Provider / Organization / Institution

Owner of a building for which you intend to retrofit. Be located in Alberta. Building must be pre-existing and have been fully operational for 2+ years. Building must be one of: (1) commercial, (2) institutional (e.g., municipal, university, school, hospital, etc), (3) multi-unit residential. If multi-unit residential, must meet the following criteria: (I) Contain two or more units sharing a common building entrance and interior hallways. (II) Are four or more storeys above ground, OR, have a horizontal footprint greater than 600 square meters, measured within the exterior walls and firewalls.

The Alberta Ecotrust Retrofit Accelerator program offers free coaching services to building owners and managers, supporting them through deep retrofit project planning and management. The Coaches also assist in identifying third party financing and grant options and navigating the application processes. Assistance in finding qualified consultants to complete technical and financing work, such as desktop assessments, energy audits, deep retrofit plans, financing and grant opportunities, and measurement and verification services

Calgary, Edmonton, Alberta

The Deep Retrofit Discovery Sessions are a series of FREE public educational information sessions to help address deep energy retrofits of large, part 3 buildings in Alberta.

In-Person (6) or Virtual (2)

Utilized the use of state-of-the-art LEED Silver Lab that allowed students to learn about renewable energy in a hands-on classroom environment to build and install 1.5 megawatts (MW) of solar photovoltaic (PV), a 105 kilowatt (kW) solar pedway and 1 MW of combined heat and power (CHP), in addition to an exterior lighting LED retrofit

Build and install solar photovoltaic, combined heat and power, and LED retrofit

red deer polytechnic building retrofitting

Hands-on classroom

This course covers the fundamentals of Net Zero energy/emissions and Passive House buildings, with focus on wood-frame construction.

The course will help learners develop their knowledge of international, national and provincial zero energy/emissions buildings codes and standards. Students will also develop an understanding of net zero energy/emissions buildings principles, science, systems, materials and cost. The course presents multiple case studies and provides a strong foundation for subsequent zero energy/emissions building courses. Key topics include: BC Building Code’s Energy Step Code and Zero Carbon Step Code, Net Zero, Zero Carbon and Passive House standards, operational and embodied carbon, energy efficiency performance metrics, building science, integrated design, introduction to low-TEDI and airtight enclosures, introduction to net zero mechanical and electrical systems, and costing.

This course covers airtightness and low-TEDI enclosure construction for zero energy/emissions or Passive House buildings.

The course will help learners develop their knowledge of airtightness and low thermal demand (low-TEDI) building enclosures with study of wood-frame construction. Students will develop a firm understanding of assembly details, material selection and compatibility, construction approaches, sequencing and coordination, for zero energy/emissions or Passive House buildings. Key topics include the airtightness, high R-value enclosure details, thermal bridging, assembly interfaces, windows, mechanical and electrical penetration, and embodied carbon of materials. This course is offered online with live virtual lectures and self-paced learning in the BCIT Learning Hub.

XZEB 1140 Introduction to Residential Mechanical Systems for Zero Energy/Emissions and Passive House Buildings

Knowledge of the BC Energy Step Code, Passive House standards, and airtightness and low-TEDI assemblies.

This course focuses on an integrated approach to residential HVAC mechanical equipment to meet national and provincial zero energy (BC Energy Step Code) requirements and Passive House standards.

The course will help learners understand the best practices from the design to verification of HVAC systems in residential projects. Through case studies and industry experts, learners will recognize the unintended consequences of poorly selected, designed, installed, and verified systems and practices for planning, coordinating, and verifying mechanical HVAC systems to ensure project performance and owner satisfaction. Key topics include Energy Step Code and Passive House requirements; HVAC mechanical system options, costs, and performance; and best practices from design, tender, installation, and verification.

XZEB 1150 Introduction to Solar Photovoltaic & Electrical Systems for Zero Energy & Passive House Homes

This introductory course focuses on integrated solar photovoltaic (PV) and electrical systems in Zero Energy or Passive House homes.

The course will outline the decision-making for planning, designing, and constructing/renovating a Zero Energy home with integrated solar PV and electrical systems. It applies “lessons learned” from case studies of Zero Energy homes equipped with solar PV technology. Key topics include critical elements of a design-build process, pre-design considerations and requirements, future-proofing for new technologies and electrical circuit load capacity, equipment and monitoring options, and hand-off best practices.

This course will prepare students who have completed XZEB 1001 and XZEB 1120 with the outstanding body of knowledge required to earn the Certified Passive House Tradesperson - Envelope Specialization designation.

Learners will gain a detailed understanding of the Passive House Standard, design principles, economics, construction, and certification requirements. The course will cover the 5 basic principles of a Passive House building and provide an in-depth review of building enclosure topics, including insulation, thermal bridging, airtightness, and windows/doors. Upon successful course completion, students will earn designation as a Certified Passive House Tradesperson, registered with the Passive House Institute.

XZEB 1130 Airtightness and Low-TEDI Enclosures Lab for Zero Energy/Emissions and Passive House Buildings

This lab course allows for hands-on practice constructing various air barrier systems and assembly details for zero energy/emissions and Passive House buildings to meet the requirements of the national and provincial zero energy (BC Energy Step Code) and Passive House standards.

Students will apply a foundational understanding of zero energy/emissions building codes and standards, airtightness and low-TEDI enclosures and work through several hands-on lab stations to build, test, or evaluate various assemblies using a range of approaches and materials. Lab activities will cover air and thermal barrier approaches and details for foundations, above and below-grade walls, roofs, interfaces, windows, balconies, penetrations, and low-embodied carbon insulation material options.

A comprehensive and practical approach to understanding and implementing energy-efficient and clean energy solutions in communities. On-site renewable energy, zero-emission energy-efficient buildings, and zero-carbon transportation are the key themes of this program.

​In this introductory course, students will gain a fundamental understanding of energy and emissions.

This will include where energy comes from, how it is used or captured, and the impacts it has on people and the planet. Students will learn about climate change mitigation and adaptation, resilience, economic and health benefits, and much more. This course will set the foundation for the students’ journey towards sustainable energy and emissions management in their community.​

not offered in Winter 2025

In this course, students will take a hands-on approach to develop a Community Energy and Emissions Plan.

Students will learn to navigate the planning process, identify funding sources, and learn to manage project consultants.​

In this course, students will explore the regulatory, policy, and various approaches to reduce energy consumption, greenhouse gas emissions (both operational and embodied) and promote renewable energy and carbon storage in new and existing buildings.

Student will gain insights into Deep Energy and Carbon Retrofits and the essential elements of Net Zero Energy and Zero Carbon new construction.

not offered in Winter 2025

Students will gain practical insights into executing energy projects successfully.

