Internet of things low poly smart city 3D wire mesh.

The world continues to embrace the Internet of Things (IoT), and emerging technologies are taking on a growing importance within built environments.

A confluence of innovation in big data processing, ultra-low power wireless networks, embedded sensor technology, and energy management has accelerated the emergence of smart buildings. As these become widespread, we have witnessed a reciprocal, or better yet, exponential growth in the planning activities to successfully introduce the sophisticated automation and enhanced user experiences they promise. In particular, hospitals, commercial offices, entertainment, retail, airports and education facilities all have clients who will be directly impacted by these advances in technology. This paper highlights the opportunities to provide a proactive change management plan for a redevelopment or capital project.

A redevelopment project provides an opportunity to introduce a large range of new technologies; however, the ‘big bang’ approach that is associated with the opening of a new facility can hinder the adoption. The role of technology should be understood from a functional perspective long before the walls and bricks are in place, so that proper infrastructure exists to support the smart building.

Any successful Digital Strategy and Transformation Project must consider aligning a change management approach to engage users to be prepared for opening day. The vast amounts of change can overwhelm staff when they move into a new building with new technologies, from new floor layouts and different staffing models, to the introduction of more mobile technology, more paperless systems, and automation of tasks that staff previously performed manually. It is imperative to address the capacity for change well in advance of the Opening Day.

The principles of Change Management and what is unique about a redevelopment project

Change really occurs when it is done at scale – throughout the organization - across all levels and stakeholder groups. There are several industry-recognized principles listed below for adopting change in large organizations. However, given the degree of complexity, number of stakeholders and length of project, there are unique factors that need to be considered with redevelopment.

The Principles

Change is Rolled Out

Redevelopment Project Considerations

Redevelopment projects have many external stakeholders as well as internal stakeholders; employees and project delivery teams have creative authority that can turn into resistance

Change Starts at the Top

The redevelopment project cycle covers many years and the leaders may change; executives are often insulated from the reality of day-to-day operations by layers of the organization

Change is Engineered

A change management program can be planned, coordinated and monitored; however, it is not like a construction project in that it involves breaking new ground and cannot be predetermined fully in advance

With So Many Stakeholders, What Matters Most?

With the variety of stakeholders involved in a capital project, such as end-users, executive team, information technology department, facilities/operations teams, government oversight and taxpayers, there are differing and opposing drivers for each of these groups, which include expected benefits, cost containment and scope definition. There is a need for a framework to define a course of action and for leadership to remain committed to it. Finding the common goals between all the stakeholders will be critical to the long-term success.

In a redevelopment project, the ideas and inspiration for change often come from parties outside the end-user stakeholder groups, such as the design team, the information technology department, facilities engineers, or other support services. Ideally, these ideas are then sponsored by the executive leadership with input from users; however, this is not always the case. It often happens that use cases for the functionality of technology are brainstormed by someone “higher up” or by the IT department, and then rushed straight into design. There is no wrong party to support idea generation; however, the important component is to ensure that end-users have been engaged and have faith that the new technologies will create a better environment. One method of engaging these users is to visualize the changes, and to write and approve the use cases for their workflows. This approach uses Lean thinking and iterative cycles to build consensus. It is critical that time be set aside to ensure that these use cases are considered by end users and validated.

It is important to note that not all parties will see the changes as necessary, especially if they don’t belong to the organization or share the same vision. To address this, create a cross-functional project team, map out the impacted stakeholders and address their unique needs. You will likely appreciate that some people are not able to easily adapt to new technologies. Doing so requires both willingness and capability; mindsets get in the way of actually making use of the technology. Therefore, it helps to have champions and support available. There will also be employees in the organization who are very keen to embrace change that results in a more automated and sophisticated building. Support these individuals in advance of the redevelopment projects by leading change on a smaller scale; for example, by introducing new mobile technologies or smart boards in meeting rooms.

Engineer standing in front of a presentation screen and pointing to it while explaining details to the audience.

