Sustainable Design Courses

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Displaying 226 - 250 of 412 results.

FIRST PREV [176-200] [201-225] [226-250] [251-275] [276-300] NEXT LAST


  • ( ~ 1 hour, 30 minutes ) 

    There is no substitute for the natural beauty of newly installed tropical hardwood, but keeping it looking great and achieving the desired performance over time require careful attention to detail. Choosing the best hardwood species and specifying the appropriate fastening and finishing systems will ensure an aesthetically pleasing, low-maintenance, and successful design in terms of installation, performance, and appearance. This course discusses wood species specification, installation techniques, and finishing methods for tropical hardwoods in conventional and sustainable buildings. As well, international programs that are used to successfully determine sustainability are examined.


  • ( ~ 1 hour ) 

    Polyisocyanurate (polyiso) insulation is one of North America’s most widely used, readily available, and cost-effective insulation products. While polyiso is currently most commonly known for its use on roofs and walls, this course focuses on the many benefits of using it in below-grade installations in order to meet energy codes, maximize the building foundation’s thermal performance, and extend the overall life of the structure. The course explores the requirements for three primary characteristics of any below-grade insulation—thermal performance, water absorption, and load capacity—and describes how polyiso meets or exceeds those requirements and protects the foundation waterproofing system.


  • ( ~ 1 hour ) 

    As the world increasingly pivots toward sustainable building practices, bamboo emerges as a leading contender among building materials, offering versatility, strength, and ecofriendliness. This course delves into bamboo’s history, properties, performance, and future in construction, uncovering its significant potential to shape a more sustainable and resilient built environment. The course also highlights the unique advantages and applications of bamboo-plastic composites designed to provide a strong, resilient material that results in less wastage than timber.


  • ( ~ 1 hour ) 

    Beneficial acoustic environments are especially important in healthcare facilities as inappropriate acoustics can be damaging to patients and stressful and tiring to staff. Because a beneficial acoustic environment plays an important role in supporting health, safety, and well-being for all occupants, acoustic issues are now a key component of healthcare design guidelines. This course explores the impacts of acoustics on healthcare, outlines the relevant acoustic standards and guidelines, and describes the methods by which designers can address the issues and improve healthcare facility conditions for patients, families, and healthcare workers.


  • ( ~ 1 hour ) 

    An energy recovery ventilator (ERV) system provides occupants with filtered, balanced, and tempered air within their living space. Airborne contaminants can be greatly reduced with ERV systems. This course provides knowledge about the need, use, design, and installation of ERVs in the modern dwelling unit and when retrofitting existing structures. The course also addresses the environmental advantages of sustainable and healthy solutions for indoor air quality.


  • ( ~ 1 hour ) 

    Resiliency is a growing necessity. It is important to understand the impacts on the built environment resulting from natural and manmade disasters and disturbances and to design for those impacts now. Presented in this course is an overview of the benefits of using steel doors as part of a resilient design strategy for applications requiring resistance to blasts, tornadoes, and ballistics.


  • ( ~ 1 hour, 15 minutes ) 

    Residential solar power generates clean energy, reduces carbon footprint, protects against rising electricity rates, and protects property from outages, but it is only effective during daylight hours. Adding battery storage to a solar system—called solar plus storage—removes this limitation and moves a home closer to energy independence. In this course, we will review the components of a solar-plus-storage system, including selection considerations for residential rooftop solar and DC-coupled solar batteries. The course also reviews the extended system of monitoring and DC charging.


  • ( ~ 1 hour, 15 minutes ) 

    This course provides an introduction to air curtains and their value in a wide range of building types, along with additional opportunities in specialty applications. Learn how and where air curtain units can be installed within a building to enhance its overall operational performance and functionality. Discover how air curtains can reduce building temperature loss, energy consumption, and windborne dirt, dust, and other pathogens and offer many other benefits. The various codes and standards that promote the use of air curtains are also discussed in order to understand how to select and install the most appropriate air curtain unit.


  • ( ~ 1 hour ) 

    Interest in metal cladding is continually growing because of its sustainable features: durability, long life span, recyclability, and contribution to cool roofs. Manufacturers provide a wide range of panel profiles, materials, and colors to meet the increased demand. This course examines the performance characteristics and attributes of metal roofing and cladding, different aesthetic options, and best installation practices, as well as how they contribute to more energy-efficient buildings.


  • ( ~ 1 hour, 15 minutes ) 

    The need to evaluate thermal bridging in a building’s design and performance has become more prevalent because of the increasing requirements for more energy-efficient buildings. This course provides an introduction to thermal bridging, energy code requirements, and the use of thermal break solutions designed to improve energy efficiency in the building envelope.


  • ( ~ 1 hour, 15 minutes ) 

    Uncorrected thermal bridging can account for 20—70% of heat flow through a building's envelope. Improving details to mitigate both point and linear thermal bridges will significantly improve energy performance. This course reviews types of thermal bridges, examines how they appear in codes and standards, and explores some mitigation concepts and principles. Calculation methods to account for thermal bridging in your projects are introduced, and a sample design project is used to demonstrate code compliance.


  • ( ~ 1 hour, 30 minutes ) 

    The key to an energy-efficient metal building is the implementation of a continuous insulation system that virtually eliminates thermal bridging and prevents condensation. This course discusses how using thermal spacer blocks and metal building insulation in the building envelope increases energy performance, protects against condensation, and meets stringent energy code requirements.


