Osmos Global Publication · Osmos White Paper
From Deferred Maintenance to Resilient Operations
A leadership framework for connecting asset risk, workforce knowledge, data and capital decisions

Executive summary
Deferred maintenance is often reported as a backlog value. That number is useful for budgeting, but it is an incomplete description of enterprise exposure. Two portfolios with the same backlog can carry very different risks depending on asset criticality, failure modes, redundancy, statutory duties, condition confidence and the operational consequences of failure. Recent FM evidence supports a broader management view. An ABM practice paper hosted by IFMA frames deferred maintenance as a risk affecting operations, finance, safety and asset resilience.[1] JLL's 2025 survey of 248 organisations found that 84% identified operating-cost escalation and budget constraints as a top concern.[2] IFMA case research from the University of Tennessee examines apprenticeships, vendor partnerships and leadership development as responses to the loss of institutional knowledge when experienced employees retire.[3] IFMA's digital-thread guidance identifies fragmented building information as a source of cost and process inefficiency.[4] These sources are not equivalent evidence. The ABM paper is a provider synthesis, the workforce publication is a case, and the digital-thread material is industry guidance. They should not be treated as population-level proof. Together with BOMA operational case studies, however, they reveal a coherent management problem: physical condition, knowledge, information and governance deteriorate together when maintenance is repeatedly deferred. Osmos Global proposes a six-layer Operational Resilience Framework: consequence, condition, control, capability, information and capital. The framework shifts the conversation from “How large is the backlog?” to “Which exposures are unacceptable, how confident are we, what controls are working, and what intervention should be funded now?” The central recommendation is to create a risk-ranked maintenance investment process shared by FM, operations, finance, safety and asset leadership. Backlogs should be segmented by consequence and confidence; critical knowledge should be treated as a resilience asset; data quality should be visible; and funding decisions should record the risk accepted when work is deferred.
Key findings
- 01Backlog value is not a risk ranking
- 02Unknown condition is itself an exposure
- 03Interim controls need ownership and expiry
- 04Workforce knowledge is part of asset resilience
- 05Data quality determines automation value
- 06Maintenance and capital planning require one consequence model
- 07Governance should record accepted risk
Central proposition
Deferred maintenance is not the work that was postponed. It is the operational, financial, safety and resilience risk the organisation has chosen to carry.
Research context
Facilities rarely fail because a single planned task was delayed. Risk accumulates through interacting weaknesses: ageing assets, incomplete records, temporary repairs, scarce skills, inaccessible spares, vendor dependency and capital decisions made without a shared consequence model.
Conventional backlog reporting can reward false precision. Estimated remedial costs may be based on incomplete surveys; condition grades can become stale; and assets absent from the register appear invisible rather than risky. A large monetary total may draw attention to expensive low-consequence items while critical low-cost weaknesses remain buried.
Cost pressure complicates the response. JLL found that 84% of surveyed organisations identified escalating operating costs and budget constraints as a top concern.[2] Leaders therefore need prioritisation that can withstand scrutiny. The objective is not to fund every task immediately. It is to make the consequences, uncertainty and interim controls explicit enough for the right authority to accept or reduce the risk.
Workforce transition is part of the same system. Experienced technicians often carry tacit knowledge about failure signatures, safe workarounds and system interactions that is not present in manuals. When that knowledge leaves, the condition of the information system can deteriorate even if the physical assets do not change overnight.
Evidence review
Deferred maintenance is an enterprise-risk issue The 2026 ABM paper hosted by IFMA explicitly frames deferred facility maintenance as affecting operations, finance, safety and resilience.[1] The public record does not provide an independent comparative dataset that quantifies every effect.
Osmos Global uses the source as a structured industry-risk synthesis, not proof of a universal financial multiplier.
The framing is nevertheless operationally sound. A delayed intervention can change failure probability, response time, energy performance, compliance and asset life. The size of that effect remains asset-and context-specific.
Knowledge loss can increase maintenance uncertainty The University of Tennessee case examines apprenticeships, manufacturer and vendor partnerships, and leadership development as mechanisms to reduce institutional-knowledge loss.[3] It demonstrates possible practices in one facilities-services context. It does not establish that a particular percentage of the global FM workforce will retire or that one programme will work everywhere.
The strategic implication is broader: succession should be mapped against critical systems and tasks. A vacant role is especially risky when it is the only source of diagnostic or recovery knowledge.
Fragmented information weakens control IFMA's digital-thread guidance argues that operators require reliable information about assets, spaces, systems and people across the lifecycle.[4] Maintenance decisions become weaker when design, commissioning, work-order, condition and operational data cannot be connected.
