In 2009, we met with Senior Facility Managers of four U.S. national laboratories to discuss a major limitation in the way they summarized their capital needs. As with most large organizations, they expressed capital needs in terms of deferred maintenance projects—things that needed to be fixed as determined by condition assessment (inspection or prescribed schedule). To put these needs in perspective, they computed a facility condition index (FCI), which is the ratio of deferred maintenance (D.M) costs to the replacement value of a building or portfolio.
Several years later, following the acquisition of Whitestone Research by CBRE Inc., it quickly became clear that major healthcare organizations around the world oftentimes employ a similar FCI based approach to their capital planning and prioritization decisions.
FACILITY CONDITION INDEX BREAKDOWN
According to a well-known scale developed initially for educational facilities in 1991, a facility is considered in poor condition if its FCI exceeds 90%. The shortcomings of the FCI approach are well-known, as results are not easily compared with alternative condition assessment approaches, and it does not contemplate methodologies for determining replacement values. These choices can become highly political for an organization that uses, as many do, the FCI as a key policy metric.
The basic concern of the laboratory facility managers was that the FCI did not represent the true condition of the facility in terms of safety, security, mission relevance, and other criteria that actually guide their decisions. FCI is also not a forecast or leading indicator that demonstrates consequences of alternative actions. These concerns led to a series of small projects that would eventually define a new approach to summarizing facility condition and prioritizing capital expenditures.
The new method, Risk Scanning, meets three requirements identified in our original meeting. The process must not rely on expensive inspections, must incorporate multiple (customizable) criteria, and the outcomes must be expressed as a simple monetary value.
This approach has universal applicability for laboratories and for large, corporate occupiers. In addition, we have found this approach to be particularly relevant for healthcare organizations today, given the extraordinary economic and regulatory pressures that have become a reality for the industry.
RISK SCANNING
Risk Scanning assumes that buildings or other assets can be reduced to an inventory of components (roof, HVAC equipment, plumbing fixtures, etc.). Each component has a “survivor” curve that relates its age to the likelihood of its failure in the future, little different than an actuarial calculation for an insurance policy. And each component, should it fail, could have consequences for the building operation. Below, Figure 1 illustrates how this data could be used as a simple sort by probability of failure, consequence of failure, or replacement cost.
A more useful view of this data combines knowledge of the probability of failure and the potential consequences as the Risk Facility Managers implicitly consider when scheduling repairs. For example, a new light bulb in a closet would be low risk (low likelihood of failure, low impact on safety, security, mission, etc.), while a roof or electrical panel, far beyond their expected service life would be a high risk. Individual component risk ratings can be aggregated into risk maps by building, consequence type, or aggregated at the portfolio level.
Another example is a risk scan of a data center built in 1980, as shown in Figure 2. Risk is summarized by three consequences or threats of failure – mission, productivity and safety. The “Loss Intensity” is the measure (low, medium, high) of the impact of failure. Each cell in the tables is the sum of the replacement value of each component. For instance, in the first table there are high risk (red) components with replacement values totaling $374,210.
Figure 2: Dashboard showing risk by consequence
One way to represent overall risk is to sum across the individual tables in Figure 2, by risk category (red = high, yellow = moderate, green = low) to produce a single risk column, as shown in Figure 3. This shows that the costs to replace components rated high risk in 2015 for any reason (mission, productivity, or safety) were $2,349,315. Note that some components are high risk for multiple reasons.
The calculation of the column can be modified for different purposes. The ratings from the dashboard could be weighted to reflect management priorities. The likelihood of failure, and consequent migration of risk ratings, could be estimated for a range of years, as shown for the period 2015-2019.
COMPARING THE FCI WITH RISK SCANNING
The data center example provides a useful comparison of the output from a simple condition assessment with the additional data provided by Risk Scanning.
A conventional facility condition assessment using a life cycle cost model indicated that 75 components had exceeded their service life. The costs of replacing these would be $4,771,159. Considering this amount to be deferred maintenance (D.M.), the FCI would be 5% (given $100 million replacement value). This would be summarized as a building in “fair” condition.