Change Starts at Every Level

IT IS IMPORTANT THAT EMPLOYEES
CONTINUE TO SEE AN IMPACT AND BE
INVOLVED IN KEEPING UP THE MOMENTUM.

Long before shovels are in the ground, the organization’s leaders are visioning what the new facility will look like and how it will operate. However, project cycles of up to 10 years can be a significant deterrent for senior leaders seeing their vision through to completion. On one hand, they may perceive what seems to be ample time to prepare for the coming changes; on the other hand, they may also feel that getting ready for a change so far in the future is futile. Therefore, it is important that employees continue to see an impact and be involved in keeping up the momentum.

Communication and setting the stage for the ultimate change may be the most critical factor in successful deployments. This requires an engineered approach to obtaining buy-in. To ensure the cultural ‘soil’ is ready before planting the seeds of change, develop a bi-directional communications plan that allows questions to be addressed. The objective is to prepare employees to understand the benefits of the change, as well as the necessity of the change, and for them to be emotionally ready to execute the change. This requires a two-way dialogue to give staff sufficient time to provide feedback. Employees who fully support the change can be invited to co-develop a plan to describe the benefits and address concerns with sufficient support and training.

Conclusion

FACILITATING CHANGE DOESN’T NEED TO
BE DIFFICULT OR ONEROUS.

As a final consideration, recognize that silos in your organization may create barriers to disseminating your plans. I have often seen change initiatives fall apart when different groups that are equally impacted refuse to take ownership for action. They wait for the other department to come up with a plan and take the lead, while their own group sits back and provides “constructive criticism”. This reveals a culture that is resistant to change. It is important as a leader to break down these barriers. Bring employee groups together to understand the shared objectives and then identify what barriers may get in the way. It may be that both departments are experiencing the strain of increased workload from a large volume of change. However, facilitating change doesn’t need to be difficult or onerous. Following Lean principles, create small batches of work, and plan to stretch these batches out over time.

6 Steps to Successful Technology Change Management

As a strong leader, you can set the stage for successful technology change by adopting these six Change Management steps:

  1. Identify the common goals between all stakeholder parties
  2. Engage end users in depicting the use cases for technology
  3. Communicate the benefits of these use cases
  4. Recognize change champions and providing them with support and training
  5. Test technologies in advance by using pilot studies
  6. Bring together stakeholders to voice their concerns

A change management program needs to be adapted to its unique situational factors. Multiple stakeholders - from financiers, end users, IT, facilities, architects and engineers - can make implementation of your plan more challenging, but by following the steps above, you can ease the process.

If you have questions or would like to learn more about change management, we are happy to start a conversation to see how we could help.

Megan Angus

Megan Angus, RN, Lean, EDAC
Division Director, Angus Connect

megan.angus@hhangus.com

June 3rd, 2021
1:00 PM – 2:15 PM EDT
Panel Discussion including live Q&A

Bedroom for patient in a hospital, Empty bed and wheelchair on hospital ward

COVID-19 treatment has created a sharp increase in the need for isolation rooms now and in future expansion and redevelopment plans. As a follow-up to its March session on “Isolation Room Design” that outlined design principles and strategies, the Canadian Centre for Healthcare Facilities is bringing together a multi-disciplinary panel in a special session to share insights and answer audience questions. The panel of subject matter experts will share their experiences and insights in healthcare settings from planning, design, architectural, maintenance and operations perspectives. The audience will have the opportunity to share comments and ask questions, in order to better understand the unique considerations at hospitals and other care settings as the need for Isolation Rooms increases during the current pandemic and in plans going forward.

