Field service is not one statistical category. It includes technicians who maintain equipment, install systems, perform repairs, manage fleets, and serve customers across industries with very different economics. That is why a trustworthy data roundup has to distinguish a market-research forecast from an occupational projection, a vendor survey, or an outcome reported in a maintenance guide.
This page uses published sources available as of July 2026. Every numerical claim links to the organization that published it. Figures are useful for framing a planning conversation; they are not a substitute for a company’s own job, workforce, and financial data.
Key takeaways
- MarketsandMarkets forecasts the FSM market will rise from $4.0 billion in 2023 to $7.3 billion in 2028, a 12.8% CAGR.
- Allied Market Research estimates $5.2 billion in 2021 and projects $29.9 billion in 2031, a 19.2% CAGR for its defined market.
- In Salesforce’s 2024 survey, 74% of mobile workers said customer expectations are rising, and 73% said they support more products or services than a year earlier.
- The U.S. Bureau of Labor Statistics projects about 608,100 annual openings in installation, maintenance, and repair occupations from 2024 to 2034.
- The U.S. Department of Energy says historical industrial studies cited in its maintenance guide found predictive-maintenance programs could reduce downtime by 35%–45%; treat that range as a pilot hypothesis, not a promise.
Table of Contents
- Market size and growth forecasts
- Why the market estimates differ
- Customer expectations and service pressure
- Workforce and compensation context
- Maintenance and operational outcomes
- Safety and fleet risk
- How to use these statistics in a business case
- Source notes and methodology
- Frequently asked questions
Market size and growth forecasts
Two widely cited global FSM market forecasts illustrate why the headline number needs context.
| Publisher | Base-year estimate | Forecast | Stated growth rate | What to check before using it |
|---|---|---|---|---|
| MarketsandMarkets | $4.0B in 2023 | $7.3B in 2028 | 12.8% CAGR | Its software-market definition, geography, and five-year forecast window |
| Allied Market Research | $5.2B in 2021 | $29.9B in 2031 | 19.2% CAGR | Its ten-year window and the components included in its market definition |
The figures should not be averaged or presented as a single consensus estimate. They describe different research products. For a software vendor, the more relevant question may be the portion of a forecast that matches its target customer size and region. For an operator, the more relevant number may be annual technology spend or the cost of a repeat visit—neither of which is established by a global-market forecast.
Why the market estimates differ
Market research firms can differ in the products they include, whether they count software alone or broader services, and the regions and customer segments they model. A forecast also depends on its base year and its time horizon. The table above deliberately retains each publisher’s own years and CAGR rather than implying that $4.0 billion and $5.2 billion measure the same thing.
Use a forecast only after answering four questions:
- Does it cover the geography where the company sells or operates?
- Does it define FSM as scheduling and dispatch software, or does it include adjacent implementation, maintenance, or managed services?
- Does its base year reflect an unusual market period that matters to the comparison?
- Is the forecast’s horizon appropriate for the decision being made?
That discipline prevents a common error in board decks and vendor comparisons: pairing the largest available forecast with a growth rate taken from a different report.
Customer expectations and service pressure
Salesforce’s sixth State of Service report surveyed more than 5,500 service professionals across 30 countries. In the published results, 74% of mobile workers said customer expectations are getting higher. The same release reports that 73% of mobile workers support more products or services than they did a year earlier, while 74% said their workload had increased.
These are survey responses, not a census of every field-service organization. Their value is directional: mobile teams are being asked to handle broader and more demanding service work. A local operating plan should test that signal against its own data—on-time arrival, first-time fix rate, repeat visits, work-order age, and customer effort—rather than assume a global survey percentage will recur in a particular trade.
The survey also found that 90% of decision makers at organizations with field service invest in specialized technology to improve mobile-worker productivity. That is evidence of technology priority, not proof that any individual platform will improve productivity. A procurement process still needs a defined workflow, data-quality requirements, training ownership, and a measurement plan.
