When teams coordinate early with manufacturers and align foundations, utilities and long-lead systems around a pre-engineered building package, they often cut months from traditional timelines and reduce schedule risk from weather, trade stacking and material delays. 

WHY PEMBS ACCELERATE CONSTRUCTION

PEMBs use a systems approach that standardizes many elements that typically slow projects the most, including:

• Structural steel detailing
• Connection design
• Secondary framing
• Building envelope interfaces

Manufacturers design and engineer frames, purlins, girts, cladding and bracing as an integrated package. Components arrive on site ready for assembly, so contractors don’t have to field-fit them. That approach eliminates a large portion of requests for information, rework and sequencing conflicts that often appear when separate teams handle structural, envelope and miscellaneous steel scopes.

The model also aligns with the realities of modern construction labor. Crews assemble prefabricated frames and panel systems with repeatable, well-documented erection procedures, which help contractors ramp up new team members quickly while maintaining productivity. Because pre-engineered metal buildings rely on bolted connections instead of extensive field welding, teams reduce specialized labor needs and compress critical erection durations.

STREAMLINED DESIGN AND ENGINEERNG

Coordinated Structural Design Up Front

Pre-engineered metal building projects shift design effort from the field into the front end of the job, where it produces the greatest schedule benefit. During the design phase, the building manufacturer and design team coordinate structural loads, bracing locations, deflection criteria and interface points with slabs, mezzanines, mechanical, electrical and plumbing systems, and architectural features. When the team resolves these issues before fabrication, the contractor avoids costly detailing changes and field modifications that can stall erection.

Property and business owners increasingly treat PEMBs as mainstream solutions for low-rise nonresidential work, so guidance and requirements exist to support predictable delivery. For example, state-level pre-engineered metal building guidelines in the public sector require complete sealed documents, clear load tables and explicit code compliance criteria, which provide a solid framework for permitting and plan review. The clarity reduces back-and-forth during approvals and keeps design milestones aligned with construction and start dates.

Standardization That Protects the Schedule

PEMB systems benefit from repeatable details that manufacturers have refined across many projects and climates. Standardized frame geometries, panel profiles and connection details streamline engineering checks and shop drawing production, which shortens the path from schematic design to released-for-fabrication documents. In practice, that means contractors receive issued drawings earlier and can lock in procurement and erection plans with more confidence.

Because PEMB suppliers build to established specifications and quality programs, contractors also gain schedule protection on the back end of the project. Consistent tolerances and predictable connection behavior reduce time spent resolving misalignments, flange conflicts or panel fit issues during erection. This results in fewer unscheduled downtime days and a smoother critical path for follow-on trades such as interior build-out, process equipment installation and site improvements.

OFFSITE FABRICATION AND LOGISTICS ADVANTAGES

Pre-engineered metal building components come from controlled factory environments instead of jobsites, which removes weather from much of the structural schedule. Fabricators cut, drill and weld members indoors with automated equipment and quality inspections, so the contractor receives ready-to-assemble bundles instead of raw shapes. This off-site manufacturing model reduces fabrication variability and allows parallel progress, since the building goes into production while sitework and the foundations are in the works.

Logistics planning becomes more straightforward. Manufacturers ship frames, secondary members and panels in sequenced loads that match erection order, which minimizes double-handling and laydown congestion on tight sites. With fewer SKUs and a higher degree of prefabrication, contractors spend less time chasing missing pieces or improvising substitutions that can trigger change orders and schedule slips.

FASTER, MORE PREDICTABLE ERECTION IN THE FIELD

Erection speed remains one of the most visible advantages of pre-engineered metal buildings for contractors under schedule pressure. Because primary frames, roof structures and wall systems arrive as coordinated packages, crews can move quickly from first columns to a dried-in shell.

Weather sensitivity decreases once the building reaches that milestone, so the project team removes a major external risk from the schedule.

Repeatable erection sequences also support more accurate planning. Critical path schedules for PEMB projects often show compressed durations for structural steel compared to conventional methods, especially on low-rise commercial, industrial, athletic and agricultural buildings.

Less in-field layout, fewer complex connections and minimized welding enable smaller crews to maintain high productivity, which proves especially valuable in regions where specialty labor remains tight.

LABOR, SAFETY AND SITE COORDINATION BENEFITS

PEMB projects often require fewer total onsite labor hours than comparable conventional builds. The fewer the hours, the shorter the overall calendar time and the reduced exposure to site risks. Prepunched members and factory-fitted components limit cutting and drilling at height, while bolted assemblies reduce hot work. Those characteristics support safer workflows and more predictable productivity rates, which help contractors hold critical milestones even when conditions change.

Simplified scopes also ease coordination with other trades. Clear building geometry, known frame lines and predictable roof and wall assemblies give MEP and specialty contractors a solid foundation for routing and support planning.

When teams model penetrations, support points and hanging loads against pre-engineered metal building design early, they avoid many of the clashes that typically require late-stage rework.

APPLICATIONS WHERE SCHEDULE GAINS STAND OUT

Contractors see the strongest schedule impact from PEMBs on projects where simple structural grids and large clear spans take priority. Distribution centers, light manufacturing, storage facilities, athletic complexes and agricultural buildings often fit this profile and can move from foundation to occupancy significantly faster with pre-engineered systems than with traditional framing.

In sectors that depend on fast deployment, such as logistics, cold storage or year-round training facilities, compressed schedules translate directly into earlier revenue or operational readiness.

Specialized facilities, including metal equestrian buildings, also benefit from the repeatable, open-span structures that pre-engineered metal buildings deliver. Designers can integrate a steel shell, so contractors still meet sector-specific requirements while maintaining aggressive timelines.

