Energy Efficiency Between Light & Dark Panels

Making Earth-Friendly Choices A Priority In Construction

A recent press release from EY Canada, regarding the growing emphasis of Canadians on sustainability, announced that “…the majority of Canadians are pivoting to a more sustainable way of living, as over half are spending more time at home and focusing on saving their hard-earned dollars.” This applies to the desire for energy-efficient, eco-friendlier options when it comes to construction decisions, as well. And while that’s good news for the environment and the future for all of us, it doesn’t come without conflict. According to the release, “Most consumers (61%) plan to pay more attention to the environmental impact of what they consume, but 64% intend to focus on more value for money – creating a tension over who should pay for sustainability.”

As all of us in the construction industry look to find ways to offer customers greater energy efficient options without a lot of added cost, it’s good to know that technology is advancing along with demand, making it more convenient and simpler than ever before to make green construction a priority, not just a luxury. 

Before any construction begins, a lot can be done simply by selecting the best building materials – especially the roof. The types of materials used make a significant difference in how well the building works with the environment to control temperatures and take the pressure off heating and cooling units. Additionally, colour choice can play an equally significant role in regulating the temperature. While darker exterior colours naturally absorb more energy from the sun, lighter colours work harder at reflecting both the light and its heat. Metal in general is naturally highly efficient at transmitting temperature – and making a smart colour choice that is suited for the climate in your area only enhances that effect. 

Just how much roof colour plays into affecting the temperature and energy efficiency of the building depends largely on two factors: solar reflectivity and thermal emissivity. Solar reflectivity (SR) is the ability of a material to reflect the solar energy from its surface back to the atmosphere, and thermal emissivity (TE) is the ability of the material to release absorbed heat. Buildings are assigned numerical SR and TE values – and the combination of their values, known as the Solar Reflectivity Index (SRI) is evaluated for compliance with local energy codes and LEED requirements. Local energy codes will be determined largely based on local climate, which in turn affects regulations on roof slope and other features of the building, such as insulation, window type and area, lighting, and more. 

As a general rule, roofs with dark colours have been shown to absorb up to 90% of energy from solar rays. This translates into excess energy being transferred to your building’s interior, consequently causing air conditioning systems to work overtime. But a light-coloured roof can reflect, on average, 60% of sunlight and sometimes more – keeping your building cooler more efficiently. Additionally, the switch can result in average energy savings that can range from 7-15%. Cost and energy savings vary of course, depending on factors such as the size of the project, local climate, and how roof access is designed. 

A lot of the energy-saving power of cool paint colours have to do with their makeup. Cool paint colours are made with cool paint pigments that have been chemically and physically altered to reflect infrared wavelengths while absorbing the same visible light. The pigments are designed specifically to minimize the build-up of excess heat. This process has also been shown to help mitigate Urban heat islands (UHIs) – a rising concern across Canada, due to the effects of climate change in addition to the growing number of Canadians now living in urban settings. 

And in addition to all the benefits of cool colours on your metal roof, don’t forget that no matter the shade of paint you choose – your metal roof is always green. Exceptional energy efficiency is just one of the environmentally friendly benefits of metal building construction: 


  • Not only are metal roofs more durable and long-lasting, they are made from recycled content and can also be recycled once they do reach the end of their lifespan – creating a significant reduction in the amount of construction material that ends up in landfills.


  • Metal roofs are easily compatible with solar panels, creating even more energy savings. With conventional roof systems, the expected lifespan of the roofing materials is often much shorter than that of the solar panels. Consequently, the panels must be removed while the roof is replaced and reinstalled once complete, resulting in added installation costs. But with the long lifespan of metal roofing, solar panels are unlikely to outlast them – therefore eliminating the need to remove and reinstall. And speaking of installation, it’s a much simpler process with metal panels. There are a variety of mounting options available that make it possible for the solar panels to be installed directly on the metal panels with no need to drill or create holes in the roof.


  •  Metal roofing is also a compatible fit for high-efficiency windows and skylights, offering easier installation and increased energy savings.


  • The longevity and durability of a metal roof is nearly impossible to beat. With an average lifespan expectancy of 50 years or more and the ability to withstand extreme weather conditions, metal roofs require fewer repairs and replacements.


As the demand for construction that’s good for the earth and friendly for the budget continues to grow with Canadian consumers, you can trust  Robertson Building Systems as your partner for quality materials that deliver on quality and stand apart in smart, energy efficient design. 

Mining. It’s in Our Veins: Robertson and the Canadian Mining Industry.


Canada is one of the world’s most important suppliers of metals and minerals. In fact, according to the Mining Association of Canada, we’re among the top five countries worldwide in the production of 17 of these crucial materials, from potash, uranium, nickel, and cobalt to the rare earth elements like lithium and graphite that make a greener, more sustainable world possible. Minerals and metals coming from Canadian mines are valued around the world for production of products as diverse as buildings, electronics, toothpaste, vehicles, and solar cells.  

State of Mine

As crucial as Canada’s mining industry is to the world, it’s just as important to Canada. Mining contributed $109 billion – 5% of the nation’s GDP – in 2019. That’s up from $87 billion just three years earlier. Likewise, this critical industry provides employment for some 719,000 Canadians – one in every 26 jobs. Mining provides exceptional income, too, with average annual per-job compensation above $115,000. While this critical industry has the potential to be hazardous, mining companies in Canada have maintained one of the safest jurisdictions in the world.  

Mining is serious business in Canada. It’s important to our country, our citizens, and the world at large. There is a lot at stake, too – not just returns, income and GDP, but jobs, reputations, safety, the environment, and lives. For many years, Robertson Building Systems has been a proud partner in the Canadian mining industry. We understand better than anyone that in such a critical industry, with so much at stake, everything must not only be done on time, it also must be done right. It must be done to spec and within code, because it’s more than a matter of profit and loss – it can be a matter of life and death.    

Expert Seekers: Seek no Further 

Robertson’s approach to its relationship with every industry is to become experts in its specific needs and requirements. Mining has heavy-duty specifications and requirements –all of which must be delivered on. As Robertson District Manager John Gelms explained, “The mining industry hires highly experienced consultants that review every aspect to the operation of every custom building and prepare a design and tender package of the building”. 

Two workers on a mining site

Into the Wild 

Typically, a mining company doesn’t just need a building. They’re pushing back frontiers into remote parts of the country, where little infrastructure and support exists – but an endowment of subterranean metals or minerals beckons. “They have to build almost an entire town,” Robertson regional sales manager James Austin said, “setting up everything from water treatment centers, warehousing, hoist and processing buildings along with office buildings. Large machinery has to be warehoused.”  

That new town needs to be built from the ground up. It needs to be built quickly and must be tough enough to stand up to climatic extremes, from negative 40°C in the winter to 30°C in the summer. Gelms pointed out that mining also requires taller buildings than other industries, “Process buildings or Headframe buildings are normally 80 to 100 feet tall.” 

