Construction equipment manufacturers frequently build machines around engines supplied by specialist diesel producers. That arrangement works well on the production line, but it can complicate spare parts orders years later. The machine manufacturer has its own model information and dealer parts system, while the engine manufacturer identifies components according to the engine family, version and original part references.

For a workshop, the difference becomes apparent when a part ordered against the machine description does not match what is on the bench. The component may look familiar in a catalogue photograph, but its mounting arrangement, connections or specifications may belong to another engine variation.

The engine model tells a more precise story

A machine model can cover different engine specifications over its production life. Even within the same engine brand, the exact designation matters. Yanmar 3TNV88 and 4TNV98 engines, for example, are distinct models. Kubota D902 and V2403 likewise belong to different engine configurations. Parts should be selected against the relevant engine and component references rather than the assumption that a similar-looking diesel engine uses the same items.

If the original part number is available, it is usually the fastest starting point. It can be checked against the replacement supplier’s references and the applicable engine information. When the part itself has no readable marking, the engine model provides a practical route into the correct product group. The equipment model may help in certain cases if neither reference is available, but it is less conclusive on its own.

Cross-references also deserve care. An equipment maker, an engine manufacturer and an aftermarket supplier may use different numbers for a component intended for the same application. A cross-reference can connect those catalogues, but the final match still needs to reflect the correct engine version and technical specification.

A wrong part can extend an otherwise routine repair

Consider a cooling-system repair. Once the faulty water pump has been removed, a replacement that differs in mounting or connections may send the job back to the purchasing desk. The loss is not limited to the price of a returned component. The workshop must check the application again, arrange another shipment and keep the machine unavailable in the meantime.

The same issue appears during planned rebuilds. A workshop ordering pistons, rings, bearings and gasket components needs parts that correspond to the engine being rebuilt, not simply a kit carrying the right manufacturer’s name. A verified reference can make a straightforward repair predictable, while an assumption made early in the ordering process can cause delays after the engine has been opened.

For fleet maintenance teams, OEM-quality aftermarket parts provide another supply option, particularly when availability and costs are being compared. What matters is confirming the application and specification rather than treating a brand name or a close visual match as proof of compatibility. OEM-quality aftermarket components should also be distinguished from parts sold as original by the engine manufacturer.

A more useful way to search for replacement parts

Sensei Parts organizes its engine-parts offering around the references workshops actually use. Its Yanmar range can be searched by part number or engine model, with product groups covering fuel-system components, water and oil pumps, starters, filters and overhaul parts. Its Kubota range brings together rebuild, cooling, fuel and electrical components, including applications for engine families such as D902, D1105, V2403 and V3800.

For buyers who know the part number, checking the corresponding Sensei reference is a direct route to the relevant product. When the number is missing, starting with the Yanmar or Kubota engine model can narrow the search. Sensei’s team can assist with reference checks where the information supplied is incomplete, allowing workshops to compare OEM-quality aftermarket options before placing an order.

The machine badge remains useful for identifying the equipment. For the parts that keep its diesel engine running, however, the engine and component references usually tell the buyer much more. Getting those details right before ordering can save a second parts shipment and a longer stay in the workshop.

The companies signed an agreement on 23rd October 2026 outlining the framework for the proposed cooperation. The arrangement would combine Canada’s mineral resources and energy advantages with Swiss Steel Group’s specialty steel manufacturing capabilities and established European customer network.

The proposed partnership is intended to provide Swiss Steel Group with exclusive access to low-carbon steel billets and blooms for further processing into specialty steel products. An initial supply concept has been developed and technically validated for facilities in the United States, Canada, Germany, Switzerland and France.

Proposed Steel Supply to Support Specialty Manufacturing

Under the proposed arrangement, Swiss Steel Group would use the semi-finished steel products as feedstock for its specialty steel operations. The planned supply of approximately one million tonnes annually from 2030 is intended to provide the company with access to lower-carbon raw materials while allowing it to adjust its own industrial footprint.

Frank Koch, CEO of Swiss Steel Group, said “This intended partnership supports an important element of our strategy: focusing our own industrial footprint while securing flexible access to competitive, low-carbon pre-material.”

“It would strengthen our ability to serve our customers with high-quality specialty steels while increasing flexibility across our production network. Together with Canada Nickel Company, we will now work towards translating this concept into a commercially and technically viable long-term partnership,” he added.

Canada Nickel Advances Low Carbon Steel Production Plans

Canada Nickel is developing its Crawford Nickel project in Ontario. Through its wholly owned subsidiary, NetZero Metals, the company intends to process concentrates from the mine into finished nickel products and use nickel-chromium magnetite concentrate to produce low-carbon, potentially net-zero-carbon, semi-finished stainless and specialty steel products.

“This partnership demonstrates how we can translate our shared economic and industrial priorities into tangible commercial opportunities. Canada’s mineral resources and competitive, low-carbon energy advantages, combined with Swiss Steel’s manufacturing expertise and European market access, create an opportunity to build secure, low-carbon supply chains that benefit both economies. We look forward to working together to unlock European critical minerals funding support for the project as we advance Crawford towards a construction decision in 2027,” said Mark Selby, CEO, Canada Nickel Company.

