A futuristic autonomous tow truck operating on a Virginia highway, set against a stylized map of Virginia with transportation and economic-data graphics, representing the statewide GDP impact of full autonomous tow-truck adoption.

Net GDP Impact on Virginia from Full Adoption of Autonomous Tow Trucks

Executive summary 

Under a full-adoption, steady-state-by-2035 scenario, the most defensible estimate is that replacing Virginia’s conventional tow-truck fleet with fully autonomous tow trucks would produce a small but positive net increase in Virginia GDP, centered around +$42 million per year, with a base-case range of roughly +$15 million to +$70 million annually. That equals about 0.002% to 0.009% of Virginia’s latest quarterly gross state product annual rate of $813.7 billion. A wider scenario band runs from about -$10 million in a weak-outcome case to about +$120 million in a strong-outcome case. The central reason the macro effect is modest is scale: Virginia’s towing market is only about $370.3 million in annual revenue with 3,380 employees across 1,358 businesses, so even a large productivity shock inside the industry does not move an $800+ billion state economy very much. [1] 

The largest positives come from better asset utilization, lower nonlabor operating friction, faster roadway clearance, and some new higher-skill technical work. The largest negatives come from displaced driver and dispatcher income, plus increased spending on AV software, sensing, compute, and systems integration that is likely to leak to suppliers outside Virginia unless the Commonwealth captures those functions locally. Because towing is a fragmented, mostly local-service industry, the multiplier effects are likely modest, not transformative. [2] 

The labor effect is much larger than the GDP effect. In this report’s central case, roughly 2,000 to 2,500 existing towing jobs are exposed to displacement, while about 500 to 900 new jobs emerge in remote operations, AV fleet maintenance, calibration, software support, cybersecurity, and connected roadside systems. That implies a steady-state net loss of about 1,200 to 1,900 jobs tied directly to the towing value chain, even after allowing for higher wages in the new technical roles. [3] 

The estimate should be read as low-to-moderate confidence. Current evidence supports commercial autonomy in structured trucking use cases, not fully autonomous roadside hookup and recovery. Aurora has begun commercial driverless Class 8 trucking in Texas, and Gatik advertises commercial autonomous middle-mile trucking with dock-to-dock precision; by contrast, the strongest towing-specific evidence found in public primary sources was an autonomous towing-related patent rather than a commercial Level 4/5 tow-truck deployment that can autonomously hook up and recover disabled vehicles in uncontrolled roadside conditions. Virginia also still lacks an enacted broad commercial autonomous-vehicle operating framework as of mid-2026; proposals were active in the 2026 session, but did not become law. That is why 2035 should be viewed as the earliest plausible full-adoption date, not a forecast. [4] 

Current baseline in Virginia 

Virginia’s towing industry is small in macro terms but large enough to matter locally. IBISWorld’s March 2026 Virginia industry profile for automobile towing reports $370.3 million in market size, 1,358 businesses, and 3,380 employees in 2026. Nationally, IBISWorld reports a $11.8 billion U.S. towing market and 105,695 workers in 2026, which implies Virginia accounts for just over 3% of the national industry by both revenue and employment. [5] 

Virginia’s latest broad economic benchmarks reinforce how small the sector is relative to the Commonwealth. Virginia’s quarterly nominal GDP annual rate was $813.7 billion in Q4 2025, while BEA’s annual GDP for Virginia’s broader β€œOther Transportation and Support Activities” grouping was $4.99 billion in 2024. Even using gross revenue rather than value added, towing’s $370.3 million market size is less than 0.05% of total Virginia GDP. [6] 

The most important public-data gap is that Virginia does not appear to publish a simple, current, citable statewide table of active tow trucks or active tow-truck-driver registrations on the public pages consulted here. What is public is the regulatory requirement itself: Virginia DCJS requires tow-truck-driver registration, and Virginia DMV publishes tow-truck/wrecker registration rules and fees. Because the readily citable public sources do not expose a current statewide fleet count, this report uses employer-firm employment and industry revenue as the core baseline rather than a registration count. [7] 