BRINGING SCHEDULE CERTAINTY TO THE CRITICAL PATH

As owners push for shorter delivery windows and more predictable openings, contractors face increasing pressure to control variables that traditionally sit outside their direct influence. Pre-engineered metal buildings address that challenge by packaging key structural and envelope decisions into a coordinated, engineered system that moves much of the risk away from the jobsite and into controlled design and fabrication environments.

When project teams engage PEMB suppliers early, align permitting and foundations with the manufacturing schedule and plan erection logistics around sequenced deliveries, they create a clearer critical path and more reliable completion dates for commercial and industrial projects.

SEE ALSO: EVOLUTIONARY THEORY: PREFABRICATION’S TRANSFORMATION OF THE INDUSTRY

The post How Pre-Engineered Metal Buildings Can Help Contractors Shorten Project Timelines first appeared on Construction Executive.

These scenarios play out in commercial buildings across the country every day. And in most cases, they can be avoided entirely with proactive capital planning.

An Elevator Works Harder Than Most People Realize

The average commercial elevator makes up to 500 trips per day, equivalent to traveling more than 1,000 miles per year. Over the operational life of a building, that is an enormous cumulative load on mechanical and electronic components that were engineered for a specific service life. The cab and its components such as control systems, drive technology and door operators are relics of the era in which they were installed, likely operating well past their optimal performance window.

Regular maintenance can keep aging systems running smoothly for decades, but even the best maintenance plans have their limits. At some point, repairs can only do so much, and the cost of keeping an outdated system operational begins to outpace the cost of replacing it with something built for the next 20 to 30 years. 

The Three Costs Building Owners Aren’t Accounting For

When a building owner defers an elevator modernization, the calculus often looks straightforward: The repair bill today is smaller than the proposed modernization project. What that calculation misses are the three categories of cost that accumulate as your elevator equipment ages.

The first is operational. Aging components fail more frequently and less predictably. Emergency service calls can carry premium pricing, and replacement parts for obsolete systems can be difficult to source, which adds extended downtime on top of cost. What begins as a manageable maintenance budget and downtime can quickly double over a three-to-five-year window as a system continues to age.

The second is liability. Aging elevator equipment interacting with the public every day creates real exposure for building owners, operators and managers alike. ADA compliance, fire safety codes and local inspection requirements are not static, and systems that were fully compliant at installation may no longer meet current standards. Owners who get ahead of modernization are protecting their tenants, their visitors and themselves.

The third is asset value. In a competitive leasing market, vertical transportation is not a background amenity, it’s a daily touchpoint for every tenant in the building. Slow wait times, frequent service interruptions and outdated cab aesthetics are documented factors in tenant retention decisions. For building owners preparing for a refinance, a sale or a major lease renewal cycle, an aging elevator system is a liability that sophisticated buyers and tenants will price in.

Modernization Is a Roadmap

One of the most persistent misconceptions about elevator modernization—one that often causes decision makers to delay—is that it requires a complete system replacement, a prolonged construction period and a major capital event. In practice, a well-structured modernization can be phased across budget cycles, prioritized by risk exposure and executed with minimal disruption to building operations.

Modern approaches allow individual cars to be taken offline for upgrades while the remaining units stay fully operational, a meaningful advantage in multi-cab modernizations where downtime is the primary operational concern. Building owners and their contractors can also take advantage of online planning tools that allow modernization scenarios to be modeled and costed before any contractor engagement begins, enabling more informed conversations with lenders, ownership groups and tenants.   

The conversation has also shifted around destination dispatch technology, which optimizes traffic flow across a bank of elevators by assigning passengers to specific cabs before they reach the lobby. Originally developed for new high-rise installations, this technology is now broadly applicable to modernization projects and can be added to many existing systems without a full cab or hoistway replacement. For building owners looking to meaningfully improve performance without a full overhaul, it represents one of the highest impact upgrades available for elevator systems.

The Efficiency Case Is Getting Harder to Ignore

For building owners navigating ESG reporting requirements or managing LEED-certified properties, an elevator modernization carries an energy efficiency dividend that is increasingly difficult to overlook. Modern drive systems, including regenerative drive technology that return energy to the building’s electrical system during descent, can reduce elevator energy consumption significantly compared to older motor-generator technology. In large, multi-cab installations, that reduction is a meaningful contribution to a building’s overall energy profile.

Modern systems also reduce the carbon footprint of ongoing maintenance, as intelligent diagnostics and remote monitoring allow service teams to address emerging issues before they become emergency calls. This predictive maintenance reduces unplanned service calls and tenant disruption.

Where to Start

For contractors advising building owner clients, the starting point is an honest assessment of the equipment. The right questions are simple: How old are the core control and drive components? What does the repair history look like and in what direction is it trending? Are there pending code reviews or renovation projects that could trigger compliance requirements? What does the leasing picture look like over the next three to five years?

Online planning tools now make it possible for building owners and their advisors to begin modeling modernization options, including phased timelines and associated costs, well before a formal contractor engagement. That early homework separates building owners who are in control of their modernization timeline from those who find themselves at the mercy of it.

The Cost of Waiting Is Already on the Ledger

For building owners and facility managers with aging elevator equipment, an elevator modernization is not just a future expense to be budgeted; it is an opportunity to plan your downtime and therefore provide a better customer experience. The cost of waiting to modernize your elevator is real, and those who work in the industry can confirm it almost always exceeds the cost of a proactive modernization.

