Party Walls

The Americans with Disabilities Act (ADA) was signed into law on July 26, 1990. This federal civil rights law prohibits discrimination based on disability and declares that people with disabilities must have equal access to all areas of public life, including employment, public services, public accommodations, and telecommunications.

One year later, on July 26, 1991, the Department of Justice released the 1991 ADA Standards for Accessible Design to be used in the design and construction of new and altered buildings. These technical standards have since been replaced with the 2010 ADA Standards for Accessible Design that we use today.

Despite the importance of the ADA and its enforcement over the past three decades, there are still misconceptions about what the law requires for buildings and facilities.

Below are five of the most common misconceptions that SWA’s accessibility consultants encounter when working with building designers, developers, and owners on ADA compliance. (more…)

Medical diagnostic equipment is instrumental to the accurate and timely diagnosis of a patient’s health conditions, but people with disabilities are often met with challenges when accessing and using diagnostic equipment. This can lead to omitted examinations or inaccurate results, thus causing greater health disparities among people with disabilities.

The Americans with Disabilities Act (ADA) and the 2010 ADA Standards for Accessible Design have made a significant impact on how architects and designers consider accessibility in healthcare settings.

Under Title III of the ADA regulations 28 CFR Part 36, hospitals are required to provide full and equal access to healthcare services and reasonable modifications of policies, practices, and procedures, as well as auxiliary aids and services. As part of this requirement, hospitals must provide accessible medical diagnostic equipment.

However, the 2010 ADA Standards do not provide technical guidance on what types of medical diagnostic equipment and how many of each type must be accessible to patients with disabilities. Because of this, the determination is often left up to the terms of settlement agreements.

How can designers and healthcare providers proactively ensure that medical diagnostic equipment is accessible to patients with disabilities? Keep reading for our recommendations.

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The Americans with Disabilities Act (ADA) was passed more than 30 years ago, but architects and designers still struggle with misconceptions about complying with the accessible design and construction requirements included in the ADA.

Our accessibility team works on a wide variety of projects across the country to ensure that buildings are designed to comply with the ADA (and other regulatory and building code requirements). Each project comes with its own unique set of challenges, and it is common for even our most experienced accessibility consultants to encounter a design problem we have never seen before.

However, there are design issues that we see again and again and again; these common accessibility oversights are not difficult to avoid if they’re accounted for early enough in the design process.

In this post, we explain how to avoid the top 10 accessible design mistakes that our consultants find in…hotels.

This blog post was originally published on August 08, 2019. It was updated on October 20, 2022 to ensure that the guidance and design requirements provided are up to date. (more…)

Work equipment is exempt under Titles II and III of the Americans with Disabilities Act (ADA), but it is important to find opportunities to make emergency equipment accessible to people with disabilities wherever possible. An eyewash station provided for worker safety is just one type of emergency equipment that should be accessible to all workers.

Under Title I of the ADA, workers with disabilities are entitled to reasonable accommodations. As noted by the U.S. Access Board’s guidance on the 2010 ADA Standards for Accessible Design: “Designing employee work areas to be more accessible at the outset will eliminate or reduce the need for more costly retrofits in providing reasonable accommodations for employees with disabilities.”

Below, we’re sharing the technical specifications for creating an accessible eyewash station. (more…)

Operable parts designed to be used by building occupants, including but not limited to, thermostats, dispensers, light switches, fire alarm pull stations, etc., must be located so that they are accessible to everyone. Technical standards referenced by federal, state, and local laws and building codes include design criteria developed to ensure that operable parts are accessible. A 30 x 48 inch clear floor space is required to be positioned at the operable part to support one of two types of reaches: a forward (perpendicular) or a side (parallel) reach. Of the two reach types, each can be unobstructed or obstructed. Unobstructed forward and side reaches do not require reaching over an element to access an operable part. Conversely, obstructed forward and side reaches require reach over an element, such as a countertop or shelf, to access an operable part. Of all the reaches to operable parts, the obstructed forward reach is the most challenging to design and construct. As we always say, the devil is in the details, so proper detailing of the obstructed forward reach is critical to nail down in design.

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Disability inclusion in the built environment is extremely important. But, it shouldn’t end there. How do we ensure that we are being truly inclusive of all types of people, taking into account a wider diversity of backgrounds, orientations, and abilities? The answer is Universal Design.

