RTP spearheaded a project to increase the electrical capacity of the Information Sciences building. Our scope included specifying low voltage distribution equipment, preparing installation drawings, and developing comprehensive bid specifications. We strategically staged the updates over weekends to minimize disruptions. Through our expertise, RTP successfully enhanced the building's electrical infrastructure, ensuring uninterrupted operations and seamless growth.

RTP undertook a transformative project at the University of Pittsburgh to optimize their medium voltage distribution system. Our scope included thorough site visits, data collection, and the development of an advanced Power System Analysis using ETAP software.

Our team conducted site visits across the campus, collecting crucial information on distribution transformers, circuit breakers, disconnect switches, fuses, cables, and more. Discrepancies between diagrams and collected data were carefully documented.

Utilizing this data, RTP created a detailed ETAP model of the medium voltage distribution center. We performed a comprehensive protective device coordination study, analyzing phase time versus current curves, cable and transformer damage curves, FLA, inrush current, and maximum fault current. For improved selectivity, we provided recommendations on fuse ratings, manufacturers, catalog numbers, and revised protective relay settings.

To ensure accurate documentation, RTP revised existing drawings to incorporate the collected data. Our project aimed to optimize power distribution, enhance system efficiency, and improve reliability across the University of Pittsburgh campus.

RTP was tasked with reviewing the low voltage protective device study prepared by the EPC contractor for the Biomedical Science Tower 3 (BST3) Center for Vaccine Research and ensuring protective device selectivity with the upstream medium voltage system and provide revisions to the Universities ETAP software model.  

RTP conducted site visits to collect essential data specific to BST3. This included transformer information, ratings for circuit breakers and disconnect switches, as well as fuse details. Discrepancies between single line diagrams and collected data were diligently documented.

Utilizing the collected data, RTP updated the university's ETAP model, enhancing the accuracy and reliability of the system representation. We then performed a thorough evaluation of the low voltage protective device study, focusing on achieving optimal selectivity with the medium voltage system. Our analysis encompassed phase time versus current curves, cable and transformer damage curves, FLA, inrush current, maximum fault current, and protective device characteristics.

The project's outcome is enhanced reliability, improved selectivity, and a solid foundation for the Center for Vaccine Research's critical operations.

RTP spearheaded a significant effort focused on revitalizing the Condensate Line, connecting the Fayette Thermal Facility to the SCI Fayette Facility. The existing infrastructure presented challenges, with the pipe becoming misaligned at the expansion joint and bowing outward due to unexpected anomalies. Additionally, some supports had experienced displacement, possibly due to concrete settlement.

In close collaboration with Fayette Thermal, RTP embarked on an in-depth investigation to uncover the root cause of these issues. The key finding was a change in system operations, where upstream equipment meant for continuous condensate flow was temporarily taken out of service. This disruption led to slug flow and thermal shock conditions within the condensate line, causing the observed expansions, contractions, and subsequent failures.

To restore the system to its optimal functionality, RTP devised a comprehensive scope of work, provided contractor recommendations, and designed a cutting-edge pipe restraining jig or guide, meticulously tailored to maintain the alignment of the existing pipe during the installation of the new condensate piping. This innovative solution minimized disruption and expedited the restoration process.

RTP provided on-site supervision during the piping installation, meticulously verifying adherence to recommended procedures. By closely monitoring the project, we aimed to guarantee the successful implementation of the restoration plan, with any deviations promptly addressed and rectified.

RTP conducted an Arc Flash Study for an Outlet mall in Washington, PA. The project involved conducting site visits to collect crucial data on power distribution equipment. Our team gathered information on transformer specifications, cable details, switch ratings, circuit breaker characteristics, protective relay types, fuse specifications, and more. Discrepancies between the collected data and existing diagrams were documented. RTP performed a Short Circuit Analysis and prepared a comprehensive protective device coordination study utilizing the collected data. 

We addressed selectivity issues by providing revised fuse ratings and relay settings, and determined safety parameters such as the Flash Protection Boundary and Hazard/Risk Category. Our project delivered accurate documentation, analysis, labeling adherence, revised drawings, and a final report providing valuable insights for enhanced operational efficiency.