Treating your vertical transportation systems as strategic assets rather than maintenance line items will put you in control, helping to avoid emergency calls, increase tenant satisfaction and retention, and ultimately protect the long-term value and reputation of the property. The cost of waiting to modernize is real, and in the experience of those who work with customers facing these decisions every day, it almost always exceeds the cost of proactive modernization. So rather than crossing your fingers that your equipment can survive another year, talk to your elevator service provider about how to get ahead of it on your schedule, on your terms, and on your budget.

SEE ALSO: RISING DEBATE: PROPRIETARY VS. NON-PROPRIETARY ELEVATOR EQUIPMENT

The post How Deferred Elevator Modernization Quietly Erodes Your Building’s Bottom Line first appeared on Construction Executive.

That’s where TCO—total cost of ownership—becomes critical. Understanding TCO gives construction fleets the clarity they need to make informed decisions about budgeting, replacement planning, maintenance strategy and job costing. Without it, fleets rely on assumptions and, in construction, assumptions are expensive.

What Total Cost of Ownership Really Means

TCO represents the full lifecycle cost of an asset from acquisition through disposal. While purchase price or lease cost is often the most visible expense, it is only one part of the equation. Financing, depreciation, preventive maintenance, unexpected repairs, parts and labor, fuel consumption, insurance, compliance requirements, downtime and eventual resale value all contribute to the true financial impact of assets.

In many cases, the majority of an asset’s cost accumulates after it enters service. An excavator that appears affordable upfront can quickly become one of the most expensive assets in the fleet if repair frequency rises or fuel efficiency declines. Without a comprehensive view of these costs over time, fleet leaders cannot accurately measure performance or profitability. Understanding TCO shifts the conversation from upfront pricing to long-term value.

Why TCO Is Essential for Construction Fleet Strategy

Construction fleets operate on tight margins and strict timelines, with equipment reliability and cost control directly influencing whether a project meets profitability targets. When fleet costs aren’t fully understood, even small inefficiencies across dozens or hundreds of assets can significantly erode margins.

One of the most immediate benefits of TCO visibility is improved budgeting and forecasting. When fleets can see how operating costs trend over time, they can anticipate major maintenance events and plan capital expenditures more accurately. Instead of reacting to surprise repair bills, leadership teams can prepare for predictable cost increases and make proactive investment decisions.

Replacement planning is another area where TCO insight is transformative. Many fleets still base replacement decisions primarily on age, OEM guidelines or intuition; however, two similar machines can have very different cost trajectories depending on jobsite conditions, utilization rates and service history. Tracking cost per hour or cost per mile over time reveals when operating expenses begin to accelerate, providing a clear financial signal that replacement may be the more cost-effective option.

Accurate TCO data also strengthens job costing. Construction companies rely on precise cost estimates when bidding projects. If vehicle and equipment expenses are underestimated, bids may appear competitive but ultimately reduce profitability. A detailed understanding of lifecycle costs allows fleets to assign realistic hourly equipment rates, allocate maintenance expenses accurately and improve the financial accuracy of future bids.

According to a 2026 fleet benchmark report, “most fleets accept high-mileage assets; when maintained properly, older assets can keep a TCO value comparable to that of a newer asset. When maintenance discipline fails, those same assets become expensive and disruptive, fast.”

TCO analysis supports smarter maintenance strategies to keep assets safely working longer. Construction environments are harsh, and equipment is constantly exposed to dirt, vibration, extreme weather and heavy loads. By analyzing maintenance history alongside overall asset costs, fleets can identify recurring failure patterns, compare preventive and reactive repair costs, and adjust service intervals based on actual performance data. This reduces downtime while controlling unnecessary maintenance spend.

Why Calculating TCO Is So Difficult

Despite its importance, calculating TCO remains challenging for many construction fleets. The issue is rarely a lack of awareness; rather, it’s a lack of consolidated data. In many organizations, cost information is scattered across spreadsheets, accounting systems, fuel card platforms, telematics providers, vendor invoices and paper work orders. “When data lives in disconnected systems, building a complete and accurate cost profile for each asset becomes time-consuming and prone to error,” explains John Byron, maintenance advisor at Fleetio. “Manual data entry introduces inconsistencies, asset naming conventions may not align across platforms, and maintenance documentation is often delayed or incomplete.”

As fleets grow in size and complexity, these inefficiencies multiply. The result is a fragmented view of asset performance that makes reliable TCO analysis nearly impossible. Without centralized visibility, leaders are forced to rely on partial information and educated guesses.

How Digital Fleet Solutions Simplify TCO Tracking

Digital fleet maintenance and management solutions address the aforementioned challenges by consolidating asset data into a single system of record. Instead of managing separate tools and spreadsheets, fleets can automatically associate maintenance expenses, parts and labor costs, fuel transactions, inspections and downtime with the correct asset in real time.

This automation creates a continuously updated financial profile for every vehicle and piece of equipment. Digital work orders capture labor hours, service history and parts usage without relying on paper documentation, building a reliable maintenance record over time. With this level of visibility, fleets can analyze trends such as rising repair frequency, increasing parts costs or declining fuel efficiency before they escalate into larger problems.

Consolidated reporting also enables objective replacement planning. Rather than relying on subjective judgment, fleets can establish measurable thresholds, such as cost per hour exceeding a defined benchmark or maintenance spend reaching a certain percentage of asset value. These data-driven criteria help optimize capital allocation and improve long-term fleet health.

Turning Insight Into Financial Performance

Understanding TCO empowers action. With accurate data, construction fleets can refine PM schedules, identify training opportunities that reduce operator-related wear, negotiate more effectively with vendors and prioritize investment in equipment models that consistently deliver strong performance. Over time, these improvements extend asset life, reduce downtime, strengthen project margins and improve forecasting accuracy. Most importantly, they replace uncertainty with clarity.