Students will understand all phases of project development, and learn project management techniques, risk assessment, and implementation strategies.

not offered in Winter 2025

The course will help learners develop their knowledge of how to manage new construction, coordinate construction for larger and more complex buildings.

developing understanding from a construction perspective of design details, new responsibilities and skills needed, understanding of impact of onsite decisions on final compliance and performance under the Passive House standard or the Upper Steps of the BC Energy Step Code for Part 3 and Part 9 buildings. Students will become familiar with tools and construction checklists to systematically manage relevant issues for zero energy/emissions or Passive House buildings. Key topics include the airtightness, enclosure details, thermal bridging, mechanical services, construction management, quality assurance construction checklists, and compliance documentation.

not offered in Winter 2025

XZEB 1173 Applied Project for Site Supervision of Zero Energy/Emissions and Passive House Construction

XZEB 1001, XZEB 1120, XZEB 1146, XZEB 1171

Provides an opportunity to practice skills and knowledge learned throughout the BCIT Supervising Net-Zero and Passive House Construction micro credential.

Students will work on an applied project associated with supervising the construction of a Net-Zero, Net-Zero Ready, or Passive House, or equivalent building. Under the supervision of an advisor, students will develop and present a report to demonstrate their understanding and competency in supervising Net-Zero, Net-Zero Ready, Passive House, or equivalent high-performance construction. Examples of this project could be a report on developing an airtightness training program or on planning and scheduling construction work to meet airtight and low-TEDI performance metrics.

The course covers the essentials related to mechanical and electrical design and construction in zero energy/emissions and Passive House buildings. The course will help learners understand unique mechanical and electrical considerations for Net-Zero, Net-Zero-Ready, and Passive House buildings. Key topics include common mechanical systems, energy source options, BC Energy Step Code and Passive House requirements, and integrated design.

Describe characteristics of common mechanical systems found in Net Zero and Passive House buildings (heating, cooling, DHW, ventilation w heat recovery), Describe characteristics of electrical systems found in Net Zero, Net Zero Energy Ready and Passive House buildings (solar ready, PV systems, resiliency, electric vehicle charging, etc.), List unique mechanical and electrical considerations for Passive House standard compliance vs. BC Energy Step Code, Explain considerations for mechanical and electrical systems in Net Zero and Passive House buildings in relation to the 'House As A System'.

not offered in Winter 2025

The Whole-Building Life Cycle Assessment Professional microcredential provides the knowledge and skills needed to effectively use LCA in design decisions for works of construction. Developed in partnership with the Athena Sustainable Materials Institute, this microcredential consists of four courses delivered online by experienced LCA professionals.

not offered in Winter 2025

This course introduces the life cycle assessment (LCA) technical fundamentals needed to effectively practice of whole-building LCA and use whole-building LCA results and environmental product declarations (EPDs)

Learners will develop their understanding of LCA standards, methods, and data in the course. They will learn LCA concepts and technical language in general and as applied to buildings such as LCA phases, life cycle stages for a building, and building model scope. The course equips participants with the technical foundation to establish expertise in whole-building LCA and EPDs. Key topics include life cycle thinking, LCA purpose and applications, embodied carbon, relevant ISO and EN standards, LCA process and data, EPDs, and national guidelines in whole-building LCA.

not offered in Winter 2025

This course builds on the technical foundation and basic principles of life cycle assessment (LCA) to begin practicing whole-building LCA. In the course, learners will apply their understanding of fundamental LCA standards to whole-building LCA.

Based on the Canadian national guidelines for whole-building LCA and will make use of the free LCA software, the Athena Impact Estimator for Buildings. Key topics include: background material and energy environmental data, scenarios, creating a building model and conducting whole-building LCA, data quality considerations, environmental product declarations (EPDs), interpreting results, making comparisons, and reporting.

XZEB 1160 and XZEB 1165 or equivalent experience

This course covers advanced topics for assessing data sources, interpreting, and reporting results of a whole-building life cycle assessment (wbLCA).

The course will prepare students to conduct a wbLCA and prepare an environmental building declaration by understanding the quality and sources of data, advanced methods, and interpreting results using the Impact Estimator for Buildings web tool. Key topics include advanced data considerations, EPDs, advanced method issues for Module D (recyclability, biogenic carbon, carbonation, off-gassing), benchmarks, comparisons, and wbLCA practices consistent with national guidelines.

not offered in Winter 2025

This prepares you to conduct whole-building life cycle assessment (LCA) and responsibly report results in an environmental building declaration.

In this project-based course, students will practice completing a high-quality whole-building LCA and preparing an environmental building declaration. Prior knowledge of building design and construction is recommended for success in this course.

Train professionals to deliver low-impact buildings needed to achieve net zero energy and carbon targets. Many of the strategies that enhance a building’s resilience — such as independence from energy grids and the ability to withstand climate-influenced events — are also low-carbon strategies, as they negate the need for carbon-emitting energy and new materials.

This course is an exploration of building certifications and rating systems in response to the growing need to measure the success of building designs in combating climate change and addressing social issues. The course examines various frameworks and standards, such as LEED, Living Building Challenge, WELL Building Standard, Passive House, Built Green, and others. Through study and analysis, learners will gain the knowledge and skills necessary to navigate and apply these systems effectively.​​​

Describe the different systems, and determine which are applicable to each type of building project, including LEED, WELL Building Standard, Passive House, Built Green and others, determine which rating system best suits the building owner's goals and aspirations, use standards, rating systems and certifications as a framework to organize information, and as a tool to inspire team members, apply certifications and standards as they were intended and designed to be used, determine how best to measure building metrics through building standards and rating systems.

not offered in Winter 2025

Regenerative building is an approach that goes beyond sustainability by actively restoring and revitalizing ecosystems and communities. It aims to create built environments that not only minimize harm to the environment but also have a positive impact on ecological systems and human well-being. Regenerative principles draw inspiration from nature, recognizing the interconnectedness of all living systems and seeking to mimic nature's regenerative processes. It involves designing in harmony with the natural environment, fostering collaboration and holistic thinking.​

Design buildings that use little to no external energy sources using the principles of passive design that use natural elements like sunlight and shade, identify mechanical building technology that contributes to regenerative design, describe strategies that contribute to buildings using substantially less water to operate and being capable of treating water to potable standards, recognize and address damage to the natural environment that occurs due to construction activity and human occupancy, choose building materials with minimal to no carbon and health impacts, explain how the building is a system, within the larger systems of the community and environment.

With a strong focus on the interconnectedness of social, environmental, and cultural factors, this course explores a range of topics essential for designing spaces that address the challenges of our rapidly changing world.​​ Through an interdisciplinary approach, learners will develop the knowledge and skills necessary to address the issues caused by climate change; social unrest; pandemics and create built environments that prioritize the health, wellbeing, and safety of occupants, as well as the broader community and the environment. The course emphasizes the integration of inclusive design principles, Indigenous cultural values, disease prevention strategies, and the creation of resilient structures capable of withstanding extreme events.

