Maintenance Organizational Models

The Maintenance Problem

Maintenance teams are under-resourced across the industry. Staffing shortages are driving delays in work orders, unit turns, and capital upkeep. This isn’t an isolated issue—it’s systemic.

Operators are relying on outdated models that no longer reflect the scale or complexity of modern portfolios. The result is rising resident churn, missed financial targets, and operational burnout.

The 1:100 Math: What’s Driving It

The “1 tech per 100 units” rule isn’t a benchmark—the rule of thumb is based on a supply standard that’s largely grounded in an onsite approach to maintenance.

Let’s break down the work 300 units demand:

6 work orders per unit/ year = 1,800 work orders

50% turnover = 150 unit turns

Unit turns average 16 hours = 2,400 hours

Work orders (2 trips × 45 min) = 2,700 hours

➡️ Total = 5,100 hours/year

➡️ One tech covers ~1,750 hours/year

➡️ Result: 3 techs needed = 1:100

But this doesn’t include:

Guest interaction

Cleaning and grounds keeping

Repeat supply trips

Half-done jobs broken by interruption

These invisible friction points compound until the system breaks.

Unless the model changes, burnout is inevitable.

Demand Is Up. Techs Are Down. Going Without Isn’t Working.

Increased demand + lower supply = operational risk.

Yet many operators are still choosing to “go without”—leaving roles unfilled and shifting budgets to temporary solutions like rent concessions, vendor bursts, or marketing spikes.

RealPage projects 500,000 units will come online in 2025. At a 1:100 ratio, we’d need 5,000 new techs. That workforce doesn’t exist.

Meanwhile, SLA targets remain at 48 hours for non-critical issues, yet average work order age sits at 17 days. Pencilling 1:100 with a centralized organizational model isn’t realistic or defendable.

You can’t solve systemic demand with temporary workarounds. You need an operating model that scales.

Org Models Designed to Scale

Decentralized (Onsite-Centric)

Dedicated techs per property

Strong property-level relationships

Vulnerable to absenteeism, redundancy, and variable standards

Networked (Floating)

Staff are deployed across sites by need

Centralized triage, QA, and routing

Great for structured tasks like inspections or complex tech work

Requires SOPs and technology for task assignment and tracking

Think of it like Omaha supporting Austin and Atlanta on Monday. Then Austin floats to cover the other two on Wednesday. The model is dynamic and resilient.

Centralized (Hub-and-Spoke)

Core operations run from a centralized location

Minimal onsite presence

High efficiency, ideal for automation and remote coordination

Cultural and change management investments are critical

Transitioning: From Decentralized to Centralized or Networked

This isn’t a switch—it’s a roadmap. Here’s how to make the leap:

1. Assess Your Starting Point

What roles are truly onsite? Where do we have unfilled roles?

How does the team spend most of its time?

Where is work getting stuck?

2. Define Your Target Model

Centralized = control, standardization

Networked = flexibility, expertise pooling

3. Start Small, Pilot a Region or Function

Pick one: turns, inspections, after-hours

Define a workflow and service level

Track performance and refine

4. Train and Iterate

Equip teams for new responsibilities

Clarify communication and accountability

Use dashboards and mobile tools to close feedback loops

Success isn’t hitting a ratio—it’s building an org that absorbs change and delivers consistently.

The Financial Impact: Why Org Design Drives NOI

Operations aren’t just back-office—they’re bottom-line.

Faster Turns = Less Vacancy Loss

Shrink downtime across units

Centralized or networked teams close gaps faster

Turnkey scheduling improves uptime

Quicker Repairs = Lower Churn

Faster diagnostics → fewer missed service promises

Shared support improves resolution time

Even 5% churn reduction drives major returns

Better Preventive Maintenance = Longer Asset Life

Standardized PM work saves on early replacements

Avoids deferred capital piling up

Fewer reactive tickets = fewer costly repairs

Predictable Ops = Smarter Budgets

Centralized models make vendor billing, labor distribution, and staffing levels visible

Fewer surprises = stronger forecasting

Strategic Use of Service Contracts

Some work doesn’t need to be kept in-house.

Major Equipment (HVAC, Elevators, Boilers)

Use manufacturer-aligned service contracts

Schedule inspections and seasonal servicing

Vendors often resolve faster, and with fewer re-visits

Site Services (Cleaning, Landscaping, Trash Rooms)

Offload predictable labor to fixed-scope providers

Free your techs to focus on reactive demand

Sync contract tasks with turn schedules to reduce overlap

These contracts create breathing room—and protect your in-house labor for the work that matters.

What Model Is Right for You?

Don’t aim for a staffing ratio. Design for real-world workload.

Ask:

What’s the actual shape of your maintenance demand?

What work could be routed, pooled, or outsourced?

Are you building a structure that can flex—or just survive?

The winners in this cycle won’t be the fastest to hire. They’ll be the ones who rethink how the work gets done.

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