Adam Finley

Construction Management
Health and Counseling Services Building
University Park, Pennsylvania

This is a student-generated Capstone Project e-Portfolio (CPEP) produced in conjunction with the AE Senior Thesis e-Studio.

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Building Statistics

Building Statistics- Part 1


Structural System
Structural Steel Frame
The structure will utilize a structural steel frame with typical moment connection and non-load bearing masonry and glass curtain walls. Beams and girder sizes range from a minimum of W12 X 14 to W27 X 84 of ASTM A992 steel. The most common size is W16 X 26. Columns utilize a variety of wide flange and hollow structural steel sections.
 The steel contractor has been recently awarded, and at this time no structural steel shop drawings are available. There will be bracing required on the project and it is left to the steel contractor to determine which type they will use. At this time, some pieces of steel are of an abnormal size and may need to be upsized for the project to stay on schedule. This is due to the steel mill’s in the area not starting new runs during the time that steel fabrication needs to begin. A specific crane size has yet to be determined. Due to the limited space available on the site, the crane will be limited to three locations to pick from the staging area and place the steel.
Cast in Place Concrete
Similar to the steel contract, only the foundation concrete has been awarded and the elevated slabs are out to bid. Due to multiple addendums to the drawing sets and the schedule for construction, only certain portions of the entire bid package were released and awarded prior to construction. Typically, the concrete used on site will have design strength of 3000 psi. Formwork types have yet to be determined. Concrete placement methods have not been chosen yet either. After speaking to the Penn State Project Manager, Chad Spackman, he believes that the building will use a pumped placement system for the concrete. There is the potential for a concrete chute to be used for the elevated slabs later in the project, when the steel contractor has a crane on site.
Pre-cast Concrete
No pre-cast concrete will be used on this project.
Electrical System
The electrical system is supplied from the utility at 277/480V at 1600 Amps. The voltage is stepped down through a series of transformers to supply fluorescent and incandescent light fixtures, outlets and other various devices as needed. The building has emergency power, supplied by the campuses emergency/ standby system, with an automatic transfer switch located adjacent to the main electrical room.
 Light fixtures throughout the building are typical, incandescent and fluorescent, but in most rooms tied into an occupancy sensor that will turn off lights if there is no movement within the room for a predetermined amount of time. This sensor saves energy and money over the life of the building, and also is a credit towards the projects LEED certification.
An interesting feature of this system is it’s capability to have full backup power for half of one floor if the power was to go out. This was incorporated into the design so that the clinicians would still have the ability to treat patients in emergency situations. Penn State is also looking at two add alternates, to have the capability to manually turn on another floor’s power and the operation of the entire building in an emergency where the utilities service was interrupted.
Mechanical System
Penn State’s campus chilled water and steam loop will feed the Health Services Building. The mechanical system consists of two rooftop air handling units supplying 37,500 CFM each to the entire building. A server room, located on the third floor is maintained by an indoor air handler that supplies that room alone. The supply air is distributed via a network of variable volume boxes. Fan coil units and constant volume boxes help to supply some areas of the building. The South face of the structure uses radiant heat located in ceiling panels. This was done to eliminate the unpleasant aesthetic of baseboard heating against the glass curtain wall. The fire alarm suppression system is primarily wet with a dry system currently designed for the server room. An add alternate is being reviewed to place a pre-action system in the server room.
Construction System
The main utility work was performed outside of the scope of this project, due to time constraints. Sweetland Engineering made the document and Stove Valley Construction performed the utility sub-grade work. This was done so that the building construction side of the project could remain on a scheduled completion date of July 2008.
Hillier Architecture holds a cost plus fee contract with Penn State to design the structure and the building systems. The project construction is being coordinated by Whiting- Turner and constructed by its prime contractors. Whiting-Turner holds a CM at Risk contract with Penn State. That is to say the construction manager holds all contracts with the prime contractors that are actually constructing the building and therefore holds all the risk on the project. A chart showing how this delivery system is set up can be seen on page 16.
The contract between Penn State and Whiting-Turner includes specific requirements for insurance, local and national laws that govern construction, submittal process, request for information processes, change order processes, scope, coordination and communication between all parties, scheduling and completion dates, and miscellaneous owner requirements. Penn State has items in the document that are site and location specific. For example, plant, land protection and LEED goals. One interesting item is that Penn State and their respective project management teams have the right to take control of the project and the prime contactor if at any point Whiting-Turner is found to be incapable or unwilling to fill their contract. Whiting-Turner and their sub-contractors have similar contractual agreements. Less detail is provided in these areas, but more specific scope packages are defined between the CM and the respective specialty trades.
All sub-contractors that were sent invitations to bid are on a pre-qualified bidders list that Penn State requires all contractors that work on their campuses to apply for and be accepted into. Penn State requires this because the forms that must be filled out about insurance, bonding and surety agencies, previous projects, etc. help to eliminate the submission of bids from unqualified contractors. At this time, all bids received have been chosen by the lowest bid method. Although Penn State reserves the right to choose any bid it wishes for any reason, it has decided to work with the lowest bid and then make sure a full scope was included in the lump sum price.
Bid bonds at five percent are required of all bidders. This bond will be forfeited to the owner any time an awarded contractor can not fulfill their obligation to the project. Performance and Payment bonds are also required. These bonds are also added on the bidding form as an alternative to deduct from the price supplied by the contractor.

 

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This Page was last updated on November 30, 2006 , By Adam Finley and is hosted by the AE Department ©2005