Demanding Specs 

To put it in simple terms, mining companies need to erect a small, industrial town in remote parts of a challenging wilderness. They need it done efficiently, done right, and done in a way that can stand up to the rigorous demands of mining, its heavy-duty machinery and corrosive environments.  

Metal construction has long been seen as an ideal answer to these challenges. “Metal buildings are very appealing because of the open concept,” Austin said. “They go up quickly.” With the inclusion of innovative products such as insulated metal panels (IMPs), this efficiency is further expedited. With a foamed-in-place core surrounded by heavy gauge steel, IMPs provide superior thermal properties and insulation, while providing air, water and vapor barrier in an all-in-one product which is installed in a single, simple step. “The insulated metal panel is a one-stop shop, which is very convenient to put up,” said Austin.  


However, we’re fully aware metal construction isn’t the only player in the game. “The metal building is only one portion of the project,” Austin pointed out. “There’s all the other trades. The metal building is usually one of the first things that gets put up, so if there’s a delay in its schedule, you’re going to have a big problem. Mining schedules are extremely important,” said Austin. “Your specifications and timelines need to be met.”  

High Stakes 

With critical specifications and timelines, immense project size and scope – and a lot riding on all of it – mining companies can’t afford to take chances with fly-by-night or newcomer operations. They need a partner as old as the Canadian mining industry. A partner like Robertson. 

Workers at a mining site

Bet on the Best 

Robertson Building Systems has a history with roots as old and deep as the timbers supporting Canada’s historic gold mines. We’ve been in the construction industry since 1863. “With its background and expertise, Robertson is able to look at these very customized specifications and drawings, interpret what is required and use its design software and expertise internally to provide a building that accommodates what’s required,” Gelms said. “Robertson has the expertise, the steel, they have the schedules, they have the right engineering team to be able to meet all the specs,” Austin added. “They get the price, they get the availability of the product, and they get the correct engineering and design of the product – which meets the specifications.” 

A Load Off Your Mine 

Robertson delivers on every aspect of metal construction for mining. “We’ve got the structural fabricating plants,” Gelms said. “Our factories are certified as per CSA-A660, Canadian Welding Bureau (CWB) and IAS AC472. The IAS AC472 audit is a complete audit reviewing processes, quality and procedures for metal building manufacturers”. Robertson steel can also be made to withstand the harshest environments, with hot dip G-90 galvanizing on 8, 10 and 12-inch purlins and girts. Robertson’s structural steel can also be Hot Dip Galvanized or epoxy coated to withstand corrosive environments.  

We’re ready meet every challenge Canada’s climate and the mining industry has – and to do it on time, in spec and with durability that’s sure to outlast us all. When you’re ready, get in touch with a Robertson representative. 

Up on the Rooftop: Preparing Roofs for Winter Loads

Winter weather will be upon us before you know it, and with it will be the stresses on buildings, infrastructure and roofs. Whether you’re a recent transplant or have been in Canada all your life, brushing up on the basics of winter loads ahead of the coming storms is sure to be smart. 


A Matter of Live and Dead (Loads) 

Structures are engineered to handle two primary types of loads: Live loads and dead loads.

Dead loads are the continuous, resting loads of the building – the weight of the structure and everything in it.

Live loads are the variable, temporary forces that a structure must resist. These include wind, rain, snow and ice. According to the National Research Council of Canada, a roof should be able to handle 21 pounds per square foot (22 in Alberta) of additional snow and ice live load. 

The wide variety of climates in Canada makes for a similarly wide variety of snowfall amounts and consistencies across the nation. The range of snowfall weight – and therefore its strain on a roof – can be surprising. Snow weight depends on two primary factors. First, the amount of snow obviously determines the amount of weight on a roof. But even more important is the water content of that snow.  


Powdery to Packed 

While a foot of light, airy snow can weigh just a few pounds per square foot, wetter, packed snow can weigh nearly ten times as much. That means a few inches of packed, wet snow puts as much strain on your roof as many feet of light snow. But a single inch of ice can weigh a staggering 5 pounds per square foot. When you measure the accumulation on your roof, it’s crucial to be aware of how wet, packed and icy the snow is.  


It’s also important to understand that your roof is an ever-changing, dynamic place. Snow typically doesn’t settle on it evenly in all places and stack up nicely. Different roof details, angles and wind patterns might result in a roof with a foot of snow in most areas, but a large, packed drift in one area. That uneven live load could be the straw that breaks your ridgeline’s back. 


Ice Dam Dangers 

If the roof itself is warmer than the air around your roof – due to ventilation leaks or other thermal breaks such as chimneys or exhaust – this can cause snowmelt on the roof itself. Melted snow runs down the roof to a colder area and re-freezes. This process can repeat itself, forming the dreaded ice dam.  


The ice dam’s rim of ice traps water and snowmelt behind it, creating tremendous extra weight and forcing water up through any imperfections or gaps in your roof – even pinhole-sized ones. This can cause extensive water damage to ceilings, walls, insulation and building contents. It may sound counter-intuitive, but keeping your roof cold helps prevent ice dams from developing.  


To accomplish this, you need continuous, high-performing insulation keeping your attic or roof cool. “Robertson has our own patented Robertson Thermal System to meet even more stringent thermal requirements,” explained Lou DiNardo, Robertson technical review manager. “In addition to conventional insulation, we have insulated metal panels that are very popular and capable to meet thermal requirements.” Both of these systems not only protect against the formation of ice dams, but also provide superior year-round thermal performance. 


Snowfall to Snow Fall  

All that snow on the roof has to come down one way or another. If conditions allow it to slide off on its own, this can be dangerous. Hundreds of pounds of snow sliding at once can shear off rooftop equipment and chimneys. Worse still, it could slide off onto someone, causing serious injury. Robertson’s ColorGard and X-Gard systems may require one or two rows of snow guards, depending on the amount of snow accumulation. These systems not only help protect people and surroundings but also keep eavestroughs from being torn off the eaves. 


An Ounce of Prevention 

Much of the prevention of dangerous rooftop winter loads is a matter of good design. Roofline shapes in relation to prevailing winds can drastically affect snow accumulation. “We design our buildings to have capacity for the snow loads per the building location,” said DiNardo. “However, roof slope and geometry can help mitigate the loads.” Complex rooflines accumulate more snow than simpler roofs like straight, single-ridge gable roofs, which shed snow and ice more quickly.  


Wind can create drifts around dormers, valleys and chimneys. But a row of evergreen trees planted on the windward side of the building can create a windbreak. Pitch and simplicity also play an important role. “By increasing the roof pitch and considering the eave height based on any adjacent structures, we can best determine how to manage snow loads,” DiNardo said. 


A Pound of Cure 

While codes, loads and structure design are all intended to make buildings that can stand up to the elements, sometimes storms throw more at them than they can handle. Sometimes we inherit a building design that perhaps isn’t ideal for winter storms. In these cases, our roofs need our help.  