“Northern Ontario continues to demonstrate its strength in responsibly produced critical minerals and low-carbon industrial development. The proposed partnership between Canada Nickel and Swiss Steel highlights the global demand for Ontario’s resources, expertise, and competitive advantages. Initiatives like this reinforce Northern Ontario’s role in building secure supply chains, driving long-term economic growth, and strengthening Canada’s position in global markets,” said George Pirie, Minister of Northern Economic Development and Growth.

Circular Economy and Specialty Steel Manufacturing

Headquartered in Lucerne, Switzerland, Swiss Steel Group manufactures specialty long steel products, including high-quality structural steel, stainless steel and tool steel. The company says its use of steel scrap in electric arc furnaces supports its circular-economy activities and the production of lower-carbon steel.

Swiss Steel Group operates production and sales companies in 25 countries and employs approximately 7,000 people.

The proposed low carbon steel partnership remains an intention to establish a long-term commercial arrangement. The companies will need to advance the technical and commercial work before the planned supply relationship can be implemented.

Why Automated Systems Might Fail to Survive a Power Outage

Building automation offers seamless integration and precise environmental control, from HVAC scheduling to automated access points. Yet this interconnected infrastructure rarely prioritizes the redundancy and power continuity your systems need to keep running when the grid fails. That gap often goes unnoticed until the power actually goes out.

The grid will face greater pressure from extreme weather, and modernizing it to withstand such events has become a priority for utilities nationwide, as recovery grows harder with each disruption. You have less time to recover before losses start compounding.

Major grid outages can cascade quickly, and resilient power planning for critical facilities often determines whether your site can run on its own backup generation or storage. Without that cushion, you risk losing mission-critical systems the instant utility power drops.

True resilience comes down to your design choices rather than the presence of automation, because designing buildings for resilience involves prioritizing critical loads while integrating monitoring and control systems well before disaster strikes. The four case studies below demonstrate why.

What a Hurricane Taught a National Retailer About Protecting Automated Refrigeration

When hurricanes knock out power for days, perishable inventory becomes an immediate crisis for food and pharmaceutical operators serving the surrounding community. If your facility relies on refrigeration, you already know it remains essential for preventing spoilage, even though it requires continuous, high-volume energy to run.

Financial losses from spoiled inventory can deepen the economic toll on communities already working to recover, and that pressure only intensifies when hundreds of locations are affected at once. For one national retailer facing widespread refrigeration and HVAC failures after a hurricane, CoolSys stepped in with an emergency cleanout program tailored to storm-driven refrigeration failures.

Every impacted store was serviced within hours of road reopening, and 100% of participating locations avoided additional refrigeration and sanitation costs. The result reflected $200,000 savings in under a week across the retailer’s footprint, showing that a pre-mobilized response can help offset even widespread outages.

CoolSys could respond quickly because of pre-positioned teams that track storm paths and stage regionally, not because refrigeration systems were automated. Operating under a national coverage network spanning more than 110 U.S. branches, the company draws on preventive maintenance programs calibrated to each operator’s equipment while offering emergency service around the clock.

The gap CoolSys filled was not a failure of automation. It was a failure to plan for the power continuity and physical asset protection you need well before a storm makes landfall.

What Wildfire Shutoffs Reveal About Your Backup Power Gaps

California’s wildfire-driven Public Safety Power Shutoffs (PSPS), which can leave healthcare facilities vulnerable during outages, have forced skilled nursing facilities to evacuate when automated life-safety and HVAC systems lost power entirely. Automation could not compensate for the lack of battery storage or the generator’s capacity.

Facilities equipped with renewable battery energy storage could have kept essential equipment running without interruption throughout these extended shutoffs, benefiting the residents and staff who depend on it most. That same continuity also eases the disruption felt across the surrounding community during a prolonged disaster.

A 2022 California law now requires skilled nursing facilities to maintain an alternative power source capable of running for at least 96 hours during an outage. In response, a microgrid solution for resilient healthcare facilities emerged, seismically tested to withstand an 8.0-magnitude earthquake and 150 mph winds.

Fifty skilled nursing facilities have already expressed interest in adopting the technology, proving the fix came from infrastructure planning rather than from upgrading automation already in place. That same principle applies to other critical facilities.

How One Winter Storm Exposed the Fragility of Backup Power Plans

Winter Storm Uri triggered statewide rolling blackouts across Texas in February 2021, leaving thousands of businesses unable to operate and millions of residents without power. One pharmaceutical distribution facility avoided the worst of it thanks to power infrastructure installed well in advance.

When the grid frequency dropped from 60 Hz to 59.4 Hz, the facility’s on-site power system switched to island mode and disconnected from the grid. Its power continuity plan during the storm kept the system running intermittently for five days of rolling outages, without losing a single degree of temperature control.

Industry coverage of the event found that temperature- and light-sensitive pharmaceutical compounds require a narrow, tightly controlled temperature range, making reliable power essential for protecting them. The facility’s on-site system also qualified to operate during nonemergency periods under the Environmental Protection Agency (EPA) Tier 4 Final standards.

This qualification allowed the facility to participate in incentivized demand response programs, helping relieve stress on the shared grid while even exporting surplus power when needed. The same approach can deliver measurable savings in your operating costs while supporting your community’s grid stability.

What an Earthquake Reveals About Your Dependence on the Grid

A 7.2-magnitude earthquake struck Taiwan in April 2024 while a major semiconductor manufacturer was already placing heavy strain on the local grid. The quake damaged pipelines and furnace tubes, triggering leaks that further compounded an already fragile power situation for the region.

