R. Baker and Son Press Releases

How Remote Controlled Machinery Improves Demolition & Job Site Safety...

Tue, 13 Oct 2026 12:07:52 EDT

According to OSHA, falls remain the number one safety issue on construction job sites. Struck-by incidents, electrocution, and caught-in or caught-between hazards round out what OSHA calls the Focus Four, the most serious hazards construction crews face. Preventing them is something we work hard at every day.

Demolition, by its very nature, ranks among the most dangerous work in construction. Crews face fall exposure, tripping hazards, floor openings, falling debris, and pinch points, often all on the same project. Worker training, proper PPE, job hazard analyses, site-specific safety plans, and toolbox talks are all proven ways to prevent injury. But technology plays a major role in demolition safety too.

How Technology Is Improving Job Site Safety

Over the past few decades, technology has steadily helped workers avoid injury. Some advances are simple, like the pocket voltage tester that lets an electrician check for live power with a flick of the wrist. Others, like advanced gas detection meters for confined space entry, have saved countless lives.

Equipment has evolved as well. Compact spider lifts and atrium lifts now fit through standard doorways and reach heights of 60 feet or more. Workers no longer have to climb ladders or work from makeshift setups to reach elevated areas, which greatly reduces their chance of falling. The all-terrain telehandler, part crane and part forklift, is built to handle rough, uneven, and muddy ground with ease. It moves material and equipment across challenging sites, so workers no longer have to carry heavy loads by hand over unstable terrain, where a slip or trip can lead to serious injury.

One machine, however, has changed demolition safety in more ways than almost any other. It performs a remarkable range of tasks safely and effectively, and it has become a go-to choice across the demolition industry: the Brokk remote-controlled demolition machine.

Putting Distance Between Workers and Demolition Hazards

Traditional demolition often places workers close to unstable structures, falling material, vibration, dust, and noise. Brokk machines were developed to move the operator away from those dangers while delivering the power and precision that demanding work requires. Using a remote control, the operator works from a safer position with a clear view of the machine and its attachment. This is especially valuable inside damaged buildings, tunnels, industrial facilities, nuclear installations, and bridges.

By separating the operator from the machine, Brokk remote-controlled demolition reduces worker exposure to:

Falling debris and structural collapse
Silica dust
Excessive vibration and high noise levels
Heat and contaminated environments
Difficult access conditions

Remote-controlled demolition changed the industry by bringing serious breaking and removal power into places where conventional excavators and manual crews could not work safely or efficiently.

Big Power in a Compact Footprint

Brokk machines are compact compared with conventional excavators, yet they deliver significant hydraulic power. Their small size allows them to work where access is restricted, floor loading is limited, headroom is low, or interior layouts are tight. Typical applications include interior and selective demolition, concrete breaking, refractory removal, tunnel and underground work, bridge and infrastructure demolition, industrial plant dismantling, kiln and furnace maintenance, and nuclear decommissioning.

Electric-powered Brokk models are particularly useful indoors because they produce no diesel exhaust at the point of operation. In hazardous or contaminated areas, the machine can work inside the zone while the operator remains safely outside it. Site-specific risk assessments, ventilation, monitoring, and protective procedures are still essential, but the reduction in worker exposure is significant.

Precision for Selective Demolition

Modern demolition is rarely just about bringing a structure down. R. Baker is often challenged to remove concrete around live utilities, work beside occupied areas, preserve structural elements, or demolish inside operating industrial facilities. Brokk equipment excels at this kind of controlled, selective demolition. Rather than taking out an entire section with large machinery, operators can target a specific wall, slab, beam, foundation, or process structure while keeping vibration and debris under control.

Brokk machines don't replace engineering controls or site safety procedures, but they give contractors far greater control over how and where material is removed. Interchangeable attachments let one machine handle multiple tasks, reduce manual breaking and material handling, and limit how much a work area must be altered just to get equipment inside.

How R. Baker & Son Puts Brokk to Work

Brokk has been building remote-controlled demolition machines since 1976, and R. Baker & Son has relied on them for decades. Our fleet includes several models that we use for demolition, concrete breaking, drilling, digging, sorting, and debris removal, as well as work in hazardous environments and confined spaces.

On many projects, we run several Brokk machines together, especially in areas simply too dangerous for people. We've used them for saw cutting and planing materials. We've sent them up stairs, loaded them into elevators, and used them to remove material from spaces no one else could reach.

