WELL-AP Exam Dumps - WELL Accredited Professional (WELL AP) Exam

Non-hollow core doors provide better sound isolation and speech privacy than hollow core doors, which can allow sound to leak through. According to the WELL v2 standard, doors that connect two occupiable rooms and doors to mechanical equipment rooms should have a non-hollow core, minimum STC/Rw of 30 and seals at the head, jamb and base.

References: = WELL v2 Sound Feature S03, WELL AP Candidate Handbook

To reduce sound transmission between adjacent spaces, using non-hollow core doors for private offices and conference rooms is an effective strategy. These doors, being more solid than their hollow counterparts, inherently offer better sound insulation. This characteristic helps to minimize noise leakage into and out of these spaces, thereby enhancing acoustic privacy and reducing distractions. This measure, in conjunction with other sound isolation practices, contributes to a more conducive working environment by maintaining the confidentiality of discussions and improving overall acoustic comfort​​.

The intent behind incorporating hands-free technologies such as flushing, soap dispensers, and hand drying in restrooms is to improve hygiene by reducing touchpoints. By minimizing contact with surfaces that could be contaminated with pathogens, the spread of germs can be significantly reduced. This approach aligns with WELL's focus on health and wellness by creating environments that support sanitary practices and reduce the potential for cross-contamination, ultimately contributing to the well-being of the building's occupants.

This option meets the minimum shower and locker requirements for the given occupancy within the building itself, ensuring accessibility to active commuters.

References:

• WELL v2, Movement Concept, Feature V04 Facilities for Active Occupants: https://v2.wellcertified.com/wellv2/en/movement/feature/4

According to the WELL v2™ feature V04 Optimization Facilities for Active Occupants, the project must provide no-cost bike parking in the following quantities: Short-term bike parking (e.g., public bike rack) is located within a 100 ft walk distance of a functional building entrance and can accommodate at least 2.5% of peak visitors (minimum of four spaces per building). Long-term bike parking (e.g., bike room) is available within the project boundary and can accommodate at least 5% of regular occupants, excluding occupants under eight years old (minimum of four spaces per building)1. Therefore, option D is the correct answer, as it meets the requirement for short-term bike parking. Option A is incorrect, as the bike network must connect riders to at least 10 use types, not five1. Option B is incorrect, as long-term bike parking must accommodate at least 5% of regular occupants, not peak visitors1. Option C is incorrect, as the project’s address must achieve a minimum Bike Score® of 50, not 401.

References: = Standard | WELL V2 - Feature V04 Optimization Facilities for Active Occupants

For achieving compliance with WELL v2™ Feature A01: Air Quality, Part 2, which focuses on monitoring and meeting thresholds for organic gases such as volatile organic compounds (VOCs), the requirement for the number of sensors is based on the area of the project. The correct choice for an 87,500 ft² (8,120 m²) project is:

C. 20 VOC sensors

• Sensor Distribution Standard: The WELL v2â„¢ standard typically recommends installing one VOC sensor for every 5,000 square feet of project space to ensure adequate monitoring coverage and accuracy in detecting VOC levels throughout the space.
• Calculating Sensor Needs: For an 87,500 ft² area, dividing by the 5,000 ft² coverage per sensor gives a requirement of 17.5 sensors. Rounding up to the nearest whole number, this would typically mean at least 18 sensors are necessary. However, to ensure comprehensive coverage and considering practical deployment strategies (such as additional sensors for high-risk areas like kitchens or print rooms), the minimum practical number could rise to the next available option, which is 20 sensors.

• Ensuring Comprehensive Coverage: Adequate sensor placement is crucial for real-time monitoring and ensuring all areas of the project meet air quality standards consistently. This is especially important in larger spaces where air quality can vary significantly from one area to another.
• Health and Compliance Implications: By meeting the minimum required number of sensors, the project not only adheres to WELL standards but also protects occupant health by enabling prompt identification and mitigation of poor air quality events, particularly those related to VOC emissions from building materials, furnishings, and equipment.

Rationale Behind the AnswerImportance in ContextThis approach aligns with WELL’s overarching goal of fostering environments that support occupant health through proactive management of building air quality. The focus on sufficient and strategic sensor deployment is a critical component of ensuring that indoor environments remain safe and healthy for all users.

In the context of the WELL Building Standard™, the emphasis is on promoting health and wellness through sustainable and responsible food sourcing. The recommendation to ensure that at least 20% of products are certified organic aligns with WELL’s principles which focus on enhancing the nutritional quality of food while reducing the exposure to harmful chemicals and pesticides that can be found in non-organic foods.

Organic certification ensures that the products are grown without the use of synthetic pesticides, fertilizers, and genetically modified organisms (GMOs), which supports the WELL principle of sustainable, health-promoting food sourcing. This recommendation is practical and achievable, making it a strategic starting point for integrating healthier food options into the corporate environment. It helps in creating a food environment that supports the physical health of the building occupants by providing cleaner, possibly more nutrient-rich food options, and also aligns with environmental sustainability goals.

In the context of WELL Certification, Innovation points are awarded for exceptional achievements that go beyond the standard requirements. For a project that has already achieved LEED® and BREEAM® certifications, it demonstrates a commitment to sustainability and environmental stewardship. To achieve the full score under the Innovation category in WELL Certification, the project would typically need to earn additional points by demonstrating innovative strategies, practices, or features that address health and wellness in unique and impactful ways. If the standard requires additional points for full Innovation credit, two points might be a reasonable assumption for the number of additional points needed, considering the project's existing achievements in sustainability.

Among the choices listed, providing a fabric covering over the existing concrete walls would be the most effective design intervention to reduce reverberation times within the auditorium. Here's the breakdown:

The Problem: The feedback about echoes indicates that sound waves are persisting for too long within the space, creating overlapping sound reflections that interfere with clarity and comprehension.

Reverberation and Sound Absorption: Reverberation time is directly influenced by how much sound is absorbed or reflected by surfaces within a space. Hard, reflective materials like concrete prolong reverberation times.

Why Fabric Walls Are Most Effective: Adding fabric wall coverings introduces a significant amount of sound-absorbing material directly where it's most needed. This will drastically reduce sound reflections and shorten reverberation times, helping mitigate the echo problem.