Eight of the region’s power generators failed after the quake, dropping the utility’s safe backup capacity margin from 6% to 7% to only 3% and forcing large industrial and manufacturing operators to scale back operations. The shortage spread fast.

In response, the semiconductor manufacturer supplied 200 MWh of backup power to the city from its own diesel generators, helping the area avoid broader outages during a period of significant strain on the regional grid. No automation system could have replaced that response.

Rising regional temperatures are part of a broader pattern of climate change’s strain on power grids, adding pressure far beyond Taiwan. Even your most advanced automated systems cannot substitute for independent power generation when the grid itself is compromised.

Resilience Starts With the Infrastructure Behind Your Automation

Disasters covered here, from hurricanes to earthquakes, expose the same gap. Automation only performs as well as the power continuity, connectivity redundancy and physical protection behind it. National coverage and preventive maintenance build that foundation before disaster strikes. If you stress-test these systems now, your facility is more likely to stay standing when the grid goes down.

Industry Strategies for the Supply Backlog

The global supply backlog exceeded 1,000 gigavolt-amperes (GVA) in 2024 and could reach roughly 1,690 GVA by 2030. Federal investment has helped, but the Infrastructure Investment and Jobs Act’s $73 billion allocation through 2026 still leaves a $578 billion investment gap for grid modernization. While long-term capacity builds, operators need strategies that work right now.

Multiple approaches have emerged to stretch existing resources and accelerate procurement:

• Asset life extension: Sensors detect insulation degradation early through partial-discharge monitoring, enabling utilities to schedule replacements strategically rather than face unexpected failures.
• Fleet standardization: When utilities order fewer unique configurations, manufacturers can dedicate production capacity to commonly specified units. Limiting custom specifications streamlines procurement across standard voltage classes and can significantly shorten ordering cycles.
• Reconditioning: Reconditioned transformers can often be ready in months instead of years, providing an alternative to waiting for new manufacturing. Units undergo thorough inspection and testing to meet performance standards.
• Advance pooling: Pooling arrangements help smaller operators gain access to backup inventory they couldn’t justify maintaining independently through regional collaboration. Shared stockpiles reduce individual capital requirements while improving emergency response capabilities.

These strategies buy valuable time. However, they don’t solve the immediate problem when a transformer fails or a new substation comes online, which is where temporary power fills the gap.

Temporary Power Equipment as the Immediate Solution

A substation expansion project scheduled for completion in six months loses value if the transformer does not arrive within 24 months. Operators cannot afford to wait years for new manufacturing when grid demands are immediate.

Short-term rentals provide stopgap power during equipment failures, while long-term arrangements support planned infrastructure projects that would otherwise stall. Rental transformers keep substations energized, construction sites operational and service areas protected from outages that could stretch for months.

Rental equipment offers the flexibility that permanent installations can’t match. Load growth projections change, and rental arrangements adapt to those shifts. When demand patterns remain unclear, operators can energize a new development with rental transformers while usage data accumulates.

Once actual requirements become clear, they can specify permanent equipment with confidence and return the rental unit. This strategy prevents both underbuilding and overbuilding costly permanent infrastructure.

Are There Companies That Deliver and Install Rental Transformers?

Comprehensive rental and service providers equipped to handle utility-scale demands have stepped up to meet the crisis. Three companies stand out for maintaining substantial inventories of distribution equipment, while offering the logistics support needed to get transformers into service quickly.

1. Sunbelt Solomon

Sunbelt Solomon offers a complete life cycle of power solutions for utility, commercial and industrial customers. Reconditioned units arrive much faster than new units, and its three-year warranty outpaces the standard one-year warranty on new units. Users get better protection and faster delivery.

Speed matters during a supply crisis, and Sunbelt Solomon’s emergency rental service responds to urgent needs with 24/7 availability and rapid deployment capabilities. Its inventory spans both low- and high-voltage transformer options to match equipment specifications to exact requirements without delays. It also provides maintenance and repair services for both rental and owned assets. This all-in service means clients work with one provider across an item’s entire life cycle.

2. United Rentals

https://www.unitedrentals.com/

United Rentals maintains a widely available fleet of temporary power equipment across numerous locations. Standardized step-up and step-down transformer configurations suit a range of distribution applications, and an established logistics network supports deployment to various project sites.

A national footprint gives United Rentals reach into most major markets. Equipment stock includes common voltage classes that cover typical distribution needs, helping utilities operating across multiple service territories access consistent equipment specifications regardless of location. The company’s Total Control online platform allows utilities to manage rental accounts and track equipment digitally.

3. Texas First Rentals

Home

Texas First Rentals provides reliable transformer solutions with particular strength in regional power applications. Bundling transformers with other temporary power distribution equipment is a core part of its approach, particularly for customers who need integrated systems.

When a project requires switchgear, cable and transformers working together, sourcing each component separately from different vendors adds complexity. Texas First Rentals addresses this through bundled solutions that keep multiple components coordinated under a single agreement. Site assessments and professional installation services come standard, with experienced technicians handling planning and equipment removal.

Frequently Asked Questions About Temporary Power Equipment

Operators considering rental solutions often have similar concerns about capabilities and logistics.

How long can utilities rent transformers?

Rental periods range from days to years, depending on the application. Short-term rentals cover emergency outages and temporary construction power needs, while long-term arrangements support extended projects or bridge the gap until permanent equipment arrives. Some utilities maintain rental agreements for 18 months or longer during major infrastructure upgrades.