Understand how building design contributes to the health and wellbeing of the occupants and the environment, create environments that are inclusive and respectful of Indigenous cultural values, recognize how architectural and interior design can minimize the transmission of diseases, create buildings that can function and are habitable during extreme weather events or after natural disasters and the loss of power, make buildings that are safer during social unrest.

not offered in Winter 2025

This course introduces Green Building Construction concepts and practices. Topics include green building definition, guidelines, regulations and standards. Evaluation of cost/benefit of green construction methods and green construction rating systems. Relevant case studies will be reviewed. Two site visits will be included.

Describe green building concepts and approaches, List benefits of sustainable construction, Understand the site practices required for sustainable construction, Understand materials and resources selection and management for green construction, Know relevant codes and regulations for green building, Identify core issues in sustainable construction.

Basic familiarity with Microsoft Excel, along with the use of mathematical equations to calculate various aspects of properties, and the performance of the building enclosure.

This course provides a practical introduction and application of Building Science fundamentals for the evaluation, design, and construction of durable and energy efficient building envelopes (enclosures). The role of climate and the theory of heat flow, vapour flow, air flow, and the application of each principle to the evaluation of building enclosure assemblies will be discussed. Best practice assembly design and detailing fundamentals for above and below grade wall assemblies, roofs, and windows will be covered, with examples and case studies where appropriate. Further to this, BLDC 3050 provides the prerequisite building enclosure design fundamentals which are applied in BLDC 3060, which is an interactive hands-on building enclosure construction and interface detailing course.

Contractors, home builders, architects, engineers, technologists, handymen and those interested in building construction

This course is intended to provide a practical approach to the application of building enclosure detailing through hands-on construction and instruction.

Students gain hands on experience in the construction of wall and roof assemblies and details at windows, balconies, decks, roofs, penetrations and interfaces. Alternate detailing approaches for air barrier systems, insulation methods, vapour barriers and cladding attachment will be covered using best practice approaches. Physical testing of materials such as sealants, membranes, as well as the rain water penetration resistance testing of window assemblies and installations will also be integrated into the class.

not offered in Winter 2025

The course is broken into seven segments: 1. Building Thermal Demand Analysis – heating and cooling loads (includes envelope transmission losses and gains, solar gains, internal gains, lighting and appliance loads, and climatic and operating considerations). 2. Passive Solar Design Concepts in Building Application – solar heating and cooling, thermal mass, natural ventilation, daylighting, building orientation. 3. Building HVAC System – various types of heating, cooling and ventilation system and components. 4. Energy-efficiency Measures – high-efficient building mechanical, service hot water and lighting systems, improved envelope thermal properties, smart energy management and control. 5. Whole-Building Energy Models – simulation of building thermal behaviors and energy system performance characteristics. 6. Analysis of Simulation Results – building energy profiles and drivers, GHG emissions reduction opportunities analyses, simple and complex payback, life-cycle costing and present-value analyses. 7. Regulatory and Voluntary Programs – BC Energy Step Code, ASHRAE 90.1 and 90.2, Model National Energy Codes, LEED, CBIP.

Use appropriate analytical and numerical methods/tools to carry out the analysis of building mechanical, service hot water and lighting systems energy performance, apply appropriate analytical and numerical methods/tools to conduct building thermal load/demand calculations, assess the interaction of the building envelope with HVAC systems including examining the impact of different envelope systems on building thermal behaviors and energy performance, making engineering judgement autonomously including identifying the most applicable energy saving solution(s) for a given building by investigating the effectiveness of potential energy-conservation measures on energy saving and GHG emission reductions, determine the economic implications of each proposed energy conservation measure, discuss various economic evaluation tools (e.g., life-cycle costs, simple and complex payback), perform engineering economic analysis of energy-efficiency measures proposed in the study, evaluate and recommend passive design solutions for a given building under a given climate, discuss the relative merits of various assessment criteria, interpret simulated results to, and communicate the key findings/conclusions with personnel of other disciplines in building design, present simulation results and findings in a clear and understandable manner, in both a written and public presentation.

The primary objective of incorporating building circularity and life cycle assessment (LCA) among professionals in the built environment is to mitigate the impact on the natural environment. In this course, we will investigate Design for Disassembly/Adaptability (DfD/A) and investigate where construction materials come from, their path from use through to disposal and identify the current barriers to circularity, and how these barriers can be dismantled. Key points of intervention will be identified where changes to policy and regulation, design, typical construction processes, and waste management can shift the industry into the circular economy. Students will also learn to use the life cycle assessment (LCA) method to evaluate the environmental impact of construction projects from a life cycle perspective. Students will develop a ground-up understanding of LCA based on the International Standard Organization (ISO) 14000 series of environmental management standards and European Standards (EN) sustainability of construction works standards, and how they can be applied to develop low-impact designs and meet requirements for permitting and green building rating programs.

Outline the business case for DfD, including advantages of adaptable and durable buildings, to building owners and other stakeholders over the life of the building, Design utilizing CSA and ISO standards, and other industry best-practices to increase the deconstructability and adaptability of buildings and infrastructure, Evaluate the material flows through the building industry, from extraction and manufacture to installation, use, and finally disposal/recycling/reuse, and how to influence this flow to enable highest and best use of these materials, Compare construction material metabolism in terms of embodied carbon, material life span, and waste, Outline ISO and EN principles and methodology requirements for conducting a construction product and whole building LCA studies, Plan data collection for different LCA study applications and software, Evaluate the quality of construction product and whole building LCA studies, Interpret LCA results to inform sustainable building designs, meet permitting requirements and obtain recognition from green building rating programs.

Below grade assemblies including basements, crawlspaces, parkades, podium waterproofing, foundation walls, and slabs on grade and slabs below grade, will be addressed. The course will pivot to more advanced application of the theoretical and practical aspects of building envelope design. This will include design review of proprietary building envelope assemblies, establishing effective thermal performance of complex buildings and building envelope condition assessments and forensics. Case studies will be used to develop the student's abilities to make and communicate engineering judgements. Topics include: Below grade assemblies including walls, floor, and roof assemblies separating both heated and unheated spaces from the ground. Design and performance aspects with respect to the control of surface water, ground water, heat loss, vapour diffusion, air leakage, condensation, as well as improving long term durability of the assemblies. Overview of Building Codes applied to below-grade assemblies 2D and 3D building envelope details of below grade assemblies. Assessing performance and risks of "proprietary" panelized envelope systems such as curtain wall, window wall, mass timber panels and precast concrete. This will include assessment of 2D and 3D building envelope details with the specific focus on the "continuity" of the building envelope control layers (rain penetration control, thermal insulation, air barrier, and vapour retarder/barrier). Design of high thermal performance envelopes including use of BC Hydro's Thermal Bridging Guide and other tools to assess and reduce the impact of thermal bridging in buildings. Building envelope condition assessment methods, common failure modes, and remedial strategies using case studies Innovations and research pertaining to building envelope assemblies and components with the focus on moisture, air, heat management, and durability.