The key is experienced R. Baker & Son operators who are thoroughly trained on both the remote controller and the attachments. In skilled hands, a Brokk becomes an extension of the person at the controls. Choosing the right machine and attachment combination depends on material type and thickness, reinforcement, access, floor capacity, clearance, power supply, and required production rate, and that judgment only comes with experience.

Happy 50th Birthday, Brokk

Brokk machines are a considerable investment, but they are built to last, and they have likely saved many lives and prevented countless injuries over the past 50 years. Happy 50th birthday to one of the most versatile demolition machines ever built, and thank you, Brokk, for helping keep our demolition crews safe.

Data Center Rigging & MEP Installation: Keeping Projects on Schedule...

Mon, 28 Sep 2026 14:10:15 EDT

Safe, efficient rigging and assembly of data center MEP systems starts with understanding how a data center operates. That means knowing what mechanical and electrical equipment is required, how each piece needs to be routed into place, and in what sequence. At R. Baker & Son, we work alongside electrical contractors on power distribution systems, mechanical contractors on cooling systems, and IT contractors throughout the build.

Permanent Power Comes First
A recent data center project is a perfect example. The schedule was aggressive and built around specific milestones, with permanent power as the first and most critical. Working closely with the electrical contractor, our team received and rigged in two 2500kva 4000 amp double-ended substations. Each substation included two 35kv medium voltage switches on each end, two large transformers, and the 480v low voltage distribution gear in between.

Next, R. Baker installed several large automatic transfer switches (ATS), along with two 2 MW generators and their associated paralleling gear.

Meeting the Cooling Availability Date
On the mechanical side, the goal was to have equipment ready in time for the facility's cooling availability date. That meant bringing in several 1,200-ton water-cooled centrifugal chillers, two heat pump chillers, two large cooling towers, and several plate and frame heat exchangers.

The cooling towers required dunnage to be installed before they could be set in place and assembled, so R. Baker assigned a separate team to handle this sizable scope. Completing that work allowed the mechanical contractor to finish installing the 10-inch condenser water piping, makeup water, and filtration systems.

Installing CRAC and CRAH Units
With nearly all major equipment set and assembled, our mechanical rigging crew moved on to installing several computer room air conditioning (CRAC) units for hot aisle and cold aisle cooling, along with four large 40,000 CFM computer room air handling (CRAH) units.

Collaboration That Kept the Project Moving
By working closely with the mechanical and electrical contractors, R. Baker helped ensure electrical and piping terminations began on time, supporting the overall data center project schedule. One especially valuable part of that collaboration was a combined daily toolbox talk. Every morning at 7 a.m., R. Baker and the other trades met together, which built a strong bond between crews and kept everyone aligned on safety and the day's priorities.

Planning a data center project? Contact R. Baker & Son to learn how our rigging team can help you hit every milestone.

Swapping an 8-Ton MRI in 48 Hours: Inside a Complex Medical Rigging Project...

Thu, 17 Sep 2026 19:57:09 EDT

Six months after rigging two MRI machines, a CT scanner, a PET scanner, and their associated chillers and cooling equipment into a brand-new medical treatment facility, we got another call from the same medical imaging equipment manufacturer. This time, the project was different: an existing MRI machine needed to be replaced, fast. Time was of the essence.

The manufacturer's MRI machine was 12 years old and had reached replacement age. After several rounds of repairs, it was clear a new unit was the better investment, and one was already available. The challenge was getting the swap done as quickly as possible, and that's where R. Baker & Son came in.

The old MRI was a large model weighing a little over 8.4 tons. The new one was smaller, at 6.8 tons, but no less demanding to move. To make the swap efficient, our team first had to identify and confirm the exact route used to bring the original machine in years earlier, through the second-floor mechanical room louvers. Getting this right mattered: machines of this size and weight require careful structural point-load and live-load calculations, both coming in and going out.

The goal was to make the transition as clean and low-disruption as possible. Downtime on equipment like this is expensive, so the plan had to be executed in coordinated phases. Working closely with the manufacturer, our team planned the job to run in parallel wherever possible. New MRI machines are worth well over $1 million, and they're as delicate as they are heavy, so precision and safety drove every step of the process.

Day one: prepping for removal

First thing on a Friday morning, the R. Baker team prepared the removal route for the old MRI, running from the mechanical room to the exterior fresh air louvers. At the same time, the manufacturer's technicians worked to reclaim the cooling helium from the old machine and prepare it for shipment. They also disconnected the external chiller, the valve box system, the patient table, and the computer control system. Everything was separated, match-marked, packaged, and boxed, and the job was ready for phase two.

