The document discusses solutions to thermal bridging issues that occur with cantilevered balconies. It promotes the use of structural thermal breaks, specifically the Schöck Isokorb® product, to insulate balcony connections and reduce heat loss by up to 75%. The thermal breaks increase surface temperatures, lower energy costs, and mitigate the risk of moisture damage compared to non-insulated balconies. The document emphasizes that thermal breaks future-proof developments and help developers meet changing building codes.
Building an A-rated Home - Back to the FutureEd O'Donoghue
This is a presentation from 9 years ago outlining how the first A-rated homes in Ireland were constructed. As of now (2016) this level of house performance is becoming the basic house standard in Ireland. This presentation shows how a double leaf masonry construction can achieve high levels of energy efficiency.
The Tradition and Science of Window Installations - Where are We Headed with ...Graham Finch
Presentation on the impact of more highly insulated and passive house wall designs and practices on the installation of windows. Presented at the 2016 Euroline technology forum.
Walls and Windows for Highly Insulated Buildings in the Pacific NorthwestRDH Building Science
Presentation Outline:
- Design Objectives, Durability Considerations, and the Pros & Cons for Alternate Highly Insulated Wall Assemblies in the Wet Pacific Northwest
- Basics of North American, European and Passivhaus Window Rating Standards and Window Selection Guidelines
This lecture illustrates the opportunities for Passive House on commercial projects. Follow four case studies and learn how the Passive House building energy standard affects project planning, design, and what changes are made to the building envelope and mechanical systems to achieve it. Furthermore, this session highlights the differences in initial cost and life cycle cost, and provide insights into the energy conservation and CO2 reduction potential.
Intep & TE Studio designed the first certified Passive House in North America, as well as the first certified cold climate Passive House and the first certified cold climate Passive House retrofit (EnerPHit) in the world. Learn more at intep.com and testudio.com
Passive House Walls and Windows for the Pacific NorthwestGraham Finch
This document summarizes a presentation on wall and window design for highly insulated buildings in the Pacific Northwest region. Some key points:
- Passive design strategies require airtight, highly insulated walls with minimal thermal bridging and effective R-values of R-30 to R-60 depending on climate.
- Several wall assembly options were discussed including exterior insulation, split insulation, and double stud designs. Considerations include moisture control, vapor diffusion, insulation placement and thermal bridging.
- Window selection guidelines differ between the North American NFRC system and European standards used for Passive House certification. Frame size, spacer placement and boundary conditions impact U-values.
- Past building failures in
Interest in taller wood buildings utilizing cross laminated timber (CLT), nail laminated timber (NLT), and structural glued laminated timber (glulam) is growing rapidly in Canada and the United States. On the west coast, recently completed projects including the 97 foot tall, 6-story Wood Innovation and Design Center (WIDC) in Prince George, BC, the 180 foot tall, 18-story UBC Brock Commons Tallwood House in Vancouver, BC, and the upcoming 12-story Framework project in Portland, OR, have captured the attention of the international construction industry. Several other taller wood buildings are on the horizon and feasibility studies are currently being performed for mass timber buildings over 30 stories in height. Tall wood buildings have been a reality in Europe longer than North America, and there is much to learn from the European experience. However, conditions unique to the North American construction industry create many challenges for the design team in demonstrating the safety, durability, and economics of these buildings, all while forming public perception of wood at taller heights.
Presented at the 15th Canadian Conference on Building Science and Technology.
Building an A-rated Home - Back to the FutureEd O'Donoghue
This is a presentation from 9 years ago outlining how the first A-rated homes in Ireland were constructed. As of now (2016) this level of house performance is becoming the basic house standard in Ireland. This presentation shows how a double leaf masonry construction can achieve high levels of energy efficiency.
The Tradition and Science of Window Installations - Where are We Headed with ...Graham Finch
Presentation on the impact of more highly insulated and passive house wall designs and practices on the installation of windows. Presented at the 2016 Euroline technology forum.
Walls and Windows for Highly Insulated Buildings in the Pacific NorthwestRDH Building Science
Presentation Outline:
- Design Objectives, Durability Considerations, and the Pros & Cons for Alternate Highly Insulated Wall Assemblies in the Wet Pacific Northwest
- Basics of North American, European and Passivhaus Window Rating Standards and Window Selection Guidelines
This lecture illustrates the opportunities for Passive House on commercial projects. Follow four case studies and learn how the Passive House building energy standard affects project planning, design, and what changes are made to the building envelope and mechanical systems to achieve it. Furthermore, this session highlights the differences in initial cost and life cycle cost, and provide insights into the energy conservation and CO2 reduction potential.
Intep & TE Studio designed the first certified Passive House in North America, as well as the first certified cold climate Passive House and the first certified cold climate Passive House retrofit (EnerPHit) in the world. Learn more at intep.com and testudio.com
Passive House Walls and Windows for the Pacific NorthwestGraham Finch
This document summarizes a presentation on wall and window design for highly insulated buildings in the Pacific Northwest region. Some key points:
- Passive design strategies require airtight, highly insulated walls with minimal thermal bridging and effective R-values of R-30 to R-60 depending on climate.