A further limitation is that BLS makes state-industry occupational estimates available only through OEWS research files that are downloadable in XLSX format, but those detailed files are not rendered directly in the accessible web text returned here. BLS explicitly labels those state-industry estimates as research-use data and notes they are subject to higher model error than standard OEWS releases. That makes a bottom-up proxy approach necessary for some towing-specific wage and occupation estimates. [8] 

Baseline table 

Metric Best available value Interpretation 
Virginia towing market size $370.3 million Annual industry revenue proxy 
Virginia towing employment 3,380 Direct paid employment 
Virginia towing businesses 1,358 Highly fragmented industry 
U.S. towing market size $11.8 billion National comparison point 
Virginia share of U.S. towing revenue ~3.1% By IBISWorld revenue comparison 
Virginia GDP $813.7 billion Q4 2025 SAAR 
Virginia GDP for β€œOther Transportation and Support Activities” $4.99 billion Broad parent sector, annual 2024 

Sources for the table: Virginia towing market size, employment, and business count from IBISWorld’s March 2026 Virginia report; U.S. towing market size and employment from IBISWorld’s 2026 U.S. report; Virginia total GDP and broader transportation-support-sector GDP from BEA via FRED. [9] 

Estimated current direct value added 

Because BEA does not publish a separate 6-digit GDP series for NAICS 488410 towing, this report estimates current direct value added from revenue, national expense structure, and compensation proxies. U.S. Census service-survey data, as reported through FRED, show national towing revenue of $12.694 billion and national towing expenses of $10.163 billion in 2022, implying an expense ratio of about 80.1% and a residual operating surplus margin of about 19.9%. Applying that expense ratio to Virginia’s $370.3 million market size yields an estimated Virginia towing operating-expense base of about $296 million and an operating-surplus proxy of about $74 million. [10] 

For labor compensation, the best Virginia-specific wage proxy found in a citable public source was a GO Virginia Region 8 industry table showing $43,011 average annual wages for NAICS 488410. BLS Table 4 for private-sector transportation and material-moving occupations shows wages account for 69.1% of compensation and benefits for 30.9%, implying total compensation is about 1.45 times wages. Applying that ratio to the regional wage proxy yields estimated compensation of about $62,000 per worker, or roughly $210 million for 3,380 workers. Because the wage figure is regional rather than statewide, this should be treated as a proxy, not a census count. [11] 

Combining the labor-compensation proxy and the operating-surplus proxy suggests current direct value added in Virginia towing is roughly $260 million to $305 million, with a midpoint near $280 million. That implies towing likely accounts for around 5% to 6% of Virginia’s broader BEA category for other transportation and support activities. This is a reasonable but still approximate benchmark; it is used here only as a baseline for the autonomy scenarios. [12] 

Technology readiness and feasibility by 2035 

The strongest public evidence for autonomous towing itself is still conceptual rather than operational. A publicly available patent application describes a Towable Autonomous Dray designed to follow a main vehicle, tow trailers, haul loads, and operate semi-autonomously. That shows the engineering concept exists, but it is not evidence of a commercially deployed, unsupervised tow truck that can safely perform roadside hookup and recovery in the full range of real-world conditions involved in towing disabled vehicles after crashes, breakdowns, or police-ordered removals. [13] 

What is operational today is adjacent, narrower autonomy. Gatik describes commercially proven autonomous trucks designed for structured middle-mile, dock-to-dock operations. Aurora began commercial driverless Class 8 highway trucking in Texas in 2025, and Reuters reported Aurora’s early operational design domain still required gradual expansion into harsher weather, more urban environments, dense traffic, and construction zones. Those are materially simpler and more repeatable driving tasks than autonomous roadside towing and recovery. The implication is straightforward: full autonomous towing is technologically less mature than current autonomous freight hauling, so any towing forecast should materially discount the larger cost-savings claims found in long-haul trucking studies. [14] 

Virginia’s regulatory position is also not yet full-adoption ready. Public 2026 legislative coverage indicates Virginia considered bills that would have required licensing for fully autonomous vehicles and automated driving systems, but those bills did not pass. At the same time, recent reporting says Waymo has started mapping parts of Northern Virginia while noting that driverless AV operation is not yet allowed in the Commonwealth. Taken together, the legal environment supports a conclusion that 2035 is the earliest plausible year for full autonomous towing, not a currently authorized operational reality. [15] 