To register, go to www.cchf.net or click on the link below.
https://us02web.zoom.us/webinar/register/WN_vIlOFdjHQmqjqcCchGhH4A

Panelists:

Gordon Burrill, P.Eng., FASHE, CHFM, CHC
President, Teegor Consulting & CCHF Co-founder, Board of Directors' President

Craig Doerksen
Divisional Director, Facility Management, Health Sciences Centre, Winnipeg

Jessica Fullerton, M.Sc. CIC
Construction Lead – Infection Prevention and Infection Prevention and Control, The Ottawa Hospital

Scott Patterson, P.Eng., PMP
Senior Director, Facilities Planning and Development, Sinai Health

Robin Snell
Principal, Parkin Architects Limited

Nick Stark, P. Eng., CED, LEED AP, ICD.D
Vice-President Knowledge Management, HH Angus and Associates 

Moderator:

Rita Mezei, MSc.
Executive Director & Co-Founder, CCHF

COVID-19 treatment has created a sharp increase in the need for isolation rooms now and in future expansion and redevelopment plans. As a follow-up to its March session on “Isolation Room Design” that outlined design principles and strategies, the Canadian Centre for Healthcare Facilities is bringing together a multi-disciplinary panel in a special session to share insights and answer audience questions. The panel of subject matter experts will share their experiences and insights in healthcare settings from planning, design, architectural, maintenance and operations perspectives. The audience will have the opportunity to share comments and ask questions, in order to better understand the unique considerations at hospitals and other care settings as the need for Isolation Rooms increases during the current pandemic and in plans going forward.

To register, go to www.cchf.net or click on the link below.
https://us02web.zoom.us/webinar/register/WN_vIlOFdjHQmqjqcCchGhH4A

Panelists:

Gordon Burrill, P.Eng., FASHE, CHFM, CHC
President, Teegor Consulting & CCHF Co-founder, Board of Directors' President

Craig Doerksen
Divisional Director, Facility Management, Health Sciences Centre, Winnipeg

Jessica Fullerton, M.Sc. CIC
Construction Lead – Infection Prevention and Infection Prevention and Control, The Ottawa Hospital

Scott Patterson, P.Eng., PMP
Senior Director, Facilities Planning and Development, Sinai Health

Robin Snell
Principal, Parkin Architects Limited

Nick Stark, P. Eng., CED, LEED AP, ICD.D
Vice-President Knowledge Management, HH Angus and Associates 

Moderator:

Rita Mezei, MSc.
Executive Director & Co-Founder, CCHF

HH Angus employee using a Matterport scanner

In the architecture, engineering and construction (AEC) industry, 3D reality capture is the process of scanning a building, portion of a building, equipment or site in the real world and converting the scanned data into a useful 3D digital model. A physical space is scanned using various technologies to collect huge amounts of spatial data to create different types of 3D visualization—from 360 degree 4K videos and photorealistic walkthroughs to 3D mesh or point clouds models. Whether using LIDAR-based technology or technology based on photogrammetry, knowing which technology to use for a given application is key to solving the challenges our clients are facing in the operation and maintenance of their facilities.  

Why use it?

While you can use traditional 2D design and as-built drawings for a project, 3D reality capture can offer many benefits over the traditional approach, including saving time, reducing costs and improving accuracy.

Barriers to adoption decreasing. The cost of 3D scanners and other reality capture hardware has become increasingly affordable, even as quality and features continue to improve. Also, the software has become very intuitive and easy-to-use.

Highly accurate and reliable information. The reliability of existing as-built 2D drawings often varies from project to project and can be a pain point in retrofits and renovations. Instead of depending on outdated drawings or time-consuming manual measurements or surveys, reality capture technology can capture existing site conditions very efficiently and accurately. The 3D scan and resultant 3D models can then be quickly actioned by importing into the BIM software of choice and utilized by the entire project team.

Create efficiencies. Due to its accuracy and speed, reality capture reduces the need for multiple site visits – many of which are typically made simply to re-measure or double check survey results. By ‘capturing once’, project teams can use 3D scans or BIM models to derive more insights and identify potential conflicts or opportunities much earlier in the design and construction process. 

Scan to BIM. By scanning the existing conditions and creating a functional BIM model, teams can begin designing immediately, allowing for greater accuracy, reduction in rework and shortening project schedules.