- Several wall assembly options were discussed including exterior insulation, split insulation, and double stud designs. Considerations include moisture control, vapor diffusion, insulation placement and thermal bridging.
- Window selection guidelines differ between the North American NFRC system and European standards used for Passive House certification. Frame size, spacer placement and boundary conditions impact U-values.
- Past building failures in
Interest in taller wood buildings utilizing cross laminated timber (CLT), nail laminated timber (NLT), and structural glued laminated timber (glulam) is growing rapidly in Canada and the United States. On the west coast, recently completed projects including the 97 foot tall, 6-story Wood Innovation and Design Center (WIDC) in Prince George, BC, the 180 foot tall, 18-story UBC Brock Commons Tallwood House in Vancouver, BC, and the upcoming 12-story Framework project in Portland, OR, have captured the attention of the international construction industry. Several other taller wood buildings are on the horizon and feasibility studies are currently being performed for mass timber buildings over 30 stories in height. Tall wood buildings have been a reality in Europe longer than North America, and there is much to learn from the European experience. However, conditions unique to the North American construction industry create many challenges for the design team in demonstrating the safety, durability, and economics of these buildings, all while forming public perception of wood at taller heights.
Presented at the 15th Canadian Conference on Building Science and Technology.
The definition of a "Super-Insulated" building, with a problem and solution based look at thermal bridging. The energy codes in the Pacific Northwest are some of the most stringent, but are also the best implemented in North America. Effective R-values are considered in the Energy codes and include the impacts of insulation installation and thermal bridges. A look into the other drivers behind Super-insulation such as comfort, passive design and mold-free enclosures.
Passive House North 2013 Presentation on Thermal Bridges in Concrete Construction. Solutions to Address Energy Code Compliance, Thermal Comfort and Energy Savings
This is a slideshow given at the Passive House Alliance Minneapolis- St. Paul chapter fall lecture series in October 2013. After a basic Passive House introduction it showcases the design process for Western Technical College's 24th St. Passive House project in La Crosse, WI
The document discusses energy efficiency upgrades that can be made to heritage buildings in Vancouver. It provides details on Vancouver's goals to reduce energy consumption in homes by 33% by 2020. It then lists 12 ways to make a house more energy efficient, such as efficient lighting, insulation, and water heating. The document also discusses the benefits of upgrading heritage buildings, which include embodied energy retention and reducing thermal bridging. It provides a case study of Vancouver's efforts through its 2020 Greenest City Action Plan to address energy usage in the city's large number of heritage buildings.
First Passive House Retrofit in a Cold Climate: The MinnePHit HouseTE Studio
This presentation was given by Tim Delhey Eian of TE Studio on Tuesday, September 23rd, at the 2014 NAPHN Passive House Conference in Portland, Maine. It showcases the first cold climate Passive House retrofit (EnerPHit) project which TE Studio designed, and the Passivhaus Institut in Darmstadt (Germany) certified as a pilot EnerPHit project.
The document summarizes the Nordeast Nest, a custom eco home built in Minneapolis, MN from 2012-2014 that incorporates passive house principles and components. It achieved a very low annual heating demand of 32 kWh/m2 through an extremely well insulated and airtight building envelope. Key elements included walls with R-values of R-51 and R-39, a cold roof with R-70 insulation, high performance windows and doors, and an extremely tight air barrier that achieved an airtightness of 0.36 ACH50. HVAC systems included an energy recovery ventilator, air source heat pumps for heating and cooling, and a tankless water heater to provide heating, cooling, ventilation
Select projects by TE Studio and Intep, Minneapolis. We are experts in high-performance architecture and engineering. We provide designs for high-performance custom homes, as well as commercial projects. Find us at www.testudio.com and www.intep.us.
In this slideshow you can find North America's first certified Passive House (Das BioHaus in Bemidji, MN), as well as the first certified Passive House retrofit (EnerPHit) project (the MinnePHit house in Minneapolis, MN).
Building Enclosures For the Future - Building Tomorrows Buildings TodayGraham Finch
Presentation from the 2015 Buildex Conference in Vancouver BC. Covers a brief review of recent energy and building code changes in BC along with compliance tips followed by an in-depth discussion of various highly insulated wall and roof assemblies that can be built to meet the new requirements. Cladding attachment strategies through exterior insulation are covered in great detail.
Moving Towards more Energy Efficient Wood-frame Building EnclosureRDH Building Science
In regards to newly stated implications of NBC section 9.36. The new building enclosure energy efficiency requirements under the NBC section 9.36 require increased emphasis on continuous insulation having higher effective R-values. It gives prescriptive airtightness requirements, minimum equipment efficiency in regards to HVAC duct sealing/insulation and domestic hot water.
Passive House in a Cold Climate @ BBBB 2015 WI ConferenceTE Studio
This is the lecture I gave at the 2015 Better Business Better Buildings conference at Wisconsin Dells, Wisconsin. It is a primer on the Passive House building energy standard and its application in new construction and retrofit in a cold North American climate zone.