Day two: the swap

The next morning at 7 a.m., the new MRI machine arrived on site with its chiller, mixing box, and other accessories. An 80-ton hydraulic crane was already staged and waiting. Our crew carefully removed the old MRI and its associated equipment, loading it onto a separate 48-foot flatbed truck bound for Illinois, where it would be fully refurbished and put back into service elsewhere.

The new MRI was lifted from its 53-foot flatbed using a heavy-duty flat spreader platform with dual spreader bars and guide rails, then raised into position at the second-floor mechanical room opening. Once the load was secured and carefully guided into the room, our team used heavy-duty, low-profile hydraulic toe jacks with neoprene wheels to move the machine into its exact marked location. With the MRI set, we attached an extended jib to the 80-ton crane to lift the new medical chiller onto the roof, positioning it roughly 60 feet back from the parapet.

The patient table, control room computer equipment, and cooling valve mixing box followed shortly after. Our team assisted the manufacturer with unpacking, clearing away hardware packaging and plastic, and staging every component for assembly.

Bringing it all online

The manufacturer completed assembly within 48 hours, and helium was delivered and loaded into the machine right away. At the same time, the cooling chiller, valve box, and heat exchangers were installed, tested, and powered up, so startup, commissioning, and validation could begin without delay.

In the end, the hospital, the manufacturer, and the MRI technicians were glad to have the new machine up and running for patients. Everyone involved was impressed with how efficiently the old MRI rolled out onto a waiting flatbed while the new one, and a crane ready to go, moved into place the very same morning. Several members of the hospital and facilities team were on hand to watch, and many had helped plan the project from the start.

Have a time-sensitive equipment move on the horizon? Contact R. Baker & Son to see how our rigging team can help keep your project on schedule.

Precision Chiller Dismantling & Mechanical Retrofit Case Study...

Fri, 28 Aug 2026 11:44:34 EDT

A local New Jersey representative for a major chiller manufacturer recommended R. Baker & Son for a demanding chiller change-out project. The scope: remove two 1,200-ton chillers and their associated multi-cell cooling tower, then clear the way for two new high-efficiency heat pump chillers and fluid coolers to take their place.

Fast, Efficient Cooling Tower Demolition

Speed and precision were critical from the start. The large three-cell cooling tower was drained, cleaned, dismantled, and disassembled with a 130-ton hydraulic boom crane fitted with an extended jib, reaching 75 feet in from the loading dock. Large lifting baskets made quick work of removing the plastic splash fill, electric pony motors, fan blades, sump piping, and other components.

Solving the Real Challenge: Demolition Inside an Operating Central Utility Plant

The bigger challenge was removing the existing chillers and piping in a highly congested space while keeping the live central utility plant running without disruption. Hot work permits were obtained and the crew performing the work were all OSHA trained and certified. Two obstacles stood out: managing smoke from oxy-acetylene cutting torches, and coordinating fire alarm test mode and fire watch procedures to keep the site safe throughout.

R. Baker & Son developed a site-specific safety plan that addressed both. The team reclaimed all refrigerant and prepped the chillers for removal, then used the existing refrigerant purge system fans to properly exhaust the mechanical room. This gave the space the air changes and cross-ventilation needed to cut safely without smoke buildup. The team also worked with the client to place air handler duct smoke detectors in test mode during the cutting schedule. Paired with active fire watch, this let crews disassemble the old chillers and piping quickly, with zero business interruption.

Ahead of Schedule, Ready for the Next Phase

Both chillers, along with their associated piping, were fully cut and disassembled in just two days, a full day ahead of schedule. That head start let R. Baker & Son move directly into supporting the next phase: bringing in the new heat pump chillers, rigging plate frame heat exchangers, and setting the new fluid coolers in place for the mechanical contractor.

A Model for Safe, Efficient Retrofit Work

The project delivered on every front: safety, demolition execution, and rigging support. The client was especially impressed with the refrigerant purge system solution for ventilating the mechanical space during cutting, noting that it kept the project moving without delays or setbacks.

Ready to tackle your next chiller change-out or mechanical retrofit? R. Baker & Son brings decades of demolition and rigging expertise to even the most complex, occupied-building projects. [Contact us] to see how our team can keep your project safe, on schedule, and running without interruption.

How to Protect Active Cleanrooms During Demolition: A Negative Pressure Wall...

Fri, 21 Aug 2026 13:21:03 EDT

Protecting a client's environment during demolition and renovation work has always been part of what we do at R. Baker & Son. Anyone in the industry knows ICRA protection, the barrier system used in hospitals to separate clean areas from active construction. Demolition airlocks serve a similar purpose, letting debris and materials move in and out of a controlled, negative-pressure environment without compromising the clean side. Clear separation between clean and dirty has always been the goal.