Gradual shedding of snow and ice is the best approach. Roof rakes are a good solution to aid in this shedding but be sure to choose a rake with rollers or bumpers on the bottom to avoid damaging the roof. Shoveling is another solution but is hazardous and best left to professionals. Be sure shovelers don’t leave footprints of packed snow on the roof – these are a recipe for ice dam creation.  


Another smart idea is to install heat cables in gutters that don’t drain well – or those that are prone to freezing up and blocking drainage. These can help move damaging water off the roof safely. 


Best of Luck! 

We hope these tips help keep you and your structures warm, safe and happy this winter. If we can help with anything at all, please don’t hesitate to reach out to your Robertson representative.  

A Growing Business: Metal Construction & Cannabis Cultivation

Canada was the second country in the world to formally and fully legalize cannabis, including its cultivation, possession, acquisition and consumption. Since it did so in 2018, the market has grown dramatically. Growth continued in 2019, when drinks, edibles and topicals were legalized. And even in 2020, a year plagued by the COVID-19 pandemic and related quarantines, Statista measured the Canadian cannabis market at $2.6 billion. 

Straining to get Ahead 

Cannabis is no longer an underground, black-market business. In fact, it’s very big business indeed. With demand suddenly through the roof, the medical and recreational cannabis industries are rushing to build new grow facilities and expand current ones just to keep up with a hungry market. However, even with the massively increased demand, cannabis is no commodity. Cultivators and cannabis entrepreneurs compete fiercely to develop stronger and stronger strains – or to unlock new balances of the compounds within strains to deliver a growing list of different desired effects. Across Canada, growers are looking to establish their competitive edge – or break through with new, better products. 

A Highly Regulated Environment 

Today’s cannabis cultivators are looking for an edge, and that edge begins with the environment in which the cannabis plants are grown. Cultivating market-busting cannabis requires absolute control of every environmental condition, so most growers choose indoor facilities, where a nearly tropical environment can be manufactured and maintained. Temperature needs to be controlled, regardless of whether it’s a muggy summer day or snow is piling up on the roof. Humidity and air movement also need to be precisely managed, giving enough moisture to plants without encouraging bacterial or mold growth. Powerful lighting and treated watering cycles are required to provide artificial seasonal cues to the plant, determining its phase of development and growing cycle – from seedling to growth to fruiting.   

A Demanding Plant 

All this management of temperature, humidity and air might seem like a lot, but it’s actually just scratching the surface. Each strain might require slightly different atmospheric conditions. Within a single grow facility, multiple different temperatures, varying levels of humidity and stages of growth likely exist next-door to each other to support the growth of different strains. This also requires extensive ceiling-mounted equipment, such as lighting systems, HVAC, MEP infrastructure, fire protection, mechanical, plumbing, electric, condensing units, watering systems and indoor blowers. All this ceiling-mounted equipment increases collateral load significantly.  

As you can see, cannabis cultivation isn’t as simple as planting a seed. It demands much more of its structure than most industries. Luckily, Robertson’s vast experience in metal construction is ideally suited to outperform these demands – from structural requirements and performance characteristics to durability and cost. Let’s take a closer look. 

The Perfect Match 

Metal buildings – and the unrivaled features of insulated metal panel (IMP) construction, in particular – are the perfect match for cannabis cultivation. IMPs provide the entire building envelope, including the air, water and vapor barrier in a single product. IMP’s also have a built-in, foamed-in-place insulated core. So, instead of multiple trades installing multiple layers of the building envelope, a single trade can do it in a single step, reducing time, cost and exposure – and expediting dry-in times so interior trades can move in sooner. They not only withstand the consistent intense indoor humidity required in the cultivation process, but also extremes of cold, heat, rain and drought outside. 

Imagine how long it would take multiple trades to install sheathing, water, air and vapor barriers, insulation and a rainscreen. Now factor in weather delays, scheduling errors and other problems. Compare that to IMP construction. Metal construction materials arrive on site pre-punched, drilled, and ready for assembly, reducing erection time by approximately 33% compared to other methods. A trained crew of four can install as many as 5,000 square feet of IMPs in a single eight-hour shift. That puts you much closer to your inaugural harvest. 

Keeping Your Cool 

The energy and environmental costs of running an indoor grow facility can be considerable, but with metal and IMP construction’s exceptional insulating properties and thermal uniformity, you’ll offset those costs by significantly reducing heating and cooling costs.  

IMPs provide numerous other features, as well. Metal doesn’t support the growth of mold and is resistant to rust and decay, while creating a nearly airtight building envelope – keeping out pests, rodents, contaminants, and other intruders. Custom designed structures mean special drainage systems can be included, as well as recessed spaces in aisles for water faucets and easy-to-clean wall finishes – including specially formulated systems designed to stand up to routine, high-pressure washes. Metal construction is also perfectly suited to handle the increased collateral load cannabis cultivation requires. 

Maximize Your Footprint 

To enhance a grow operation’s profit margin, you need to make the most of every square foot of your building’s footprint. Robertson’s range of Primary Systems include Clear Span and Multi-Span framing options, allowing  for column-free interiors and large, unobstructed, clear span space to support crops, water storage, processing facilities, product storage, and more. You can also explore the option of adding mezzanines and lofts to double the capacity of your building footprint. Furthermore, as your business grows, metal buildings can scale alongside, ready for a boost in demand to be matched by a boost in size. 

Structures Tailored to Your Needs  

Robertson metal buildings may commonly be called “pre-engineered,” but the truth is all components are custom-designed and made to order. When you contact a Robertson representative near you, we’ll consult with you about topographic conditions and site selection as well as both interior and exterior design. Your building will be custom engineered to meet both facility requirements and local building codes. When you trust your project to Robertson, you’re not only reducing the number of on-site trades and potential scheduling snafus, you’re also trusting a single source of responsibility. That means you know precisely what to expect – and precisely who to call should you ever encounter a problem.  

Low Maintenance 

Thanks to the unmatched speed of metal construction, your building will be erected before you know it. Once it is, the news gets even better, because it will be virtually maintenance free. Metal walls and sloped metal roofing are self-cleaning, requiring nearly no upkeep, which further reduces your operating costs. And your materials are backed by Robertson’s warranties. 

Don’t let the others get ahead. Get in touch with a nearby Robertson representative today to start your cannabis cultivation project. The choice you make today could be the start of The Canadian cannabis industry’s next big name!  

Robertson 2020 Photo Award Winners

We are proud to announce Robertson’s 2020 Photo Award Winners! The quality of submissions continues to raise the bar for this competition and we are thrilled to see such design and innovation within our industry. Congratulations to all of our winners!


Robertson’s 2020 Building of the Year

The winning project is the Train Station by Superior Industrial Services in Sault Ste. Marie, Ontario.

This project is located in the Historical Canal District in Sault Ste Marie. The builder chose finishes that blend with the existing structures and incorporated repeating arched windows to mimic the original Gothic/Romanesque Revival style of the area as much as possible, while building on Robertson’s frame. This project is divided into four main areas. The first of which is The Train Station. There is a ticket desk, Employee offices and a waiting area for rainy days. The second area is an interactive gallery and retail space. The third area is a local craft 30 barrel brewery. The final space is home to a pub which seats over 100 people. Adjacent to these areas, is an outdoor rink with refrigeration that has its own Zamboni room and change rooms for the players to use.