This document provides construction details and specifications for a new passive house in Scranton, Pennsylvania. It includes floor plans, building elevations, wall sections, and outlines of the building enclosure systems. The 2-story house has over 1,700 square feet of living area and uses high-performance building techniques like triple-pane windows, dense-packed cellulose insulation, an energy-recovery ventilator and an air-tight building envelope to achieve a certified passive house standard with a projected annual heating demand of only 888 kBTU.
Thermally broken facade by engineered assemblies cc dec 2015 finalBlair Davies
The document discusses ventilated rainscreen facade systems and improving building envelope thermal performance. It covers topics such as reducing thermal bridging, meeting code requirements for effective R-values, and the benefits of thermally broken aluminum clip systems for attaching exterior cladding over insulation. Example projects using these clip systems show improved thermal performance over traditional methods while maintaining design freedom and constructability.
High Performance Walls - Solutions for Thermal BridgingGraham Finch
The document provides an overview of high performance wall assemblies that minimize thermal bridging and maximize energy efficiency. It discusses recent trends toward more insulated building enclosures to meet stricter energy codes. Various strategies for constructing highly insulated wall assemblies are presented, including attaching exterior insulation. The summary examines different cladding attachment systems and compares their thermal performance, highlighting methods like clip and rail systems that reduce thermal bridging. Case studies demonstrate how these technologies have been applied to new and existing buildings.
Andy Turner from Nuform Building Technologies presented on building envelopes and thermal mass walls. [1] Nuform was founded in 1992 and provides building systems and technologies. [2] The presentation covered the benefits of envelope construction including speed of construction, limited site disturbance, and energy efficiency. [3] It also discussed moisture management, wall physical performance characteristics like R-values and sustainability, and the various types of concrete wall panels and insulation options.
Eleanor Olsen and Bruce Olsen of Total Spaces Design saved this tiny house from destruction, by implementing a "green" strategy to redo, update and increase the value. The results created a functional and darling home on an extreme budget. See how we did it.
This document provides an introduction and methodology for modeling indoor thermal conditions in an urban heat island building without air conditioning. Specifically, it will model a 3-story residential building in Montreal using low-efficiency materials to simulate worst-case conditions. The objectives are to predict hourly room air temperatures and wall/roof temperatures considering factors like solar radiation, outdoor temperatures, and air exchange. The methodology describes building considerations like location in July and omitting wind, as well as assuming no HVAC, low-performing envelope materials, and studying the top floor room which experiences the most heat.
Este documento presenta diferentes tipologías de multimedia educativa, comercial e informativa. Se dividen en plataformas multimedia online u offline. El mapa mental muestra las categorías principales de multimedia y fue presentado por Yainny Andrea Granados, Daissy Judith García y Jeimy Marley Sandoval.
The definition of a "Super-Insulated" building, with a problem and solution based look at thermal bridging. The energy codes in the Pacific Northwest are some of the most stringent, but are also the best implemented in North America. Effective R-values are considered in the Energy codes and include the impacts of insulation installation and thermal bridges. A look into the other drivers behind Super-insulation such as comfort, passive design and mold-free enclosures.
Passive House North 2013 Presentation on Thermal Bridges in Concrete Construction. Solutions to Address Energy Code Compliance, Thermal Comfort and Energy Savings
This is a slideshow given at the Passive House Alliance Minneapolis- St. Paul chapter fall lecture series in October 2013. After a basic Passive House introduction it showcases the design process for Western Technical College's 24th St. Passive House project in La Crosse, WI
The document discusses energy efficiency upgrades that can be made to heritage buildings in Vancouver. It provides details on Vancouver's goals to reduce energy consumption in homes by 33% by 2020. It then lists 12 ways to make a house more energy efficient, such as efficient lighting, insulation, and water heating. The document also discusses the benefits of upgrading heritage buildings, which include embodied energy retention and reducing thermal bridging. It provides a case study of Vancouver's efforts through its 2020 Greenest City Action Plan to address energy usage in the city's large number of heritage buildings.
First Passive House Retrofit in a Cold Climate: The MinnePHit HouseTE Studio
This presentation was given by Tim Delhey Eian of TE Studio on Tuesday, September 23rd, at the 2014 NAPHN Passive House Conference in Portland, Maine. It showcases the first cold climate Passive House retrofit (EnerPHit) project which TE Studio designed, and the Passivhaus Institut in Darmstadt (Germany) certified as a pilot EnerPHit project.
The document summarizes the Nordeast Nest, a custom eco home built in Minneapolis, MN from 2012-2014 that incorporates passive house principles and components. It achieved a very low annual heating demand of 32 kWh/m2 through an extremely well insulated and airtight building envelope. Key elements included walls with R-values of R-51 and R-39, a cold roof with R-70 insulation, high performance windows and doors, and an extremely tight air barrier that achieved an airtightness of 0.36 ACH50. HVAC systems included an energy recovery ventilator, air source heat pumps for heating and cooling, and a tankless water heater to provide heating, cooling, ventilation
Select projects by TE Studio and Intep, Minneapolis. We are experts in high-performance architecture and engineering. We provide designs for high-performance custom homes, as well as commercial projects. Find us at www.testudio.com and www.intep.us.