A Risk Scan of the component inventory indicates that 13 components are at high risk, and the costs of replacing these would be $2,349,315. This is less than half the costs of replacements by a simple service life-assessment. An FCI based on high risk components would be 2.2%, indicating a building in “good” condition.
In this case, with the additional information provided by Risk Scanning, the facility would be considered in better condition than with the simple condition assessment. Moreover, the risk scan would provide a rating for all components—including those not yet considered as deferred maintenance—as a basis for anticipating future needs and prioritization.
CONCLUSION
The Risk Scanning approach uses well-known risk analytics applied to pre-existing facility data to provide a richer view of facility condition more consistent with actual management decision making. In practice, limited funding is directed to those repairs and replacements that address corporate priorities, such as safety, security, and mission achievement. For healthcare systems, this approach can provide critical insight for decision-making about capital deployment where actionable criteria are not established or where data is limited.
About the Authors
Peter Lufkin is Senior Managing Director and Luca Romani is Senior Analyst with CBRE Whitestone.
Related Stories
Adaptive Reuse | Oct 22, 2024
Adaptive reuse project transforms 1840s-era mill building into rental housing
A recently opened multifamily property in Lawrence, Mass., is an adaptive reuse of an 1840s-era mill building. Stone Mill Lofts is one of the first all-electric mixed-income multifamily properties in Massachusetts. The all-electric building meets ambitious modern energy codes and stringent National Park Service historic preservation guidelines.
MFPRO+ News | Oct 22, 2024
Project financing tempers robust demand for multifamily housing
AEC Giants with multifamily practices report that the sector has been struggling over the past year, despite the high demand for housing, especially affordable products.
Performing Arts Centers | Oct 21, 2024
The New Jersey Performing Arts Center breaks ground on $336 million redevelopment of its 12-acre campus
In Newark, N.J., the New Jersey Performing Arts Center (NJPAC) has broken grown on the three-year, $336 million redevelopment of its 12-acre campus. The project will provide downtown Newark 350 mixed-income residential units, along with shops, restaurants, outdoor gathering spaces, and an education and community center with professional rehearsal spaces.
Office Buildings | Oct 21, 2024
3 surprises impacting the return to the office
This blog series exploring Gensler's Workplace Survey shows the top three surprises uncovered in the return to the office.
Healthcare Facilities | Oct 18, 2024
7 design lessons for future-proofing academic medical centers
HOK’s Paul Strohm and Scott Rawlings and Indiana University Health’s Jim Mladucky share strategies for planning and designing academic medical centers that remain impactful for generations to come.
Sports and Recreational Facilities | Oct 17, 2024
In the NIL era, colleges and universities are stepping up their sports facilities game
NIL policies have raised expectations among student-athletes about the quality of sports training and performing facilities, in ways that present new opportunities for AEC firms.
Codes and Standards | Oct 17, 2024
Austin, Texas, adopts AI-driven building permit software
After a successful pilot program, Austin has adopted AI-driven building permit software to speed up the building permitting process.
Resiliency | Oct 17, 2024
U.S. is reducing floodplain development in most areas
The perception that the U.S. has not been able to curb development in flood-prone areas is mostly inaccurate, according to new research from climate adaptation experts. A national survey of floodplain development between 2001 and 2019 found that fewer structures were built in floodplains than might be expected if cities were building at random.
Seismic Design | Oct 17, 2024
Calif. governor signs limited extension to hospital seismic retrofit mandate
Some California hospitals will have three additional years to comply with the state’s seismic retrofit mandate, after Gov. Gavin Newsom signed a bill extending the 2030 deadline.
MFPRO+ News | Oct 16, 2024
One-third of young adults say hurricanes like Helene and Milton will impact where they choose to live
Nearly one-third of U.S. residents between 18 and 34 years old say they are reconsidering where they want to move after seeing the damage wrought by Hurricane Helene, according to a Redfin report. About 15% of those over age 35 echoed their younger cohort’s sentiment.