  • Framing: Multi-Span Building, Double-Slope with Straight Columns
  • Total square footage: 20,918
  • Building sizes:
  • Building 1: 12,798 sq. ft.
  • Building 2: 8,120 sq. ft.


Agricultural Category Winner

The winning project is Dutch Growers New Garden Centre by Westridge Construction in Regina, Saskatchewan.

This two-building project is a commercial garden centre complete with greenhouses and a warehouse. The main retail area consists of a 24’ high building for retail sales along with offices and a mezzanine level. Previously this area of land was a golf driving range and the owners purchased the property in 2019 with design commencing in the fall of the same year and finalized it in the spring of 2020.

  • The total square feet of this project is 14,010
  • Framing: Clear Span Building, Double-Slope with Straight Columns
  • Wall panel: CF Mesa Embossed in Solar White, Charcoal Gray and Ash Gray
  • Roof panel: Double-Lok in Ash Gray



Automotive Category Winner

The winning project is TSTC Solution Truck Centre by Thomas Design Builders in Winnipeg, Manitoba.

This truck center is a state of art 82,000 square foot Freightliner dealership consisting of sales offices, express assessment, service shop, and parts. The project consists of three building and includes Pre-engineered buildings and an inverted pre-engineered structure with a conventional flat roof system. The building also has a 2nd floor structure provided by Robertson. ·

  • Framing:
  • Clear Span Building, Double-Slope with Straight Columns
  • Multi-Span Building, Single-Slope with Straight Columns
  • Wall panel: AVP and PBC in Charcoal Gray and Black
  • Roof panel: Double-Lok and Galvalume
  • Building sizes:
  • Building 1: 31,440 sq. ft.
  • Building 2: 12,155 sq. ft.
  • Building 3: 10,500 sq. ft.


Aviation Category Winner

The winning project is the Dock Hangar by Kodiak Steel Buildings in Sarasota, Florida.

This winning aviation project is not your average hangar. It was built on Rock and Timber Cribs and is situated 150′ off the shore on the water. It was designed with additional rod bracing to reduce kick-out forces. This hangar was featured on the February issue of Our Home Magazine.due to its uniqueness. ·

  • Total square footage is 2,200 sq ft.
  • Framing: Clear Span Building, Double-Slope with Straight Columns
  • Roof panel: Batten-Lok in Coal Black


Commercial Category Winner

The winning project is Blackburn Brewhouse by Design Construct Solutions in St. Catharines, Ontario.

This project is an interesting mix of the craft brewing culture. This facility was built to be an experience and a brewing machine, with everything from interactive entertainment to dining, all while producing incredible amounts of contract beer brewing. ·

  • Total square feet:
  • Framing: Multi-Span Building, Single-Slope with Tapered Columns
  • Wall panel: PBR in Charcoal
  • Roof panel: Double-Lok in Galvalume
  • Building sizes:
  • Building 1: 7,200 sq. ft.
  • Building 2: 21,600 sq. ft.
  • Building 3: 4,800 sq. ft.


Government Category Winner

The winning project is Leslieville Public Services by Camdon Construction in Red Deer, Alberta, a combined fire hall and public works facility.

  • Framing:
  • Multi-Span Building, Single-Slope with Tapered Columns
  • Multi-Span Building, Single-Slope with Straight Columns
  • Wall panel: AVP in Ash Gray and Charcoal Gray
  • Roof panel: Double-Lok in Galvalume Plus, with Robertson’s Thermal System
  • Building size: 9,600 sq. ft.

Manufacturing Category Winner

The winning project is Lowry Manufacturing by Thomas Design Builders in Winnipeg, Manitoba.

This is a 24,840 sq. ft. warehouse with a 3,000 sq. ft. office area. The building also has a 3,000 sq. ft. second floor mezzanine.

  • Wall panel: FW-120, AVP, PBU and PBR in Charcoal Gray and Coal Black
  • Roof panel: Double-Lok in Galvalume

Office Category Winner

The winning project, a new manufacturing and office facility, is Rapid Design Group by Camdon Construction in Red Deer, Alberta.

  • Total sq. ft.: 18,370
  • Framing: Clear Span Building, Single-Slope with Tapered and Straight Columns
  • Wall panel: AVP in Ash Gray
  • Roof panel: Double-Lok in Galvalume
  • Building sizes:
  • Building 1: 15,750 sq. ft.
  • Building 2: 2,800 sq. ft.


Recreation Category Winner

The winning project is the Thorndale Recreation Centre by MCI Design Build in London, Ontario.

This project is a community recreation facility complete with multi-use gymnasium, community meeting rooms, administration offices, storage areas, washrooms, change rooms and a kitchen. It is made up of 5 buildings for a total of 16,997 square feet.

  • Framing: Clear Span Building, Single-Slope with Tapered Columns and a lean-to
  • Wall panel: FW-120 and PBR in Solar White and Polar White
  • Roof panel: Double-Lok in Galvalume Plus
  • Building Sizes:
  • Building 1: 7,438 sq. ft.
  • Building 2: 4,242 sq. ft.
  • Building 3: 2,100 sq. ft.
  • Building 4: 1,723 sq. ft.
  • Building 5: 1,495 sq. ft. 

Retail & Restaurant Category Winner

The winning project is the Train Station by Superior Industrial Services in Sault Ste. Marie, Ontario. This project also won the  2020 Robertson Building of The Year.

  • Framing: Multi-Span Building, Double-Slope with Straight Columns
  • Total square footage: 20,918
  • Building sizes:
  • Building 1: 12,798 sq. ft.
  • Building 2: 8,120 sq. ft.


Storage Category Winner

The winning project is Euroline Appliance Warehouse by Lanca Contracting in Brantford, Ontario.

  • Framing: Multi-Span Building, Double-Slope with Tapered Columns
  • Wall panel: CF Mesa in Solar White, Burnished Slate and Ash Gray
  • Roof panel: Standing seam roof in Galvalume Plus


Warehouse and Distribution Category Winner

The winning project is FedEx Ground by Advance Design and Construction in Medicine Hat, Alberta.

This is a package shipping and receiving depot designed to accommodate a high quantity of shipping packages in a short order turn around.

  • Framing: Clear Span Building, Double-Slope with Straight Columns
  • Multi Span Building, Single-Slope with Tapered Columns
  • Wall panel: AVP in Ash Gray
  • Roof panel: Double-Lok in Galvalume Plus




Architects & Archetypes: Understanding the Roles of Architects and Engineers

Collaboration determines the success of any construction project. Dozens of different teams, specialists and tradesmen can be involved, each with their own concerns and responsibilities. It can sometimes be unclear who does what, who is responsible for what, and who should be involved at which point.