Construction fleets operate in an environment where equipment performance directly impacts productivity and profitability. Relying on purchase price alone is no longer sufficient, but by embracing digital fleet solutions with built-in automation, construction companies can consolidate data and track operating costs with precision to uncover the trends that reveal the true financial story behind their equipment. Understanding TCO allows construction fleets to move beyond guesswork and take strategic control of their assets, improving both operational performance and bottom-line results.

SEE ALSO: FLEET SAFETY AS A BUSINESS STRATEGY FOR CONSTRUCTION COMPANIES

The post Understanding Total Cost of Ownership in Construction Fleets first appeared on Construction Executive.

Contractors are increasingly pursuing work tied to power generation, utilities and site preparation as tech companies race to expand AI capacity nationwide. Industry leaders also noted growing challenges tied to labor availability, electrical equipment lead times and power access, which are becoming critical factors in where projects move forward. Despite those pressures, firms remain bullish on long-term demand for AI and data center construction.

SEE ALSO: NONRESIDENTIAL CONSTRUCTION SPENDING GROWTHS ON PUBLIC SECTOR STRENGTH IN APRIL

The post Data Center Demand Drives Construction first appeared on Construction Executive.

SEE ALSO: STEPPING UP: CUSTOM COINBASE STAIRCASE IN NYC

The post Eye in the Sky: A New Italian Ferris Wheel first appeared on Construction Executive.

Most construction organizations cannot answer that question. Not because the data does not exist—it does. Every active project generates daily inspection findings, labor records, near-miss reports and audit results. The problem is that standard safety systems collect this data and then report it in ways that make it operationally useless for prevention. They describe the past. They predict nothing.

The predictive safety analytics framework (PSAF) is a practical, deployable system developed from years of applying data science to large-scale construction portfolio operations that takes the safety data construction organizations already collect and transforms it into a forward-looking risk signal. The result? A single weekly score that tells executives where risk is concentrating across their portfolio before anyone gets hurt.

WHY YOUR CURRENT SAFETY DATA IS FAILING YOU

The construction industry’s reliance on lagging indicators—TRIR, DART rates, OSHA logs—is still valid. These metrics are essential for compliance, benchmarking and insurance. But they share one structural limitation that no amount of refinement can fix: They only tell you what has already happened.

A zero-incident month is not a green light. It may mean your projects are genuinely safe. It may equally mean your teams are under-inspecting and your hazards are going unrecorded. Without an analytics layer on top of your existing data, you cannot tell the difference—and that gap is where serious injuries occur.

Leading safety researchers have demonstrated that integrating proactive safety controls alongside lagging measures measurably reduces incident rates. Yet most contractors still lack a practical system that delivers this at portfolio scale. PSAF fills that gap.

HOW PSAF WORKS: THREE PRACTICAL STEPS

PSAF builds on three ideas—each straightforward on its own, and exponentially more powerful in combination.

Step 1: Compare Projects Fairly

Raw safety numbers are misleading without context. A project recording 50 findings during a slow month with 5,000 labor hours looks identical on paper to a project recording 50 findings during an intensive month with 100,000 labor hours. They are not the same. One is under-inspected. The other is highly active and well-monitored.

PSAF adjusts every metric for actual labor intensity—so executives can compare risk accurately across projects of any size, phase or duration. This single adjustment eliminates the most common source of misleading safety reporting in construction portfolio management.

Step 2: Weight Findings by What Actually Matters

Standard audit systems count every inspection finding the same way—a housekeeping note and a life-threatening fall hazard are recorded as two equal data points. That equivalence is the single largest analytical error in conventional construction safety reporting. It buries the most dangerous signals under mountains of minor ones.

PSAF assigns escalating weights to findings based on their potential to cause harm:

The resulting score divides positive, proactive findings against severity-weighted negative findings. A month where one life-threatening condition is buried among routine citations looks dramatically different under PSAF than under a raw count—and that difference is what prevents serious injuries.

A declining score month over month is the earliest warning signal available before any recordable incident occurs.

Step 3: Track Warning Signs Before Injuries Happen

Every serious construction fatality is preceded by recognizable conditions—unprotected edges, unsupported excavations, uncontrolled energy sources or suspended loads over occupied areas. The serious injury and fatality potential (SIF-P) rate quantifies these exposures as operational data before any injury occurs.

PSAF’s specific contribution is integrating SIF-P tracking with the weighted audit score into a single combined signal. When SIF-P observations are rising at the same time the weighted audit score is declining, the combined signal identifies deteriorating site conditions weeks before they produce a recordable event—weeks that no lagging metric can provide.

In a portfolio application of PSAF, the composite model detected a correlated adverse trend—rising SIF-P observations alongside a declining Weighted Audit Score—across a six-week window. Every standard lagging metric showed satisfactory performance throughout. No incidents had occurred. Yet the integrated signal was unambiguous: Risk was concentrating in a specific area at a specific phase of construction. Targeted supervision and coaching followed. The project moved through its highest-risk period without a single recordable event. The lagging metrics confirmed safety after the fact. PSAF enabled it before.

ONE SCORE, EVERY WEEK

All three components integrate into a single composite safety analytics score—one number, updated weekly, that tells executives the safety status of every active project at a glance:

For executives managing five, 10 or 20 active projects simultaneously, this weekly composite signal replaces hours of report-reading with one clear answer: where do I need to focus right now?

When executives have this signal updated weekly, safety management changes character entirely. Teams stop asking, “What went wrong last month?” and start asking, “Where is risk building this week?” That question—asked weekly, answered with data—is the structural difference between a compliance program and a prevention program.