Economic model and steady-state GDP estimate 

This report uses a bottom-up value-added framework rather than a purchased IMPLAN or RIMS II model, because a publicly citable Virginia-specific multiplier table for towing was not accessible in the sources gathered here. The model therefore estimates the net GDP effect from four channels: direct towing-sector productivity and cost restructuring, indirect supply-chain shifts, induced household-income effects, and user productivity spillovers from faster roadside response and clearance. The multiplier treatment is intentionally conservative because Virginia’s towing sector is highly fragmented and locally oriented, which typically produces smaller supply-chain multipliers than manufacturing or export industries. [16] 

The haircut applied to expected efficiency gains is substantial. Peer AV trucking studies are much more favorable than towing-specific reality. An MDPI study on autonomous trucks found modeled monthly TCO reductions of roughly 41.7% to 56.3%, and Aurora’s 2026 industry report projected $70 billion in U.S. GDP from autonomous trucking by 2035. But those studies concern line-haul or structured freight contexts, not driverless tow trucks operating in unstructured crash scenes and roadside recovery environments. Accordingly, this report assumes realized towing-specific efficiency is meaningfully lower than the freight studies imply. [17] 

Virginia’s roadway-operations data support a real, but bounded, spillover case. VDOT says Safety Service Patrol covers about 1,079 interstate miles, and the agency reported more than 232,000 motorist assists in 2025. VDOT’s 2024 statewide district summary also shows, when the district figures are summed, about 19,600 lane-impacting interstate incidents in 2024 across districts with interstate systems, with roadway-clearance times ranging from the low 20s to about 50 minutes by district. Virginia Transportation Research Council work further finds congestion costs can range from under $1 per incident-minute for minor shoulder events to more than $240 per incident-minute for severe lane-blocking incidents in Northern Virginia. That clearly supports a spillover value from quicker incident response and clearance, but it does not support a claim that the spillover is large enough to transform statewide GDP. [18] 

Central estimate 

The central estimate in this report is a +$42 million annual GDP gain in Virginia once the sector reaches a mature, full-adoption steady state. That estimate reflects a modestly positive direct productivity effect inside towing firms, a modest indirect gain from local maintenance, calibration, and systems support, a negative induced effect from persistent wage displacement, and a measurable but still limited spillover from faster clearance and reduced downtime for stranded motorists and businesses. The estimate is deliberately conservative because the public evidence base does not show commercial Level 4/5 roadside towing at scale today. [19] 

Waterfall-style decomposition 

Component Central annual effect 
Direct towing-sector value-added gain +$24 million 
Spillovers from faster clearance and less downtime +$18 million 
Indirect supply-chain effect +$7 million 
Induced household-income effect -$7 million 
Net annual GDP effect +$42 million 

This decomposition is an author estimate built from the cited industry-size, compensation, operations, and AV-readiness evidence. The central point is not that every line is observed directly in public data; it is that, given the cited scale of Virginia’s towing sector and the still-limited maturity of autonomous towing technology, a modest positive net GDP effect is much more defensible than either a dramatic statewide windfall or a catastrophic statewide macro loss. [20] 

Employment effects and scenario comparison 

The labor-market shock is likely to be severe inside the industry even if the statewide GDP effect is only modestly positive. With 3,380 current employees, a full Level 4/5 towing system that can dispatch, drive, and physically hook up vehicles without human presence would put most towing-driver and a meaningful share of dispatch work at risk. The likely steady-state result is a loss concentrated among drivers, smaller operators, and regions where alternative technical employment is thinner. The new jobs created by autonomy would likely be fewer but higher-paid. [3] 

Employment estimate 

Labor effect Base-case estimate 
Existing jobs directly exposed 2,000 to 2,500 
New AV-related jobs created 500 to 900 
Net direct job change -1,200 to -1,900 