The Challenge: A Cleanroom That Couldn't Take Chances

One project made that goal harder than usual. A pharmaceutical client had a cleanroom corridor and clean equipment storage area sitting directly against a planned demolition and renovation zone. The R&D manager overseeing the space needed more than a standard separation wall to sign off. He was convinced that particulates would find a way into his cleanroom no matter how solid the barrier looked on paper. With strict internal protocols and a lot riding on contamination control, a wall alone wasn't going to cut it.

At the same time, he understood the demolition and renovation were necessary. The work would expand his space and support the facility's growing production needs. The challenge wasn't whether to do the project. It was proving the cleanroom would stay clean while it happened.

The Solution: A Monitored Negative Pressure Wall

Our demolition foreman and project manager designed a barrier that would do more than separate the two areas. It would let the client see and monitor cleanliness in real time.

We started with an airlock-style design and applied it to a 12-inch wall cavity, sealing the new protection wall completely at the floor and at the deck above. Once sealed, we installed a 450 CFM HEPA exhaust fan on the wall, along with filtered breather holes at the top to draw in cleaner air. A magnehelic gauge on the wall gave a constant, visible reading confirming the cavity was under negative pressure relative to the cleanroom side.

With the wall held negative, particulates and dust had nowhere to migrate. Any airborne contamination inside the cavity was pulled through the HEPA filter instead of drifting toward the clean area. The system also included a 90 dB local alarm that would sound if the filter needed changing or if the fan lost power, so the containment never went unmonitored.

The Result

We presented the design on paper first, walking the client through exactly how the negative pressure wall would protect his space before any work began. He approved the concept and stayed involved in monitoring the wall throughout construction. That level of transparency let us complete not just the demolition, but the full renovation scope, without ever raising a red flag in the R&D team's clean areas.

The client's comfort made the difference in how smoothly the project moved forward. We've since used this same negative pressure wall design on multiple projects where cleanroom or clean-space protection was non-negotiable.

Just-in-Time Rigging Keeps a Hospital Running During a Critical Enabling...

Tue, 11 Aug 2026 19:41:13 EDT

R. Baker & Son received a call from a concerned South Jersey mechanical contractor facing a complex rigging project on a tight deadline. Another rigging contractor had passed on the job late in the game, put off by its timing and complexity. The scope called for relocating several major pieces of mechanical equipment inside a busy, fully operational hospital, including two 150-HP screw air compressors and their associated dryer systems, a medical air and medical vacuum system, and two large water pre-treatment systems.

The challenge: the compressed air and water pre-treatment systems needed to be removed and relocated to the far side of a large mechanical room to make way for a new fire pump and electrical room. This work was an enabling project, clearing space ahead of a major new hospital addition.

Working Around a Live Hospital

Because the hospital couldn't accommodate any disruption to patient care, every relocation had to happen during off-hours, when demand was at its lowest. That meant the work could only take place late Saturday night into early Sunday morning.

None of the equipment could be fully shut down, since every system was fully redundant. That meant moving one system at a time while its counterpart stayed online, continuously supplying clean compressed air, water pre-treatment, and medical gases to the hospital. With only a few hours to work each night, the team needed a precise plan to isolate, disconnect, and remove each redundant unit quickly and move it into position at its new home.

Rigging Route: Skates, a Crane, and a Forklift Through the Louvers

The fastest path out of the mechanical room was to set the equipment on skates and carefully roll it out. From there, an 80-ton hydraulic crane lifted each unit up and over the hospital's central utility plant to the opposite side of the building, feeding it through a set of large fresh-air louvers. On the receiving end, R. Baker & Son used one of its smaller Versa-Lift forklifts to guide the equipment through the louvers with slings and a chain block. Once inside the new mechanical room, each unit was set precisely in place, where waiting crews connected the mechanical and electrical systems within minutes.

The relocations were completed over two consecutive Saturday nights into Sunday mornings. Thanks to extensive pre-planning, the actual disconnect-remove-and-set sequence at each new location was completed within a four-hour window each night, despite extremely tight maneuvering room in a mechanical space that had grown increasingly crowded through years of hospital renovations.

Precision Planning Left Nothing to Chance

R. Baker & Son recommended that the owner have all equipment fully serviced ahead of the move to rule out any performance issues after relocation. Every piece of equipment was match-marked, with rotation direction noted as well. At the new location, each unit's footprint was marked out on the floor in advance, allowing equipment to be set within 1/16 of an inch of its intended position. Nothing was left to chance.