What voltage ratings are available in rental fleets?

Rental providers stock both low-voltage distribution transformers and high-voltage units for substation applications. Voltage classes typically range from 480V distribution equipment up to transmission-class transformers rated for 69kV and higher. Availability varies by provider and region.

Do rental agreements include installation and removal?

Most comprehensive providers handle pickup and placement as part of the rental service. This logistics support reduces coordination burden on utility crews and accelerates deployment timelines during critical situations. Some providers also offer connection services and testing.

Can rented transformers match custom specifications?

Standard ratings dominate rental inventories because they serve the broadest range of applications. Custom specifications may require longer lead times, but reconditioned units can sometimes be modified to meet specific requirements faster than ordering new equipment. Providers typically maintain communication about upcoming inventory additions.

How does rental pricing compare to purchasing?

Rental costs depend on equipment size, rental duration and required services. For short-term needs or uncertain timelines, expenses typically remain lower than capital purchases. Extended rentals may approach purchase costs, but they preserve capital budgets and provide the flexibility to return equipment when permanent solutions are in place.

Secure Reliable Power for Grid Resilience

The transformer supply crisis won’t resolve overnight. Flexible rental solutions keep utilities operational while the industry rebuilds manufacturing capacity. Operators who establish relationships with responsive rental providers gain the speed and inventory access needed to maintain grid reliability despite unprecedented lead times. Energizing a substation now with rental equipment beats waiting two years for new manufacturing. Rental transformers bridge the gap between immediate needs and long-term solutions.

Detailed design and engineering works are underway at the facility, which is operated by Water Corporation. The initial funding will support early design activities and site preparation for a compact, modernised treatment plant at the Lemnos Street location.

The upgrade addresses the need to expand essential utility infrastructure as Perth grows. Increased wastewater processing capacity is expected to support residential development across the city’s inner and western suburbs, including infill housing, precinct redevelopment and projects near major transport hubs.

The facility has operated since 1927 and currently processes approximately 65 million litres of wastewater daily from 120,000 households and businesses. Its service area extends from Scarborough to North Fremantle and east to Maylands.

Engineering Works Target Increased Treatment Capacity

The proposed redevelopment will add 23 million litres of daily wastewater treatment capacity to the existing facility. The expanded infrastructure is intended to service housing for more than 135,000 residents over the next 25 years.

The initial AU$105 million allocation supports the early stages of project development, including detailed design, engineering and site preparation. These activities will help establish the requirements for expanding treatment operations while accommodating the constraints of an established urban site.

The redevelopment plan centres on constructing a compact treatment plant at the Lemnos Street location. The design approach aims to increase processing capacity while continuing to serve households and businesses across the existing catchment.

For the construction and infrastructure sectors, the project highlights the role of wastewater treatment upgrades in supporting metropolitan development. Expanding utility capacity is an important part of preparing established urban areas for additional housing and higher population density.

Wastewater Infrastructure to Support Housing Development

The increased treatment capacity is expected to support housing and redevelopment projects across Perth. Planned growth areas include Subi East, Belmont Park Racecourse, Fremantle Port and key transport hubs.

These developments require supporting infrastructure capable of managing the wastewater generated by additional residents and businesses. Upgrading treatment facilities can help address utility capacity constraints that might otherwise limit the pace or scale of urban development.

Housing and Works Minister John Carey said the investment aligns with the state’s AU$10.8 billion housing strategy, which aims to accelerate land supply and expand housing density options.

The Subiaco wastewater upgrade project forms part of broader government investment in water, wastewater and drainage networks across Western Australia. More than AU$500 million has been allocated to expanding network capacity to support residential development.

The combination of treatment plant upgrades and wider network investment reflects the infrastructure requirements associated with accommodating population growth. For project owners and infrastructure planners, coordinating utility capacity with housing and precinct development is an important consideration in delivering new residential areas.

Design to Address Odour Control and Water Recycling

Alongside increased processing capacity, engineering work will examine advanced odour control systems to protect the amenity of surrounding neighbourhoods. The redevelopment will also consider enhanced water recycling capabilities.

These design elements address operational requirements associated with upgrading a wastewater facility in an established urban area. Odour management is particularly relevant where treatment infrastructure operates near residential communities, while water recycling can provide additional opportunities to reuse treated water.

Water Minister Daniel Pastorelli said, “This $105 million investment is the next step in creating more opportunities to recycle water and reduce demand on our drinking water supplies while supporting 60,000 future homes.”

The Subiaco wastewater upgrade project therefore combines expanded wastewater treatment with consideration of environmental management and water reuse. The final design will need to accommodate these requirements alongside the facility’s increased processing capacity.

Infrastructure Investment Supports Perth’s Long-Term Growth

The Subiaco Water Resource Recovery Facility upgrade represents a major infrastructure investment intended to support Perth’s future housing and urban redevelopment needs. Its proposed additional treatment capacity of 23 million litres per day is expected to help service 60,000 future homes and accommodate more than 135,000 residents over the next 25 years.

With detailed design, engineering and site preparation underway, the project is progressing through its early development stages. The initial funding provides for these activities, while the proposed plant redevelopment is intended to expand the capacity of a facility that has served Perth since 1927.

The project also illustrates the connection between water infrastructure investment and construction activity. Residential precincts, infill developments and higher-density housing rely on wastewater systems capable of supporting additional demand.