Improved collaboration. We typically make the resulting 3D scans and/or BIM models available in the cloud, allowing everyone involved in the design and construction process to access the one model from anywhere. Teams can be based anywhere and have the ability to view and interact with the data in real-time – making notes, providing feedback, taking measurements of existing site conditions from the 3D model, and making iterative design changes in a highly interactive and collaborative way.

Documenting progress. Reality Capture allows for fast and efficient documentation of construction progress. Regular scans of the site help ensure that construction is matching the design intent and allows the team to discover discrepancies before they become costly mistakes.  

How HH Angus is Using Reality Capture

3D reality capture is very convenient, allowing us to capture dimensionally-accurate records of systems infrastructure (usually hidden above ceilings, under floors or behind walls), without having to rely on sketches or individual photos. Each 3D reality capture tool has unique advantages and applications. Knowing which tool is the best resource in a given situation forms part of the expertise of HH Angus’ technical staff.

Our current in-house technologies capture site data via a Matterport scanner or Theta V 360 camera. The Matterport scanner has an accuracy of 99% to reality; plus 3D scans are captured in 4K, providing very detailed high-resolution images. The scans are hosted on the Matterport cloud platform, and users can easily access or share them through any web browser. We can also produce point cloud data from the Matterport scans, which can be imported into a Revit model for our clients or their third-party vendors, such as architects, contractors, facility maintenance staff, other engineering disciplines, etc. 

Point cloud
Point cloud
Reality
Reality
3D model
3D model

One of the features of the Matterport platform is the ability to create links to specific site locations in the model. Users simply click on a link to be taken instantly to a detailed 360-degree view of that area or equipment within the site model, providing real benefit to clients, their facility managers and third-party vendors.

This virtual walkthrough showcases some of the potential benefits of a Matterport walkthrough for a mechanical room. You can tag significant features, embed drawings and manuals, and create links to external documents or webpages.

Click on the image below to load the Matterport model which you can interact with and navigate in this screen.

 

Having detailed interactive maps of facility infrastructure provides important resources for future projects. The virtual walk-throughs created using the Theta V 360 camera can replace the contractors’ physical walk-through during the Tender process, freeing up client personnel traditionally required to host the walk-throughs, as well as reducing travel time, parking costs, and the carbon footprint that would otherwise be incurred for bidders traveling to and from site.  For clients interested in decreasing the carbon footprint of their operations and facilities, any opportunity to reduce pollution and wasted time makes a great deal of sense. During COVID-19 pandemic restrictions, scans produced by the Matterport scanner or 360 images and video created by the Theta V 360 are providing immense value, making remote site access possible for a range of project stakeholders. The Matterport model also provides a reliable resource for measurements that may be required for scope changes, or that may have been missed during in-person site visits. This makes return visits unnecessary and reduces time demands and the need for off-hours availability for clients who would otherwise have to be on site for these return visits.

Digital Twinning. We also see the vast potential of digital twining and the visualization of live data. In this basic digital twin, we have visualized whether the space airflow is meeting CSA 317.2 requirements. You can filter the model by level, highlight rooms that are out of range, and even zoom into a room that’s experiencing flow issues. The intent of the model is to provide visualizations that allow facility operators to decipher information more easily and make informed decisions faster.

Below is an example of a basic digital twin. Click on the image which will launch the digital twin in a new page.

Courtesy of Lett Architects

LIDARAnother major player in 3D scanning technologies is LIDAR (Light Detection and Ranging), essentially radar with laser.  You may have already have heard of LIDAR applications being used in autonomous driving test vehicles and in drone technology. Costs have been dropping steadily for previously expensive terrestrial scanners, and it’s now available on the Apple iPhone 12 Pro and the Apple iPad Pro.  LIDAR combines camera images with radar and laser to construct 3D images in real time in order to create a point cloud. Currently, HH Angus is testing how our proprietary HH Angus Onsite app could sync with a smartphone’s LIDAR capabilities to overcome data limits, and how it might fit into project workflows to replace some of the existing programs we’re using in the reality capture service we provide to clients. The intent is to create more efficiencies. Stay tuned for more developments as mobile LIDAR technology improves.