The hospital and R. Baker & Son's client, the mechanical contractor, were pleased that the entire project was completed during early morning hours with no interruption to hospital utility services.

How Mobile and Tower Cranes Are Assembled & Dismantled...

Tue, 21 Jul 2026 11:38:07 EDT

Mobile cranes come in many styles, shapes, and sizes, with the hydraulic crane and the luffing jib being the most common. R. Baker & Son has worked with just about every mobile crane on the market. Some are so large that assembling them requires multiple tractor trailers of booms and hardware, along with several smaller cranes to help put the main crane together. And of course, it takes a skilled team of riggers to assemble and later dismantle a crane that may only be needed for a single lift.

However, mobile cranes can't reach the heights or scale required to build tall buildings safely and efficiently. That's where stationary cranes come in, falling into two basic categories: internal and external. Within these, there are two primary crane types to choose from: the hammerhead crane, with its vertical mast, horizontal jib, and counterweights, and the luffing jib crane, which angles upward much like a fishing pole and also relies on counterweights. R. Baker & Son has worked with many tower crane systems as well.

Choosing the right crane depends on several factors, including the maximum weight to be lifted, the crane's overall reach, the height of the building, and how many picks are needed per day or per hour. These requirements may point to using a single crane or several, depending on the size of the project, the surrounding site conditions, and any obstacles that need to be worked around.

Let's start with what's needed to install an external crane, since these are the most common. Once the structural engineering team carefully selects the right crane for the project, erecting and eventually dismantling it involves several key steps. Here's a concise overview of the process:

Erecting an Exterior Crane

Base Installation: A substantial concrete foundation is prepared to support the crane's weight and stability. The base frame is then placed on the foundation and secured, typically with large bolts deeply embedded into the concrete.

Bracing: The crane is stabilized with diagonal braces attached to the base and the tower sections. These specifically designed and engineered braces provide lateral support, preventing swaying and ensuring structural integrity as the crane rises.

Raising the Tower: The crane operator uses a climbing frame to incrementally raise the tower. Additional sections are added through a process called "jumping," where hydraulic jacks lift the tower so new sections can be inserted underneath and connected safely by experienced riggers like R. Baker & Son.

Dismantling the Crane

Lowering the Tower: Dismantling begins by carefully removing the top components, including the jib, or horizontal arm, and the counterweights, in a specific sequence so the crane does not tip. Hydraulic jacks then lower the crane back down to its original height.

Removing Sections: Once lowered, the tower sections are taken apart in reverse order of assembly, with each section carefully removed and lowered to the ground.

Base Removal: Finally, the base is unbolted from the concrete foundation, and any remaining components are cleared from the site.

Internal Tower Cranes

Internal tower cranes take a somewhat different approach, since they don't have access to the jumping method used by exterior cranes. Instead, they operate by lifting or sliding up within an elevator shaft or other vertical opening, bracing, then lifting, achieving the same goal by a different method.

Installing an internal tower crane also requires a substantial concrete foundation with embedded bolts. The base is located strategically within an elevator shaft or similar vertical opening, and is connected to the concrete foundation. Several vertical sections are then installed, followed by the crane's cab, jib, and counterweights, all mounted carefully on top, using a smaller crane, of course.

As the building rises beyond several stories, the crane rises with it using a pair of cross-member braces that slide through the shaft wall and rest on the concrete floors. Once secured and checked by the riggers, the crane is hydraulically lifted to the next story, then braced by additional supports within the shaft. Essentially, the crane climbs and supports itself on each floor, then lifts itself to the next level.

Removing an internal tower crane can be done by several methods, though the most common involves the tower crane lifting a smaller crane, called a derrick, to the roof and mounting it to a specifically designed steel dunnage support. Once the derrick is in place, it begins dismantling the jib, counterweights, and cab. Once those are removed, the derrick lifts each vertical section out of the elevator shaft until the base section is removed and lowered to the ground outside the building.

Once that's complete, the derrick removes most of its own structure, and what remains is taken down the elevator or shaft to ground level.

R. Baker & Son has been doing this work for 90+ years and brings that experience to every project. Call us today at 732-222-3553

7 Ways Demolition Protects Communities & the Planet...

Wed, 15 Jul 2026 06:09:45 EDT

7 Ways Demolition Builds Better Communities - And Why It Matters

When most people picture demolition, they see dust clouds and falling walls. What they don't see is the careful planning, environmental responsibility, and community impact that professional demolition and dismantling companies like R. Baker & Son bring to every project.