JLL's 2025 technology survey reported that 92% of CRE organisations were piloting or planning AI pilots, while its FM research reported 28% had embedded AI in FM operations, rising to 46% among organisations with more than 100,000 employees.[2][5] The studies have different samples and definitions, but both reinforce the importance of operational data foundations before advanced automation.
Operational case studies show integrated practice—not universal effect sizes BOMA's 2026 medical-office and single-tenant-office case studies document operational improvements across energy, life safety, training, sustainability and occupant relations within the BOMA 360 framework.[6][7] Case evidence can show how practices work in context. It cannot establish that every building will achieve the same savings or satisfaction outcome.
The cases support an integrated view: maintenance performance is connected to training, tenant communication, sustainability and management systems rather than isolated inside the engineering department.
Findings
1. Backlog value is not a risk ranking
Currency does not reveal consequence, redundancy, statutory exposure or the confidence of condition information.
2. Unknown condition is itself an exposure
Missing surveys, incomplete registers and stale records should not be interpreted as evidence of asset health.
3. Interim controls need ownership and expiry
Temporary repairs, increased inspections and manual workarounds can reduce risk, but only when their limits and review dates are visible.
4. Workforce knowledge is part of asset resilience
Critical diagnostic, recovery and safety knowledge must have competent coverage, not merely written procedures.
5. Data quality determines automation value
Predictive maintenance and AI cannot compensate for missing asset hierarchy, failure history, work quality or sensor context.
6. Maintenance and capital planning require one consequence model
Separating operating and capital decisions can cause repeated repairs, premature replacement or risk migration.
7. Governance should record accepted risk
When work is deferred, the organisation should document the exposure, control, accountable authority and next decision date.
Osmos Global analysis
The six-layer Operational Resilience Framework Layer Leadership question Minimum evidence Decision output Consequence What happens if this fails? Safety, compliance, service, financial and reputational impact Criticality and risk tier Condition What do we know—and how confident are we?
Survey date, failure history, degradation and uncertainty Condition/confidence rating Control What currently reduces exposure? Redundancy, inspection, workaround, spares and response plan Control effectiveness and expiry Capability Who can diagnose, repair and recover?
Competence, coverage, vendors, succession and access Capability gap and action Information Can decisions be traced and updated?
Asset hierarchy, work records, documents, sensors and changes Data-quality status Capital What intervention creates the best risk-adjusted value?
Repair, replace, redesign, monitor and defer scenarios Funded plan or accepted risk The framework creates a common language between engineering and business leadership. It does not replace technical standards or statutory inspection. It structures how evidence is translated into a decision.
Osmos Global infers that the most important change is to make uncertainty visible. A precise condition score based on old or incomplete information is more dangerous than an honest low-confidence rating. Confidence should affect priority because unknown critical assets require investigation before rational capital allocation.
The framework also integrates knowledge continuity. For each critical system, leaders should know whether diagnosis, isolation, safe operation and recovery can be performed across shifts and vendor boundaries. Documentation is necessary but insufficient; competence must be demonstrated through supervised practice or exercises.
Finally, maintenance deferral should become a formal risk-acceptance event. The decision record should state why work is deferred, the exposure retained, interim controls, the accountable authority and the trigger or date for reconsideration.
Recommendations 1. Replace the single backlog total with a consequence-, condition-and confidence-ranked register. 2. Identify critical assets missing from the register or lacking current condition evidence. 3. Give every temporary repair and workaround an owner, documented limit and expiry date. 4. Map critical technical knowledge, competence coverage and succession against systems—not job titles alone. 5. Establish a common asset hierarchy and minimum work-order evidence before scaling predictive analytics. 6. Review maintenance and capital options through the same failure-mode and lifecycle lens. 7. Create executive thresholds for risk acceptance and escalation. 8. Report quarterly movement in critical exposure, not only expenditure and work-order volume.
Risks, limitations and unresolved questions
• Provider-authored practice papers may reflect commercial positioning and require independent corroboration. • Case studies demonstrate mechanisms but do not provide representative effect sizes. • Condition and backlog values may vary with survey scope, asset hierarchy and cost assumptions. • Risk scoring can create false precision unless confidence and judgement are disclosed. • Predictive models may underperform when failure events are rare or maintenance records are inconsistent. • Comparable cross-sector evidence linking maintenance deferral to enterprise outcomes remains limited.
Executive resilience checklist Can leadership confirm… Yes/No Critical assets are ranked by consequence, not cost alone?
Unknown condition and missing records are visible?