  • ( ~ 1 hour ) 

    The thermal and dual modification of wood are processes used to improve wood’s profile in terms of durability, dimensional stability, overall performance, and inherent resilience and sustainability. The resulting products can be utilized in many building applications, from decking and siding to pergolas and nonstructural beams, as well as paneling, soffits, and interior trim applications. This course explores the science behind the thermal and dual modification of wood. Examples of modified wood and case studies are also reviewed.  


  • ( ~ 1 hour ) 

    Trees are essential for the health of the urban environment, mitigating the heat island effect, cleaning the air, reducing stormwater runoff, and improving residents’ health and well-being. But cities are often inhospitable to trees, where their growth may be stunted or their roots may damage surrounding infrastructure. This course explores ways to design successful projects incorporating green infrastructure by understanding the principles behind tree growth, proper type and amount of soil, water management, and the role of soil vault systems in helping urban trees thrive.


  • ( ~ 1 hour ) 

    Energy creation, distribution, and consumption are all in a period of transition. Understanding this transition and its benefits is critical to sustainable transitional energy planning (STEP). This course reviews the nature of the transition, the forces driving it, emerging energy systems and sources, and international and national examples. It details the process required for STEP and provides a comprehensive overview of the many renewable energy options now viable for community energy systems. It concludes with a series of illustrated sample plans and projects.


  • ( ~ 1 hour ) 

    A large portion of new commercial and residential buildings built today are equipped with clear, floor-to-ceiling glass. Does this new expansive area of glass lead to daylight optimization? This course explains the impacts of daylighting on human health and building occupant comfort. Proactive and reactive automated shading systems are discussed, and the course explains how a properly designed shading system can reduce whole-building energy consumption. Automated shading systems in projects of various scopes and scales are also discussed.


  • ( ~ 1 hour ) 

    Thermal modification is a tried and tested process for increasing the durability of wood while maintaining a warm aesthetic in building design. This course examines all aspects of this sustainable wood product and how it can be incorporated into a variety of projects.


  • ( ~ 1 hour ) 

    Beyond aesthetics, ventilated façades and cladding systems provide added wind load absorption, moisture protection, and insulation properties, resulting in prolonged building durability and sustainability. This course examines how these systems benefit occupant well-being by mitigating exterior noise transmission, offer significant building operating energy savings from decreased HVAC demands, and increase occupant comfort by regulating interior temperatures. Mechanical and chemical adhesive attachment is also examined, focusing on the adhesive’s ability to absorb wind-induced vibration as well as expansion and contraction from temperature and humidity changes. Several case studies are also discussed.


  • ( ~ 1 hour ) 

    Vinyl is strong and resistant to moisture and abrasion, and therefore is the most widely used plastic for building and construction. This course presents vinyl flooring and its manufacturing process, testing standards, and performance characteristics. The course discusses the environmental impacts of vinyl flooring throughout its life span and its contributions to meeting green building codes and standards.


  • ( ~ 1 hour, 30 minutes ) 

    Healthcare environments require high-performance, durable, and sustainable materials to meet the ever-increasing demands for the health and safety of patients and staff. Vinyl provides a reliable and proven solution that supports infection control measures, the need for long-lasting products, and the replacement of infrastructure that supports health and wellness, clean water, reduced carbon footprint, and long product service life. Vinyl is a material of choice for interiors as well as the core and shell of healthcare buildings. Chemistry and formulations are part of successful product performance; utilizing life cycle approaches to product selection, meeting owner project requirements, and supporting criteria within green building certifications are all part of the vinyl story.


  • ( ~ 1 hour ) 

    Leading aluminum extrusion manufacturers have established a variety of methods pertaining to material grade, surface protection, and component solutions to maximize the benefits of aluminum to suit a wide variety of applications. These advancements in technology have led to the development of sustainable wood-patterned aluminum products designed for exterior and interior applications. This course focuses on how these products can be used as a beautiful, high-performance, durable alternative for real wood in a range of applications, including screens, facades, decking, fencing, gates, cladding, and more.


  • ( ~ 1 hour ) 

    The beautiful gray patina of zinc architectural metal has graced the rooftops of buildings in Europe for hundreds of years. This course examines the sustainable characteristics of zinc as a roofing material, including its 100% recyclability, zero VOC requirement, and low embodied energy production process. The life cycle analysis of zinc is examined, as is zinc’s long-term service life. Various types of roof and wall applications are also discussed.


  • ( ~ 1 hour ) 

    Terrazzo is versatile and durable, comes in a range of colors, and has multiple applications. It can be used in interiors and exteriors and, depending on the manufacturing process, can be customized to fit complex geometries. In this course, we discuss different applications of precast, cementitious, and epoxy terrazzo and the installation requirements, as well as the ability to customize these products to fit different design requirements.


  • ( ~ 1 hour ) 

    The Builders Hardware Manufacturers Association (BHMA®) is the only organization accredited by the American National ‎Standards Institute (ANSI) to develop and maintain builders hardware ‎standards with cycling, operational, strength, security, and finish test requirements. This course explores the performance standards and the certification program related to commercial architectural hardware.


  • ( ~ 1 hour ) 

    Architectural finishes mimic the aesthetics and textures of natural materials without the cost, labor, weight, and maintenance challenges of finishes such as wood, stone, leather, and metals. This course discusses their performance characteristics, selection considerations, and proper installation techniques for interior and exterior commercial applications, including fire-rated assemblies and LEED®-certified projects.

Displaying 226 - 250 of 412 results.

FIRST PREV [176-200] [201-225] [226-250] [251-275] [276-300] NEXT LAST