As an experienced industrial demolition contractor, R. Baker & Son has spent decades proving that tearing things down can build better communities, cleaner environments, and stronger neighborhoods. Here are seven ways demolition and dismantling create real, lasting change.

1. Pre-Demolition Enabling Work Ensures Environmental Compliance

Before any sustainable demolition activity can begin, enabling work is often required to safely

identify and remove specific liquids, gases, and solids from a structure. This includes reclaiming refrigerant gases and oils from DX air conditioning systems, draining chilled water, hot water, and glycol from HVAC systems, emptying and cleaning old tanks or reservoirs, and removing any residual solids or powders. R. Baker & Son coordinates closely with clients, industrial hygienists, and specialized contractors to verify materials and confirm proper removal and disposal methods. This careful groundwork keeps projects clean, compliant, and environmentally responsible from day one.

2. Demolition Recycling Keeps Waste Out of Landfills

R. Baker & Son has always been environmentally ahead of the curve, championing sustainable practices that minimizes pollution, conserves natural resources, and protects biodiversity. Because of this commitment, responsible demolition recycling goes far beyond tearing things down. Proper debris identification, separation, and disposal is a critical component of every R. Baker & Son project. Rather than sending materials straight to a landfill, the team sorts, processes, and channels waste into new uses wherever possible. This rigorous on-site material management ensures that R. Baker & Son projects are 100% LEED (Leadership in Energy and Environmental Design) compliant, helping clients secure all available rating points for waste diversion and material salvage. Concrete, brick, and masonry-typically, the heaviest materials on any site - are crushed and repurposed as recycled aggregate with dozens of downstream applications. Metals including copper, steel, and aluminum are recovered and recycled, as are wood and lumber, asphalt, gypsum drywall, cardboard, and plastics. Demolition recycling has come a long way, and R. Baker & Son continues to raise the bar on responsible material recovery as pioneering demolition contractors who were among the first in the industry to recycle construction site debris.

3. Clearing Vacant Properties Reduces Crime and Improves Neighborhoods

The demolition of vacant urban properties is one of the most direct ways the industrial demolition industry serves communities. Abandoned structures pose serious risks: collapsing roofs, unstable walls, and broken glass endanger neighborhood children, while the buildings are highly prone to accidental fires and arson that threaten adjacent homes. Beyond physical safety, these structures frequently become sites for illegal activity. Removing them reduces crime, cuts costs for police, fire departments, and code enforcement, and often raises surrounding property values. Once cleared, those lots can be transformed into community gardens, pocket parks, or development-ready land that helps revitalize the surrounding area.

4. Salvaging Reclaimed Building Materials Preserves Architectural History

Sustainable demolition has fueled a fast-growing market for reclaimed building materials, and recovering them is one of the more rewarding aspects of the work. Antique mantles, stained glass windows, unique doors and hardware, wrought-iron gates, decorative grilles, stonework, terra-cotta pieces, and vintage lighting all carry history worth preserving. R. Baker & Son's crews are trained to recognize and carefully extract these architectural elements during the demolition process, ensuring they are salvaged rather than lost. For homeowners and designers, a well-placed reclaimed piece becomes a focal point with a story to tell, bringing history back to life in a meaningful way.

5. Brownfield Redevelopment Restores Communities and Protects the Environment

Brownfield redevelopment has been a cornerstone of R. Baker & Son's industrial demolition services for decades. Established by the EPA in 1995, the Brownfield program addresses the cleanup and redevelopment of abandoned or underutilized properties such as former factories, gas stations, dry cleaners, and manufacturing plants. These projects remove hazardous contaminants and toxic materials including heavy metals, asbestos, lead paint, and petroleum, directly protecting local ecosystems, public health, and water quality. Beyond environmental remediation, brownfield redevelopment revitalizes communities and inspires further investment in long-neglected areas. Few undertakings in the demolition industry carry as much positive impact, and R. Baker & Son is proud to have contributed to many of them.

6. Dust, Noise, and Vibration Control Protects People and Surrounding Properties

A responsible environmental demolition contractor takes seriously its obligation to protect people and the surrounding environment throughout every project. R. Baker & Son deploys mist cannons to suppress demolition dust and uses exhaust fan systems with filtration to provide clean, ventilated air that captures airborne particulates. Demolition zones are physically separated from occupied areas using fully sealed barriers and airlocks, protecting both workers and building occupants. Where noise and vibration are a concern, R. Baker & Son develops detailed schedules that shift disruptive work to off-hours, minimizing the impact on neighbors and nearby businesses.