LIDAR on iPhone

We’re really excited about the value Reality Capture brings to our clients and our workflow. We’re even more excited about its future; from improved capabilities with tools like drones, mobile devices, and robots, to building intelligent digital twins leveraging IoT sensors that can continue with the building past design and into post-occupancy to continually monitor and improve occupancy and operating conditions.

For more information about how our scanning technologies can benefit your facilities, please contact:

Headshot of Akira Jones

Akira Jones, P.Eng.
BIM Leader
akira.jones@hhangus.com

Headshot of Melissa Parry

Melissa Parry, CanBIM P1, ACP Revit MEP
BIM Coordinator
melissa.parry@hhangus.com

Interior shot of the mechanical room at Royal Victoria Hospital

The following information is provided as a public service to Owner/Operators of heating oil and diesel fuel appliances and systems in Ontario. It addresses regulatory requirements and the Technical Standards and Safety Authority’s (TSSA) Code Adoption Document as they relate to Owner/Operators responsibilities for operation and maintenance of fuel oil systems, specifically for fuel tanks. Performing the required inspections and maintenance activities can improve the life expectancy of fuel tanks and reduce the risk of an unintended release of heating oil and diesel fuel to the environment.

ONTARIO REGULATORY FRAMEWORK

Technical Standards and Safety Act, 2000
Ontario Regulation 213/01 Fuel Oil
CSA B139: 2019 Series Installation Code for Oil Burning Equipment

In Ontario, the use and operation of heating appliances using heating oil, including stationary diesel engine-driven equipment, and their associated fuel and combustion systems, are subject to Ontario Regulation 213/01 made under the Technical Standards and Safety Act, 2001, S.O. 2000, c.16.

This regulation is administered by the Technical Standards and Safety Authority (TSSA), which is a not-for-profit, self-funded organization, with delegated authority from the Government of Ontario concerning specific technical safety subjects. TSSA inspectors and technical staff have authority as officers-of-the-court in regard to enforcement of the Act and its regulations, including access to private property for the purpose of inspection of safety-related equipment and systems.

Under this regulation, there are certain obligations imposed on the Owner/Operator of these systems. These obligations can be organized in the following categories:

  • maintenance of these systems
  • periodic inspection of these systems by a qualified technician
  • record keeping
  • actions to be taken when a leak of heating oil or diesel fuel is known or suspected
  • actions to be taken when fuel systems are no longer used or are to be removed.

These operational requirements are specified in three documents:

While the regulation rarely changes, the CSA standard is typically updated on a five year cycle. The TSSA then undertakes a code adoption review process, and issues a code adoption document which may include amendments to the adopted codes or standards.

O.Reg. 213/01 Maintenance Requirements

In respect to operation and maintenance of equipment governed under this regulation, the Owner of the equipment is to:

  • maintain the appliance and associated systems in accordance with the manufacturer’s recommended maintenance procedure [O.Reg. 213/01, s. 8.(1)(a)];
  • have those maintenance procedures evaluated every 10 years, and the maintenance procedures modified if determined to do so by the evaluation [O.Reg. 213/01, s. 8.(1)(b)];
  • have the appliance or work inspected every 10 years by a person who is a holder of a certificate of qualifications for this purpose [O.Reg. 213/01, s. 8.(a)(c)] – in most installations other than residential, this means a person who holds a license as an Oil Burner Technician Level 1 (“OBT1”); and,
  • maintain a copy of these inspection reports until the next inspection and report are completed [O.Reg. 213/01, s. 8.(3)]

TSSA Code Adoption Document for Fuel Oil

Through the TSSA Code Adoption Document for Fuel Oil, it amends CSA B139:2019:

  • “Annex M – Operations” of CSA B139 becomes a mandatory requirement
  • Adds additional requirements to Annex M concerning Owner/Operator environmental responsibilities.