WHAT THIS MEANS FOR YOUR ORGANIZATION

Implementing PSAF does not require new software or additional staff. Every metric is calculable from data most mid-to-large contractors already collect through their existing inspection platforms, labor tracking systems and safety reporting tools. Four principles make the difference:

• Compare by labor intensity, not raw numbers—A busy project and a slow one cannot be evaluated the same way.
• Weight hazards by severity—Focus attention on what could cause serious harm, not what is easiest to count.
• Track warning signs before incidents—The conditions that precede serious injuries are visible in your data if you know how to look.
• Review the composite score weekly—Monthly safety reviews are compliance exercises; weekly reviews are prevention.

THE BIGGER PICTURE

PSAF demonstrates something that extends well beyond safety: Construction analytics methods—normalization, severity weighting, composite integration, threshold classification—can transform any operational data stream into portfolio-level intelligence. The same architecture applies to schedule execution reliability, quality backlog management and financial risk tracking.

The construction industry has now spent two decades investing in data-collection tools. The organizations that pull ahead in the next decade will be those that build the analytics layer on top—converting collected data into decisions, not just reports.

The data your projects generate every day already contains the warning signs you need. PSAF ensures it prevents the future instead of recording the past.

SEE ALSO: PREDICTIVE ANALYTICS AND FORECASTING IN CONSTRUCTION PROJECTS

The post Predict Risk, Not Incidents: A New Analytics Framework for Your Construction Safety Data first appeared on Construction Executive.

The Science of Autonomous Repair

Self-healing concrete is an innovative material that can autonomously mend its own cracks, extending structural lifespans and reducing long-term maintenance expenses.

The use of biofibers in building materials—an integration of bacteria and fibers—is the optimal approach to intelligent self-repair, even boosting tensile strength beyond that of conventional concrete. The superior strength stems from a network of interlocking fibers that act as a reinforcing matrix.

Microbial metabolic activities drive restorative mechanisms in an autogenous self-healing process. More specifically, bio-precipitation of calcite uses the urea hydrolysis metabolic pathway, relying on ureolytic bacteria to tolerate concrete’s high alkalinity.

When cracks form, the bacteria transform into carbonate and ammonium, increasing the pH level within the crack and forming calcite crystals to seal the fissure. It is a sustainable and safer alternative to traditional chemicals used to improve concrete’s durability.

Redefining Durability and Structural Integrity With BioFiber

A combination of maintenance backlog, vulnerability to the elements and climate change impacts has left engineers scrambling for durable, cost-effective solutions. Structural materials degradation is among the main causes of reconstruction and restorations, making building resilience a primary challenge and initiative in urban areas. Self-healing building components address this through their ability to repair themselves internally, decreasing the need for human intervention and excess resources.

In 2023, a research team from Drexel University developed a nature-inspired polymeric fiber called BioFiber. The solution helped protect the healing agents from the harsh, alkaline nature of concrete—something earlier bio-concrete failed to do. The team found that enveloping the dormant bacteria in a multi-layered hydrogel shell ensured the microorganisms remained viable and ready to activate when necessary.

The university’s innovation included load-bearing core fibers that actively bridged microcracks as they formed. As the research notes, the technology provided critical control over crack growth, preventing small fissures from becoming larger and causing damaging fractures.

BioFiber fundamentally increases material resilience against environmental stressors, including freeze-thaw cycles and heavy loads. Its self-healing capabilities offer an extended shelf-life and enhanced mechanical integrity to the materials, helping prolong their service life beyond that of traditional concrete. 

Its repair efficiency was also notable, with the study showing how each BioFiber produced 40 to 80 milligrams of calcium carbonate within the first 30 hours of activation, enabling rapid restoration of the material’s durability.

A New Era of Sustainable Construction

Self-healing concrete materials like BioFiber provide a path toward a more sustainable building model, which aligns with modern application methods. As the American Shotcrete Association states, natural fibers, such as those derived from hemp, are suitable for use in both wet- and dry-mix shotcrete processes.

Unlike synthetic fibers, natural alternatives are water-absorbing, which enables them to bond with the cement more efficiently. The fibers also serve as an internal curing aid, slowly releasing water to mitigate plastic shrinkage and cracking that often occurs in shotcrete projects.

The synergy is increasingly recognized as the industry adopts robotic applicators to deploy advanced shotcrete. Robotics is critical for repairs in hazardous or remote environments, such as tunnels and slopes, and ensures worker safety.

Additionally, built-in precision in automated systems reduces material waste and provides more durable, long-lasting repairs. Combining intelligent materials with automation is a tremendous leap toward creating self-healing cities and more sustainable infrastructure.

The shift is crucial, given that the construction industry is widely recognized for its energy and resource consumption. Conventional concrete production accounts for a staggering 50% of global demand for energy and natural resources, causes 30% of waste volumes and consumes 15% of freshwater. It is also responsible for 33% of human-induced greenhouse gas emissions. 

Practical Applications in Nonresidential Construction

The practical application of BioFiber and other self-healing concrete mixes is extensive in nonresidential construction. For example, bridges, tunnels and parking garages benefit from the material’s autonomous repair of microcracks, helping extend the lifespan of concrete structures and significantly minimizing immense costs associated with maintenance disruptions.

Throughout the industrial sector, bio-integration in building materials can help prevent leaks and improve the stability of heavy machinery and wastewater treatment plants. Large-scale commercial projects—including stadiums and high-rise buildings—can also leverage microorganisms’ biological capabilities to mitigate cracks and enhance safety. Overall, the proactive approach increases structural longevity.

For both applications, self-healing construction reduces carbon emissions by slashing intensive, fuel-driven repairs and the use of new resources. It also prevents the demolition and reconstruction of the built environment.