7. Emerging Technology Is Shaping the Future of Sustainable Demolition

The industrial demolition industry is evolving rapidly, and the future looks promising.

Autonomous vehicles and equipment are increasingly being deployed for dangerous or high-risk work, reducing crew exposure to hazardous conditions on complex projects. Advanced robotics can monitor demolition progress in real time, track environmental conditions, and operate effectively in confined spaces. Artificial intelligence is also playing a growing role, helping contractors access accurate data on building composition and subsurface conditions while supporting safety planning and regulatory compliance. R. Baker & Son stays closely attuned to these developments, always looking for ways to make projects safer, cleaner, and more efficient for clients and communities alike.

How R. Baker & Son Executes High-Stakes Projects with Engineered Work Plans...

Fri, 12 Jun 2026 15:03:13 EDT

Mission-critical and high-stakes projects demand detailed, preplanned coordination to ensure success at every level. When it comes to plant shutdowns, startups, repairs, changeovers, and equipment replacements, R. Baker & Son relies on a powerful, phased planning approach: starting with a Preliminary Work Plan and culminating in a highly detailed Engineered Safety Work Plan.

The Blueprint for Success: Preliminary and Engineered Work Plans

At R. Baker & Son, our planning process begins before the contract is even signed. We first prepare a Preliminary Work Plan, which outlines the general scope, sequence, and logistical approach. Once the project is awarded, we refine this initial strategy into a comprehensive Engineered Safety Work Plan.

This step-by-step document defines exactly what needs to be done, when to do it, how long each task should take, and how to safely execute complex, non-routine work. In the industrial contractor space, this plan acts as the master blueprint for critical operations. As the old saying goes: fail to plan, plan to fail.

Rigging and equipment assembly often play a central role in mission-critical work, alongside electrical, mechanical, controls, and other trades. Our Engineered Safety Work Plans are inherently sequential—designed to eliminate guesswork, prevent human error, and minimize costly downtime for industrial and medical facilities.

(Note: While an Engineered Safety Work Plan is an absolute requirement for our projects in New York City, the state of New Jersey does not strictly mandate it. For our NJ projects, we still employ rigorous preliminary planning, but we adapt our documentation to align with local regulatory requirements.)

A Real-World Example: 34.5kV Transformer Replacement at a Major Medical Facility

To understand the value of this phased planning in action, consider a recent mission-critical project. The R. Baker team was tasked with removing and replacing two large 34.5kV air-cooled transformers serving a new medical facility.

The scope of this high-stakes project also included placing a temporary one-megawatt generator to maintain backup power for critical building systems throughout the swap. These systems included:

Facility cooling infrastructure
MDF and IDF data rooms
Sensitive medical equipment areas

The project was scheduled to begin Friday at noon and be fully complete by Sunday afternoon, with permanent power restored before building occupancy resumed Monday morning at 6:00 a.m. A detailed work plan was the only way to ensure everything went according to schedule during this time-sensitive shutdown.

What the Engineered Safety Work Plan Included

A comprehensive work plan leaves nothing to chance. For this transformer replacement, the document detailed:

Personnel and Communication: Every person on-site with their contact information for real-time communication throughout the project.
Equipment and Tooling: Every tool and piece of equipment required from each trade—including all electrical components, rigging gear, and specialty hardware.
Safety Protocols: Comprehensive safety measures covering lockout/tagout procedures, protective electrical equipment, specialty safety tools, and required barriers.
Timeline and Sequence: A detailed sequence and timeline for every phase of the work, serving as the core of the document.

Executing the Plan: Step-by-Step Precision

R. Baker partnered with the electrical contractor to plan the project from start to finish. Execution began with the installation of the temporary one-megawatt generator, followed by a controlled building shutdown that transferred critical systems to backup power. The electrical utility shut power precisely at noon and locked out the system.

The two existing transformers were prepped for removal. Meanwhile, the new 34.5kV transformers—which had been stored, tested, and staged at the Baker facility—arrived on two separate lowboy tractor trailers exactly two hours later, right on schedule.

Using an 80-ton hydraulic crane with slings and spreader bars, the Baker rigging team carefully removed the existing transformers and set the new units onto the existing concrete pads. The transformers were securely anchored using approved epoxy anchors. Baker also installed and connected the secondary bus work housing unit, where all 480V terminations and intricate copper bus work were completed.

Per the work plan's projected timeline, the full removal and replacement of both transformers was accomplished within a six-hour window. This efficiency gave the electrical crews the next 24 hours to complete terminations before the testing team arrived to prepare for power-up.

