Solar shading devices, while available in numerous weaves, textures, and colors, go beyond contributing to the aesthetics of a space. Specified correctly, solar shading devices can maximize daylighting benefits and contribute to occupant well-being, productivity, and engagement, while mitigating the detrimental effects of UV rays and glare.

Learning Objective 1:
Students will understand the benefits daylighting, including the psychological and physiological well-being of occupants, as well as its drawbacks, such as glare and solar heat gain

Learning Objective 2:
Students will become familiar with the types of solar shading fabrics available for use in commercial settings and their components, including operating systems, weave, color, and openness factor, and the ways in which these contribute to the control of daylighting.

Learning Objective 3:
Students will explore the benefits of solar shading devices that extend beyond light management, such as sound mitigation, sustainability, and antimicrobial properties.

Learning Objective 4:
Students will determine how to select the right fabric for an application, taking into account aesthetics and room conditions

As architects and clients alike demand the creation of what’s next, design teams rely on new product systems and solutions to help them push the boundaries of form and function. This article profiles a few solutions that enable architects to create distinct building envelopes that don’t sacrifice on the efficient performance or sustainable design considerations that also occupy prominent spots on almost every client’s wish list.

HSW Justification:
This article explores solutions that enable architects to deliver a desired aesthetic that also performs efficiently and offers sustainable design benefits. For example, thermal barriers in the aluminum framing that hold the glazing in place allows architects to complete historic renovation projects that exceed thermal performance targets, without compromising the integrity of the historical aesthetic. Composite metal panel systems that support very unique applications and creative demands from design teams can also offer top-tier performance in terms of fire-, water-, and impact-resistance. Extruded aluminum trim beautifully meshes different types of exterior cladding, while helping the envelope to better manage moisture.

Learning Objective 1:
Explain how incorporating thermal barriers into the aluminum framing in the fenestration of the Crosstown Concourse helped the project become the world’s largest LEED Platinum historic rehabilitation project, while maintaining the integrity of its historic aesthetic.

Learning Objective 2:
Specify a composite metal panel system that offers the resistance to fire, water, and impact best-suited to the needs of a particular project.

Learning Objective 3:
List the aesthetic and sustainability-related benefits of specifying extruded aluminum trim on an exterior cladding.

Learning Objective 4:
Describe how the different finishes of precast concrete used in the façade of the Ale Asylum were reverse engineered to perfectly match the concept originally pitched and accepted by the city.

This course will explore the cutting-edge union of design and technology by delving into parametric design and its symbiosis with digital fabrication, and how the vision is best achieved via vertically-integrated, technology-forward product manufacturers. We will also discuss strategies for effective collaboration with these manufacturers throughout the architectural design process.

Learning Objective 1: Students will learn about the use of parametric design in architecture, including its definition, history and current state.

Learning Objective 2: Students will learn about the marriage between parametric design and digital fabrication.

Learning Objective 3: Students will understand why vertical integration is an important operating model for product manufacturers looking to leverage parametric design.

Learning Objective 4: Students will understand how to partner with vertical manufacturers throughout the architectural design process and learn the advantages of this digital collaborative approach.

The building envelope has a lot of different jobs to do—from insulating the building so that it can be efficiently heated and cooled to providing air and water barriers that keep harmful moisture at bay, as well as providing the aesthetic face of the project. High performance building envelopes do all of those things extremely well. This article explores some of the latest high-performance solutions that can be used to create those high-performance envelopes.

HSW Justification:
A high-performance building envelope is necessary to create a building that is efficient and healthy. This article takes a look at how different components in the building envelope perform—giving architects the information they need to choose high-performance components that will produce a high-performing envelope.

Learning Objective 1:
Compare different types of continuous insulation in terms of the thermal performance they offer and the way they behave when exposed to water and fire.

Learning Objective 2:
Describe how insulated metal panels (IMPs) can be used on the envelope to improve building performance, create efficient and healthy interiors, and enhance design flexibility.

Learning Objective 3:
Explain how PET bottles can be upcycled into insulation creating a new product that contains recycled material and improves thermal performance of the building envelope.

Learning Objective 4:
Describe the ways that architectural metal wall systems enable architects to push the creative boundaries of their designs.

This article explores some of the latest products and solutions improving the air quality, thermal comfort, electric light, and daylight control that can be incorporated into a project. Each improves the wellness of the people in the built environment.

Learning Objective 1: Explain how air circulation improves thermal comfort and alertness.

Learning Objective 2: Describe the ways that increasing the presence of plants and greenery on a project have been shown to clean the air, reduce urban heat island effect, and positively affect the health and wellbeing of people in the built environment.

Learning Objective 3: Summarize how circadian LED lighting technology delivers health benefits—improving overall sleep quality, daytime productivity, and feelings of wellbeing—that modern architectural lighting lacks.