Navigating the Path to Adoption

As manufacturing continues to scale, self-healing concrete will move from a specialized phase to a more widely available one for large-scale projects. Contractors looking to adopt this approach must conduct a comprehensive cost-benefit analysis.

Transitioning toward greener, durable solutions requires a new perspective, one that shifts from up-front procurement to life cycle costing. Although the initial price tag of these alternatives is much higher than that of conventional materials, they offer longevity with lower maintenance requirements and extended lifespans, thereby lowering total costs.

On-site handling will also be similar to conventional methods, though it will require careful integration of the fibers during mixing to guarantee even distribution. It is also crucial to understand that the technology can only heal cracks up to a specific size, meaning it is not sufficient for large structural damage.

Background knowledge of the practical boundaries is crucial for leveraging the material successfully and responsibly in the construction of future buildings.

The Future Is Bio-Integrated Design

BioFiber has demonstrated what is possible for bio-integrated design in tomorrow’s built world. These self-healing solutions offer radical durability that cuts maintenance requirements and costs and promotes building sustainability. The technology is forward-thinking and practical, answering the call for more resilient, well-preserved and environmentally sound infrastructure.

SEE ALSO: MATURITY MONITORING CONCRETE INCREASES ACCURACY AND KEEPS JOBS ON SCHEDULE

The post Self-Healing Concrete Redefines Durability and Sustainability in Modern Construction first appeared on Construction Executive.

At the same time, multimillion-dollar jury verdicts tied to vehicle crashes have reshaped how roadway incidents affect budgets, insurance programs and reputations. A single serious accident can trigger medical costs, equipment damage, litigation and long-term insurance market consequences.

The financial implications are significant. However, construction businesses that develop an effective fleet safety program can help reduce preventable crashes, stabilize insurance costs, protect workforce availability and strengthen a company’s legal position if an accident occurs. Distracted Driving Awareness Month each April highlights the importance of roadway safety. It also provides a timely opportunity for contractors to review how driver and vehicle safety fit into their broader risk management strategy.

Prevention First: The Foundation Is a Written Fleet Safety Policy

Increasing insurance limits does not reduce risk. Prevention begins with a written fleet safety policy tailored to the company’s operations that is consistently enforced.

A comprehensive fleet safety policy should address:

• Authorized drivers and clear documentation of who may operate company vehicles
• Motor vehicle record review at hire and periodically thereafter
• Cellphone and device usage, including prohibitions on handheld use
• Scope of vehicle use, including restrictions on off-hours or personal use
• Accident reporting and internal notification procedures
• Training requirements and disciplinary action for violations

Clear definition of authorized drivers is particularly important in construction environments. A foreman may ask someone to reposition a truck on a jobsite without realizing that individual is not licensed or approved to drive a commercial vehicle. Without documentation and controls, that seemingly small decision can create significant liability exposure.

Personal use policies require similar clarity. Allowing weekend use of your fleet without guardrails can expand exposure beyond what leadership intended. Even if returning vehicles to company premises nightly is not practical, defined parameters and written acknowledgment from drivers are critical.

Signed documentation and consistent record-keeping demonstrate that the company not only has a policy, but also trains its employees and enforces it. In the event of litigation, those records can become central to a defensible position.

Hiring and Onboarding: Safe Drivers, Not Just Skilled Tradespeople

Contractors rightly prioritize hiring experienced professionals. However, putting a highly skilled worker with poor driving habits behind the wheel can undermine broader safety goals.

Reviewing MVRs before hire and at regular intervals helps identify high-risk drivers early. Onboarding should include driver-specific safety training and reinforce that operating a company vehicle is a privilege tied to performance and accountability.

Mandatory training is required for drivers with repeated violations or preventable incidents. Ridealongs, observation and coaching based on real-world scenarios often deliver better results than a one-size-fits-all classroom session. If improvement does not occur, drivers may be subject to further consequences, including termination.

Distracted Driving and the Role of Telematics

Distracted driving remains one of the most persistent roadway risks, particularly for crews operating under schedule pressure or navigating unfamiliar routes. Safety professionals often categorize distraction into three types: visual (eyes off the road), manual (hands off the wheel) and cognitive (mind off driving). Addressing those risks requires both clear policy and consistent oversight.

For many contractors, telematics systems are initially implemented to track vehicle location, manage asset utilization, optimize routing and improve fuel efficiency. GPS visibility helps reduce unauthorized vehicle use, streamline dispatch and support preventive maintenance scheduling. In an industry where time and equipment availability directly affect project margins, those operational gains are often the primary driver for adoption.

In addition to these operational benefits, telematics can play a critical role in managing driver behavior. Systems that monitor speeding, hard braking, rapid acceleration and seat belt usage provide objective data that safety leaders can use for coaching and corrective action. When paired with clear expectations and training, that data helps identify patterns before they lead to a collision.

Successful programs are built on transparency. Contractors should clearly communicate what data is collected, how it will be used and what thresholds trigger intervention. Used appropriately, telematics supports both operational performance and driver safety, two outcomes that ultimately reinforce one another.

Vehicle Maintenance: A Critical but Overlooked Control

Mechanical failure can compound driver error or create independent liability.

Routine preventive maintenance schedules, documented inspections and pre-trip checklists help reduce breakdowns and crashes. Drivers should be trained to conduct basic walk-around inspections before leaving for a jobsite, checking items such as:

• Tire condition and pressure
• Lights and signals
• Brakes and fluid levels
• Securement of cargo and equipment

Cargo introduces additional exposure. Tools, materials and leased equipment must be properly secured not only during transit, but also in the aftermath of an accident. If a vehicle is towed, unsecured loads can cause secondary damage and increase costs.

