Architecture tells us a great deal about society. In fact, glass and glazing are used to blur the lines between inside and out, helping elevate performance and the experiences of people. Yet while humans can use environmental cues to identify glass as a barrier, there is growing realization that birds cannot. The solution is bird-friendly glass that delivers on performance, energy efficiency and the needs of people. This course from Guardian Glass is intended to provide the basis for a better understanding of how to recognize issues affecting the bird population while learning about best practices and design fundamentals for smarter, safer buildings.

This course will cover introductory level descriptions of various sectional door styles and how they impact energy efficiency, maximize ambient light, add to design aesthetics. Additionally, applicable varieties of industrial doors will also be included.

HSW Justification: Understanding upward acting door and safety device specification and installation contribute to health, safety and welfare of building occupants, including infants, children and the elderly, by helping avoid entrapment, injury, or exposure to exhaust gasses. Additionally, proper installation helps assure comfort control, energy efficiency and better design aesthetics.

Learning Objective 1: Students will be able to recognize and differentiate various types of sectional and industrial doors, with a focus on selecting door types that enhance occupant safety, support energy efficiency, and improve building design aesthetics for a healthier environment.

Learning Objective 2: Students will learn to specify upward-acting doors, prioritizing occupant health and safety by understanding how door selection impacts injury prevention, exhaust gas exposure, and energy conservation, while also enhancing natural light and aesthetic integration.

Learning Objective 3: Students will gain skills in assessing mounting conditions, headroom and side room requirements, and types of lifts and operators, with particular attention to how these considerations affect safety, mechanical reliability, and occupant welfare.

This course aims to familiarize you with the terminology, capabilities, and applications of operable glass walls in both interior and exterior residential settings. You will learn how operable glass walls can enhance the health, safety, and welfare of residents. Additionally, we will share ideas that you can incorporate into your current projects.

Learning Objective 1: Students will be able to explain the welfare aspect of design and product selection that enable equitable access to all, can elevate the human experience with daylight and outdoor access, and benefit the environment through sustainable building design.

Learning Objective 2: Students will be able to assess the safety aspects of incorporating product selections that protect buildings and people from harm and damage, particularly considering unexpected violence or vandalism.

Learning Objective 3: Students will be able to identify and recognize the significance of ongoing health concerns related to residential design and product selection.

Learning Objective 4: Students will be able to determine ways to incorporate the design principles as presented in case study examples into single family building projects.

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

This course will describe the aesthetic and biophilic benefits, as well as the objective sustainability standards achieved by innovative metal wall materials that mimic wood. The course will describe how the materials provide both physical and emotional comfort to occupants, protection from harsh weather, and the community benefits of sustainable construction. A variety of applications are also detailed in case studies of actual projects.

Learning Objective 1:
The student will understand how and why the use of materials that mimic but outperform natural materials is highly desirable.

Learning Objective 2:
The student will be able to explain the technologies applied to materials and methods of construction that mimic wood in order to improve sustainability and resist environmental attack.

Learning Objective 3:
The student will recognize the favorability of these materials and methods of construction through a recitation of their achievements in testing and evaluation, how they meet construction standards, and what contributions they make to LEED v4.

Learning Objective 4:
The student will become familiar with a variety of existing projects that demonstrate successful adoption of these products and methods.

Program: Architecture, Design, and Building Science

The purpose of this presentation is to give you a clear understanding of the features and benefits of textured metals and discover how to best specify stainless steel and metal alloys in your projects. The first part of our talk will introduce the ecological and economic properties of textured stainless steel as well as educate you on the composition of metals and alloys. The second portion of this presentation will illustrate the process of texturing metals and their applications, as well as how to specify them. The session will also review projects that use textured metals - with beautiful results.

HSW Justification:
Most of this course is dedicated to explaining the aesthetic, ecological and economic advantages of textured metals. Most often, the metal used in stainless steel, which is very long-lived, valuable and 100 percent recyclable. The case studies focus on many beautiful installations that enhance the lives of occupants and visitors through the art and craftsmanship of the installations.

Learning Objective 1:
Students will understand ecological, economic, health and safety benefits of utilizing metals that can be deep textured.

Learning Objective 2:
Students will explore current applications that employ deep textured metals because of their ecological benefits, enhanced performance, and aesthetic attributes.

Learning Objective 3:
Students will learn compositions of metals that can be deep textured, how each performs under varying environmental constraints, and how to safely and economically specify deep textured metals.

Learning Objective 4:
Students will discover end user benefits of deep texturing metals, including performance enhancement, material usage reduction and longer product lifecycles.

This one-minute video shows you just how easy it is to take a course on TCA. Give it a play, explore the intuitive User Interface and the many features that make TCA easy and enjoyable. New courses are being added all the time!

There is never a cost to take a course or earn a certificate. Registration takes just a couple minutes – you only have to do it once to enroll in any course, at any time in the future – look over the course catalog for each of our programs, just click on a couple of course descriptions that look interesting to you to add them to your wish list, and start watching some really great videos.

You will also enjoy browsing the Video Vault, our video library of building and construction videos from many of the manufacturers and organizations that sponsor courses on TCA. Courses are not permitted to feature competitive product distinctions between manufacturers, except in very broad terms, so these additional videos get into branded product details, installation, safety, materials and other details of the brands.

If you have any questions, just use the Contact Us link at the top of the page.

NFPA 70, the national electrical code details 2 different types of Emergency Lighting Control Devices—devices that guarantee that life safety lighting will be on at desired illumination levels in the event of an emergency. This course will help mitigate the confusion regarding the specification of these devices and understand their applications in the real world.

Prerequisite Knowledge: Knowledge of life safety systems, particularly a high-level understanding of the purpose of emergency lighting inverters and generators. In particular, ISO-1001/ISO-1002 would be a perfect lead into this course.

HSW Justification: This deals with life safety, the safe egress, and illumination of buildings in the event of an emergency.

Learning Objective 1: Understand the background technology where ALCR and BCELTS devices need to be deployed.

Learning Objective 2: Learn the difference between the technologies and reviews how they sit within one-line diagrams.

Learning Objective 3: Understand some of the real world tradeoffs between the device types as it relates to wiring, proximity and ease of testing.

Learning Objective 4: Understand the integration of lighting controls with the different types of ELCDs and review some tricks for how to reduce costs in systems.

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 is designed to teach the history of synthetic turf, its application in water and energy conservation, pollution abatement, sustainable design, and its versatility in numerous landscaping applications and designs. Participants will become knowledgeable about synthetic turf and innovative applications that could be applied to their residential and commercial projects. The most current technological advances in the industry and the positive role synthetic turf plays in the environment.

Learning Objective 1:
Students will gain an increased awareness of the positive environmental impact of synthetic turf on water use, reduced energy demand and reduction of use of fossil fuels, reduced chemical application, and resulting reduction of water and noise pollution.

Learning Objective 2:
Students will become more informed on the newest synthetic turf material technologies available, including the use of soy based materials, as well as how the proper application of infills and proper material selection can benefit the health and safety of athletes.

Learning Objective 3:
Students will be more knowledgeable about the history and evolution of the technology and of landscaping and sports applications using synthetic turf.

Learning Objective 4:
Students will better understand the versatility of synthetic turf and its many uses in sustainable landscape design.