SIMPLE VERSUS COMPLEX
Building in a Changed Climate
The building industry has more challenges to meet than ever before - and according to climate science, we have 12 years to cut carbon emissions in half.
How do we simultaneously design for the extremes of a changed climate and build in a way to reverse those changes? Will ever more complex technology help us meet the challenge? We’ve seen some very sophisticated green buildings perform poorly, and some simple structures perform exceptionally well.
The 2019 Green Building Festival will look at both simple and complex strategies, techniques and technologies to inspire the building community in reaching the goal of zero carbon.
GBF19 programming features:
- An office building in snowy Austria that regulates comfort and temperature all without a mechanical system
- A movable building envelope that uses Phase Change Materials to collect and release thermal energy
- Active House versus Passive House projects and approaches
- 3D printed concrete forms that minimize waste
- Integrated mechanical and envelope strategies for new and existing buildings
- Innovative technologies that can reduce and possibly eliminate CO2 in concrete production, and more …
A full delegate pass costs only $275 and includes all speakers, meals, networking reception and 5.5 hours of continuing education credits.
Date: October 8 2019, 8 am – 7 pm
Location: Toronto Marriott Downtown Eaton Centre, 525 Bay Street, Toronto ON M5G 2L2 CANADA
Cost: Full Delegate Pass only $275
Pass includes: Action packed full day of inspiring speakers and expert programming, meals, networking reception, 5.5 continuing education hours certificate for GBCI, OAA, OALA, OPPI and PEO
New in 2019: Announcing the Green Building Festival Student Poster Competition
Attention Graduate Students at Ontario Colleges and Universities:
Does your research address ways of building more sustainably in either simple or complex ways?
If your answer is YES – we want to hear from you!
Read more …
FRAIC, Architect AIBC, AIA, LEED Fellow
Simplicity: Rebuilding the Planet through the 12 Principles of Conscious Construction
Teresa Coady is a professional consultant and strategic business advisor, currently completing her first book, ‘Rebuilding the Planet, The 12 Principles of Conscious Construction’ for distribution Spring 2020 by Random House. She advises the Architectural institute of British Columbia and the Association of Professional Engineers and Geoscientists of British Columbia with respect to Advanced Code Knowledge, Regulatory and Building Codes Committees, and Certified Professional Programs. She is currently a member of the NRC Technical Committee for Wildland Urban Interface Wildfire Guidelines.
Ms. Coady is internationally recognized for her innovative thinking and her leadership in sustainability and works closely with various agencies to create new policies and practices to benefit society. She is a past board member UNEP SBCI, and is VP of iiSBE, a member of UNEP GlobalABC and the only Architect to serve on the British Columbia Provincial Government’s Climate Action Team (CAT).
Ms. Coady was most recently the Chief Operating Officer, COO, of Kasian, an international design firm. Prior to her role at Kasian, Ms. Coady was the president and CEO of Bunting Coady B+H. Ms. Coady is a Fellow of the Royal Architectural Institute of Canada and a LEED Fellow of the USGBC.
An award-winning female entrepreneur, Ms. Coady has over 50 publications, numerous television and video appearances, and is actively involved as a mentor for emerging businesses and as a professional lecturer.
It is time for our industry to act. Buildings and development patterns today undermine our physical, mental and emotional health. Buildings and development patterns also destroy habitat and migration paths through change in land use, resource extraction, pollution and emissions, and through the degradation of water sources and wetlands. Our industry is in the midst of a massive shift from the industrial to the digital age. This has real, and positive, implications for the future well-being of all species on Earth.
In this session you will learn how and why to:
- Design for life, not machines
- Protect all waters and wetlands, discharge nothing to the oceans
- Restore and protect all forests, keep cities green
- Restore and protect eco-corridors, abandon the paved grid
- Use solar first
- Embrace distributed energy systems first
- Limit manmade CO2 emissions to 22GT, discharge no toxins or pollutants to the atmosphere
- Regulate EMFs Mandate EPDs Build only what is needed, design to human scale
- Design for speech music and dance, eliminate noise pollution, restore natural sounds
- Restore natural connections
- Measure happiness first
- Balance financial, production, social, human and environmental capital
Certified Passivhaus Consultant; Architect, LEED AP, NAHB Green Professional, Edmund Hillary Fellow as a Global Impact Entrepreneur
Passiv for the Masses: Tunneling through the cost barrier through innovative design and production methods
As an active builder, architect and high-performance building expert, Adam Cohen is a leading North American Passivhaus practitioner whose innovative work on market rate delivery of commercial high-performance building has made his expertise sought-after for projects across North America. His work’s impact has recently been recognized with the award of the Edmund Hillary Fellowship as a Global Impact Entrepreneur. The Edmund Hillary Foundation fosters humankind’s creative potential from Aotearoa New Zealand, by supporting a community of impact entrepreneurs, investors and changemakers to build meaningful solutions to global problems.