In this slideshow you can find North America's first certified Passive House (Das BioHaus in Bemidji, MN), as well as the first certified Passive House retrofit (EnerPHit) project (the MinnePHit house in Minneapolis, MN).
Building Enclosures For the Future - Building Tomorrows Buildings TodayGraham Finch
Presentation from the 2015 Buildex Conference in Vancouver BC. Covers a brief review of recent energy and building code changes in BC along with compliance tips followed by an in-depth discussion of various highly insulated wall and roof assemblies that can be built to meet the new requirements. Cladding attachment strategies through exterior insulation are covered in great detail.
Moving Towards more Energy Efficient Wood-frame Building EnclosureRDH Building Science
In regards to newly stated implications of NBC section 9.36. The new building enclosure energy efficiency requirements under the NBC section 9.36 require increased emphasis on continuous insulation having higher effective R-values. It gives prescriptive airtightness requirements, minimum equipment efficiency in regards to HVAC duct sealing/insulation and domestic hot water.
Passive House in a Cold Climate @ BBBB 2015 WI ConferenceTE Studio
This is the lecture I gave at the 2015 Better Business Better Buildings conference at Wisconsin Dells, Wisconsin. It is a primer on the Passive House building energy standard and its application in new construction and retrofit in a cold North American climate zone.
This document provides construction details and specifications for a new passive house in Scranton, Pennsylvania. It includes floor plans, building elevations, wall sections, and outlines of the building enclosure systems. The 2-story house has over 1,700 square feet of living area and uses high-performance building techniques like triple-pane windows, dense-packed cellulose insulation, an energy-recovery ventilator and an air-tight building envelope to achieve a certified passive house standard with a projected annual heating demand of only 888 kBTU.
Thermally broken facade by engineered assemblies cc dec 2015 finalBlair Davies
The document discusses ventilated rainscreen facade systems and improving building envelope thermal performance. It covers topics such as reducing thermal bridging, meeting code requirements for effective R-values, and the benefits of thermally broken aluminum clip systems for attaching exterior cladding over insulation. Example projects using these clip systems show improved thermal performance over traditional methods while maintaining design freedom and constructability.
High Performance Walls - Solutions for Thermal BridgingGraham Finch
The document provides an overview of high performance wall assemblies that minimize thermal bridging and maximize energy efficiency. It discusses recent trends toward more insulated building enclosures to meet stricter energy codes. Various strategies for constructing highly insulated wall assemblies are presented, including attaching exterior insulation. The summary examines different cladding attachment systems and compares their thermal performance, highlighting methods like clip and rail systems that reduce thermal bridging. Case studies demonstrate how these technologies have been applied to new and existing buildings.
Andy Turner from Nuform Building Technologies presented on building envelopes and thermal mass walls. [1] Nuform was founded in 1992 and provides building systems and technologies. [2] The presentation covered the benefits of envelope construction including speed of construction, limited site disturbance, and energy efficiency. [3] It also discussed moisture management, wall physical performance characteristics like R-values and sustainability, and the various types of concrete wall panels and insulation options.
Eleanor Olsen and Bruce Olsen of Total Spaces Design saved this tiny house from destruction, by implementing a "green" strategy to redo, update and increase the value. The results created a functional and darling home on an extreme budget. See how we did it.
This document provides an introduction and methodology for modeling indoor thermal conditions in an urban heat island building without air conditioning. Specifically, it will model a 3-story residential building in Montreal using low-efficiency materials to simulate worst-case conditions. The objectives are to predict hourly room air temperatures and wall/roof temperatures considering factors like solar radiation, outdoor temperatures, and air exchange. The methodology describes building considerations like location in July and omitting wind, as well as assuming no HVAC, low-performing envelope materials, and studying the top floor room which experiences the most heat.
Este documento presenta diferentes tipologías de multimedia educativa, comercial e informativa. Se dividen en plataformas multimedia online u offline. El mapa mental muestra las categorías principales de multimedia y fue presentado por Yainny Andrea Granados, Daissy Judith García y Jeimy Marley Sandoval.
The document provides an analysis of the music video "Main Research" by Mario. It summarizes various elements of the video and their symbolic meanings. The rotation of the screen represents how the artist is feeling. Images of the artist help the audience see his emotions. A close up shot creates brand identity for his intended audience. The lack of bright colors symbolizes how hurt he is feeling, showing conventions of the R&B/soul music genre. Different costumes throughout showcase the artist's versatility. The limited use of green could represent material success or jealousy. Showing the Nokia brand is a way to market both the artist and the company to his likely audience.
This short document promotes creating presentations using Haiku Deck, an online presentation tool. It encourages the reader to get started making their own Haiku Deck presentation and sharing it on SlideShare. In just one sentence, it pitches the idea of using Haiku Deck to easily create engaging presentations.