Review the design of building envelope assemblies, including those specified and supplied as predesigned components, and recommend procedures – both quantitative and qualitative – towards assessing and achieving the necessary building envelope performance, advise on the commissioning and the maintenance activities for building envelope assemblies using acquired knowledge of building physics, building codes, available research and of best practice guidance, and their own professional judgement, undertake a condition assessment of a building envelope and diagnose, using both analytical methods and testing procedures, problems associated with building envelope assemblies, recommend repair strategies and remedial options for deteriorated building envelope assemblies, communicate the rationale, options and recommendations for design choices.

This course is designed to provide an interdisciplinary group of learners with the knowledge and skills to develop and manage their professional practice while considering sustainability imperatives. Principles of Life Cycle Assessment (LCA), industrial ecology, circular economy, and urban world issues are covered in a manner that reveals constraints but also opportunities and strategies for balancing environmental, social and economic perspectives. In addition, the changing roles and approaches in governance systems and the role of stakeholders in decision making will be discussed. The course delivery mode is an experiential learning in classroom and field settings.

Interpret sustainable development imperatives and create a framework to address associated challenges in their professional practice, such as: ecological carrying capacity; creating production and consumption systems; accounting for costs and benefits of economic decisions; ecological footprint; protecting, conserving and restoring natural, social and cultural resources; and monitoring and evaluating, Exemplify designing governance systems aimed at encouraging sustainable ecological change, supported by inclusive decision making involving diverse stakeholders, Assess the impacts of current industrial processes and practices on human and natural systems as well as the associated benefits of industrial systems designed like ecosystems, Understand ISO LCA requirements and guidelines, Identify major databases, tools and resources used in LCA practice, Operate Open IO-Canada and Impact Estimator for Buildings (IE4B) LCA tools, Develop excel-based LCA model, Use LCA in environmental management and reporting, Discuss urban sprawl and planning strategies for sustainable, smart communities within a context of globalization and social equity, focusing on improving efficiencies to promote reduced demand for services, energy and materials, Engage in decision-making processes within governmental and non-governmental agencies while promoting cross-cultural collaboration, Propose strategies that foster the application of principles of sustainability in their area of expertise and/or practice, Promote global sustainability through international indicator assessment, Effectively utilize leadership and communication skills in promoting sustainability.

not offered in Winter 2025

This course provides an introduction to the principles of green building and ecocities through a review of select projects, rating systems and sustainability frameworks. The course will develop student's understanding of the current context of green building and sustainable design in British Columbia, including the business case for green building and the ecological principles for the planning and renewal of cities. Students will become familiar with participatory, integrated design processes, and the coordination of green building activities. The course will include a review of green building rating systems with an emphasis on the Leadership in Energy and Environmental Design (LEED v4) Rating System, and the Living Building Challenge. Students will participate in weekly discussions, reading assignments and group activities that explore the topic of green building and sustainable communities, best practices and the relationship between various concepts and approaches.

Describe current contextual issues that influence sustainable design in British Columbia, Evaluate the merits of green building practices at various scales of the built environment, including regions, districts, new and existing buildings, Explore the imperatives and some applied strategies for the key areas of sustainable design including Site and Landscape; Water Management and Conservation; Energy; Materials and Health; Indoor Quality and Quality of Place, at the regional, district and building scale, Describe the significance of accounting for performance in green buildings and various green building rating systems, with an emphasis on LEED v4, Use Living Building Challenge (LBC) as an indication of "true sustainability" in group projects, Interpret the function of Life Cycle Assessment as a decision making tool for material, systems and technology selection, Explain the planning principles required for the long-term sustainability of cities (including ecocity indicators), and how these principles affect transportation, infrastructure, and the well-being of the inhabitants and the bioregion, Discuss how cities contribute to local, regional and global sustainability and how policy shapes the built environment.

Building must be a commercial building located in Canada. Specific criteria will be provided upon full program launch.

BOMA Enspire gives mid-tier building owners and managers access to the expertise and resources required to make informed decisions about deep energy retrofit projects.

Participants can expect technical assistance, funding guidance, upskilling material and access to a network of industry experts and peers.

Not Stated

1st phase? Quick-Start Audit Initiative (January – March 2025)

Building Operators & Real Estate Professionals

This course explores the foundations of low-carbon building operations, including understanding building performance, decarbonization concepts and strategies, the role of building operators in implementation, and relevant case studies.

$450 + Tax

This course explores the foundations of low-carbon building operations, including understanding building performance, decarbonization concepts and strategies, the role of building operators in implementation, and relevant case studies.

Trades, renovators, contractors, and home performance professionals

This course places heavy emphasis on building science and building better and addresses the house as a system concept; the role of sustainable development in construction; how building science affects building durability and occupant comfort; the signs, symptoms, and solutions for good indoor air quality; building envelope details and how they control or contribute to heat, air, and moisture flows; and mechanical systems. In total, there are 14 online modules, each with a downloadable study guide to accompany the online learning program. This is offered through online training provider, Blue House Energy—a company committed to the delivery of online, on-demand courses in building science and energy efficiency for trades, renovators, contractors, and home performance professionals.

Trades, renovators, contractors, and home performance professionals

This course builds on industry’s knowledge, providing the bigger picture of an “envelope-first” approach. Participants will gain an understanding of what a whole-house energy retrofit is, what it’s meant to achieve, what one needs to know when working in the industry, and what to look out for when installing energy efficiency measures in homes—including avoiding unintended consequences of tightening the building envelope.

Basement to attic, assessing energy usage and building envelope, air leakage and drafts, insulation levels, heating / cooling problems, and how to identify and address dampness and mold or mildew, which could lead to structural and / or health problems.

The Canada Green Building Council (CAGBC) will offer a Low Carbon Training Foundations Course to provide professionals across all industries with an introduction to important low-carbon concepts. Over five modules, this program will help establish common understanding, approach and vocabulary that will enable collaboration across all building sector professions.

This professional micro-credential offers a blend of self-paced on-demand learning and interactive, instructor-led training. It provides learners with a solid understanding of core zero carbon building concepts and the opportunity to apply them in a hands-on workshop that includes the Zero Carbon Building Standards™ workbooks. With the ZCB-Essentials Micro-Credential, learners gain practical insights on how to use ZCB resources for a successful certification process.

There needs to be a business case to support the uptake of zero carbon buildings in the public and private sectors in Canada. With this in mind, the CAGBC worked with several funding partners as well as WSP to study the incremental capital and lifecycle costs associated with zero carbon building design and construction. This session will explore the results of the study, including the impacts of seven building types in six cities in Canada.

Thermal Energy Demand Intensity (TEDI) is a key consideration for any project - especially when it comes to energy use, occupant comfort, cost savings, and greenhouse gas (GHG) emissions reduction. As Canada moves towards achieving its carbon reduction goals, one thing that buildings owners and tenants will want to consider is their TEDI metric. The lower the metric, the more thermally efficient the building. This course will explore what thermal energy demand intensity (TEDI) is, the importance of it in relation to operations and cost savings, as well as the key drivers that impact it. The course will also touch on the relationships between TEDI, embodied carbon, and resilience.