The temporary transformers were secured onto the lowboy trailers and returned to the Baker warehouse for temporary storage and eventual resale. On Sunday afternoon, exactly as projected, permanent power was restored to the building. Baker crews then removed the temporary generator and cabling, with everything packed and ready for pickup by 6:00 p.m.

The Result: On-Time and Without Incident

Following the installation, the client's engineering and maintenance teams walked the facility to verify that all building systems were operating correctly and that cooling in critical areas was fully functional. The project was completed on time, without incident, and the building was ready for occupancy as scheduled.

Perhaps the greatest value of a well-executed Engineered Safety Work Plan isn't just the sequencing—it's that detailed planning surfaces questions and solves problems on paper long before they can become real, costly problems in the field.

Partner with R. Baker & Son on Your Next Mission-Critical Project

For over 90 years, R. Baker & Son has been planning and executing mission-critical work at the highest levels across industrial, commercial, and medical facilities.

If you have an upcoming plant shutdown, 34.5kV transformer replacement, or complex rigging project that demands precision and a flawless Engineered Safety Work Plan, give us a call. We'd be glad to discuss the details and show you how our expertise can help you succeed.

MRI & Medical Imaging Equipment Rigging: A Turnkey Installation Case Study...

Wed, 27 May 2026 11:22:20 EDT

Medical equipment rigging and installation requires a specialized approach to protect high-value, delicate assets. At R. Baker, we successfully navigate these complex rigging projects using meticulous planning, specialized heavy-duty transportation, precision hoisting, and a highly skilled crew.

On one particular project, R. Baker & Son was selected to perform the rigging and installation of several medical imaging machines into a tight and low clearnance area. This including two MRIs, one CT scanner, and one PET scanner, along with their associated medical chillers and support equipment.

Several months before the imaging equipment arrived onsite, R. Baker & Son developed a detailed safety and engineering logistics plan that met and exceeded all the regulations of the facility and equipment requirements. We installed the four associated medical chillers onto the waiting rooftop supports. Getting the chillers in place early ensured that each scanner's glycol cooling system would be fully operational and tested well before the machines were brought into the building.

MRI magnets are extremely heavy, and because of their sensitivity cannot be handled roughly or tilted beyond specific manufacturer tolerances without risking severe damage to the internal coils. Superconducting MRIs also contain hundreds of liters of liquid helium, which must be transported separately and installed only after the machines are properly positioned.

The medical imaging equipment on this project needed to be installed on the second and third floors of a new medical facility. Several access paths had been predetermined, and openings were either created or left unfinished to allow safe passage of the equipment into the building. This included a removable section of window and exterior wall. The imaging magnets themselves weighed anywhere from 3,800 to 8,000 pounds. To hoist and position them, the team used an 80-ton hydraulic crane and a flat spreader platform fitted with guide plates, commonly known in the industry as a "cookie sheet."

While the imaging magnets were being craned into place, additional R. Baker & Son crews worked in parallel using three available elevators to bring in various equipment, control panels, hardware, and protective materials. One elevator measured 8 by 10 feet with a weight capacity of up to 4,000 pounds. Throughout the process, solid floor protection was laid down over the facility's epoxy, terrazzo, and sheet vinyl flooring.

As each piece of equipment arrived onsite, it was inspected by both the manufacturers and R. Baker & Son for any signs of damage or irregularities. With the spreader platform already staged on the flatbed beside the scanner, the team was able to smoothly and safely transfer each unit into position. The equipment was then secured and hoisted to the designated opening, carefully rigged into the building, and placed onto adjustable skates with nylon wheels. These allowed the team to transport each machine down the corridor to its final destination with precision, guided by exact floor markings.

Working alongside each manufacturer, R. Baker & Son assembled all major components along with support hardware in the control rooms. This coordination allowed the equipment manufacturers to begin interconnect wiring and functional testing as quickly as possible. Cooling systems were operational and ready. Liquid helium was brought in a few days later and installed in the machines.

Because medical equipment rigging and assembly is vastly more complex than standard machinery moving, it demands an elite level of expertise. Recognizing this, the manufacturer partnered with R. Baker’s experienced riggers and millwrights to streamline the assembly process and keep the project firmly on schedule.

Once installation was complete, the team removed all floor protection and seamlessly reinstalled the exterior window and wall systems as part of their turnkey service. Months of meticulous planning culminated in a flawless, three-day execution. By managing every minute detail, R. Baker ensured a smooth workflow from start to finish, leaving both the equipment manufacturers and hospital staff extremely pleased with the results.