This document provides an overview of plant reproduction, transportation, and structures. It defines pollination and fertilization, describing how pollen tubes carry sperm cells to the ovule for double fertilization to form seeds. Seed structure and germination stages are outlined. Root structures of monocots and dicots are compared, and transportation tissues like xylem and phloem are named. Stem adaptations such as corms, rhizomes, and tubers are reviewed as dormancy structures. The learning outcomes cover defining these key plant processes and structures.
Rhs level 2 certificate year 1 session 13 overview 2015vikkis
This document discusses vegetative reproduction through cuttings. It describes the different types of cuttings used for propagation, including stem, leaf, and root cuttings. For each cutting type, the document outlines the process, from taking the cutting and encouraging root growth to the aftercare needed. Physiological factors that influence rooting success are also examined, such as the plant's juvenile state and growth regulators. Safety tips are provided for taking cuttings. Various plant species suited for each cutting method are listed. The learning outcomes review vegetative reproduction and propagation using cuttings.
The cheetah is an endangered animal native to Africa and parts of Asia. It has a slender body, long tail, and distinctive black stripes on its face. Cheetahs are the fastest land animal but can only sprint at top speed for short bursts. Their populations are threatened by habitat loss and conflicts with humans.
This document provides a summary of Jane Macfie's education, training, professional memberships, and work experience as an educator and director. She has an MFA from Yale School of Drama and a BA from San Francisco State University. Her educator experience includes teaching at various colleges and theaters, as well as teaching acting to children and adults. She has also directed several plays for theaters and schools.
This document contains a list of skills and experiences for a job applicant, including skills in organization, communication, prioritization, teamwork, time management, Microsoft Office, Windows/Mac OSX, logistics/planning, customer service, finance/budgeting, and systems/processes. The applicant's education includes degrees from Azusa Pacific University and California State University, Los Angeles. Work experiences include creating office systems for workflow at CaseFinance, training staff on office protocols and software, mediating loan modifications and providing client updates, mediating office conflicts, consulting with companies on web development and advertising strategies, training managers on web use and site optimization, designing logos and banners, spearheading website designs and advertising slogans, and over
Abu Bakr Ahmed Qassem's curriculum vitae provides information about his professional experience and qualifications. He has over 30 years of experience working in operations and management roles for Abu Dhabi Gas Liquefaction Company. His most recent role is Process Operations Manager, where he oversees all plant operations and supervises over 100 employees. He has extensive experience leading teams and directing safe and efficient plant operations.
TRAC Oil & Gas is a leading global provider of rope access inspection, repair, and maintenance services for the oil and gas industry. Their vision is to be the leading brand in the industry known for best-in-class performance. Their mission is to uphold their core values of service, safety, quality, and innovation to inspire their people and exceed customer expectations. They offer a comprehensive range of engineering support, inspection, and maintenance services throughout the asset lifecycle.
Introduction People have been more concerned about the effects.pdfbkbk37
The document discusses upgrading the energy efficiency of an 1880 three-story brick terraced townhouse in the UK from an EPC rating of G to B. It provides details on the current design of the building and recommends replacing single-layer windows with double-layer windows, installing wall insulation, upgrading to LED lights, and improving other areas. It explains the benefits of these retrofits and provides specifications and calculations to show how the upgrades would improve the home's energy performance certificate rating from G to B.
Thermal bridges in concrete construction solutions to address energy code co...RDH Building Science
This document discusses the significant thermal impact that uninsulated concrete slab edges and balconies can have on the effective R-value and energy performance of building walls. While balconies make up a small percentage of total wall area, their low R-value of around R-1 can reduce the overall wall R-value by 40-60%. This negatively impacts energy code compliance and increases heating and cooling loads. The document evaluates different solutions for insulating slab edges and balconies, such as structural cut-outs, insulation wraps, and manufactured thermal breaks. Thermal breaks in particular are shown to improve the overall wall R-value and help meet increasing energy code requirements.
Panache Green tech Solutions Pvt. Ltd. ( PGTS) takes the privilege to introduce itself as pioneers in providing Energy Efficient Building Enveloping with its range of innovative products, systems & to deliver the Concept of “Cool Homes without AC!”
Panache started its journey in 2008 as Aesthetic Solutions and in a short span of 6 years it has a wide spectrum clientele of Platinum , Gold LEED rated buildings ,Commercial , Residential and Industrial projects.
Panache with the conscious efforts to promote environment friendly approach , comprises a complete product range of water based products & excels to innovate in sustainable designs , products & systems for various applications.
Please visit:- www.panachegreen.com
Follow our Facebook Page by liking the link
https://www.facebook.com/panachegreen.pgtech
Follow us on twitter
https://twitter.com/PanacheGTech
http://panachegreen.blogspot.in/
The document discusses upgrading the energy efficiency of an 1880 three-story brick terraced home from an EPC rating of G to B. Key steps include:
1. Replacing single-layer glass windows with double-layer glass windows to improve insulation.
2. Installing cavity wall insulation or external wall insulation to reduce heat loss through the walls.
3. Upgrading lighting to more efficient LED bulbs.
4. Installing attic insulation and replacing an aging boiler to further improve energy efficiency.
Calculations are provided on how these retrofits would improve the home's SAP score and raise its EPC rating to a B.