The Zero Carbon Balance is a core feature of the Zero Carbon Building (ZCB) Standards, helping project teams calculate the overall carbon impact of constructing and operating buildings. This course will equip participants with essential knowledge to support their zero carbon projects.

Beginning with an explanation of carbon, why it is the key metric for the ZCB Standards, and the Global Warming Potential of various greenhouse gases, the course will help form the foundation for understanding a building's impact on climate change. Participants will explore the three core components of the Zero Carbon Balance: Embodied Carbon, Operational Carbon, and Avoided Emissions, and how they are assessed. The course will also clarify the distinction between direct and indirect emissions, providing insight into how different sources, whether onsite or offsite, contribute to a building's overall carbon impact. Participants will gain an understanding of how the ZCB Standards address operational carbon associated with energy use and potential releases of refrigerants during regular building operations. The course will also review the concept of whole-life carbon, emphasizing the importance of calculating net emissions over the life of a building. Lastly, participants will explore the role of renewable energy, carbon offsets, and understand their impact on achieving a zero-carbon balance via avoided emissions. This course is essential for ZCB Standards users looking to deepen their understanding of carbon accounting and its role in creating low-emission buildings.

An Introduction to Embodied Carbon provides building sector professionals with knowledge to understand the essential role of embodied carbon emissions in construction projects.

Participants will gain a comprehensive understanding of embodied carbon, how it is determined through Life Cycle Assessments (LCA), and the difference between whole building LCAs and product LCAs. An overview of the methodology for calculating embodied carbon will also be covered, including the role of software tools. Participants will also gain insight into understanding the role of Environmental Product Declarations (EPDs) in evaluating construction materials. The course also focuses on providing a practical overview of the main strategies to reduce embodied emissions on building projects. Through solution-based examples, participants will learn how these concepts help to create more sustainable and carbon-efficient buildings. The course also includes an overview of how embodied carbon is addressed in the Zero Carbon Building (ZCB)-Design Standard, as well as insights into the current market and the evolving role of embodied carbon in sustainable construction.

This course addresses the critical need to eliminate onsite combustion from building operations and sets the strategic framework for planning these changes to take place over time.

Participants will learn how Transition Plans achieve zero-carbon operations by anticipating the necessary improvements throughout a building's life cycle, with a particular focus on existing buildings, thereby meeting the growing demand from investors and tenants. Participants will gain a fundamental understanding of the core elements of Zero Carbon Transition Plans, which are an essential tool for guiding decision-making in the decarbonization process. The course explores practical strategies to remove onsite combustion from building operations, including fuel switching, energy efficiency upgrades, capital planning, and other enabling activities to facilitate decarbonization efforts over time. Participants will also learn how to develop actionable and cost-effective Transition Plans, with a focus on leveraging intervention points and the sequencing of various measures required for successful implementation. This knowledge will empower professionals to make informed decisions and implement measures that help more buildings achieve zero-carbon performance and increase their market value.

Foundational knowledge of key zero-carbon technical concepts, including: embodied carbon, transition planning, calculating the zero-carbon balance and TEDI --- OR: CAGBC Zero Carbon Building Essentials Micro-Credential

This hands-on workshop is designed to provide a comprehensive understanding of how to use the Standards and their technical resources. Participants will learn and apply in-depth core requirements, guidelines and process for meeting ZCB-Design v3 and ZCB-Performance v2 certifications.

This course provides an introduction to low-carbon building core concepts and their application to construction. The course will equip construction professionals with operation skills and knowledge to retrofit and build the low-carbon buildings. This course is offered through the Canadian Construction Association (CCA) and its partner association Grande Prairie Construction Association.

Sustainability, environment, or decarbonization managers, Building or portfolio assets managers, Energy managers, Sustainability/climate change managers, Building owners and operators

Participants gain knowledge on decarbonizing both new and existing buildings. They also explore alternative methods for retrofitting buildings that do not consume low carbon fuel sources. The course provides case studies and practical activities on a variety of building types in the commercial, multi-unit residential, and institutional sectors.

Actions for achieving net zero emissions in new buildings, Analysis of retrofit strategies and pathways for existing facilities, Non-retrofit approaches to emission reductions such as renewable energy credits, onsite generation, carbon offsets, etc., Examination of related certifications (Passive House and the CAGBC Zero Carbon Building Standard), Non-energy emissions such as embodied emissions and refrigerants.

Building owners, Building managers and supervisors, Technical supervisors, Consultants, Energy managers

Existing building commissioning (EBCx) is a term that refers to the process of testing existing facility equipment and systems to ensure they still function as designed and intended and, if not, to make the necessary adjustments. EBCx projects serve to assess how building systems operate together and identify operational improvements. Comfort issues often initiate these projects, although such projects play a critical role in evaluating system performance.

Describe the benefits of EBCx, Define the need for EBCx, Create a plan for EBCx implementation, Establish post-implementation mechanisms to measure the success of results

Professionals with diverse backgrounds, including both generalists and specialists

People in career transition, Recent graduates, Recently hired energy management professionals, Energy efficiency project/program managers, People seeking basic skills in energy efficiency

Define the principles, systems, codes, and regulations of energy efficiency, Conduct basic calculations, benchmarking, and audits on building energy consumption, List factors to take in consideration to identify potential energy savings in buildings, Build an energy management plan.

Energy managers of industrial, commercial, and institutional buildings, Energy and project engineers, Service providers and consultants, Facility and building managers, Utility account managers, Resource efficiency managers, Sustainability managers, Energy service company staff

The five-day CEM training program is designed for professionals seeking a comprehensive understanding of effective energy management. The course covers technical, economic, and regulatory aspects of energy management. It provides a comprehensive forum through problem-solving activities to develop a broad understanding of the latest energy cost reduction techniques and strategies.

Manage energy supply and use in commercial and institutional buildings, Present cost-effective improvement ideas, Lead energy use surveys in buildings, Define the relationship between energy and building environments, Conceptualize basic designs for constructing green buildings and facilities, Become familiar with systems and equipment for buildings and manufacturing plants, Memorize energy-related equations and calculations, Prepare to take the exam to become a Certified Energy Manager (CEM)

Building operators, Energy managers, Program/project managers, Technical supervisors, Engineering professionals with experience in heating, ventilation, and air conditioning as well as power systems, Control technicians and building automation supervisors, Artificial intelligence building control specialists

The four-day Advanced Course on Existing Building Commissioning (EBCx) program comprehensively covers all the stages of the EBCx process. This includes planning, investigation, implementation, and hand-over monitoring. The course provides detailed presentations on each stage to enable participants to develop a comprehensive understanding of the entire process and to gain all the expected benefits. The course also covers the fundamental principles of building mechanical systems and explores effective testing and verification methods. Participants also gain a comprehensive understanding of the investigation process.