As Western Australia continues investing in water, wastewater and drainage capacity, projects such as the Subiaco upgrade will form part of the infrastructure planning required to support metropolitan growth.

The project will use Fortera’s ReAct cement technology, which incorporates captured carbon dioxide into the finished product. According to MLC, the resulting cement would contain nearly 50 percent captured CO2 by weight and is designed to meet or exceed the performance of traditional cement.

The companies selected MLC’s Ste. Genevieve operation because of its scale and location. Situated in the central Midwest along the Mississippi River, the site offers access to markets across much of the United States and internationally.

The proposed facility also aims to support domestic cement production. According to the U.S. Geological Survey figures cited in the source, imports accounted for approximately 21 percent of U.S. cement consumption in 2025.

Fortera Technology Converts Captured CO2 Into Cement

Fortera’s ReAct technology is designed to transform captured carbon dioxide from lime production into a usable cement product. By incorporating the captured CO2 into the finished material, the process aims to address emissions associated with lime and cement manufacturing.

Cement production accounts for about 8 percent of global CO2 emissions, according to the U.S. Department of Energy. The proposed plant would use an existing emissions stream from MLC’s lime operation as an input for cement production.

Ryan Gilliam, CEO and co-founder of Fortera, said, “The Ste. Genevieve plant marks a new era for American cement production, one where technology turns emissions into a high-quality product the market needs while creating lasting local jobs. Building alongside the largest lime operation in the Americas lets us turn an existing emissions stream into hundreds of thousands of tons of cement to meet demand that already exists.”

The project would establish the first commercial plant for Fortera’s low carbon cement technology, according to the announcement. Its planned annual output of 300,000 tons would bring the technology into commercial-scale production at an established industrial site.

Lime Production Provides an Emissions Source

The project also addresses emissions from lime manufacturing, particularly calcination. This process involves heating limestone to produce lime and is a significant source of direct emissions for the lime industry.

MLC says calcination accounts for approximately 60 percent of the lime industry’s direct emissions. Fortera’s technology is intended to convert captured carbon dioxide from this process into a cement product, creating an alternative use for emissions generated during production.

“While MLC has reduced our carbon footprint by 8 percent since 2022, and I am proud of that progress, current technologies will only take us so far,” says Paul Hogan, CEO of MLC who is also currently president of NLA. “Lime producers need practical solutions to capture calcination emissions. Fortera has developed an innovative approach that not only reduces the amount of carbon we release; it also turns it into a valuable product.”

The National Lime Association aims to decarbonize the U.S. lime industry by 2050. The proposed plant represents an approach to using captured emissions as a feedstock for another construction material rather than treating them solely as a waste stream.

Missouri Site Offers Access to Cement Markets

The Ste. Genevieve site was selected for its industrial scale and geographic position. Its location on the Mississippi River in the central Midwest could support the delivery of cement to customers across much of the United States and to international markets.

According to MLC, cement produced at the facility is expected to serve markets across the Midwest. Potential users include Ozinga, a fifth-generation, family-owned company that supplies ready-mixed concrete and building materials.

Marty Ozinga, CEO of Ozinga, said, “Scaling the next generation of cement requires more than innovative technology. It requires strong partnerships across our industry. Fortera’s ongoing work with Ozinga represents the kind of collaboration needed to bring lower-carbon cement solutions to commercial scale while strengthening domestic manufacturing and ensuring we can continue to deliver the performance and reliability our customers expect.”

The expected use of the cement in the Midwest would connect the proposed production facility with the region’s construction materials market. The project also brings together cement technology development, lime production and a ready-mixed concrete and building materials supplier.

Commercial Production Targets Lower Carbon Cement

The planned facility combines MLC’s existing lime production operation with Fortera’s process for producing cement from captured carbon dioxide. Its proposed capacity of 300,000 tons annually would create a commercial outlet for the resulting material.

By using captured emissions as an input, the project aims to reduce emissions associated with lime and cement production while manufacturing a product designed to perform comparably to traditional cement. Its potential contribution will depend on the facility’s development and the resulting cement’s production and market deployment.

The project also aligns with efforts to expand domestic cement manufacturing and develop alternative production methods for construction materials. Fortera and MLC plan to advance the commercial plant at Ste. Genevieve, with the site’s scale and location expected to support distribution across U.S. and international markets.

The configuration is intended to make 3D grade control more accessible to contractors operating smaller equipment fleets. It also includes access to Trimble WorksManager for managing construction data between the office and the job site, connecting machine positioning with digital design workflows.

The launch adds another option to Trimble’s existing earthmoving technology portfolio, allowing contractors to evaluate 3D machine control without necessarily committing to higher-cost configurations.

Dual GNSS Receivers Support 3D Excavation

Trimble’s new configuration combines two DA2 GNSS receivers with its ProPoint positioning engine to provide three-dimensional positioning for excavator grade control. The system is designed to help operators understand the bucket’s position relative to the digital project design during excavation.

Applications can include trenching, foundation excavation, drainage installation and formation preparation. By providing positioning information in the cab, grade control systems can help operators work towards specified depths, slopes and excavation profiles without relying exclusively on physical setting-out and repeated survey checks.

More accurate excavation can reduce unnecessary material movement and corrective work. The potential benefits depend on the project design, operating conditions, machine configuration and the accuracy requirements of the task.