The wage issue is more ambiguous than the job count. The best Virginia wage proxy found for towing was $43,011 in a regional Virginia industry table, while the new technical roles implied by autonomy would plausibly pay more. Even so, the total wage bill is still likely to fall because the new jobs are fewer. In steady state, some of the displaced workers would almost certainly find employment elsewhere in Virginia, which is why the induced GDP loss here is modeled as modest rather than catastrophic. [21] 

Scenario table 

Scenario Net annual GDP effect Share of Virginia GDP Net employment effect What drives it 
Pessimistic -$10 million to +$10 million about 0.00% -1,700 to -1,900 High AV vendor leakage, limited local reemployment, weak spillovers 
Base case +$15 million to +$70 million 0.002% to 0.009% -1,200 to -1,900 Moderate productivity gain, modest spillovers, partial labor-market adjustment 
Optimistic +$70 million to +$120 million 0.009% to 0.015% -1,100 to -1,400 Strong local capture of AV maintenance/remote ops and better clearance gains 

This scenario spread is wide because the key uncertainties are wide: whether Virginia captures high-value AV support work locally, how much AV sensing/software spend leaks out of state, how quickly displaced workers move into other sectors, and whether autonomous towing actually produces materially faster highway clearance in practice. The confidence level is therefore low-to-moderate, not high. [22] 

Sensitivity 

The estimate is most sensitive to four assumptions. First, the result changes materially with the realized efficiency gain from autonomy; this matters because the freight literature is much more mature than the towing literature. Second, it changes with the share of AV systems spending retained inside Virginia rather than paid to out-of-state platform vendors. Third, it changes with the speed of labor reallocation for displaced drivers and dispatchers by the time steady state is reached. Fourth, it changes with incident-clearance spillovers, which depend on whether autonomous towing actually shortens response, hookup, loading, and clearance times on Virginia roads. [23] 

Policy implications and limitations 

The policy conclusion is not that autonomous towing is unimportant. It is that the big story is distributional, not macroeconomic. A full-autonomy towing transition would likely be highly disruptive for a small but visible blue-collar service sector, while producing only a limited positive effect on statewide GDP. That suggests policy should focus less on expecting a large GDP windfall and more on shaping who captures the gains and who absorbs the losses. [24] 

Virginia can improve the upside if it localizes the parts of the value chain that are otherwise most likely to leak out of state: remote operations centers, sensor calibration, fleet retrofits, software support, cybersecurity, roadside connectivity integration, and technical maintenance depots. If those functions remain outside Virginia, the Commonwealth will keep the job displacement while exporting much of the capital-intensity benefit. By contrast, if Virginia attracts those activities, the optimistic range becomes more plausible. This is an inference from the evidence above, especially the fact that current commercial AV value is concentrated in software-heavy, operationally controlled freight systems rather than in commoditized field labor. [14] 

Virginia should also avoid regulating toward a fiction that roadside autonomy is already mature. The current public record supports adjacent autonomy, not fully autonomous roadside recovery. A prudent state strategy would therefore be staged: controlled pilots on well-mapped interstate corridors, constrained use cases for disabled-vehicle towing, tight data-reporting requirements, and parallel worker-transition funding. That conclusion follows directly from the present mismatch between patent-level towing concepts and the much narrower real-world deployments now operating in freight. [25] 

Open questions and limitations 

This estimate has several important limitations. Publicly citable sources did not provide a current official statewide count of active tow trucks or tow-truck-driver registrations, so the baseline relies on employment and revenue rather than fleet counts. Publicly accessible, citable Virginia-specific IMPLAN or RIMS II multipliers for NAICS 488410 were also not available in the materials reviewed here, so the indirect and induced effects use a conservative bottom-up structure instead of a purchased multipliers model. Finally, there is no public evidence in the sources reviewed of commercial Level 4/5 autonomous tow trucks already performing unsupervised hookup and recovery at scale, which means the analysis is necessarily scenario-based rather than forecast-based. [26] 