In addition to the operations requirements found in Annex M, the additional requirements concerning environmental responsibilities describe:

  • the actions the Owner or Operator of a fuel oil system must do when a leak is suspected or detected, or if a fuel spill occurs; and
  • the actions that the Owner must do if an underground or aboveground tank is no longer used or is being replaced.
Above ground tank at CFB Petawawa

CSA B139:2019 – Maintenance and Operations

While this CSA standard primarily concerns the installation of oil-fired equipment and systems, it includes requirements concerning maintenance and operations of these systems:

  • oil-burning equipment to be inspected and maintained in accordance with the manufacturers’ recommendations
  • testing for presence of water at the bottom of a tank at least annually; if detected, the water must be removed
  • visual inspection of oil tanks, tubing, piping and filters for leaks at least once per year, and replaced if leaks are found
  • bottom outlet tanks (where the appliance is supplied fuel from a fitting on the bottom of the tank) are checked for proper slope and, if necessary, the tank pitch is corrected to slope the tank bottom towards the outlet
  • periodic operational testing for detection of leaks in underground tanks and piping systems
  • maintenance requirements of aboveground and underground tanks, and underground piping and piping sumps (Annex K)
  • operation requirements concerning filling of tanks (Annex M) – this annex is made mandatory by the TSSA CAD.

Annex J of this Standard provides background information on the importance of testing for water in fuel tanks, and for the removal of water and oil-sludge from the bottom of steel tanks to protect them from internal corrosion.

Having a fuel tank that is “free and clear” of oil, sludge and other debris at the bottom of the tank will go a long way to improving the usable life of the tank.

For more information, please contact:

Headshot of Peter Formosi

Peter Formosi, P.Eng.
Mechanical Engineer
peter.formosi@hhangus.com

Headshot of Anthony Ho

Anthony Ho, P.Eng.
Mechanical Engineer, Manager
anthony.ho@hhangus.com

Headshot of Craig Sievenpiper

Craig Sievenpiper, P.Eng.
Associate Director, Technology
craig.sievenpiper@hhangus.com

Blue umbrella in a row of white ones

We are honoured to be named among Canada’s Best Managed Companies for 2021, our third consecutive year of being recognized. 

The award has heightened importance for us as we navigate the COVID-19 pandemic. It reinforces the importance of a strong company culture together with a strategic focus on managing day-to-day operations, planning for the future and finding growth opportunities in uncertain times.

Head shot of Paul Keenan

“Over the past year, the pandemic has called on us to be nimble and adapt to a constantly changing corporate landscape. Our management team had been focusing on growth and enabling innovation and technology to enhance existing services and offer new ones. Looking back, this strategic focus allowed us to shift seamlessly overnight to working from home without skipping a beat”, said Paul Keenan, President. “And while it isn’t clear yet what the post-pandemic economy will look like, I am confident that our firm is better positioned to anticipate and address both the challenges and the opportunities because of our management rigour.”

Head shot of Sameer Dhargalkar

“Despite the upheaval of the past year, we’ve continued to invest in growing our capabilities in areas such as digital strategy consulting, low-carbon energy solutions, reality capture, smart buildings solutions and robotics – areas which are driving our clients’ business  goals,” commented Sameer Dhargalkar, VP Business Development & Marketing, “At the same time, we’ve been able to expand our presence in British Columbia and Quebec through growth of staff and new projects.”

Of course, we wouldn’t have been able to do this without the dedication of our employees and the support of our clients – we thank you for the important role you play.

The Canada’s Best Managed Companies award, now in its 29th year, distinguishes overall business performance and growth of best in-class, Canadian-owned companies with revenues of $15 million or more. To learn more about the award, click here


HH Angus contact:

Sameer Dhargalkar, Vice President, Marketing & Business Development
sameer.dhargalkar@hhangus.com
hhangus.com