Today, we’re going to unfold these complicated connections, focusing on the roles of architect and engineer. We’ll also investigate cutting-edge methods to make projects go smoother, maximize profit margins, and minimize schedule changes by facilitating productive collaboration between architects, engineers and other stakeholders earlier in the process. 


Who Does What? 

You may be familiar with the notion of people being either more left- or right-brain dominant. If so, you have a good grasp on the fundamental difference between the characteristics and responsibilities of architects as opposed to engineers. Left brain dominance is associated with thinking, analytical processing, math, logic, and science, while right brain dominance is more feeling, creative, artistic, and free flowing. Of course, no one is entirely one or the other, and exceptions exist, but architects tend to be more right-brained while engineers are more likely to be left-brained.  


Right-Brain: The Architect’s Vision 

Most projects begin when an architect meets with a client, striving to understand their needs, goals and ideas. The architect then grows this into a grand, artistic vision which addresses those needs while elegantly integrating form and function in a surprising, impressive, memorable way. This vision is typically expressed in the form of a full set of architectural drawings comprised of floor plans, roof plans, elevations, sections, and perspective drawings.  

This, of course, requires a good amount of left brain work as well. He or she must design within local codes and municipal limits, be aware of safety regulations and remain current on both technical innovations and city laws.  

Once the architect has dreamed up a stunning and potentially groundbreaking building, it all exists on paper. But that doesn’t mean it’s constructible. That’s where engineers come in. Ideally, architects provide the following for an engineer’s review: 

  • Blueprints 
  • Floor-to-floor heights 
  • Slab edge locations 
  • Cavity depths  
  • Ceiling interstitial spaces 
  • Parapet locations and heights 
  • Unique architectural features 
  • Design areas subject to changes 


Left-Brain: The Engineer’s Reality 

Engineers tend to be the left-brained type, using math, science, logic, and visualization to fully understand the constructability and feasibility of an architect’s design. Using the architect’s preliminary drawings and the information listed above, an engineer designs a structure to support the building’s live, dead and environmental loads.  

The engineer ensures the design is safe, meets building codes and specifies not only the structural materials and members, but details such as electrical, heating, ventilation, air conditioning and plumbing systems. On larger projects, each of these might have their own engineer assigned. Just as the architect provided information to the engineer, the engineer in turn provides the architect with crucial information: 

  • Structural implications of proposed openings and floor spans  
  • Size and locations of columns
  • Locations and types of expansion joints
  • Locations of shear walls or other seismic resistance mechanisms
  • Possibilities for improving efficiency


Whole Brain: Collaboration 

Until now, construction has mostly been a linear process: Plans move from a client meeting and resulting architect vision to an engineer review and construction itself. Today, though, technology is making it possible to streamline this in unprecedented ways. It can be hard to visualize all the places where a pipe might accidentally intersect a structural member or how columns might block the flow of hallway traffic when you’re working on paper or correlating various plans and drawings.  

These coordination issues or “clashes” as they’re known, are now easier to predict than ever. The old way meant changes or unforeseen problems resulting in major problems in a project’s budget and timeline. Today, with the advanced software platforms and technology available, it’s possible to fully visualize a project before breaking ground – eliminating clashes before they become expensive problems. 


The RBS Advantage 

One of the biggest advantages for architects working with Robertson building projects is proprietary estimating software program, RBS. In the initial design and concept stages, architects can use the platform to present multiple design and pricing options to the entire team. With easy access to a wide variety of designs that incorporate all the necessary parameters and accessories, collaboration becomes much easier and architects, engineers, and the entire team can have the confidence of knowing the final design has maximum efficiency built right in. 


When Architects & Engineers are Required 

There are legal guidelines in place which dictate which projects need an architect’s involvement and sign-off versus those which can simply be reviewed and stamped by an engineer. Each province has its own Provincial Architectural Association with different requirements to practice. 

Small, simple projects may not require the involvement of an architect or engineer. While many of the rules, laws and codes differ from state to state and municipality to municipality, the primary considerations are the classification of the building, its height and area. According to Part 9 of the Building Code, commercial project drafting work does not have to be completed by a professional. It is often performed by qualified technicians under the direction of the project engineer or architect. The structural design, on the other hand, will likely require direct involvement by an engineer. Check with your local permit office to be sure, but this gives a general of idea of what is required: 

Requires Engineer Stamp 

Single-story gas stations 

Mechanic shops  

Car washes  

Small quick-service restaurants  

Small single-story retail and office space 

Requires Architect Stamp 

Buildings over one story tall 

Large or multi-story retail space 

Large restaurants and offices 

Big box stores, malls, etc. 

Other instances in which an architect is certainly a wise choice is when repurposing a building designed for another use or when municipalities enforce more stringent design styles and materials. 


Choose Wisely 

Regardless of the size, scope and complexity of the project, the most important decision is choosing the right partner for you. Don’t let the sole decision-making factor be price. Your partner should be infinitely curious about your needs, goals, and concerns. They should be as enthusiastic and driven to realize your vision as you are. And they should be able to design and build within your budget.  

If you have questions or concerns about finding the right architect, engineer or firm, get in touch with a Robertson representative near you. We have decades of experience working alongside architects and engineers with a wide spectrum of expertise and can help identify those who are most likely to best meet your unique needs. 

Retrofit Buildings for Self-Storage

The Perfect (Retro) Fit 

The self-storage business is booming in Canada. When the housing market goes bull, so does self-storage, and both have seen a healthy, steady incline – especially in urban and metropolitan areas. Even in more rural locales, self-storage is on the rise as “toy storage” for vacationers’ boats, RVs, ATVs and snowmobiles. Facilities are getting more expansive too. U-Lock Mini Storage Group president Robert Madsen explained in a recent Inside Self-Storage article that the 40,000-75,000 square foot facilities of yesterday have ballooned. “Today they can be 100,000, 250,000 or, in an extreme case, 500,000 square feet of net rentable space,” he said.  

Locked Out 

Demand may be up, but it isn’t all rosy for self-storage groundbreakers. There are several barriers to entry. Land costs are at an all-time high, and overall costs aren’t much better. As Madsen explains, “A modern, multi-story site ranges from $120 to $230 per square foot … far from the $55 to $70 of only a few short years ago.” Those are simply hard costs. There is also the much grayer, unpredictable prospect of rezoning. Apple Self Storage vice president David Allan points out “Rezoning is a much riskier process that has no outer time limit for completion… Even getting a site-plan agreement completed with the city of Toronto … take[s] 18 months.” 

On top of that are Development Cost Charges, or DCCs. Paid by the developer, these are municipal taxes designed to offset the costs of continuing upgrades to things like local infrastructure, public transportation and social programs. But according to Allan, they’ve been reported to reach as high as $49.32 CAD per square foot – amounting to millions of dollars for the largest projects. These charges must be paid before construction begins. It’s all intended to be for the greater good, but as you can imagine, DCCs often stop a project in its tracks. 