Learning Objective 4: Discuss how using an underfloor air distribution system (UFAD) improves indoor air quality.

Learning Objective 5: Identify the latest advancements in smart window technology that allows these solutions to control glare and solar heat gains, while maintaining views to the outdoors.

This course is designed to introduce the architect to emergency lights. These lights are meant to be selected and installed according to specific standards established by building codes. Additionally, once installed, these systems must be tested to assure their efficacy in case of an emergency. How to select and specify the appropriate markers and the technological solutions available, as well as testing methods, will all be covered in this course.

HSW Justification:
The selection and implementation of a proper emergency lighting program is essential to the life safety of a building's occupants.

Learning Objective 1:
The student will understand egress signage obligations as imposed through building codes and standards.

Learning Objective 2:
The student will further understand the various technologies available to address those signage codes and standards.

Learning Objective 3:
The student will learn what the requirements are to conduct on-going testing of egress systems after installation.

The pattern map evaluates a pattern on two key elements: structure and nature. This course explains why these two elements affect how we recognize and respond to patterns and examines ways to bridge architecture and nature by using architectural panel systems with patterned openings, and provide a sense of space, privacy, shade, or camouflage with cladding, screens, or railings.

HSW Justification: Architectural use of patterns plays a vital role in enhancing the Health, Safety, and Welfare (HSW) in of our built environments. Our mental well-being, for example, can be positively impacted through organic biophilic geometries that connect occupants to nature to positively affect mood and reduce stress, while geometric or crystalline patterns create the dynamic visual interest necessary for effective way-finding elements to prevent accidents and ensure safer navigation. Some patterns can also be visually transparent while others act as camouflage which can be an important consideration for surface treatment in circulation areas. From a macro perspective, patterns can promote inclusivity and community engagement, while enriching their overall user experience.

Learning Objective 1: Students will learn to compare patterns on a pattern map and explore how different geometries are perceived and processed in the mind of the user, how they contribute to issues affecting safety, and even encourage engagement in built environments.

Learning Objective 2: Students will learn to explain how different characteristics and application of a pattern’s functionality can impact on how we perceive visual space to improve safety and social interaction, as well as contribute to positive mental health.

Learning Objective 3: Students will learn the importance of selecting the most appropriate openness factor and base material for the given project objectives, for example, how to enhance natural light, improve air quality, and create a welcoming atmosphere in built environments.

Learning Objective 4: Students will learn how to apply HSW Best Practices to provide privacy, facade screening, camouflage, shade, or railings with architectural panels with patterned openings to best create a positive user experience.

This course recognizes the flush toilet as one of the biggest users of water and discusses how toilet design is pushing flush technology to develop ways for homes and commercial buildings to conserve water without sacrificing the performance of the toilet. Industry testing protocols and the water-saving capabilities of different technologies are evaluated. Today—as climate change, population growth, and record droughts present an unprecedented strain on our water supply—conservation technology is building awareness to the importance of having the most water-efficient fixtures in a home or business.

The building envelope separates the conditioned interior space from the environmental elements of the great outdoors, and this course explores a few solutions to equip the building envelope to defend the interior from nature's onslaughts, manage moisture, improve thermal performance, and admit daylight without glare.

HSW Justification:
Improper use of vapor barriers is one of the leading causes of moisture-related issues in buildings today. Those moisture related issues can include the growth of mold and mildew, which compromises the quality of the indoor environment and can even cause structural damage. Designing a proper air barrier system is crucial to moisture protection and protecting the thermal performance of the original design. This article provides best practices for designing an air barrier system that will function properly. We also discuss some solutions that can improve the functionality of the building envelope’s thermal performance. The course explores a translucent and an opaque solution that improve the thermal performance of the envelope, while offering additional benefits. Translucent wall panels allow diffuse, glare-free daylight into an interior, without compromising thermal efficiency at the opening and precast structural panels offer code-exceeding thermal performance and structural load-bearing capabilities.

Learning Objective 1:
Students will be able to explain why controlling air leakage in the building envelope is crucial to safeguarding the quality of the interior environment and protecting the energy efficiency of the building.

Learning Objective 2:
Students will learn to apply best practices to design an air barrier system that will effectively manage moisture intrusion and avoid moisture-related issues in the building envelope.

Learning Objective 3:
Students will be able to describe how translucent daylight panels allow daylight into the interior, mitigate glare and provide better thermal performance than many other glazing solutions.

Learning Objective 4:
Students will learn to use structural precast concrete panels to reduce the amount of perimeter steel needed on a project, while achieving and exceeding code-compliant thermal performance.

This course will review the importance of acoustics in architecture, discuss the fundamental principles of sound management, explore how to design interior spaces to maximize occupants’ comfort, and review emerging tools to solve for both sound and lighting. It will also focus on the standards that govern acoustic requirements for diverse applications.