Apply the four-step EBCx process, Establish effective methods for detecting problems, Calculate energy and system-based savings calculations, Implement EBCx measures, Integrate best practices for ongoing commissioning, Prepare to take the exam to become an NRCan-recognized Recommissioning (EBCx) Agent

People in career transition, Recent graduates, Recently hired energy management professionals, Energy efficiency project/program managers, People seeking basic skills in energy efficiency

The ability to effectively communicate and demonstrate both the energy and non-energy benefits of projects or retrofits – from operational cost savings, to conservation, to reduced equipment maintenance – is key to selling EM projects.

Present EM information to various stakeholders, Convey the added value of EM projects and services, Distinguish between the energy and non-energy benefits of projects or programs, Use key financial analysis terms and apply ratios to assess projects, Prepare financial analyses using a simple spreadsheet and/or RETScreen® Expert, Develop short proposals for EM projects using the one-page proposal methodology

Engineers, Energy managers, Building owners and managers, Commissioning professionals and agents, Project managers, Building designers

This five-day course is designed to meet the technical training requirements of those seeking to gain comprehensive knowledge of the commissioning process from the pre-design to operational phases. The training also provides considerable detail on the fundamental principles of both new building commissioning and existing building commissioning (often called recommissioning).

Recognize the optimal timing and context for a commissioning project, Define all phases of the commissioning process: Pre-design phase, Design phase, Construction phase, Occupancy phase, Apply best practices to various building types, Connect commissioning with other standards and design frameworks, Delimit the scope and use of existing building commissioning (EBCx), Recognize the impacts of commissioning projects on building systems as well as operation and maintenance activities, Become familiar with commissioning software tools and smart building commissioning, Take the exam to become a Certified Building Commissioning Professional (CBCP)

Energy efficiency industry professionals, Energy efficiency program and project managers, Building and installation managers wanting to associate themselves with energy service companies, Building owners wanting to understand measured project energy savings, Building operators and supervisors, Building maintenance staff, Financial officers/managers, Sustainable development managers

The Measurement and Verification Essentials course presents the key components of energy savings as well as measurement and verification (M&V) principles by providing participants with a foundational understanding of M&V. Evaluating the performance of energy conservation measures is essential in demonstrating project success, optimizing facility operations, securing financial assistance, and raising awareness among facility users.

Define M&V, Contextualize the use of M&V, Understand how to use M&V protocols, Determine the positive impacts of M&V, Justify the value of energy efficiency projects

Building owners and stakeholders who wish to measure the energy savings generated by their projects, Building owners and stakeholders who wish to partner with energy service companies (ESCOs) to implement energy efficiency (EE) projects, Administrators of public programs involving M&V, EE program evaluators, Engineering firm employees, ESCO employees

The process of measurement and verification (M&V) involves planning, measuring, and analyzing data to verify energy savings achieved through the implementation of energy conservation measures. This three-day CMVP course enables participants to thoroughly understand modern M&V standards, guidelines, and protocols.

Build an M&V plan, Become familiar with the methods applied for the M&V of energy efficiency projects, Differentiate the various approaches to M&V, including the retrofit isolation and whole facility options, Review M&V cost and contextual considerations, Apply best M&V principles and practices, Prepare to take the exam to become a Certified Measurement and Verification Professional (CMVP)

Building owners and stakeholders who wish to measure energy savings generated by their projects, Building owners and stakeholders who wish to partner with energy service companies (ESCOs) to implement energy efficiency (EE) projects, Administrators of public programs involving M&V, Evaluators of EE programs, Engineering firm employees, ESCO employees

This course offers comprehensive coverage of statistical tools, examples, and case studies to enhance your expertise in the M&V process and the preparation and interpretation of M&V plans.

Use statistical tools for developing M&V plans, Strengthen your understanding of regression, Perform calculations on several case studies​, Develop an M&V plan.

Energy managers/champions/leaders or coordinators, Sustainability managers/champions/leaders or coordinators, Individuals involved in implementing an Energy Management System (EnMS), Organizational managers/leaders, Public-sector program managers, Service providers and consultants, Resource efficiency managers, Anyone implementing technological retrofits requiring positive engagement and support of staff, occupants, users, and/or tenants

This two day training program is intended for participants who want to create an engagement strategy incorporating the various aspects of behavioral and holistic organizational management. In this training, you will put together a plan to change behaviours while engaging people – either internally (staff, operations, teams) or externally (tenants, clients, occupants).

Establish realistic goals for energy engagement strategies, Assess the organizational proficiencies as they relate to achieving real energy reduction, Examine the culture of organizations and design interventions in harmony with the given culture, Use a structured approach to identifying and selecting behaviours to influence based on impacts, barriers and benefits, Identify and articulate energy and non-energy benefits from effective engagement, Apply the systematic six step approach to designing engagement strategies, Evaluate energy engagement strategies.

Energy managers, Facility and business managers, Industrial engineers, Supply chain professionals, Consultants

The Certified Industrial Energy Professional (CIEP) training is designed to equip professionals with the skills required to optimize energy efficiency in industrial settings. The CIEP program covers various aspects of energy management, such as energy auditing, system optimization, energy procurement, and sustainability practices in industrial facilities. Participants learn how to analyze energy usage, identify potential energy saving opportunities, and develop strategies to reduce energy consumption and costs.

Adopt an industrial and manufacturing perspective in energy management, Leverage the latest industrial processes, systems, and technologies to improve system performance, Identify energy saving opportunities and reduce costs using the ISO 50001 and 50002 standards, Use economic concepts on energy management to successfully fund energy saving projects, Prepare to take the exam to become a Certified Industrial Energy Professional (CIEP)

Energy auditors, Energy engineers and consultants, Energy managers, Plant and facility engineers, Energy managers, Energy service company professionals, Energy performance contracting professionals

The four-day Certified Energy Auditor (CEA) program provides participants with the fundamental knowledge needed to evaluate how energy is used in facilities and identify areas in which consumption can be reduced. It also covers useful calculation methodologies through practical examples and peer exercises.

Conduct energy audits​ and carry out the major steps in the auditing process, Plan successful audits by mobilizing the right energy audit level, Effectively communicate the results of energy audits effectively to client​s, Convert energy units and conduct benchmarking, Analyze facility energy consumption and establish energy balance​​s, Collect the correct onsite data, Analyze collected data, Choose and prioritize energy efficiency investment projects, Understand how systems consume energy, Raise the professional standards of those engaged in energy auditing, Prepare to take the exam to become a Certified Energy Auditor (CEA)

New and existing building/facility operators and maintenance staff, Building supervisors and managers, Technologists, specialists, and tradespeople (lighting, HVAC, others), Third-party building management vendors

Existing Building Commissioning (EBCx) and Electrical System Considerations, Fundamentals of HVAC Systems and Heat Pump Integration, Building Automation Systems (BAS) and Controls

The Certified Sustainable Building Operator (CSBO) course equips building operators with critical skills in energy efficiency, sustainable building system management, as well as regulatory and environmental compliance. These skills enable operators to optimize building performance, reduce waste, and enhance occupant well-being.

