more on how structural concrete is specified, placed, and finished in commercial and industrial settings, our structural concrete contractor guide provides a thorough overview.
What to watch for:
Concrete placement sequencing that conflicts with steel erection schedules
Inadequate vibration and consolidation during pours (especially in congested rebar areas)
Insufficient curing time before loading structural elements
5. Construction Methods: Tilt-Up vs. PEMB vs. Hybrid
Best for: Choosing the structural system that balances cost, speed, durability, and operational requirements.
Every industrial facility construction project faces a fundamental decision early in design: what structural system will form the building envelope? The three primary options each serve different needs.
Pre-Engineered Metal Buildings (PEMB)
PEMBs are prefabricated steel frame structures manufactured off-site and assembled on location. For projects under 50,000 square feet, steel is generally the least expensive alternative because the fixed costs of tilt-up construction make concrete more expensive at smaller scales.
Fastest erection time of any structural system
Most economical for smaller buildings and simple storage
Limited thermal performance without added insulation
Susceptible to damage from forklift impact, corrosion, and hail
Tilt-Up Concrete
Approximately 15% of all industrial buildings in the United States use tilt-up construction. Concrete wall panels are cast on-site (typically on the building’s own floor slab), then tilted into position with cranes. As projects exceed 50,000 square feet, the lower unit cost of concrete begins to offset tilt-up’s fixed costs, making it increasingly competitive.
Superior thermal mass reduces HVAC costs
Inherently fire-resistant (important for insurance rates)
Minimal long-term maintenance
Ideal for temperature-controlled facilities (cold storage, food processing)
For a detailed breakdown of the tilt-up process, costs, and where it makes the most sense, see our tilt-up concrete construction guide.
Hybrid Systems
The hybrid approach, combining a structural steel frame with concrete tilt-up or precast wall panels, is gaining traction for large distribution centers and automation-ready facilities. It offers the clear-height advantages of steel framing with the durability and thermal performance of concrete walls.
Decision factors:
Building size (PEMB below 50K SF, tilt-up or hybrid above)
Temperature control requirements
Automation and technology integration needs
Insurance and fire protection costs
Long-term maintenance budget tolerance
6. Industrial Floor Systems and Slab Design
Best for: Creating the working surface that bears every operational load for the life of the facility.
Industrial floor slabs are not just “pouring concrete.” They are precision-engineered systems that must maintain flatness under heavy loads, resist abrasion from forklift traffic, and perform for decades without structural failure.
Critical design considerations:
F-number specifications: Flatness (FF) and levelness (FL) requirements govern how smooth and true the finished floor must be. Higher F-numbers are required for very narrow aisle (VNA) racking and automated guided vehicles (AGVs). Our guide to concrete flatness and levelness F-numbers explains how these measurements work and what specifications to request.
Joint design: Sawcut joints must be placed at the right spacing and depth to control cracking without creating trip hazards or forklift vibration issues.
Reinforcement: Options include traditional rebar, welded wire reinforcement, steel fibers, and synthetic fibers. The choice depends on load requirements, crack control needs, and budget. Our concrete slab reinforcement methods guide covers each option in detail.
Surface hardeners and densifiers: Applied during or after finishing to increase abrasion resistance and reduce dusting.
Curing protocols: Proper curing is non-negotiable. Inadequate curing reduces slab strength by 20% or more and accelerates surface deterioration.
High-strength mix designs: Many industrial applications now specify 5,000+ PSI concrete for floor slabs. Our concrete mix design guide explains how mix proportions affect strength, workability, and durability.
For a comprehensive overview of industrial floor system types and how to select between them, see our commercial concrete floor systems guide.
Why this matters more than ever:
Ecommerce-driven facilities are pushing floor system requirements higher. A VP of Layton Construction noted in Construction Dive that the biggest scheduling challenge is understanding how occupiers plan to install their technology inside the building, which means floor flatness, load capacity, and embedded conduit must all be coordinated from the start.
7. Exterior Paving: Truck Courts, Loading Areas, and Parking
Best for: Building the exterior surfaces that handle the heaviest and most punishing traffic at any industrial facility.
Exterior paving is where many industrial facilities fail first. Truck courts, loading dock aprons, and fire lanes endure constant heavy-axle loading from 18-wheelers, and the consequences of underbuilt paving show up within just a few years: rutting, cracking, settlement, and standing water that creates safety hazards.