As a recognized North American leader in both the Passivhaus and Integrated Project Delivery movements he has presented technical papers at both national and international conferences. His leadership in commercial Passivhaus design and IPD has made him a sought-after speaker, consultant and teacher of advanced courses in market rate delivery ultra-low energy design.
He served as Vice-Chair of the Passive House Institute US technical committee for 5 years and co-authored and taught the Passive House Institute US’s builder training curriculum. Adam is a current board member of Yestermorrow Design/Build School and Passive Buildings Canada.
For many building teams, it is an almost impossible challenge to simultaneously deliver high performance, cost efficient buildings while maintaining high customer satisfaction and profitability. It is not uncommon for high performance commercial buildings to cost 10% - 20% more to build than conventional buildings. Cost efficient high performance buildings rely on holistic analysis and implementation of design, construction and testing to produce consistent results.
This presentation will explain the history and basics of Passiv design principles. It also examines integrated project delivery methods essential within the design and construction team taking joint responsibility for decisions and actions from schematic design through project construction, commissioning and monitoring. Built examples and areas for capturing money typically left on the table in conventional design-bid-build project delivery situations will also be discussed.
Brent Constantz is a serial Silicon Valley entrepreneur and the inventor on over 100 issued US patents, with more currently pending.
He was a Consulting Associate Professor teaching biomineralization, carbonate sedimentology, mineralization of bone, and The Role of Cement in Fracture Management at Stanford University. In the 1980s Constantz discovered the basic process used by corals to form their skeletons in his doctoral studies. He used this to develop modern biological bone cements, which are found in most orthopedic surgery operating rooms performing orthopaedic surgery globally. In 2007, he launched his efforts to address climate change by creating a sequestered CO2 cement for use in concrete that sequesters carbon dioxide using a method that is scalable and economically and technically sustainable. In 2012 he launch Blue Planet to make sequestered CO2 aggregate for concrete.
A Fulbright Scholar, Dr. Constantz has been awarded many grants from governments, has testified before both the US Senate and the House of Representative about solutions to Climate Change, has won a number of awards and honors, and regularly contributes to philanthropic causes.
Blue Planet Ltd mimics the way coral uses carbon to build itself. The process combines captured CO2 and recycled concrete or slag aggregate to create synthetic limestone and sand. These carbonate rocks eliminate quarried limestone. Carbon is diverted from the atmosphere and stored permanently in concrete, the single most widely used solid material in the world.
It gets better. 55 billion tons of rock is mined every year worldwide for buildings and roads and 70% of it is limestone containing 22 billion tons of CO2. More than half of this CO2 could be consumed by replacing mined aggregate with synthetic limestone. After water, aggregate is the most transported material on Earth. The transportation and product delivery infrastructure for delivering carbon sequestered aggregate is already in place in every country and at every site in the world that is producing concrete, asphalt and road base thus avoiding CO2 related to mining and transportation. Additionally, when CO2 is captured from cement plants, the Portland cement component of concrete can be made carbon-neutral, eliminating the need to reduce Portland cement content in concrete.
Creating aggregate from CO2 is one of the few highly impactful, globally sustainable means to significantly address climate change, since a new infrastructure is not required. Beyond this, no retrofit of existing concrete plants is necessary. The funding to purchase aggregates is already in-place globally, and mainly part of a government procurement process, creating credit-worthy off-takers, and allowing governments to use their procurement power to mitigate CO2 and drive the transformation from mining.
Principal Investigator, Swiss National Competence Centre of Research in Digital Fabrication (NCCR DFAB); Assistant Professor for Digital Building Technologies, Institute of Technology In Architecture (ITA), Department of Architecture, ETH Zurich
Digital Pathways to Sustainable Buildings
Benjamin Dillenburger is an architect who explores computational design methods and digital fabrication to broaden the design freedom for architecture and to develop performative building solutions. Recent works include the design of two full-scale 3D printed rooms for the FRAC Centre, Orleans and the permanent collection of Centre Pompidou, Paris. Benjamin Dillenburger holds a PhD degree from the ETH Zurich, and is Assistant Professor for Digital Building Technologies (DBT) at the Institute of Technology in Architecture at ETH Zurich after having taught as Assistant Professor at the John H. Daniels Faculty of Architecture at the University of Toronto. He is Principal Investigator of the Swiss National Competence Centre of Research in Digital Fabrication (NCCR DFAB).
With dramatically increasing urbanization worldwide and limited resources, we need new ways to plan and build buildings more efficiently. Digitalization and automation, which is still in its infancy in architecture and the construction industry, must play a key role here.