One of the three following one-day modules must be selected by participants or organizations: Energy Efficiency Basics and Low-Cost Opportunities for Operational Improvements, Building Electrification Strategies for Building Operations, Decarbonization and Net-Zero Strategies for Building Operations

Building/facility operators and supervisors, Building/asset managers, Energy managers, Service providers in the commercial building industry, Building maintenance staff, Technologists and specialists (lighting, HVAC, others)

In this two-day course, instructors help participants understand how energy behaves, how it is used in facilities, and how to control it through operational actions across various building systems. Physical demonstrations, calculations, worksheets, role plays, and case studies are used to demonstrate existing energy savings opportunities in lighting, pumps, fans, building envelope components, heating, ventilation, and air conditioning (HVAC), refrigeration, building automation systems, and more.

Determine how building operations impact energy consumption and how to identify energy waste, Determine how to improve energy efficiency through building maintenance and operations, Apply expertise on how to conduct simple energy savings calculations and explain savings to others, Apply building control strategies used to reduce energy consumption and costs, Optimize HVAC systems, Reduce energy consumption through equipment selections and replacements

Building designers and architects, Construction professionals, Building inspectors, Consultants, Provincial building authorities

Having prior work experience is an asset in this course because participants will be able to better take part in group discussions and case studies. These interactive activities will require participants to adopt a problem-solving approach to resolve issues. By the end of the course, participants understand how crucial it is to implement NECB best practices.

Working with the National Energy Code for Buildings (NECB) provides guidance to help anyone who works regularly with the code to either comply with or enforce it. This course covers the most important aspects of the NECB, notably building envelopes, heating, ventilation, and air conditioning, and water heating.

Define the requirements of the NECB, Comply with NECB requirements, Apply a work methodology to ensure NECB requirements are duly met, Differentiate between the 2017 and 2020 versions of the code, Comprehend how the code affects your line of work, Mobilize the latest technological advancements to achieve energy efficiency goals

New energy modellers, Energy consultants, Program administrators, Compliance reviewers, Code officials, Those who hire energy modellers (e.g. architects)

The Building Energy Modelling Essentials course is a perfect starting point for those who wish to become familiar with modelling concepts and demonstrate compliance with the National Energy Code for Buildings (NECB).

Navigate viable NECB compliance paths, Discern when energy modelling is applied and how it helps meet energy project goals, Produce a compliance report, Review the major components of a building energy model (envelope, lighting, heating, ventilation, and air conditioning, service water heating, central plant) and where this information is typically found, Discern the roles of reference buildings, Apply the factors that constitute a successful energy model

Energy design decisionmakers, Energy modellers, Building portfolio managers, Consultants, Building designers and architects, Electrical engineers, Mechanical and heating, ventilation, and air-conditioning specialists

Building Energy Modelling Essentials course; familiar with basic modelling concepts

Building energy modelling is a key process used in retrofit design, code compliance, and real-time building control for commercial and institutional buildings. The modelling process permits modellers to include factors such as building performance, climate data, construction materials, architectural design, heaving, ventilation, and air conditioning, as well as building analysis.

Prepare an energy model, Set preliminary models, Input building performance factors and design elements into a model, Use the Detailed Mode feature, Apply reporting and calculation methodologies, Use EnergyPlus as a compliance tool

Building energy modelling professionals, Energy consultants, Mechanical designers, Technical reviewers of building permit applications, High performance building consultants

Completed the Building Energy Modelling Professional course or have similar knowledge

The Advanced Building Energy modelling course is focused on developing skills that energy modellers utilize in creating energy models for buildings with complex systems and using those models to conduct in-depth analyses of energy performance. This approach is now more frequently implemented for new construction projects as well as deep energy retrofits in existing buildings that need to meet the increasingly more stringent energy efficiency requirements of building codes.

Develop complex energy models using Energy Plus/Open Studio, Create proposed/as-built and reference models for code compliance, Model high-performance building systems, Troubleshoot energy model errors, Analyze energy model output reports

Building owners and operators, Public sector or institutional program managers, Building managers/supervisors, Asset and building portfolio managers, Industrial and water plant operators

The ENERGY STAR® Portfolio Manager (ESPM) is a management tool designed to measure and assess the energy performance of commercial and institutional buildings. During this first of three virtual workshops, participants are exposed to the basic functionalities of Portfolio Manager and learn to navigate it. Moreover, the instructor presents an overview of how to enter building data into the tool.

Update data using the spreadsheet upload feature, Set baseline goals, and targets to plan energy improvements, Create custom reporting templates, Use the Sustainable Building Checklist

Building owners and operators, Public sector or institutional program managers, Building managers/supervisors, Asset and building portfolio managers, Industrial and water plant operators

This second workshop in the series provides participants with the information and training needed to use and update data and information on their own buildings into the tool. Participants also learn how to use the Data Quality Checker that serves to run a set of basic data checks on properties to help identify possible data entry errors and determine whether their buildings differ from typical operational patterns. It also alerts users to both warnings and information errors that might have been inputted.

Enter and edit property data and details, Correct or update property use details as required, Use the Data Quality Checker, Share property data

Building owners and operators, Public sector or institutional program managers, Building managers/supervisors, Asset and building portfolio managers, Industrial and water plant operators

This third and last workshop exposes participants to how they can go further with Portfolio Manager to produce more complex reports and templates as well as begin to set baselines and checklists for their buildings.

Update data using the spreadsheet upload feature, Set baselines, goals, and targets to plan energy improvements, Create custom reporting templates, Use the Data Request Template functionality

Building owners and operators, Public sector or institutional program managers, Building managers/supervisors, Asset and building portfolio managers, Industrial and water plant operators

In this session, you will learn how to identify and prioritize energy and cost-saving opportunities based on benchmarking results, leverage ENERGY STAR resources, and delve into advanced strategies and technologies that further enhance building energy performance.

Interpret benchmarking results, Explore advanced performance metrics beyond basic benchmarking, such as ENERGY STAR scores, energy use intensity, and other key indicators, Identify potential areas for optimization within your building's systems and operations, Use advanced strategies for efficiency enhancement

Building operators, Technicians, Project managers, Consulting engineers, Property managers, Building owners/operators

During this one-day Building Automation Systems Essentials course, participants examine the basics of building systems and energy conservation strategies. This empowers participants to efficiently and effectively operate a BAS regardless of which system is used.