Paving decisions by zone:
Truck courts and dock aprons: Concrete is the standard choice for these high-load areas. Asphalt deforms under the sustained point loads from trailer landing gear and the slow turning movements of loaded trucks. Our guide to concrete for industrial loading docks explains why concrete outperforms in these zones.
Fire lanes and drive aisles: Can be concrete or heavy-duty asphalt depending on traffic frequency and fire department requirements.
Parking areas: Asphalt is often the most cost-effective choice for employee and visitor parking where loads are lighter. Our commercial asphalt paving guide covers material selection, installation standards, and what to expect from a quality contractor.
Trailer storage yards: Concrete is preferred where trailers sit for extended periods; asphalt is suitable for short-term staging.
Subgrade remediation:
In areas with poor native soils (common across the Southeast), subgrade remediation is required before any paving. This may involve cement stabilization, lime treatment, or removal and replacement with engineered stone base. Skipping this step is the single most common reason industrial pavements fail prematurely.
Lifecycle cost considerations:
Concrete truck courts cost more upfront but require far less maintenance over a 20-year lifecycle. Asphalt parking lots cost less initially but need periodic sealcoating (every 2-3 years), crack sealing, and eventual overlay. The right approach uses each material where its strengths matter most.
Comparison: Concrete vs. Asphalt for Industrial Use (2026)
Feature | Concrete (Rigid Pavement) | Asphalt (Flexible Pavement) |
Primary Use | Truck Courts, Loading Docks | Employee Parking, Secondary Lanes |
Design Life | 25–30 Years | 15–20 Years (with maintenance) |
Point Load Resistance | High (No rutting from landing gear) | Low (Susceptible to “shoving”) |
Maintenance Need | Low (Joint sealing) | High (Sealcoating every 2-3 years) |
2026 Cost Trend | Stable (+7.4% YOY) | Volatile (Tied to oil prices) |
8. Site Infrastructure and Drainage
Best for: Installing the underground and surface systems that keep the facility functional and compliant.
Site infrastructure encompasses everything that connects the building to the broader environment: utilities, drainage, pedestrian access, and regulatory compliance elements.
Key components:
Storm pipe and drainage systems: Sized to handle design storm events per local code. Includes inlets, manholes, pipe networks, and outfall structures.
Curb and gutter: Controls surface runoff and defines traffic patterns.
Box culverts and headwalls: Required where drainage channels cross roads or parking areas.
Equipment pads: Generator pads, transformer pads, and HVAC pads must be sized and reinforced for specific equipment loads.
Dock leveler pits: Cast-in-place concrete pits that house hydraulic or mechanical dock levelers. Precise dimensions and waterproofing are critical.
Light pole bases: Structural foundations for parking lot and site lighting.
Bollards: Steel or concrete-filled posts that protect building corners, dock doors, equipment, and pedestrian areas from vehicle impact.
ADA compliance:
Industrial sites are not exempt from ADA requirements. Accessible routes from parking to building entrances, compliant parking spaces with proper slopes and signage, and tactile warning surfaces at curb ramps are all required. Wright Construction provides dedicated ADA compliance services including ramp construction, compliant parking pad installation, regulatory signage, pavement striping, handrail installation, and tactile warning mat installation.
9. MEP Systems and Fire Protection
Best for: Understanding the mechanical, electrical, and plumbing systems that make a facility operational (without getting lost in the details).
MEP (mechanical, electrical, plumbing) systems and fire protection represent a substantial portion of industrial construction budgets, often 30% to 40% of total project cost. While these trades fall outside the scope of concrete and site work, understanding their coordination requirements is essential for anyone managing an industrial facility construction project.
Key coordination points:
Clear height and sprinkler clearance: Fire suppression systems must maintain required clearance above the highest point of stored product. This dimension drives structural steel design and overall building height.
Electrical capacity: Modern distribution facilities require significantly more power than their predecessors, driven by automation, LED lighting, EV charging, and climate control. Confirming utility capacity during pre-construction (not during design development) prevents expensive surprises.
BIM coordination: Building Information Modeling allows MEP, structural, and architectural teams to identify clashes before construction. This is especially valuable in manufacturing facilities where embedded conduit, floor drains, and equipment foundations must align precisely with MEP rough-ins.
HVAC considerations: Temperature-controlled facilities (cold storage, food processing) require vapor barriers, insulated slabs, and foundation heating systems to prevent frost heave, all of which must be coordinated with the concrete contractor.