Trimble says its ProPoint technology is designed to maintain reliable GNSS positioning in challenging satellite reception environments. However, the announcement does not specify the new configuration’s machine-level accuracy figures, detailed receiver arrangement or the automatic control functions included. Contractors will need to confirm these specifications when evaluating the system for particular applications.

As with other GNSS-based machine control technologies, performance depends on satellite visibility, suitable correction services, machine calibration and the quality of the underlying digital design. Sites with significant obstructions may require additional planning to maintain reliable positioning.

Subscription Model Targets Smaller Contractors

The new configuration introduces a subscription-based route to adopting 3D excavator grade control. Instead of relying solely on a conventional upfront purchase model, contractors can access the system through a Trimble Works subscription that includes WorksManager.

This approach is intended to reduce the initial financial barrier for smaller businesses that may have limited budgets for advanced equipment technology. Contractors operating only a few excavators can face different investment considerations from major civil engineering companies, which may distribute technology costs across larger fleets and multiple projects.

The commercial benefits will depend on the full cost of ownership. Hardware, installation, GNSS correction services, operator training and ongoing support can all affect the financial case for adopting machine control. Trimble has not provided specific subscription prices or detailed hardware payment terms in the supplied announcement.

Equipment utilisation is another consideration. Contractors carrying out frequent excavation to defined levels may have more opportunities to benefit from digital grade control than operators whose machines primarily perform less design-intensive work.

A subscription model can also make software expenditure easier to plan as a recurring operating cost. Whether it reduces overall expenditure compared with other purchasing arrangements will depend on the contract terms, the length of use and the productivity improvements achieved.

WorksManager Connects Office and Field Workflows

The inclusion of Trimble WorksManager supports the transfer and management of construction information between office teams and connected equipment. This is an important part of digital machine control, as excavators need access to the correct design files to work against specified levels and geometry. Trimble is also expanding its digital construction capabilities through AI-powered risk intelligence for construction drawings, extending the use of technology to analyse project documentation.

On projects where designs or construction requirements change, teams must ensure that updated information reaches the relevant machines. Centralised data management can help organise project files and reduce dependence on manual transfers between office computers and equipment.

Introducing a digital grade control system also involves more than fitting receivers to an excavator. Contractors need suitable digital designs, correctly established site coordinates, reliable data management procedures and operators who understand the information presented in the cab.

For businesses already using digital surveying or machine control technology, integrating another machine into an established workflow may be more straightforward. Contractors adopting these systems for the first time may need to update their surveying, design preparation and site supervision processes.

Expanded Earthworks Options for Construction Fleets

The new configuration extends Trimble’s existing Earthworks platform rather than establishing a separate product family. Contractors familiar with the software can assess the dual DA2 receiver option alongside other machine control arrangements, subject to confirming compatibility and technical requirements.

Cameron Clark, senior director of earthmoving solutions at Trimble, said the company aimed to provide a competitive alternative without compromising the positioning performance expected from its machine control products.

The company’s announcement positions the configuration as an option for cost-sensitive contractors seeking to introduce 3D technology across their operations. Wider adoption could help more businesses incorporate digital positioning into excavation workflows, although the practical benefits will vary according to fleet size, project type and utilisation.

The configuration is scheduled to become available through Trimble’s dealer network in mid-Q4 2026. Contractors can check regional availability and purchasing information through the Trimble dealer locator.

By combining dual DA2 receivers, ProPoint positioning and WorksManager access, Trimble is expanding the range of options available to contractors considering digital excavator control. Final pricing, installation requirements and detailed technical specifications will be important factors as businesses assess whether the configuration meets their operational needs.

The Potain MDT 99e has a maximum lifting capacity of 5 tonnes, a horizontal reach of up to 55 metres and a jib-end capacity of 1.2 tonnes. Its compact design, simplified assembly and updated control technology are intended to help contractors manage lifting operations in space-constrained urban environments and residential construction projects.

The crane combines Potain’s lifting technology with controls designed to improve precision, simplify commissioning and support maintenance. Its features include Potain Plus software, the Top Site anti-collision system and Power Control, which helps maintain crane performance when the available power supply varies. An Ultra View cab is also available as an option.

CCS Evolution Control System Enhances Crane Operation

The MDT 99e is the first Potain crane to feature the CCS Evolution control system. Building on the existing Crane Control System, the updated system is designed to provide smoother crane movements, greater precision and improved operator control.

A touchscreen and intuitive interface are intended to simplify commissioning and maintenance for technicians. The system also allows operators to personalise control settings to suit their preferences, helping reduce setup time when the crane is used by different operators.

These features are particularly relevant to rental fleets and construction sites where multiple operators may work with the same equipment. A familiar control layout and simplified setup can help teams adapt to the crane while supporting consistent operation.

Thibaut Le Besnerais, vice president of marketing and product development at Potain, said, “Space constraints continue to challenge contractors, particularly in urban environments where every square meter matters. The MDT 99e delivers the ideal combination of compact design, lifting performance, and ease of installation. Combined with the new CCS Evolution control system, it gives owners and operators a smarter, more productive crane for today’s construction projects and tomorrow’s regulatory requirements.”

The crane’s other systems support lifting performance and site operation. Potain Plus software optimises lifting speed and capacity, while the Top Site anti-collision system supports crane operation in environments where potential interference needs to be managed. Power Control is designed to maintain performance when the power supply is variable.

Together, these features give contractors and equipment owners a combination of lifting capacity, control and operational flexibility for urban construction work.