Robertson Has a Solution 

There is a straightforward way to circumvent many of these barriers to entry. Land and construction costs can be offset by retrofitting an existing structure into a self-storage facility. A conversion project is much more cost-effective than buying, clearing, zoning and building from the ground up. As DBCI (sister brand of Robertson) Sales Representative Barry Nilson explains, “Because of the emergence of online sales, a lot of bricks and mortar, consumer outlets are no longer as popular.” That means across the country, you can find large, solid structures for sale in prime areas – ideal for converting into the self-storage that’s in such high demand. 

Yesterday’s JC Penney, Kmart, gym, grocery store or even office and manufacturing space can be converted into self-storage. In fact, Walmart recently announced the closing of six stores in Alberta, Ontario, and Newfoundland. 

Robertson specializes in providing a turnkey self-storage conversion project. From roll-up frames and door headers to modular wall and hallway systems, Robertson’s single-source, comprehensive, coordinated systems and depth of experience streamline the process from start to finish.  

Due Diligence 

At Robertson, we can handle quoting, delivery and speedy installation, but we highly recommend you attend to a couple items outside our area of expertise: 

  1. Conduct a Feasibility Study 

Before you invest substantial resources in a retrofit, consult the experts to learn about traffic in the immediate area, disposable income levels, competing self-storage facilities and expected community growth. Their findings can also help decide which unit mix is most appropriate. A college town full of apartments and dorms needs small lockers, while a sprawling, wealthy suburban area will rent larger units for furniture, heirlooms and even vehicles. 

  1. Examine the Building’s Condition

A thorough inspection of your prospective property is essential to ensure it’s up to code, is structurally sound, has a solid roof and HVAC equipment in good condition. 

Planning Ahead 

Once you have your feasibility study in-hand, we can create an ideal blend of unit types and sizes, then design the floorplan to make the most of every square foot. If the building’s height allows for it, we can also consider the construction of a second-level mezzanine. Typically, at least 20’ of unimpeded height is needed for such a mezzanine, but it can essentially double your rentable space. Once a plan is approved and materials arrived, installation is typically fast and efficient – covering up to 8,000 square feet per week. 

As a comprehensive manufacturer, supplier and installer, Robertson can also supply precisely what your future business needs to make it as modern and attractive as it is efficient and durable. With custom coatings, you can choose any color for your materials – including your precise brand colors. Furthermore, kick plates, corner guards, column wraps and wainscoting can protect your doors, walls and hallways from the scrapes, bumps and accidents that are all but inevitable in self-storage facilities. For lower clearance roofs, swing doors are an excellent choice. And to ensure the security of your tenants’ possessions, we offer burglar bars, mesh panels, and a selection of locks and latches. 

It’s also smart to consider other value-added additions, like exterior updates to heighten your facility’s curb appeal and new restrooms. You could also include a small retail area for customers to buy essential supplies they may have forgotten or need, like cardboard boxes, tape, furniture blankets, stretch wrap, packing peanuts, dolly rentals and even pain relievers for tenants who might have overdone it. 

Overhaul the Old U-Haul 

Another trend sweeping the nation is renovation of older self-storage facilities. While they may not be much to look at, existing storage facilities do not face new construction challenges like land costs and zoning. With a contemporary facelift via clean new white Robertson metal panels, new doors, updated fencing and clean, bright LED lights, such a facility can feel like new. Robertson can streamline such an update too.  

Ready to lock-in your project? Talk to a Robertson representative about tackling a conversion project today. 

What Makes a Building Complex?

From Complex to Achievable: Foresight & Collaboration Make Complicated Structures Possible

When you imagine metal construction, you might envision simple designs and basic construction. But with advances over the past few decades in every facet of metal construction, this is no longer the case. The capabilities and versatility of metal construction have improved drastically, pushing the boundaries of design and surpassing the expectations of architects, designers, builders and clients alike.  

Once thought to be limited to the realm of conventional construction, relatively complex projects like retail establishmentscar dealershipsschools and large sporting facilities are now being produced more quickly and efficiently using metal construction methods. 

The Customer is Always Right 

Understanding which building conditions result in a project being considered “complex” is the first step. The list below offers some guidance on these important qualities.  

What Makes a Project “Complex”? 

Understanding which building conditions result in a project being considered “complex” is the first step. The list below offers some guidance on these important qualities.  

Examples of Complex Building Conditions:

  • Complicated Roof Designs 

A building with multiple roof hips and valleys one of the most common building conditions that lead to a building being considered complex. 

  • Aesthetic Features 

Architects are usually involved to make a building more striking. However, the embellishments and complex geometries they envision can increase the intricacy of the engineering underlying the structure. This isn’t problematic – we simply need to collaborate, so all involved parties understand the vision and any limitations. 

  • Additional Floors 

Whether it’s a second-level mezzanine or a basement, additional floors contribute to the complexity of a building. 

  • Auxiliary Loads 

Manufacturing facilities with structurally mounted equipment, such as large top-running cranes increase the design loading substantially.  

Increased spacing between vertical supports is becoming an increasingly common building requirement – especially for indoor sporting facilitieswarehouses and large churchesClear span frames are used when unobstructed interior space is required. 

  • Codes and Loads 

Code changes and local differences for wind, seismic activity, snow, temperatures, energy and occupancy category may require more intricate engineering. Likewise, collateral loads for ceiling-mounted systems such as lights, ductwork and sprinklers can increase the complexity of the building. 

Buildings constructed to house aircraft typically need very wide, high-fold doors for aircraft ingress and egress, requiring additional structural supports. 

Metal construction is often chosen for its superior insulating values, and insulated metal panels further improve R-values. Daylighting is another efficient way to cut energy costs – bringing as much natural light in as possible. Though technology for including daylighting on a standing-seam roof has improved significantly, it still makes for a more complex design.


When your building meets the criteria for a complex building outlined above, the most important step you can take to save time and money is to involve your Robertson representative as early as possible. As Scott Schroer, Robertson’s Engineering Director explains, “Engaging with the architect, the owner, and our customer to help value engineer the building is a huge opportunity.”  

Complex building conditions require custom solutions from our engineering department. Communication is key, because an engineer can spot problems or complications a builder, customer or even architect might not notice. They also have the experience and expertise to solve any issues that might come up.  

Modelling Work 

The inclusion of Robertson throughout the process also means we can take advantage of 3D Building Information Modeling (BIM). This software makes a visual model representing all the complex, interrelated parts of a building’s plan, from the framing and building envelope to mechanical, electrical and plumbing systems. By thinking proactively about complexities and where they might clash or interfere helps to avoid problems before they arise. 

Metal construction can be more sophisticated and elegant than ever before – while still meeting and exceeding specific practical requirements. We just need to work together and communicate well. Contact your Robertson representative to get this important group conversation started as early as possible. 