Mr. Sanjiv Gosain, Amby Engineering Pte Ltd., gave presentation on concrete thermal mass wall system at CII-IGBC 15th Green Building Congress 2017 event at Jaipur
Besides the aesthetics of a newly minted infill, there’s a lot more to the home build than meets the eye. Given the rapid growth in popularity of infills some people may rush to invest in their dream home and often overlook (or don’t consider) important aspects of the home during construction.
Here are some modern building techniques to look out for. These methods will improve the efficiency, longevity and safety of your new home!
- Why care about concrete balconies and exposed slab edges?
- Impacts of uninsulated slab edges and balconies
- Comparison of alternate solutions
- Benefit of balcony thermal breaks
Overview:
- Background
- Net Zero Building Enclosure Targets & Potential Savings
- Interior and Exterior Building Enclosure Retrofit Strategies
- Hygrothermal Considerations & Risk Assessment Evaluation Methodology
- Economics of Net Zero Building Enclosure Retrofits
Green Building: Sustainable Architecture
Environmentally responsible and resource efficient building design. Architecture that minimizes the negative environmental impact of buildings by efficiency in the use of materials and energy. Goal: to effectively reduce the overall impact of the built environment on human health and the natural environment and increase comfort and livability. Consistent with AIA sponsored Architecture Challenge 2030.
McNaughton Architectural Inc. | http://mna-p.com
300 E State St Suite 360, Redlands, CA 92373
(909) 583-1806
The document describes FIC's High Vapour Pressure (HVP) Forehearth, which represents an improvement in glass conditioning technology. The HVP Forehearth uses a unique design of thin, highly conductive "muffle tiles" that eliminate volatilization losses in glasses and provide more uniform heat transfer. This improves thermal homogeneity during glass conditioning and reduces defects compared to previous industry designs. Field testing shows benefits like decreased devitrification in borosilicate glass and improved response to job changes in opal glass.
Learn about KORE's product line, including cavity wall insulation, insulated concrete formwork (ICF), floor insulation, attic insulation and pipe insulation for residential and commercial applications.
This document provides details of the plans for retrofitting an existing apartment building in Dublin to meet Passivhaus energy standards. It includes floor plans and sections showing the proposed design with increased insulation, airtightness and mechanical ventilation. Technical specifications are given for the insulation levels and materials used in the walls, roof, floors and balconies to achieve ultra-low heat loss. The retrofit aims to significantly improve the building's energy efficiency from its current low rating.
Technical details of Energy Efficient HVAC Systemjayeshmahajan24
The document provides details on the design of an HVAC system for a commercial building. It discusses the indoor design conditions, daylight conditions, selection of double pane glass for the walls, use of autoclaved aerated concrete blocks and extruded polystyrene for the outer and inner walls. A hybrid VRF system is selected for cooling along with measures for indoor air quality, COVID-19 prevention, fan selection, basement design, fire safety systems and automation.
With the façade embodying up to 35% of the construction costs as well as being hugely accountable for the buildings' response to climate change, it has never been so important to understand which façade solutions deliver not only a cost effective and sustainable façade, but also one that is aesthetically pleasing and technically performing.
The document discusses Insulated Concrete Formwork (ICF) provided by Econekt using Izodom technology. It describes Izodom as one of the most advanced ICF systems with over 120 structural elements that allow simple construction while guaranteeing high quality end results. Econekt partners with Izodom to provide their ICF solution, which uses Izodom's wall and foundation elements to create a complete structural system for low energy and Passivhaus projects. The system offers high thermal efficiency and air-tightness to easily meet standards for sustainable building.
This document discusses the benefits of spray foam insulation for reducing energy costs and improving indoor air quality. It states that spray foam insulation provides industry-leading thermal resistance while also improving air quality, reducing drafts, and preventing moisture issues. The document recommends spray foam insulation as the first step to conserve energy and control the internal environment through an efficient building envelope. Spray foam insulation seals the building better than other materials, allowing HVAC systems to be right-sized and saving on equipment and operating costs.
Building integrated photovoltaics (BIPV) can generate power on-site, reduce energy costs for lighting and cooling, and increase real estate values of buildings by integrating solar panels into building materials like the roof, skylights, facades, and more. BIPV provides energy generation and savings while allowing natural light and reducing heat gain and costs, providing both energy and aesthetic benefits. As more buildings are constructed globally each year, BIPV is a solution to reduce energy consumption and costs while meeting sustainability and efficiency standards.
Building integrated photovoltaics (BIPV) can generate power on-site, reduce energy costs for lighting and cooling, and increase real estate values of buildings by providing aesthetic, sustainable solutions for rooftops, facades, skylights, and other surfaces. BIPV modules replace conventional construction materials and turn building exterior surfaces into solar energy power plants to generate electricity while reducing a building's environmental impact and operational expenses.