Crash Management: Training for the Worst Day

Even the strongest prevention program cannot eliminate every incident. Structured crash management is essential.

An accident safety kit placed in every vehicle can provide step-by-step guidance during a high-stress situation. Typically, the kit includes a laminated card outlining:

• Immediate safety steps, including checking for injuries and calling police
• Guidance on moving the vehicle to a safe location if drivable
• Instructions on collecting insurance information and witness contacts
• Reminders on what not to say, including avoiding admission of fault
• Internal reporting contacts and timelines

Drivers are often shaken and concerned about their job or license status in the aftermath of an accident. Clear instructions help them stay focused. Calling law enforcement promptly ensures an official report is generated. When safe, drivers should collect photographs of all vehicles involved and relevant roadway conditions.

Many vehicles now contain electronic data that may help document the circumstances of a crash. Prompt notification to internal leadership and the insurance carrier allows preservation of that data and early claim management.

Training is critical. Distributing a kit without instructions limits its effectiveness. Annual safety meetings should include practical discussion of crash response procedures, with scenario-based exercises that reinforce expectations.

Aligning Fleet Safety With Culture

Driver and vehicle safety programs are most effective when integrated into a broader safety culture.

Leadership behavior sets the tone. Supervisors should model focused driving by avoiding calls or texts to drivers while they are on the road. Positive reinforcement often produces better results than discipline alone.

Empowering employees to speak up when unsafe driving behavior is observed reinforces shared responsibility. From the interview process forward, communicate that safety expectations apply on and off the jobsite to build consistency.

For construction businesses operating across multiple states, coordination with insurance carriers can support policy development, telematics strategies, post-accident planning and appropriate coverage selection. However, the priority remains reducing the likelihood and severity of crashes in the first place.

Contractor leadership cannot afford to treat roadway exposure as an operational risk. A structured, enforced, and culturally aligned driver and vehicle safety program protects not only drivers and the public, but most importantly, the long-term viability of your business.

SEE ALSO: FLEET MANAGEMENT TECHNOLOGY SUPPORT DRIVER SAFETY WHILE BUILDING CUSTOMER TRUST

The post Fleet Safety as a Business Strategy for Construction Companies first appeared on Construction Executive.

The answer may be to pull back on purchasing assets and equipment and instead balance a hybrid model that relies on both rental and ownership. The solution entails using data to determine when it’s time to own and when doing so is a costly mistake.

The Benefits of a Hybrid Model

Numerous benefits exist for construction leaders turning to this type of hybrid model. The goal is simple. Balance core owned assets with short-term rentals. In doing so, an organization can:

• Reduce capital expenditure, keeping more money available for bigger investments and meeting the higher cost of labor
• Optimize fleet utilization; keep equipment in frequent use, rather than sitting and waiting
• Ensure the feasibility of big projects or more specialized work without having to plan for outright investment in new, limited-use equipment

The most challenging aspect of this process is knowing when to rent and when to buy. The cost of short-term rental can be prohibitive if using equipment for the long term or consistently extending a short-term contract.

How to Use Data to Make Better Decisions

Heavy equipment ownership should be based on data-backed decisions, not guesses about what purchase will yield the best ROI. The solution is to capture data that provides highly accurate insight into the use and effectiveness of any equipment. One solution is the use of telematics. These software programs provide exceptional insight into how to use equipment by gathering information such as:

• Real-time location
• Engine hours used
• Maintenance requirements
• Fuel and maintenance costs

Tracking Utilization

Telematics can provide a range of benefits to an organization. For example, utilizing software that offers GPS tracking and IoT sensors allows business leadership to consistently monitor utilization rates for each individual piece of equipment. This allows the measurement of how many hours each piece of equipment is actually being used. It allows tracking of idle time and pinpointing both overuse and underuse of assets.

If equipment is underused, it may not be worth the outright purchase depending on how frequently it’s needed. Overuse is a concern as well. Necessary equipment that goes down, even for a short amount of time, can be costly with added delays.

Improving Allocation

Utilizing telematics software, it’s possible to know the exact location of equipment. This also incorporates data about the usage status of the equipment, even paring the days and times a piece will need to be accessible for each project.

Managers can then more effectively and affordably move machines where they are not only needed but also where they’re needed most. This enhances outcomes and ensures employees have the right equipment for the job.

Optimizing Maintenance

Some construction companies are plagued with the ongoing need to keep equipment operating to push deadlines and meet project goals. Yet, skipping or missing maintenance can jeopardize the functionality, safety and even the future accessibility of that equipment. For some companies, downtime for maintenance and repair forces the consideration of purchasing new equipment. Still, that can be an expensive and avoidable mistake.

With telematics, it’s possible for companies not to plan maintenance by timing, but to make repairs when needed, stay ahead of breakdowns and enhance long-term outcomes. That includes monitoring factors such as:

• Changes in hydraulic pressure
• Fuel-burn rates
• Engine diagnostic data

Utilizing Data to Decide When to Buy or Rent

In some situations, companies will need to consider the feasibility of purchasing additional pieces of equipment or renting. For example, turning to local scaffolding rental companies for projects tends to be less expensive than trying to manage and move equipment from one area to the next. It’s local, convenient and readily available without worrying about not having it available when a project needs to change.

Other types of larger equipment can be tempting to purchase in order to have on hand anytime; however, before making such a decision, companies can use telematics and other data to determine:

• If there is an ongoing need for the equipment, which will make it a long-term, financially sound decision
• Whether equipment is necessary for a highly specialized project, and whether purchasing it outright could create capital that’s frozen in that equipment without really producing value
• If investing in total ownership is the best route for long-term growth

Using data to make such decisions minimizes locking capital up for too long in the wrong equipment, allowing businesses to maneuver more readily around ever-changing project designs and demands. Prioritize equipment access over total ownership. What is going to help improve cash flow and profitability?