Air Quality in Buildings

A Breath of Fresh Air: How to Improve Indoor Air Quality

The Indoor Generation Report, a survey of Canadians conducted by The VELUX Group, revealed that though most of us don’t believe we spend too much time inside, most Canadians spend upwards of 90% of their time indoors. Between work, school, shopping and relaxing at home, the vast majority of our time is spent breathing stale, indoor air. Worse still, one in six Canadians lives in an unhealthy building.  

As pandemic restrictions begin to lift and people across Canada head back to the office, return to school and venture back into indoor public spaces such as movie theaters, museums and retail establishments, indoor air quality is top of mind for all of us. But air quality isn’t a simple, single-variable concept. It’s a dynamic combination of many different factors. Fortunately, many of them are within your control.  

The Impetus 

Up until the 1970s, there weren’t strong and consistent regulations on building energy efficiency. This changed after a series of energy crises in the 70s and 80s which led to regulations which increased the thermal efficiency and air-infiltration of the building envelope. Thermal efficiency, as measured by r-value, is the insulation rating of a system, whether it is the wall, floor, ceiling, roof, etc. Air-infiltration, as measured by air leakage, is outside air that enters a building uncontrollably through cracks and openings. 

Ever since, both the national and local codes have steadily increased the thermal efficiency and air-infiltration of the building envelope – especially in Canada’s northern climate zones. Beyond regulations, building tightness has been incentivized by the R-2000 Program and the EnerGuide Rating System from Natural Resources Canada. This has resulted in structures that are more and more airtight. 

Competing Objectives 

Thanks to these efforts, buildings have been able to maintain comfortable indoor temperatures better and more efficiently than ever. However, air tightness also means virtually no fresh air is allowed in, which can be detrimental to indoor air quality. Siet ‘Foeng’ Tjong, Robertson Head of Research and Development explains, “We generally do not like to have any leaks, whether it’s water, vapor or air leaks into the building. But in some cases that does create a problem with indoor air quality.” 

We don’t often think of indoor air as necessarily being unhealthy, but it has the potential to harbor all kinds of harmful materials. As Joseph Dachowicz, Robertson’s Vice President of Marketing for Commercial Business, points out, “Buildings are filled with all kinds of man-made materials you’re just basically breathing in all day.” 

Tjong agrees, “When you have a building that is super tight, it also creates a lot more challenges for the HVAC engineer to provide balanced indoor air quality,” she said, ”and it creates a lot more load and requirements on the HVAC system to evacuate the air inside building and replace it with fresh air.” 


According to the Canadian Centre for Occupational Health and Safety (CCOHS), of the pollutants that can end up stuck inside airtight buildings, some are generated indoors, while others find their way in through cracks, open doors or windows, or even on the people going in and out. Some can come from both sources. But they all can become health and safety concerns. 

Man-Made Volatile Organic Compounds (VOCs) 

Chemicals used in the manufacture of office equipment, furniture, wall and floor coverings and construction materials can off-gas into your interior environments. Cleaning products, pest control, copying and printing can also leave variety of harmful compounds in the air. According to Health Canada, some of these VOCs, like benzene and formaldehyde, have been linked to cancer. 

With extra cleaning measures in place due to COVID-19 concerns, and more sanitizing products being sprayed on more surfaces more often, ventilation to move that particulate matter out is even more crucial.  

Biological Agents 

Bacteria, viruses, fungi and moulds can all travel through the air, causing illness, infection and fungal or mould growth. 

Combustion Pollutants 

Whether from idling vehicles, machinery, tobacco smoke, heating or cooking, combustion-related compounds such as carbon monoxide are among the most dangerous interior pollutants. High levels of carbon monoxide from a vehicle left idling in a garage can be lethal in a matter of minutes. Worse still, it’s odorless, tasteless and colorless – virtually imperceptible without a carbon monoxide detector. 

Fine particulate matter 

This is the “dust” you can see floating in a ray of sunlight and can be made up of any of the above as well as other fine particulate matter. 

Pollutants can be generated by the most innocuous seeming sources, such as housekeeping cleaners, air fresheners or printers, but are caused more precipitously by renovation, remodeling or applying new paint or finishes.  

Health & Safety Effects 

Poor indoor air quality can result in serious health effects. These can range from mild and irritating to life-threatening. Eye, nose and throat irritation are common, as well as headaches, dizziness and fatigue. At the more severe end of the spectrum, poor air quality can trigger asthma attacks, and more hazardous pollutants like radon or carbon monoxide can cause cancer or be lethal. 

Sick Building Syndrome 

When poor ventilation and indoor pollutants combine, they can lead to what’s known as “sick building syndrome.” Many occupants experience similar symptoms after entering in “sick” buildings, and their symptoms tend to resolve after leaving. Air quality this poor has been blamed for everything from sub-par student performance to reduced productivity in occupational settings. 

Air Quality Perception is Reality 

Individual perception of poor air quality is important as well. Though these considerations are more subjective, they can still affect how employees, visitors and customers feel inside your building. Odors and temperature are two of the strongest variables affecting perceived air quality, as well as air movement. Too little feels stuffy, but too much can feel drafty and uncomfortable.  

The Basics of Air Exchange  

Air exchange is a function of air infiltration, natural ventilation and mechanical ventilation. These each play a part in how much air needs to be exchanged or moved per minute, which is expressed in cubic feet per minute, or CFM. The more overall air exchanges per hour – including a measure of exchange with outside air – the better. However, the following factors and considerations contribute to what is required to manage and improve a building’s air quality and ventilation: 


The size of a building determines how much air is inside it, and therefore is an important part of the necessary CFM calculation.


Buildings with fewer or no people, such as barns or warehouses, require much less ventilation – fewer CFM – than buildings with higher occupancy, such as a school, office building or church.

Number and Type of Openings 

These can be intentional openings such as doors, windows and loading docks, as well as a building’s unintended openings which compromise its overall tightness, such as cracks and broken seals. External pollutants infiltrate a building through such openings, then the building’s tightness keeps them in.

Type of Airflow  

Unoccupied buildings may only have natural ventilation, while livestock buildings or storage buildings might use industrial fans, and buildings designed for people are equipped with complete HVAC systems. 

External temperature changes  

Outdoor temperature changes – both day/night cycle and seasonal changes – dictate what level of insulation is ideal. 

Insulation Type and Quality 

As discussed, insulation is good for energy efficiency but makes integration of fresh air a challenge. 

Make Air Quality Part of the Plan 

The absolute best way to ensure healthy air quality is to plan ahead and integrate adequate ventilation in your project from the very start. As Tjong points out, “Indoor air quality is the responsibility of HVAC engineers,” and they will be best enabled to provide that quality when their needs and input are included throughout the design process. Simply include HVAC engineers when you work with your Robertson representative. This way, fenestrations and other necessary roof and penetrations are planned for, as well as structural support for HVAC systems.  