The document describes a proprietary technology for manufacturing concrete homes in a controlled factory environment using an assembly line process. This allows homes to be built faster, at lower cost, and with higher quality than traditional on-site construction methods. The manufacturing process involves pouring concrete floors, walls, and roofs using reinforced steel forms. Completed modules are then finished and shipped to construction sites. Adopting this technology could help address housing shortages and affordability issues.
The document describes the Hudson Passive Project, a green home in New York that incorporates passive solar design principles. It is the first certified passive house in New York State. Key features include a compact design with continuous insulation and air sealing to minimize heat loss, a south-facing wall of glass to maximize solar gain, and an open floor plan framed by large wooden beams. Through meticulous design and construction, the project achieves ultra-high energy efficiency while maintaining an aesthetically pleasing design that blends with the local rural landscape.
Similar to Solutions_to_Thermal_Bridging_Multifamily (20)
2. 2
The Balcony Connects to the Outdoors.
Insulate with Structural Thermal Breaks.
Buyers Demanding Luxury
Luxury condominiums with extended views, enhanced
comfort, and sustainable initiatives are in demand.
Developers are differentiating by providing high-per-
formance efficiencies coupled with luxury features.
One such feature is the balcony, cantilevering from
the residence and adding square footage to the out-
door space.
Balconies and Thermal Bridging
While balconies provide an advantage to gaining
buyers, no feature is worth future construction repairs
and damaging your image. When constructing a canti-
levered balcony, thermal bridging must be dealt with
to avoid cold floors, energy loss, and potential mold
growth.
High-performance balconies provide added outdoor areas without the
risk of thermal bridging damages.
Placement of structural thermal breaks in the balcony to ensure a
continuous insulation layer.
Mitigate Thermal Bridging.
The thermal bridging issue has a long history of dama-
ges relating to leaky balconies and building envelope
failures. The resulting moisture and mold damages
extend from health, liability and property damages.
The solution is simple with innovative construction
methods for balconies.
A Balcony Divided
Interior concrete floors penetrating through the wall
to the exterior balcony requires insulation to limit
heat loss and avoid cold floors at the interior. Schöck
Isokorb® structural thermal breaks are a simple soluti-
on to insulating the balcony connection.
WITH THERMAL BREAK
0
-17.8 -5 1.1 7.8 21.1
° F
° C
0.0
Thermal conductivity keq in W / (m · K)
1.0
2.0
3.0
23 34 46 70
%
Compared to non-insulated
connections, structural
thermal break elements
reduces energy loss in the
balcony up to
Placement of concrete structural thermal breaks at the balcony
window.
0° F
-17.8° C
21.1° C
11.5° C
52.6° F
70°F
2.2
0.17
ENERGY LOSS IN THE BALCONY
63.7° F
0° F
-17.8° C
17.6° C
21.1° C
70°F
①
3. 3
Providing Performance and Value Add.
Schöck Isokorb® Improves Energy Efficiency.
Schöck Isokorb®
—— Avoids maintenance costs andw damages to the
buildings due to condensation and mold.
—— Reduces operating costs for space heating with en-
ergy savings up to 14%
—— Improves living comfort by increasing the surface
temperature by up to 13 °F / 7 °C.
Sustainable-luxury for the future
Providing energy efficient construction with
Isokorb® structural thermal breaks
demonstrates dedication to quality and
comfort in your properties. It is time to
future-proof your buildings for upcoming
code changes by preparing to stay one step
ahead with Schöck Isokorb®.
0
-17.8 -5 1.1 7.8 21.1
° F
° C
0.0
Thermal conductivity keq in W / (m · K)
1.0
2.0
3.0
23 34 46 70
%
Structural thermal breaks can
increase surface temperatures
by up to
with Isokorb®
Compared to non-insulated
connections, structural
thermal break elements
reduces energy loss in the
balcony up to
Placement of concrete structural thermal breaks at the balcony
window.
°F/
°C
% %
Structural thermal breaks reduce
operating costs for heating with
savings in energy costs of up to
Compared to a conventional
continuous balcony, structural
thermal breaks cut heat flow
through and around the slab by
2.2
0.17
ENERGY LOSS IN THE BALCONY
①
①
① ①
The risk of mold growth
is reduced with structural
thermal breaks.
Surface Temperatures
Operating Costs Operating Costs
with Isokorb® with Isokorb®
Sustainable-luxury for the future
Providing energy efficient construction with
Isokorb® structural thermal breaks
demonstrates dedication to quality and
comfort in your properties. It is time to
future-proof your buildings for upcoming
code changes by preparing to stay one step
0
-17.8 -5 1.1 7.8 21.1
° F
° C
0.0
Thermal conductivity keq in W / (m · K)
1.0
2.0
3.0
23 34 46 70
%
Structural thermal breaks can
increase surface temperatures
by up to
with Isokorb®
Compared to non-insulated
connections, structural
thermal break elements
reduces energy loss in the
balcony up to
Placement of concrete structural thermal breaks at the balcony
window.