Compact Design Supports Urban Construction Sites

The MDT 99e is designed for projects where space constraints can complicate crane installation and operation. Its compact topless configuration and lifting specifications are intended to provide flexibility across urban and residential construction applications.

With a maximum capacity of 5 tonnes and a reach of up to 55 metres, the crane can support material-handling requirements across a construction site. Its jib-end capacity of 1.2 tonnes provides an additional specification for assessing lifting performance at maximum reach.

The optional Ultra View cab provides another configuration choice for owners and operators. Inside the cab, an ergonomic layout and familiar controls are intended to make operation more comfortable and help reduce the risk of errors.

The combination of lifting performance and control technology is designed to help contractors manage construction activities where available space, equipment positioning and coordination between site operations are important considerations.

Simplified Assembly and Transport

Manitowoc has also designed the MDT 99e to simplify assembly and logistics. The crane provides access to the jib and counter-jib from the base, while its component design has been optimised for transport and installation.

Two alternative configurations are available to address different operating requirements. One is intended for customers working mainly on congested urban sites, while the other is designed for owners who regularly assemble cranes using helicopters.

These options allow equipment owners to select a configuration suited to their typical site conditions and assembly methods. Simplified access and transport-oriented component design are intended to make installation more manageable for assembly crews.

The MDT 99e is equipped with a 25 LVF 13 Optima variable-frequency winch and uses permanent four-fall reeving. It is also compatible with existing 1.2-metre K masts or L masts, allowing owners to integrate the crane into fleets that use these mast systems.

Compatibility with existing mast equipment can provide fleet owners with additional flexibility when planning crane deployments and managing equipment investments.

Equipment Features Target Efficiency and Ownership Costs

The MDT 99e combines lifting systems, operator controls and assembly features intended to support equipment utilisation throughout its service life. The control system’s touchscreen interface is designed to simplify commissioning and maintenance, while the crane’s assembly features address transport and installation requirements.

Potain Plus software, Power Control and the Top Site anti-collision system add operational capabilities aimed at supporting lifting performance and site management. The optional Ultra View cab gives owners another choice when specifying equipment for their operations.

For rental companies, the crane’s operator personalisation features and compatibility with existing K or L mast systems may be relevant when assessing deployment across different projects. Its design also addresses owners who need to move equipment between sites with different access and assembly requirements.

Manitowoc’s launch of the Potain MDT 99e expands its tower crane offering with an updated control system, a maximum lifting capacity of 5 tonnes and design features intended for modern urban construction. The model brings together compact equipment design, simplified assembly and lifting technology to address the operational requirements of contractors and crane owners.

The technology enables construction teams to visualize projects in a realistic 3D environment and assess how conditions such as extreme weather, sun exposure, material delivery delays and equipment installation changes could affect construction plans. By identifying potential conflicts earlier, teams can adjust project plans before issues lead to costly rework, delays or schedule disruption.

The collaboration targets complex projects, including AI factories and data centres, where construction teams must coordinate extensive physical infrastructure, equipment and schedules. Procore and NVIDIA aim to connect simulation capabilities with project information to improve planning, risk identification and decision-making throughout construction.

Digital Twins Support Construction Risk Management

Procore’s digital twin capabilities connect project models with information about real-world conditions and construction activities. Through the integration with NVIDIA Omniverse libraries, teams can visualize projects in 3D and test how different scenarios could affect construction before those conditions occur on site.

The capabilities are designed to help teams compare project designs with actual construction progress, understand potential schedule disruptions and evaluate alternative approaches before committing to changes in the field.

Steve Davis, president of product and technology at Procore, said, “Construction is inherently physical, but in the future, the most successful and resilient megaprojects will be built digitally first. As the leader in construction management software, Procore is deepening our collaboration with AI leader NVIDIA, to empower teams to visualize projects, simulate real-world conditions, and test variables before a single shovel hits the ground.”

NVIDIA Omniverse provides the simulation capabilities underpinning the new experience. Vladimir Troy, vice president of AI Infrastructure at NVIDIA, said the technology can help teams assess interconnected systems before construction begins.

“Building an AI factory requires thousands of decisions across power, cooling, compute, networking and physical infrastructure,” Troy said. “NVIDIA Omniverse lets teams simulate these systems before construction begins, identify problems earlier and make better decisions before they become costly changes in the field. Together, Procore and NVIDIA are connecting simulation with project data to reduce risk and move faster from design to operation.”

Connecting Digital Models With Site Conditions

The expanded capabilities form part of Procore’s broader system of intelligence, which brings project information together to help construction teams understand site conditions and act on potential risks.

Procore’s acquisition of DroneDeploy adds aerial and ground-based imagery to its project information capabilities. This imagery can be connected with digital twin models to help teams compare actual construction progress against the original design, identify discrepancies and address issues before they grow into larger problems.

The combined technologies are intended to support several construction workflows.

Teams can compare design models with real-world jobsite conditions using reality capture from DroneDeploy. This can help them identify differences between planned and actual construction progress and make informed decisions about corrective action.

Project teams can also connect 3D models with procurement and schedule information to understand how a disruption, such as a delayed material delivery or equipment installation, could affect subsequent activities. By identifying potential knock-on effects, teams can adjust work sequencing and take steps to protect critical milestones.

The platform also allows teams to test scenarios involving extreme weather, sun exposure, and the movement of workers and equipment. These simulations can help identify potential conflicts before construction activities begin or conditions change on site.