Workforce and compensation context
Field-service work spans several occupations, so there is no single official U.S. “field service technician” total that maps cleanly to every trade. The closest broad context is the BLS installation, maintenance, and repair occupational group. It contained about 6.49 million jobs in 2024 and is projected to reach about 6.79 million in 2034—an increase of 301,400 jobs, or 4.6%.
The same BLS projection shows a 2024 median annual wage of $58,230 for that broad group, compared with $49,500 for all occupations. The Occupational Outlook Handbook projects about 608,100 openings per year on average from 2024 through 2034, reflecting both growth and replacement needs.
Those figures are valuable labor-market context, but they should not be used as a wage benchmark for a specific HVAC, medical-equipment, utilities, or telecommunications team. Local labor conditions, licensing, overtime rules, union agreements, certification requirements, and the mix of work change the economics considerably. For staffing decisions, combine public data with actual recruiting funnel, time-to-productivity, overtime, and retention data.
Maintenance and operational outcomes
Predictive maintenance is frequently sold with a neat savings percentage. The more careful interpretation is that results depend on the assets, failure modes, baseline process, and response workflow. The U.S. Department of Energy’s Operations and Maintenance Best Practices Guide cites historical industrial studies that found 8%–12% savings over preventive maintenance alone, 25%–30% lower maintenance costs, and 35%–45% lower downtime after a functional predictive-maintenance program.
Those ranges do not establish what an FSM implementation will deliver. The guide is discussing industrial maintenance programs, and an alert does not create value unless it results in the right inspection, part, technician, and closeout process. Treat the ranges as a reason to test a use case—such as repeat failures on a defined equipment class—rather than as a benefit number to enter directly into a financial model.
A credible pilot should compare a defined group of assets or job types with a comparable pre-pilot baseline. Track at least these outcomes:
- unplanned downtime or emergency calls;
- repeat visits and first-time fix rate;
- mean time from signal or request to completed work;
- parts availability at the first visit;
- technician travel, overtime, and safety incidents; and
- the percentage of alerts that led to a verified, useful action.
Do not declare success based only on the number of alerts generated or work orders automatically created. A noisy rule can increase dispatch workload without preventing any failures.
Safety and fleet risk
Field operations often require driving between sites, so fleet safety belongs in the operational picture. OSHA reports that 5,283 U.S. workers died from workplace injuries in 2023, and transportation incidents accounted for nearly 37% of those fatalities. That is not a field-service-only measure, but it is a useful reminder that route efficiency should never be evaluated separately from safe driving, fatigue, vehicle condition, and realistic appointment windows.
For a field-service team, track preventable vehicle incidents, harsh-driving events where lawfully collected, maintenance compliance, and schedule changes that create unsafe pressure. Any GPS or telematics program should have a written purpose, appropriate access controls, retention rules, and a way for workers to challenge inaccurate records.
How to use these statistics in a business case
External statistics help frame a decision; internal evidence should make it. Start with the specific problem the organization can measure—for example, long response times for a high-value customer class, repeat visits caused by parts visibility, or an overtime pattern driven by manual dispatch.
Then construct the business case around a baseline, not an industry average:
- Define the workflow and the affected technicians, job types, and assets.
- Record current volume, labor time, travel, parts, callbacks, customer impact, and safety events.
- Set a limited pilot period and specify which change counts as an improvement.
- Review results with dispatchers and technicians, including false positives and work that the system could not support.
- Scale only after the measured outcome outweighs implementation, integration, training, and change-management costs.
This method makes external data useful without overstating what it proves. It also makes it easier to compare FSM platforms on the workflows that actually matter to the team.
Source notes and methodology
This is a source-linked secondary roundup, not original research. Market-size figures are reported as their publishers state them and are intentionally not normalized. Workforce data comes from the U.S. Bureau of Labor Statistics; safety data comes from OSHA; maintenance ranges come from a U.S. Department of Energy guide; and customer-expectation figures come from Salesforce’s published survey results.
Sources can update their pages or methodologies. Before citing a number in an investment memo, save the source date, report title, scope, and the exact version consulted. For an operational forecast, favor the company’s own verified data over a generalized benchmark.
