Project Planning & Design
Project Planning & Design (PPD) focuses on the preliminary design of sites and buildings. You should be able to demonstrate an understanding of and abilities in design concepts, sustainability/environmental design, universal design, and other forms of governing codes and regulations.
Passed 09/19/22
Study Recommendations
The exam is 4 hours 5 minutes, and 100 questions.
The exam is mostly multiple choices, and about 15% drag and place, hotspot, and calculation questions.
Spend 2 hours on the first 80 standalone questions, take a break, then spend the next 2 hours on the two case studies.
Study building structure: seismic/wind load, and concrete/masonry/steel frames.
Don't study too much for MEP, as this will get tested more extensively on the PDD exam.
Suggested Readings
Chapters 12-30
Ch 3 occupancy, Ch 5 heights and areas, Ch 4 special uses and occupancies, Ch 6 types of construction, Ch8 fire protection and life safety systems, Ch 10 means of egress
2010 ADA Standards for Accessible Design linkTechnical diagrams
FEMA 454 Designing for Earthquakes: A Manual for Architects linkCh 4 earth effects on buildings, Ch 5 seismic issues in architectural design
Exam Contents
SECTION 1: Environmental Conditions & Context
Design for Different Climates
Cold: compact form, high thermal mass, orient south, use evergreen trees to block wind at winter
Temperate: long face orient south, deciduous trees on southside to provide shading at summer
Hot Acrid: high thermal mass, shade openings, use evaporative cooling, water fountain is helpful.
Hot Humid: provide adequate cross ventilation, low thermal mass
Diagrams
Sun Chart: know how to find altitude and azimuth at a specific time and date
Psychometric Chart: know how to find dry/wet bulb temperature, and relative humidity
Sustainability
General understanding of embodied energy of different building materials
Indoor air quality: VOC, formaldehyde, and other contaminants
SECTION 2: Codes and Regulations
Exit requirements, exceptions apply
1-49 =1 exit; 50-500 = 2 exits; 501-1000 = 3 exits; 1001 or more =4 exists
Required separation: 1/2 diagonal, 1/3 diagonal when fully sprinklered
Egress Width requirements, exceptions apply
Stair: 0.3" per occupant, 0.2" when fully sprinklered
Other elements: 0.2" per occupant, 0.15" when fully sprinklered
ADA requirements
Slope 1:12 max, rise 30” max, run 30’ max
Accessible path width: 36” min, 32" allowed for a max length of 24"
Turning space: 60”x60” min
Landing: 60" min
Cane detection zone: 27” high rail if clear height is under 80”
Threshold height 1/4" max, 1/2" allowed with 1:2 bevel
SECTION 3: Building Systems, Material, & Assemblies
Air and Vapor Barrier
Wall: Usually placed on the warmer side
Roof: usually placed under rigid insulation
Slab on grade: usually placed on top of rigid insulation
Ultimate goal is to prevent condensation build up
Thermal Conductivity
k=thermal conductivity per inch, U=thermal transmittance, R=thermal resistance; R=1/U
Know how to calculate the total R value of a wall or window assembly
SGHC=solar heat gain coefficient
Building Materials
Know the span of different materials: dimensional lumber, glulam, flat plate, waffle slab, open web steel joist, steel truss, etc.
Foundation Systems
Poor bearing condition: use friction pile, pier, or caisson
Good bearing condition: use spread footing
SECTION 4: Project Integration of Program & Systems
Types of Fire Sprinklers
Pre-action: to prevent unnecessary water damage to sensitive materials
Deluge: at high hazardous areas
Dry Pipe: when sprinkler pipe is subject to freezing
Wet Pipe: typical when special conditions don't apply
Structural
Design for seismic load: avoid discontinuous shear wall, soft story, reentrant corners
Design for wind load: know where is positive and negative pressure
Know when to use stiffeners, bracing, and blocking
Acoustics
Sound can transfer through partition, ceiling, ducts, floor, etc.
Strategy: build wall all the way up to the deck, use acoustical insulation and sealant, use resilient channels, stagger electrical outlets.
STC 45+: loud speech is not audible
Reverberation time can be reduced by using sound absorbing materials on ceiling, walls and floors
SECTION 5: Project Cost & Budgeting
Value Engineering
Know how to calculate cost savings by substituting a different material
Know how to select alternative program and systems when project is exceeding budget