°F/
°C
% %
Structural thermal breaks reduce
operating costs for heating with
savings in energy costs of up to
Compared to a conventional
continuous balcony, structural
thermal breaks cut heat flow
through and around the slab by
2.2
0.17
ENERGY LOSS IN THE BALCONY
①
①
① ①
The risk of mold growth
is reduced with structural
thermal breaks.
Surface Temperatures
Operating Costs Operating Costs
with Isokorb® with Isokorb®
1. Morrison Hershfield Thermal Performance of
Building Envelope Details for Mid- and High-Rise
Buildings (1365-RP)
4. 4
Avoid Cold Feet.
Prepare for the Changing Codes.
Schöck Isokorb® is a structural thermal break. This
high-quality German product is engineered to solve
thermal bridging, reducing the heat loss by 75%
through the balcony. With over 30 years of proven
performance, Schöck Isokorb® will set your property
apart with ease of design and energy efficiency.
Energy Efficient Schöck Isokorb® for Safety and
Comfort.
Comfort is “in” and warm floors are possible with
Schöck Isokorb®. The energy savings are passed on
to the buyer, and the risk of mold and moisture is
mitigated.
Sustainable-luxury for Future Codes
Providing an energy efficient property with Schöck
Isokorb® demonstrates your commitment to quality
and comfort to your buyers. Now is the time to
future-proof your buildings for continuous insulation
code changes.
Liability of the Balcony
As the developer, you have the responsibility of the
balcony. Provide thermal efficiency at the core with
Schöck Isokorb® for high-performance quality.
Cold feet are a common complaint in concrete structures which can easily
be solved with Schöck Isokorb® structural thermal breaks.
future
on with
nd
to
ming
ne step
21.1
70
%
Isokorb®
Placement of concrete structural thermal breaks at the balcony
window.
°F/
°C
% %
Compared to a conventional
continuous balcony, structural
thermal breaks cut heat flow
through and around the slab by
0.17
①
① ①
The risk of mold growth
is reduced with structural
thermal breaks.
Operating Costs
Isokorb® with Isokorb®
5. 5
Balconies as a feature versus issue
The solution to balcony construction issues is quite simple with innovative
construction methods for balconies, which add a creative facet to durable design.
Major maintenance and
renewal costs for buildings
include balcony membrane
and sealants in the first
of all capital funding
requirements is
represented by
enclosure system
%
WITHOUT THERMAL BREAK
WITH THERMAL BREAK
0
-17.8 -5 1.1 7.8 21.1
° F
° C
23 34 46 70
0° F
-17.8° C
21.1° C
11.5° C
52.6° F
70°F
–years
ENERGY LOSS IN THE BALCONY
63.7° F
0° F
-17.8° C
17.6° C
21.1° C
70°F
①
Thermal breaks provide increase surface temperatures, reducing the risk of condensation and moisture.
6. 6
We partner early in the design process.
Schöck is dedicated to exceptional customer service
and support. Our team assists with construction
inquiries through the installation process to ensure
your success and satisfaction. Prepare to stay one step
ahead with Schöck Isokorb®.
Project: Location Developer
LIDO Vancouver, Canada Bosa Properties
Chelsea Green New York, NY Alfa Development
199 Mott Street New York, NY Alfa Development
Cedar Spring Vancouver, Canada Pacific Arbour
15 Leonard Street New York, NY Gold Development
The River Calgary, Canada Ledcor Properties
155 E 17th Street New York, NY Anbau
Recent Concrete Balconies with
Isokorb® Structural Thermal Breaks: To ensure the high quality
residence Alfa Development
buyers expect, Schöck Isokorb®
structural thermal breaks are
installed to ensure thermal
comfort and sustainable
structures.
Schöck is Your Partner.
From Design Through Installation.
7. 7
Our experts in the Technical Design Support
department are ready to help you with your design
and construction inquiries by providing general ad-
vice, along with detailed plans, project solutions, buil-
ding physic analysis and calculations where necessary.
Exceptional customer service and support are para-
mount to our success and we offer:
—— Structural planning and design services
—— Building physics analysis
—— Technical assistance
—— In-house training
—— AIA CES seminars
—— Manufacturer‘s installation guidance
Visit our website in Canada at www.schoeck.ca, or
in the USA at www.schock-us.com for more informa-
tion about:
—— Our products
—— Case studies
—— Training seminars
—— The latest company news
—— Subscribing to our newsletter
“The information in this document is provided in connection with products offered for sale by Schoeck Canada Inc. and Schöck USA Inc. (“Schöck”). This
information is provided by Schöck as a service to its customers and may be used for informational purposes only by the customer. All information is pro-
vided “as is” without warranty of any kind. Schöck assumes no responsibility for errors or omissions in this documentation. Schöck may make changes
to this documentation at any time and without notice. Schöck makes no commitment to update any information contained in this document and shall
have no responsibility whatsoever for conflicts, incompatibilities, or other difficulties arising from future changes to the documentation. Upon request
of customer Schöck may provide the customer with its installation, operating or maintenance documentation of its products.”
Schöck Customer Services.
Support with Expertise.