Discover how the combination of computer-aided design methods and digital manufacturing processes such as large-format 3D printing can allow us to create a more sustainable and rich built environment in the future.
Austrian architect Dietmar Eberle is the winner of over 150 national and international competitions, and has been a teacher in several universities in North America and Europe. Since 1999 he has been Professor at the ETH Zurich and was the Dean of the School of Architecture between 2003-2005. He has also been head of the Center of Housing and Sustainable Urban Development at the ETH Zurich. The architectural practice Baumschlager Eberle is a network of international offices run by Dietmar Eberle together with eleven partners. The offices, located at twelve sites in eight different countries in Europe and Asia, have completed well over 400 buildings.
The world is becoming ever more complex, not least for building owners and users. Many buildings vie to outdo one another with ever more technically sophisticated ways to save energy, rendering the human beings within them no more than disruptive elements being regulated and even limited by building mechanical services.
2226 is an alternative model which is elegantly simple. Developed using the elemental means of architecture, 2226 buildings are constructed with the focus back on occupants: 22°- 26° C is precisely the range human beings experience as a pleasant room temperature. Without wasting energy on heating, ventilation or cooling, 2226 buildings like the architect’s office building in Lustenau, Austria bring investors, building owners and users back to their comfort zone, with top quality and little technology.
Co-Founder, falkeis|architects.vienna, falkeis|architects.vaduz, and falkeis2architects.building innovation lab
Building Innovation for an Architecture in Motion: A movable building envelope that uses Phase Change Materials to collect and release thermal energy
He started his academic career as a guest researcher at the University of Tokyo Japan, has been teaching and lecturing internationally and was Guest-Professor at Nanjing University of Art China. He is Full Professor at the University of Applied Arts in Vienna, where he was Vice-Dean of the School of Architecture, founding Head of Department Social Design and Dean of the Institute Arts and Society. Currently he is Head of Special Topics in Architecture Design. He is visiting critic at ETH Zürich and a frequent speaker at international conferences. Anton Falkeis is JSPS fellow of the Japan Society for the Promotion of Science.
Today’s cities are responsible for 75% of the world’s energy consumption and are emitting 80% of man made carbon dioxide. Over the last decades, urban agglomerations have been very successful in absorbing population growth and drawing in rural population. They are home to more than 50% of the world’s population. Acknowledging these facts and facing the process of rapid urbanization, demands for new strategies reducing CO2 emissions and energy consumption.
The lecture will mainly focus on the development and realization of the first ‘Active Energy Building’ as one possible answer to these urgent questions.
Applied trans-disciplinary research is foundation for the architectural work of falkeis2architects and includes acoustical phenomena, building integrated energy production and sustainable structures as well as ‘biological approaches’ to building, structural and urban design, and the social impact of technological innovations. The lecture will briefly feature some of these research activities.
Based on intense research the Active Energy Building successfully implements a building integrated energy production system. PV-tracking systems and PCM-climate wings, part of a moving building envelope, harvest solar and interstellar radiation producing solar power and controlling the building climate.
The Active Energy Building also provides high capacity to adapt to changing spatial requirements, achieved by a most effective load bearing structure.
The project aims at delivering a contribution to improve urban living conditions and energy demands and is a built example for decentralized urban energy production.
Erik Janssen, M.A.Sc., CMVP
Analyst, Sustainable Technologies Evaluation Program, Education and Training, Toronto and Region Conservation Authority TCRA
Sustainable Technologies Evaluation Program (STEP) Heat Pump Research Findings
For the past six years, Erik has been an Analyst with the Sustainable Technologies Evaluation Program (STEP) of the Toronto and Region Conservation Authority where he has been a scientific lead on pilot projects evaluating the performance of emerging low-carbon technologies – focusing primarily on photovoltaics and heat pumps.
Prior to STEP, Erik worked in industry for Ecologix Heating Technologies, a small-scale manufacturer of innovative cold-climate heat pumps. He is a Certified Measurement and Verification Professional (CMVP) and holds a Master’s of Applied Science in Engineering Physics, a Swedish Magisterexamen in Solar Energy Engineering, and a Bachelor’s Degree in Physics..
The Sustainable Technologies Evaluation Program (STEP) of the Toronto and Region Conservation Authority (TRCA) recently piloted two emerging low-carbon heating and cooling technologies. In the first pilot, performance measurements of a natural gas driven heat pump (GHP) were used to estimate the savings of energy, cost, and carbon, in different applications.
The study found that installing the GHP in a preheat capacity for a conventional DHW boiler (i.e. additional system complexity) could result in significant savings and a reasonable payback. In the second pilot, measurement and verification of ductless multi-split air-source heat pump retrofits suggested that the best cost-performance is likely achieved with a simpler variant of ductless heat pump technology.