Simulation Targets Complex Infrastructure Projects

The collaboration comes as investment in data centres, AI infrastructure and energy systems drives demand for large, complex construction projects. The source announcement cites a projection that companies could invest nearly $7 trillion in data centre infrastructure by 2030.

Delivering these facilities requires coordination across multiple systems, including power, cooling, computing, networking and physical infrastructure. Construction capacity and workforce constraints can also affect delivery schedules, increasing the importance of efficient planning and resource use.

By connecting project data with realistic 3D simulation, Procore and NVIDIA aim to help construction teams evaluate risks earlier and make decisions with a clearer understanding of their potential effects. The approach is intended to reduce waste, limit rework and improve predictability on complex projects.

Switch, a designer, builder and operator of advanced data centres and a joint customer of Procore and NVIDIA, sees potential for 3D visualization to improve project planning and execution.

Corine Winfield, vice president of data operations at Switch, said, “When building at the pace and scale our customers require, there is no room for surprises in the field. By visualizing a project in 3D, our teams gain greater clarity into construction progress, make better-informed decisions earlier and keep complex initiatives on schedule.”

Procore and NVIDIA Advance Construction Intelligence

The expanded collaboration connects digital simulation with project data to help teams assess not only current construction conditions but also how potential changes could affect future work. By identifying risks before they become costly field problems, the technology aims to support more informed planning and project execution.

The new capabilities are currently in closed beta, allowing teams to move between Procore’s Model Manager and Realism Mode. Procore and NVIDIA are positioning the integration as a way to bring design information, construction progress and scenario testing into a more connected workflow.

As demand for complex facilities continues to drive construction digital twins and simulation tools offer teams another way to assess project risks before work is affected. The collaboration seeks to help construction teams make better-informed decisions, anticipate disruptions and manage complex projects with greater predictability.

The technology has potential applications in architecture, construction and design, where spatial printing offers new ways to produce curved elements, cantilevers and complex structures. Sika recently explored these possibilities through a collaboration with Digital Building Technologies (DBT) at ETH Zurich, demonstrating how the material can be printed directly into three-dimensional space rather than being built layer by layer.

Originally developed for high-performance molds used in prepreg composite production, SikaBiresin® MC 90 combines room-temperature processing with performance comparable to post-cured high-glass-transition-temperature epoxy systems.

Spatial Printing Enables Complex Architectural Geometries

Spatial printing allows material to be deposited directly into three-dimensional space, enabling the creation of free-form geometries, curved elements, cantilevers and complex three-dimensional networks that can be difficult or impossible to manufacture using conventional methods.

In collaboration with DBT at ETH Zurich, Sika explored how SikaBiresin® MC 90 could be used in this printing process. The spatial 3D printing process was developed by DBT in collaboration with Sika.

The material’s rapid strength development enables printed strands to support themselves shortly after extrusion. This reduces the need for temporary formwork or additional support structures during printing, providing greater freedom to produce complex shapes.

For architecture and design, the technology offers opportunities to explore spatial structures and geometries beyond those typically produced through conventional manufacturing methods. Its application also demonstrates how material properties can influence the forms and structures achievable through additive manufacturing.

Material Properties Support Efficient Fabrication

SikaBiresin® MC 90 uses a two-component polyurethane chemistry that enables controlled curing and rapid strength development immediately after extrusion. These characteristics support the printing of complex geometries, large overhangs and hollow structures at high throughput.

The material was initially developed for high-performance molds used in prepreg composite production. Prepreg composites are carbon- or glass-fibre-reinforced materials pre-impregnated with resin and cured under heat and pressure to produce lightweight, high-performance components.

SikaBiresin® MC 90 combines room-temperature processing with thermal resistance and dimensional stability comparable to post-cured high-temperature epoxy systems. This allows the material to deliver the required performance for demanding tooling applications without the energy-intensive post-curing associated with conventional alternatives.

By reducing the need for support materials and post-curing, the technology can streamline production processes while reducing material consumption and waste.

Collaboration Explores Architecture and Construction Applications

The collaboration between Sika and DBT at ETH Zurich demonstrates how advanced material science and innovative printing methods can be combined to explore new possibilities in architecture and design.

The material’s ability to retain its shape shortly after extrusion supports the production of spatial structures without relying on conventional layer-by-layer fabrication. This opens opportunities to investigate complex geometries and customised forms for architectural and design applications.

Beyond composite tooling, SikaBiresin® MC 90 has potential applications in architecture, construction, design and customised components where geometric freedom and material efficiency are important.

The collaboration highlights the role of specialised materials in expanding the capabilities of additive manufacturing. By combining rapid curing with high printing throughput, SikaBiresin® MC 90 provides a material platform for exploring new fabrication approaches.

Additive Manufacturing Expands Design Possibilities

SikaBiresin® MC 90 brings together material performance and spatial printing capabilities to support the production of complex structures. Its rapid strength development enables printed strands to support themselves, while its thermal performance and dimensional stability support demanding tooling applications.

The work with DBT at ETH Zurich demonstrates how these characteristics can be applied to spatial printing and explored for architecture and design. The technology also offers potential for customised components and lightweight structures that benefit from geometric freedom and efficient material use.

By connecting advanced material development with spatial printing, Sika and ETH Zurich are exploring new possibilities for additive manufacturing across tooling, architecture, construction and design.