10. Commissioning, Punch List, and Handover
Best for: Ensuring the facility actually works as designed before the owner takes the keys.
Commissioning is the systematic process of verifying that all building systems perform according to design intent. For industrial facilities, this goes well beyond checking light switches.
Commissioning activities include:
Fire suppression system flow testing and alarm verification
HVAC balancing and temperature mapping (critical for cold storage)
Electrical system load testing
Dock leveler and door operation verification
Floor flatness surveying (confirming F-number compliance)
Pavement and drainage inspection under simulated storm conditions
ADA route verification
Punch list management:
The punch list captures all items that need correction before final acceptance. In industrial construction, common punch list items include concrete surface defects, joint sealant gaps, pavement striping errors, and drainage grading issues. Addressing these before the facility goes operational is far less disruptive and less expensive than fixing them after tenants move in.
Documentation to collect at handover:
As-built drawings showing actual conditions (especially underground utilities)
Concrete mix design reports and break test results
Pavement thickness certifications
Equipment warranties
Maintenance manuals for all building systems
11. Ongoing Industrial Facility Maintenance
Best for: Protecting a multi-million-dollar investment from the day the facility opens.
Most guides on industrial facility construction end at the ribbon cutting. That’s a mistake. Maintenance is not something that starts when problems appear. It starts on day one.
Concrete maintenance priorities:
Joint repairs: Sawcut joints in industrial slabs deteriorate under forklift traffic. Failed joints cause product damage, vehicle wear, and safety hazards. Routine joint repair using semi-rigid epoxy or polyurea fillers extends slab life dramatically.
Slab repairs: Spalled or cracked slabs in high-traffic areas can be repaired with full-depth or partial-depth patches rather than wholesale replacement.
Dock leveler pit repairs: These high-wear areas take constant abuse from trailer docking and hydraulic equipment.
For a complete approach to keeping concrete surfaces performing, our preventative maintenance guide for concrete pavement outlines the inspection schedule and repair techniques that extend pavement life.
Asphalt maintenance priorities:
Crack sealing: The first line of defense against water infiltration and base failure. Should begin within 1-2 years of initial paving.
Sealcoating: Protects the asphalt binder from UV degradation and oxidation. Applied every 2-3 years.
Overlay paving: When surface deterioration is widespread but the base remains sound, a new asphalt overlay restores the surface at a fraction of replacement cost.
Other ongoing maintenance items:
Bollard replacement after vehicle impacts
Equipment pad additions as operations evolve
Wash bay construction for fleet maintenance
Striping renewal (parking, fire lanes, ADA markings)
Wright Construction handles all of these maintenance scopes across the Southeast, with offices in Memphis, Nashville, Chattanooga, Birmingham, and Huntsville. For facilities requiring ongoing concrete and asphalt maintenance programs, reach out to discuss a maintenance plan.
12. Cost Benchmarks and Budget Planning
Best for: Calibrating realistic budgets using current market data rather than outdated rules of thumb.
Industrial construction costs vary significantly by project size, building type, and region. Here’s what current data shows.
Cost per square foot by project size (2025 data):
Project Size | Average Cost/SF | Year-Over-Year Change |
|---|---|---|
Small industrial | $142/sf | +17% from 2023 |
Medium industrial | $85/sf | +2.1% from 2023 |
Large industrial | $77/sf | +2.0% from 2024 |
Source: Cushman & Wakefield Industrial Cost Guides, 2024 and 2025
Standard warehouse construction costs range from $165 to $275 per square foot for a complete build, while light industrial buildings designed for manufacturing or assembly typically range from $150 to $300 per square foot.
Key material costs (2024-2025):
Fabricated structural steel: $1,200 to $1,500 per ton
Ready-mix concrete: $125 to $150 per cubic yard
Concrete prices increased 7.4% year-over-year as of March 2024, primarily due to plant closures
Steel prices fell 8.4% in the same period
Labor trends:
Average hourly construction earnings reached $39.15/hour in Q1 2025, a 4.1% increase that outpaced private sector wage growth of 3.9%. Since 2019, construction costs for modern distribution facilities have grown at 2.5x the general inflation rate.