This mini-presentation will detail key findings from each project and direct delegates to additional resources where they can learn more..
An executive with more than 15 years of experience in the building industry ranging from Site Management to Global Building Initiatives including the First Certified Active House in the World.
Shaun Joffe, Executive Director, Sustainability & Building Sciences, leads a high performing team to implement new building standards for one of North America’s premier real estate organizations, the Great Gulf Group of Companies. He is responsible for creating and constantly improving the Great Gulf sustainability corporate and product development programs.
He focused on Economics and Philosophy when studying at the University of Guelph and studied Real Estate and Project Management at the University of Toronto. He is committed to the community and has contributed as a board member to the Jay Care Foundation, The House, CJPAC and served on numerous committees including the Crohn’s and Colitis Society. He currently sits on the OHBA/BILD technical committee with the mandate to review Ontario building codes.
Representing the international Active House Alliance, Russell Ibbotson and Shaun Joffe will introduce the audience to the Active House Specification.
With building codes taking the lead on the energy efficiency requirements, industry leaders can focus on improving experience of daily indoor life. There is growing evidence that we can design and build buildings better for people and that factors around comfort can be measured. If you can measure it, you can improve it.
Explore the benefits of the Active House Specification through case studies and gain an understanding of why Active House is gaining momentum worldwide.
Marianne Touchie is an Assistant Professor jointly appointed in the Departments of Civil & Mineral Engineering and Mechanical & Industrial Engineering at the University of Toronto. Prior to joining the U of T faculty in 2016, she was the Building Research Manager at the Toronto Atmospheric Fund and a Postdoctoral Fellow in the Department of Civil Engineering at the University of Toronto. Her research focuses on improving the energy performance and indoor environmental quality of existing buildings to make them more comfortable, healthy and sustainable through comprehensive retrofits.
Most recently, Dr. Touchie and her colleagues have been studying the interaction between energy performance and indoor environmental quality in Toronto’s aging multi-unit residential buildings including a number of buildings used for social housing.
Dr. Touchie teaches undergraduate and graduate courses in both Civil and Mechanical Engineering including Building Science and HVAC Fundamentals. She is also the Vice President of the Building Science Specialist Board and the Vice Chair of the Technical Committee on Physiology and Human Environment at ASHRAE.
Single-glazed windows, no thermal insulation, significant air leakage, pressurized corridor ventilation systems, hydronic baseboard heating – all characteristics common to hundreds of post-war apartment buildings in our region. Overcladding and window replacement retrofits are becoming more common as a way to address these issues and improve envelope thermal performance and thermal comfort. However, by only considering envelope improvements, existing challenges with the building HVAC systems become even more problematic.
By examining both local and international studies, we’ll see how important it is to consider alternative ventilation strategies when undertaking an overcladding retrofit and explore the consequences of not doing so.
RYERSON STUDENT RESEARCH: Arbour – Connecting building science with design
A mid-level architecture student just graduated with a bachelor’s degree, Dima has studied in the Architectural Science Program at Ryerson University. As a reflection of her interest and devotion in technicality and design, she has chosen to major in Building Science during the fourth and final year of her undergraduate studies. During her four years of study, she has built a great experience in designing projects of different scales: from small street installations to real life housing projects. Her interest in architecture has helped her to further educate and expand her knowledge as part of her learning experience.
Jessica is a recent graduate of the Bachelor of Architectural Science program at Ryerson University. She majored in the architecture stream in her fourth year and enrolled in a joint studio course with students in the building science stream. The studio course provided Jessica with the opportunity to explore methods of achieving low carbon and net zero design and directed Arbor, the urban cabin project, to be very focused on sustainability and the impact of design on the surrounding context.
RYERSON STUDENT RESEARCH: Getaway Cabin – Connecting building science with design
Stephen recently graduated from Ryerson’s Architecture Science Cooperative Program with a specialization in Architectural Design. His acquired knowledge of building systems and architectural technology in his years at Ryerson University and Humber College has developed his passion for creating pieces of architecture that are both energy efficient and well-designed. Stephen has a keen interest in the integration of new sustainable technologies in residential projects as well as creating a connection between a building and its surrounding landscape. He believes that the future of architecture is a balance between beautifully detailed spaces and resilient buildings.
Alex is a recent graduate of Ryerson’s Architectural Science program. He completed a specialization in Building Science. Throughout his years in the Ryerson architectural program, Alex has had a passion for designing and developing residential architecture at a variety of scales. In completing his specialization in Building Science, his ambitions have morphed into an interest in optimizing energy performance as well as researching up-and-coming green building technology. Other interests include the exploration of off-grid, Net-Zero buildings, prefabricated homes as well as new affordable housing models.
Thank you to our valued Green Building Festival sponsors for their support