On this episode of Building’s + Beyond, Robb chats with former SWA employee and Universal Design expert, Victoria Lanteigne. Victoria has devoted her career to the advancement of Universal Design, educating herself and others on the concept and its limitless applications. In her interview, she discusses trends, tactics, and examples from the field, and challenges practitioners to re-think their definition of the word, design.

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“Trends in Healthcare” is a recurring series that focuses on exciting new designs and technologies we’re seeing in healthcare projects and provides best practices on how to ensure that these latest trends are accessible to persons with disabilities. We build on the wealth of knowledge we gain from working with healthcare design teams, construction crews, and practitioners to provide practical solutions for achieving accessible healthcare environments.

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Anyone who has ever had to take a trip to the hospital knows how much time is often spent in the waiting room. As a result, our experience in that space can shape our perception of the entire visit. In fact, studies have shown that a visitor’s impression of the waiting room itself contributes significantly to the likelihood of a return visit.^[1]  The length of wait times can vary – from a relatively short wait for a screening, to an average of 40 minutes in emergency departments, to the better part of a day if you are waiting for a family member to receive treatment.^[2] As healthcare providers strive to remove pain points within the patient experience, they are turning to a number of design strategies to help create a more pleasant waiting room experience. One of these strategies is to ensure that patients and visitors have access to electrical outlets.

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As the country continues to confront the realities of the COVID-19 pandemic, the way we navigate spaces is changing. One of these changes is the way we interact with common use objects that traditionally require hand-operation, like doors. While automatic doors have always been a good option for providing greater access to people with disabilities, hygiene concerns associated with the spread of disease have presented another argument for their use. The rise of touchless technology as a result of this pandemic will increase the use of automatic doors not just for accessibility or convenience, but for public health as well. For anyone considering incorporating automatic doors into their designs, either for new construction or as a retrofit, here are some important things to consider:

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The 2010 ADA Standards and the A117.1 Standard for Accessible and Usable Buildings and Facilities require the bottom 10 inches on the push side of a door to be smooth and free from any obstructions for the full width of the door. While there are some exceptions (e.g., sliding doors or tempered glass doors without stiles), this requirement applies at the following locations:

• 2010 ADA Standards:
  • Public and Common Use Areas: All doors along the accessible route
  • Accessible Dwelling Units: The primary entry door and all doors within the unit intended for user passage
• A117.1 Standard:
  • Public and Common Use Areas: All doors along the accessible route
  • Type B Dwelling Units: The primary entry door
  • Type A and Accessible Dwelling Units: The primary entry door and all doors within the unit intended for user passage

The door surface provision is intended to ensure the safety of people with disabilities who require the use of a wheelchair, walker, cane, or other mobility aid. It is common to utilize the toe of the wheelchair or leading edge of another mobility device to push open a door while moving through it. The smooth surface allows the footrest of a wheelchair or other mobility device that comes into contact with the door to slide across the door easily without catching.

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When designing accessible parking spaces, it is important to remember that the slope of the ground surface for the entire parking space and adjacent access aisle must not exceed 2% in any direction. We frequently see noncompliant slopes at accessible spaces, especially when the ground surface is asphalt or permeable pavers.  The slope along the perimeter of spaces at curbs or gutters is frequently more than 2% at up to 5%, which requires careful detailing and planning on the part of the architect, civil engineer, and on site contractors to ensure that a compliant slope is achieved at the accessible parking spaces. At parking structures and precast garage systems, we have found that important details and coordination needed to achieve compliant ground surface slopes are often overlooked.

 

In parking structures, it is common for an area along the perimeter of the slab (adjacent to walls or parapets) to slope in excess of 2% for drainage purposes. In some cases, this slope is embedded into the precast system. As a result, accessible parking spaces must be located away from the sloped edges during the initial design phase.

In other cases, noncompliance results from the application of a cast in place (CIP) wash applied to the top of the precast slab. In the detail shown below, note the slope condition at the CIP topping. The wash is often indicated only in section details on the precast drawing set, making it easy to miss if designers are not specifically looking for how these details affect accessible parking spaces. The entire project team involved in the design and/or construction of the garage must be made aware of where accessible parking spaces are located and understand the specific slope requirements to ensure that details are properly coordinated.

Once the garage is constructed, it is nearly impossible and very costly to fix noncompliant slopes at the head of accessible parking spaces. In some garages, we have been able to solve the problem by shifting the striping at accessible parking spaces. This results in the steeply sloped ground surface being located fully outside of the parking space and access aisle. The problem is that this solution is dependent upon whether the spaces can be shifted without compromising the minimum required width of the drive aisle or obstructing access to other parking spaces.

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