Develop energy conservation plans and how various projects generate energy savings, Optimize an already existing BAS, Calibrate a BAS, Discern the core design specifications of a BAS, Identify opportunities to optimize a BAS, Define the relationship between heating, ventilation, and air-conditioning (HVAC), a BAS, and key control strategies, Recognize the importance of identifying and following trends, Explore the benefits of scheduling, Analyze the calibration process

Building operators, Technicians, HVAC specialists, BAS designers, Project managers, Consulting engineers

The Advanced Building Automation Systems Optimization course provides detailed information on the design, diagnostic, trend monitoring, and control strategies that allow participants to operate their buildings with exceptional efficiency and energy management practices.

Discern the core design specifications of a BAS, Identify opportunities for the BAS optimization, Define the relationship between heating, ventilation, and air conditioning (HVAC), a BAS, and key control strategies, Recognize the importance of identifying and monitor trends, Explore the benefits of scheduling, Analyze the calibration process

Future Registered Energy Advisor, Construction professionals, Service organization (SO) staff, Heating, ventilation, and air-conditioning experts, electricians, and other technicians, Individuals working in residential energy efficiency

Take the first step toward becoming an NRCan-Registered Energy Advisor (REA) with CIET’s Foundation Level Prep Course. This comprehensive program prepares you for the Foundation Level Exam by providing an overview of building science principles and sound business practices for REAs.

Use the house as a system concept (environments, building envelopes, mechanical systems, and occupant activities), Complete geometric and arithmetic calculations and unit conversions, Interpret house plans, Recognize Canadian architectural house types, Navigate the residential building design process, construction and renovation techniques, and high-efficiency design principles, Comprehend mechanical systems including domestic water heating, space heating, ventilation, heat pumps, cooling systems, and safety considerations when accessing existing and new home constructions and work sites, Prepare to take the NRCan Foundation Level Exam

Individuals who have successfully passed the NRCan Foundation Level Exam and want to become an energy advisor, Future Registered Energy Advisors, Construction professionals, Service organization staff, Heating, ventilation, and air-conditioning experts, electricians, and other technicians, Individuals working in residential energy efficiency

The CIET Energy Advisor Prep Course provides participants with the knowledge and tools necessary to successfully pass the EA exam and understand the key responsibilities of EAs. These responsibilities involve evaluating the energy performance of residential homes and offering guidance on potential energy savings during the design, construction, and renovation stages.

Utilize the EnerGuide Rating System (version 15), Issue energy efficiency recommendations to homeowners, Define the requirements for home building envelope and mechanical systems, Explain the importance of collecting home energy consumption data, Collect home energy data, Appropriately model files using NRCan’s HOT2000 energy modelling software, Ensure the quality and accuracy of files

Registered Energy Advisors, Service organization staff, Construction professionals, Heating, ventilation, and air-conditioning experts, electricians, and other technicians, Individuals working in residential energy efficiency

Prep Course for the NRCan Foundation Level Exam AND the Prep Course for the NRCan Energy Advisor Exam (House)

This prep course is focused on preparing NRCan Residential Energy Advisors (REAs) to conduct MURB assessments and take the certification exam. Participants master eligibility criteria, MURB terminology, and standard operating conditions. The course serves to develop a deep understanding of building envelope and mechanical data-collection requirements as well as a strong foundation for assessing MURBs.

List eligibility criteria for assessing MURBs, Apply MURB terminology and concepts, Apply standard operating conditions, Comply with the requirements of building envelope and mechanical data collection for MURBs, Select various blower door tests when multiple tests and fans are necessary, Model MURBs in the HOT2000 software, Gain knowledge about quality assurance requirements

Registered Energy Advisors, Future Quality Assurance Specialists, Registered Energy Advisors looking to establish their own service organization

The CIET Prep Course for the NRCan Quality Assurance Specialist Exam (House) is the first step to becoming a certified Quality Assurance (QA) Specialist. This course provides an overview of quality assurance principles and a review of sound business practices for QA specialists.

Define the roles and responsibilities of a QA specialist, Perform quality assurance at all levels of residential energy audits, Fill out forms and reports related to the role of a QA specialist

Sustainability/climate change managers, Environmental decisionmakers and policymakers, Building owners and operators, Manufacturing site owners, Professionals wishing to develop carbon neutral strategies

This one-day training is intended for managers and professionals wishing to learn about the various strategies that serve to achieve carbon neutrality in their organizations.

Explain the 2050 government targets, Define carbon neutrality and other related concepts, Differentiate decarbonization approaches (reduce, capture, offset), Set realistic GHG emission reduction goals, Develop a strategy to achieve carbon neutrality

Energy/sustainability professionals, Organizational or program managers, Project engineers, Service providers and consultants, Resource efficiency managers

This public webinar is intended to introduce the ISO 50001 Energy Management Systems standard, the Ready Navigator tool, and the 50001 Ready Canada recognition program.

Properly implement energy management systems, Use the Ready Navigator tool, Facilitate your organization being recognized 50001 Ready Canada

Sustainability, environment, or decarbonization managers, Planning or strategy managers, Environmental decision-makers and policy makers, Building owners and operators, Environmental and social governance specialists

The Embodied Carbon Accounting is a comprehensive two-day course designed specifically for sustainability, environment, and decarbonization professionals. This course delves into the technical aspects of identifying, measuring, and strategically reducing embodied carbon in both consumed goods within organizational procedures and building constructions as well as renovations.

Reduce embodied carbon in buildings and organizational procedures, Identify opportunities for reducing carbon emissions in the construction or renovation phase of a building project, Establish organizational policies in accordance with GHG reduction objectives, Use embodied carbon projects to maximize organizational and structural efficiency, Link embodied carbon and waste disposal following circular economy principles

Sustainability, environment, or decarbonization managers, Planning or strategy managers, Energy managers, Accountants, Consultants, Operational efficiency specialists

This two-day course is designed to guide participants in decarbonizing their facilities. The course uses case studies from the commercial, institutional, multi-unit residential, and residential sectors to present the content.

Translate company targets into specific building plans, Prioritize GHG reduction projects in buildings, Select and justify different types of studies, Identify and define an effective decarbonization project, Develop low carbon roadmaps for building portfolios, Apply best practices

Sustainability, environment, or decarbonization managers, Planning or strategy managers, Energy managers, Accountants, Consultants, Operational efficiency specialists

This one-day course is designed to provide participants with hands-on experience in analyzing decarbonization projects. It covers fundamental concepts such as incremental costs, carbon pricing, net present values, total costs of building ownership, and how to determine the necessary elements for a decision matrix. Throughout the day, participants actively engage in creating a business case for a decarbonization project by going through each step. At the end of the course, participants are asked to present their decarbonization recommendations.

Understand project financial metrics such as incremental costs, net present values, internal rate of return, and net present values per tonne of GHG emissions, Compare decarbonization opportunities using the appropriate metrics and select the best ones, Consider the effects of carbon risks, capital upgrade cycles, and asset values as well as how to quantify these effects as part of life cycle cost analysis, Develop a one-page proposal to pitch a decarbonization opportunity