Temporary controls have owners and expiry dates?
Critical knowledge has competent backup coverage?
Asset and work-order data meet minimum standards?
Maintenance and capital plans use the same risk model?
Deferred work has an accountable risk acceptor?
Quarterly reporting shows movement in critical exposure?
References
[1] ABM, Bradarich, A., Malik, M., & Phelps, R. (2026, 25 August). Why Deferred Maintenance has Become a Business Risk. IFMA Knowledge Library. https://knowledgelibrary.ifma.org/why-deferred-maintenance-has-become-a-business-risk/ [2] Xie, W. (2025, 12 November). Global State of Facilities Management Report 2025. JLL. https://www.jll.com/en-us/insights/global-state-of-facilities-management-report [3] Alcorn, R. L. (2025, 11 September). Developing Tradespeople in FM to Avoid the Loss of Institutional Knowledge due to the Looming Retirement Boom.
IFMA Knowledge Library. https://knowledgelibrary.ifma.org/developing-tradespeople-in-fm-to-avoid-the-loss-of-institutional-knowledge-due-to-the-looming-retirement-boom/ [4] Ritter, T., IFMA IT Community, Autodesk, & Clarke, S. (2025, 3 June). Advancing Facilities Management with a Digital Thread. IFMA Knowledge Library. https://knowledgelibrary.ifma.org/advancing-facilities-management-with-a-digital-thread/ [5] JLL Research. (2025, 27 October). Reality check: The true pace and payoffs of AI adoption in corporate real estate. https://www.jll.com/en-us/insights/global-real-estate-cre-technology-survey [6] BOMA International. (2026, 11 March). BOMA 360 Case Study: Medical Office Buildings. https://boma.org/wp-content/uploads/2026/03/BOMA-360-Case-Study-Medical-Office-Buildings-0311.pdf [7] BOMA International. (2026, 28 January). BOMA 360 Case Study: Single-Tenant Office. https://boma.org/wp-content/uploads/2026/01/BOMA-360-Case-Study-Single-Tenant-Office-01282026.pdf [8] ABM, Rawlings, N., & Culver, A. J. (2026, 14 July). How a self-performing workforce model powers the future of facilities. IFMA Knowledge Library. https://knowledgelibrary.ifma.org/how-a-self-performing-workforce-model-powers-the-future-of-facilities/ [9] Johnson Controls. (2026, 23 July). Top 3 insights from the 2026 AI & Digitalization in Facilities Management Report, FM Edition. https://www.johnsoncontrols.com/building-insights/feature-story/top-3-insights-2026-ai-survey-facilities-managers [10] Trane. (2026, 11 August). The Future Ready Building Report: 8 Business Drivers Advancing Building Technology. IFMA Knowledge Library. https://knowledgelibrary.ifma.org/the-future-ready-building-report-8-business-drivers-advancing-building-technology/ [11] Husmark, U., Berland, C., & Tork. (2025, 23 September). Promoting hand hygiene with behavioral change. IFMA Knowledge Library. https://knowledgelibrary.ifma.org/promoting-hand-hygiene-with-behavioral-change/ Editorial note This publication presents original Osmos Global analysis based on publicly available and cited research. Source findings and Osmos Global interpretations are distinguished throughout. Third-party trademarks and source materials remain the property of their respective owners. This publication is provided for research and professional-information purposes and does not constitute legal, financial, investment or technical advice.
Methodology
This paper synthesises eleven first-party or institution-hosted publications issued between June 2025 and August 2026. The evidence includes a global FM survey, practice papers, university case research, industry guidance, technology-survey summaries and BOMA operational case studies. Each source was classified by evidence type. Survey findings retain the stated sample and population where public. Provider papers are labelled as practice synthesis. Single-organisation and building cases are used for mechanism and implementation insight, not representative prevalence. No proprietary chart or table has been reproduced. Evidence type Use in this paper What it cannot establish Global FM survey Cost pressure, AI embedding and provider priorities Causality or performance of a specific maintenance model Provider practice synthesis Risk categories and operating-model propositions Independent prevalence or universal financial effect University/organisation case Workforce-development mechanisms Global workforce proportions or guaranteed transferability Industry guidance Information and lifecycle-control requirements Measured benefits without implementation data Building case studies Examples of integrated operational practice Average savings or results for all buildings
Cite this
Osmos Global Research & Knowledge Centre (2026). From Deferred Maintenance to Resilient Operations. Osmos White Paper, Osmos Global. https://www.osmosglobal.org/knowledge/from-deferred-maintenance-to-resilient-operations
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