Budget planning guidance:
Include a 5% to 10% contingency for unforeseen conditions (higher for brownfield sites)
Southeast construction costs generally run below national averages due to lower labor rates and material availability, but the gap is narrowing
Engage concrete and paving contractors during pre-construction for accurate quantity takeoffs rather than relying on parametric estimates
Account for site work as a distinct budget line item, not a rounding error within the general conditions
Timeline expectations:
Industrial facility construction timelines range from 8 months for simple warehouse shells to 24 months or more for complex manufacturing facilities. The pre-construction phase alone typically spans 3 to 6 months. Projects in the Southeast benefit from a longer construction season due to milder winters, though summer heat introduces its own challenges for concrete placement.
Choosing the Right Partners for Industrial Facility Construction
The structural system gets the attention. The MEP systems get the budget. But the concrete, paving, and site work are what hold everything together, literally. A warehouse slab that cracks under racking loads, a truck court that ruts within three years, or a drainage system that backs up during the first heavy rain, these are the failures that cost the most to fix and disrupt operations the longest.
For industrial facility construction projects across the Southeast, Wright Construction serves as a multi-trade specialty contractor handling structural concrete, foundations, slab-on-grade, tilt-up panels, asphalt and concrete paving, site infrastructure, drainage, and ADA compliance. With offices in Memphis, Nashville, Chattanooga, Birmingham, and Huntsville, Wright’s self-performing crews deliver the foundational trades that general contractors and facility owners depend on.
Whether you’re a general contractor looking for a reliable concrete and site work partner or a facility owner planning a new build, contact Wright Construction to discuss your project scope and timeline.
Frequently Asked Questions
How long does it take to build an industrial facility?
Most industrial facilities take 8 to 24 months from groundbreaking to occupancy, with complexity being the primary variable. A straightforward distribution warehouse on a clean site might be complete in 8 to 12 months. A manufacturing facility with specialized foundations, temperature-controlled environments, and process equipment could take 18 to 24 months. The pre-construction phase adds another 3 to 6 months before construction starts.
How much does industrial facility construction cost per square foot?
Current data shows large industrial projects averaging $77 per square foot, medium projects at $85 per square foot, and small projects at $142 per square foot (Cushman & Wakefield, 2025). Complete warehouse builds, including all trades and finishes, typically range from $165 to $275 per square foot. These figures vary by region, building type, and site conditions.
What is the best construction method for an industrial building?
It depends on size and use. Pre-engineered metal buildings (PEMBs) are the most economical choice for buildings under 50,000 square feet. Tilt-up concrete becomes more cost-effective above that threshold and offers superior thermal performance, fire resistance, and durability. Hybrid systems (steel frame with concrete walls) are increasingly popular for large distribution centers that need both clear height and wall durability.
How thick should an industrial concrete slab be?
Industrial slabs on grade typically range from 6 to 12 inches thick, depending on anticipated loads from equipment, racking, and vehicle traffic. Most standard distribution center slabs are 6 to 7 inches thick with rebar or fiber reinforcement. Manufacturing facilities with heavy equipment or very narrow aisle racking may require 8 to 12 inch slabs with additional reinforcement.
What are the biggest risks in industrial facility construction?
The most common and costly risks include inadequate geotechnical investigation (leading to foundation problems), underbuilt subgrade and paving (leading to premature pavement failure), poor coordination between the slab design and racking layout, and failure to confirm utility capacity during pre-construction. Each of these can add months to the schedule and hundreds of thousands of dollars to the budget.
Why is the Southeast such an active market for industrial construction?
The Southeast offers a combination of factors that attract industrial and logistics development: proximity to major ports (Savannah, Charleston, Mobile), growing population centers, favorable business climate, lower construction costs than coastal markets, and an expanding highway and rail network. The region accounts for approximately 38% of all U.S. nonresidential construction starts.
When should concrete be used instead of asphalt for industrial paving?
Concrete is the preferred choice for truck courts, loading dock aprons, and any area subject to sustained heavy point loads or slow-moving traffic. Asphalt deforms under the concentrated weight of trailer landing gear and turning trucks. Asphalt is well-suited for employee parking lots, lighter-traffic drive aisles, and areas where initial cost is the primary concern. Many industrial sites use both materials, placing each where its performance characteristics match the traffic demands.
How do you maintain an industrial facility’s concrete and pavement after construction?
Maintenance should begin immediately. For concrete, this means monitoring and repairing sawcut joints, addressing surface spalls before they spread, and maintaining dock leveler pits. For asphalt, crack sealing should begin within 1 to 2 years, followed by sealcoating every 2 to 3 years. A structured maintenance program extends pavement life by years and costs a fraction of premature replacement.