Under Your Control 

We understand that while not everyone is undergoing a new construction design project, everyone can benefit from better air quality. Simply being aware of everything discussed so far will help you rectify any existing problems – and prevent future ones – while following these simple tips will help even more: 

  • Get healthy, fresh air into the building when possible. 
  • Establish an effective smoking policy that protects nonsmokers from secondhand smoke. 
  • Ensure your HVAC system’s HEPA filtration is changed as directed. 
  • Be careful not to place furniture or other obstacles in front of air vents, grilles or intakes. 
  • Water and maintain office plants properly to avoid extra moisture – and therefore the development of mould. 
  • Dispose of garbage promptly and properly. 
  • Pre- and post-occupancy flushing, with exterior air is recommended if your system is capable of it. 
  • Be mindful of the unintended consequences of excessive cleaning product usage. 

Also, be wary of unsubstantiated claims of many air “purifiers” on the market that claim to kill COVID-19 or purify the air through unproven means. At best, these will be an expense that accomplishes nothing. At worst, they can exacerbate indoor pollutants. For instance, ionizers generate ozone. This is unhealthy on its own, but it’s also highly reactive and can combine with other airborne substances to create harmful VOCs like formaldehyde and acrolein. 

There are steps everyone can take to improve air quality and incrementally improve the health of both buildings and the people who live, work, shop and play inside them. To learn more about how Robertson can assist in designing a custom metal building with the latest in air quality features, reach out to your Robertson representative today. 


21 Trends to Watch in 2021

It is not surprising that an overwhelming majority of people around the world said they were ready to move quickly into 2021 and leave behind all the memories of 2020. The start of a new year, however, brings a desire to look forward to new, emerging opportunities. With this in mind, we have developed a compilation of some of the current trends in the construction industry and some of the technologies and tools that seem to be here to stay.


1. Green Building: The movement has become so popular that energy and environmental design (LEED) leadership now certifies nearly 2 million square feet of construction space worldwide. Commercial offices claim the bulk of the green building market, with just over 20%.


2. Modular construction: With a completion rate that can be 20-50% faster, lower construction costs, and a significant reduction in errors and waste, it’s not surprising that more builders choose modular construction. The optimized manufacturing processes used in modular construction also reduce the approximately 135 million tons of construction and demolition waste each year.


3. Autonomous machines: We’ve all heard that autonomous cars will be certain in the future, but what about automated machinery on construction sites? This is what happens – and at faster paces than those built for the road. Look for stand-alone machines to become even more common throughout the construction industry.


4. Device communication: It’s not just phones and computers in the office. Increasingly, small, and large construction equipment is being wired to interact and communicate, bringing efficiency to the maximum, improving safety, and streamlining costs.


5. Wider use of renewable biofuels: Construction professionals industry wide are abandoning diesel as a source of electrical equipment. This trend could significantly reduce the industry’s carbon footprint in the future.


6. Electric utility vehicles: Just by switching to battery-powered electrical machinery, the construction industry could reduce its emissions by up to 95%. Improved charging solutions that reduce downtime, which have been one of the biggest barriers to switching, making the transition easier for many businesses.


7. Drones: They are used to gain visibility into progress on construction sites and now used as a proactive method to identify potential problems before construction begins.


8. Cloud-based BIM: Moving building information modeling to a cloud platform rather than on-site makes information available to all stakeholders in real time. Communication is more effective throughout each construction phase, with increased response time and greater ability to respond quickly to urgent situations.


9. Dimensions plus BIM: As the technology moves toward 4D, 5D and even 6D capabilities, companies will be able to significantly improve estimation and planning processes through better data access. With the ability to see geothermal, thermal, and acoustic properties, builders can be more proactive in planning and even use information to determine how these properties will affect a building before construction begins.


10. Increased use of artificial intelligence (AI): A growing number of companies are joining AI in promising to increase efficiency throughout the construction process – from materials production to design, planning and implementation. There are also many opportunities to use AI to streamline the distribution process, simplify price forecasting and optimize the logistics of transporting a job – all factors in reducing the time and costs of a project.


11. Augmented and virtual reality: The main advantages of these technologies in the construction industry is the ability to identify weak points in a structure before allowing on-site workers to significantly improve safety and reduce accidents. In addition, with the use of remotely operated machines used from remote locations, work may continue when adverse weather conditions could otherwise stop productivity or increase the risk of accidents.


12. Collaboration through Business Information Modelling (BIM): A company that adopts BIM also improves communications at all levels. BIM allows teams to work seamlessly, no matter where they are: people in the office can communicate with those on the site and even with those in another city or country, not only by phone, email or text message, but in a graphic and interactive way. Improved communication helps reduce completion times and work costs while improving overall quality.


13. Smart Cities: Construction and engineering team planning planners are increasingly working with city leaders to turn cities into “smart” cities. A smart city has strategies to increase the sustainability of its communities and to ensure that these communities are built for resilience during difficult times.


14. Declining profitability: The least positive trends in the industry is a decrease in the profitability of construction projects. This change is due to several factors, including increased competition in Asia, increased project complexity and growing supply chain issues. To compensate for losses, many companies are working diligently to improve their project management processes.


15. Public and commercial facilities as leaders in green buildings: as industrial expansion increases, commercial buildings are at the forefront of green building initiatives. This trend is reflected in almost every region of the world, with manufacturers implementing innovative solutions such as green roofs, living walls, passive solar design, recycled and sustainable insulation, direct current (dc) power and plant-based materials.


16. Strengthening green buildings in China: In recent years, China has entered the leading role in sustainable construction with more than 300 million square metres of green buildings throughout the country. China is notoriously quick to adopt and implement green building initiatives – and is expected to have more than half of the world’s ground space for green buildings by 2021.


17. Increased use of 3D printing: At a time when construction workers are in short supply, 3D printing helps fill some of the gap by automating many of the tasks that are usually performed manually. The benefits, however, are not limited to supplementing the workforce. 3D printing uses only the materials needed to print a structure, virtually eliminating waste, and reducing costs. In addition, 3D printers can operate 24 hours a day, allowing faster turnaround times and turnaround times.


18. Shortage of hourly workers: With labour shortage in the industry that has continued over the past decade, construction companies are struggling daily to limit the number of projects they can take and to increase the time it takes to complete the projects they begin. In response, many companies are finding that they are increasingly dependent on prefabricated and modular materials, which require less practical time.


19. Employment in the construction sector is on the rise: As mentioned earlier, the lack of artisanal workers has led companies to work harder to recruit employees, including by offering higher rates of pay and more incentives.


20. Increase in regulatory prices: The number of building codes applied has increased by almost 10% in recent years, which has inevitably increased the cost of construction. Many professionals are convinced that new codes and changes are not necessary and do not lead to productive results, resulting in a general sense of frustration within the industry.


21. Increased awareness of worker safety: Increased regulations have also been incorporated in the areas of worker safety. As a result, more construction companies are implementing technologically smart tools such as portable trackers and even work boots with sensors. Devices allow supervisors to track the location of team members, let them know when workers are tired or injured, and much more.


Taking into consideration the information above, Robertson remains steadfast to meet the ever-changing needs of building erectors and contractors. To find out more about how to keep up with current trends and stay above the competition, contact your local Robertson representative.