Investing in modern equipment can be wise, but doing so with careful attention to an organization’s current and likely future use needs is more important than outright purchasing. With so much flexibility in ownership methods, including the wide availability of rentals, it makes sense for companies to make data-based decisions that ultimately keep cash flow moving. With access to software and IoT sensors so readily available, making critical decisions is far easier than ever.

SEE ALSO: THREE WAYS FLEET TELEMATICS ARE OPTIMIZING CONSTRUCTION IN THE NEW NORMAL

The post How Contractors Can Maximize Equipment Value Without Over-Owning Assets first appeared on Construction Executive.

Construction Executive sat down with Sentry’s Marcease Warren, vice president of manufacturing—who has been with the company over 20 years—to discuss Sentry’s secret sauce when it comes to company vitality, staying relevant, keeping up with industry trends and creating some of their own.

How have you seen Sentry evolve over your 20-year tenure? How has the company evolved over its 100-year history?

It started off as a family-owned company. The first owner handed it off to his kids, they took it over and continue to treat their employees really well. Their whole thought process was when they retired, their kids didn’t want to take it over. So, instead of selling it to another company, another firm or someone else, they ended up creating an ESOP. So, we’re also celebrating 40 years of being an ESOP this year.

Over the years we’ve evolved from strictly power generation. We do a lot of work for power plants of all types: nuclear, coal, natural gas; we’ve added different product lines and through that we’ve seen ourselves shift from being the traditional old and dirty manufacturer to really focusing on adding new technology—fiber optic lasers and other things—so that we can be more vertically integrated. Over my tenure I’ve seen a shift from really relying on our supply base to really bringing in a lot of that technology and skillset in house to where we can control our own destiny.

Let’s talk about that technology angle coupled with increased demands for power, especially when it comes to the demands on the power grids and water facilities.

We are in the process of getting more involved with water and wastewater instead of traditional power generation. We didn’t anticipate it being a growth engine for us moving forward, but over the past several years, we’ve seen it take off. So now not only do we have what we were investing in for water/wastewater, but now power generation is starting to surge. What we were anticipating as being maybe 30% of our business is going to be a much more significant portion. Plants that were going to get decommissioned are now looking at expanding.

Are you anticipating that trend to hold steady, say into 2030? Or do you predict it to taper off?

The next five plus years into 2030 and beyond will continue to see this boom. We’re probably actually behind right now. We talk about our infrastructure, our grid, we know that’s been in place for 60, 70 years; we have to catch the grid up as well as continue to meet the new power demand. It takes a long time to get plants up and running, so this is going to continue for a while.

Are there any physical tools of technology that you’re using to help the manufacturing process?

We’ve been really focused on fiber optic lasers and being able to fabricate our own components as well as using press brakes. It’s technology that’s not necessarily new to the industry but is newer to us. When we first acquired our laser and our press brake, we actually took someone who was in a different department but was interested in operating it and got him trained within two to three months; he became proficient in under a year. We’re seeing the older technology evolve in a way that makes it really easy to get new people involved.

It seems there is enthusiasm across the company for taking on these types of changes. Would you say that is what has sustained Sentry for the last century?

I would say that is part of what has sustained us—you have to be changing. If you’re not changing, then you’re falling behind. Our ESOP culture has certainly made that change easier. When looking to expand, most people will simply hire additional people to keep up with the workload. Now, we look first at how we can leverage technology, which has made our shop employees and our company overall really embrace the use of technology.

Is Sentry feeling the effects of the workforce shortage?

We’re feeling it, too. We’ve been doing better recently and that’s primarily due to a lot of referrals—employees refer us to friends or friends of friends. We’ve had some success that way, but one specific department that’s been challenging is the machining department. There are not a lot of machinists out there, so if you want to get someone, you’re typically stealing from a company that already has them, so that’s been a challenge.

In an earlier discuss, one of the main points was “how Sentry’s business has diversified, as well as the reemergence of the capital Power Industry.” Talk more about that.

The diversification came into getting more involved with water/wastewater. Sentry acquired a company out of Salt Lake City called Rebuild-it Services Group, whose work ties into infrastructure—and there is a lot of old infrastructure revolving around wastewater treatment. What we will aim to do is rebuild equipment instead of a company or municipality replacing that equipment. That is how we’re starting to diversify from strictly power generation, but like I said earlier, now that’s coming back. So now we’re trying to ramp up our capacity in house to handle this resurgence.

With all of the change Sentry is embracing, how does it maintain its founding values as a family company and an employee-owned company?  

One of the things I remember when I first started is you knew every employee’s name, you knew their spouses, their families. And now that we’ve grown, that’s become a challenge. But we still focus on those core values. We still have town hall meetings. We have events we call O.J. With Owners where we’ll connect employees who might not see each other on a day-to-day basis. We really try to focus on different ways to connect now that our employee base is not only just in manufacturing but in these other facilities as well.

Where do you see not only the state of the company, but the state of the entire construction industry and then the company’s position within the industry by 2030?

I see us still being heavily involved with infrastructure and helping make sure that infrastructure is positioned well for growth. I see 2030 as a starting point, not necessarily the ending point when it comes to construction. I think that’s just us getting caught up; once we get caught up, what’s the next thing that we’re going to be able to do?

SEE ALSO: PRIORITIZING SUCCESS: SUCCESSION PLANNING BEYOND THE COMPANY WALLS

The post Powering Up: How Sentry Equipment Has Lasted 100 Years in Manufacturing and What It Has Planned for 100 More first appeared on Construction Executive.