Appendix with core calculations 

Baseline calculation sketch 

Step Calculation Result 
Virginia towing revenue IBISWorld Virginia market size $370.3m 
National towing expense ratio $10,163m / $12,694m 80.1% 
Estimated Virginia towing expenses $370.3m Γ— 80.1% $296.5m 
Estimated Virginia operating surplus $370.3m – $296.5m $73.8m 
Wage proxy Region 8 average annual wage $43,011 
Compensation multiplier 36.01 / 24.88 1.447 
Estimated total comp per worker $43,011 Γ— 1.447 ~$62.2k 
Estimated labor compensation 3,380 Γ— ~$62.2k ~$210.4m 
Estimated direct value added $73.8m + ~$210.4m ~$284.2m 

These calculations combine Virginia 2026 towing revenue and employment, national Census towing revenue and expense data, and BLS compensation shares. Because the wage proxy is regional rather than statewide, the resulting value-added figure should be treated as an approximate baseline, not an official BEA estimate. [27] 

Final bottom line 

The most defensible conclusion is that full autonomous towing would probably raise Virginia GDP modestly, not dramatically. A reasonable steady-state estimate is about +$42 million per year, with a practical base range of +$15 million to +$70 million, alongside a meaningful net loss of towing-sector jobs. In other words, the transition is likely to be locally disruptive, fiscally manageable, and macroeconomically small unless Virginia succeeds in becoming not just a user of the technology, but a place where the higher-value AV support work is actually done. [28] 

Virginia Economic Impact Model
Full Adoption of Autonomous Tow Trucks
Estimated annual steady-state effects following statewide adoption of Level 4/5 autonomous towing technology.
Central GDP Estimate
+$42M
per year
Base-Case Range
+$15M–$70M
annual Virginia GDP
Towing Market
$370.3M
Virginia annual revenue
Current Employment
3,380
industry employees
Figure 1
Virginia Towing Industry at a Glance
Baseline indicators used to establish the scale of NAICS 488410 in Virginia.
Annual Revenue
$370.3M
2026 market-size estimate
Employees
3,380
direct paid employment
Businesses
1,358
highly fragmented operator base
Direct Value Added
β‰ˆ $284M
author-estimated midpoint
Sources: IBISWorld Virginia Automobile Towing profile; Census/FRED expense and revenue data; BLS compensation data. Direct value added is an author estimate.
Figure 2
Why the Statewide GDP Effect Is Modest
Towing is economically meaningful at the local level but very small relative to Virginia’s overall economy.
Virginia GDP $813.7 billion
Other Transportation & Support Activities GDP $4.99 billion
Visual width normalized for readability; not drawn on the same absolute scale as total GDP.
Virginia Automobile Towing Revenue $370.3 million
Towing revenue is less than 0.05% of Virginia’s total GDP.
Figure 3
Estimated Towing-Sector Value-Added Structure
Approximate annual Virginia towing economics before full autonomy.
Labor Compensation
β‰ˆ $210.4M
Operating Surplus
β‰ˆ $73.8M
Purchased Inputs / Other
Average Wage Proxy
$43,011
Total Compensation / Worker
β‰ˆ $62.2K
Operating Expense Ratio
80.1%
Note: Composition combines Virginia market estimates with national Census expense ratios and Virginia/BLS compensation proxies.
Figure 4
How Autonomous Towing Flows Through Virginia’s Economy
πŸš›
Full AV Adoption
Autonomous dispatch, driving, hookup and recovery
β†’
βš™οΈ
Lower Unit Costs
Labor, dispatch, idle time and routing efficiency
β†’
πŸ“ˆ
Higher Productivity
Higher asset utilization and faster response
β†’
πŸ›οΈ
Virginia GDP
Net of job displacement and supplier leakage
Positive channels
Productivity, faster clearance, higher uptime, technical support jobs.
Negative channels
Driver displacement, reduced household income and out-of-state AV vendor spending.
Figure 5
Central GDP Impact Waterfall
Author-estimated annual steady-state contribution by economic channel.
$0M $15M $30M $45M +$24M +$18M +$7M βˆ’$7M +$42M Direct Value- Added Gain Faster Clearance & Downtime Indirect Supply Chain Induced Income Effect NET GDP IMPACT
Values are model estimates rather than official BEA forecasts. Positive contributions total $49 million and are partially offset by an estimated $7 million induced household-income effect.
Figure 6
Annual GDP Scenario Range
The outcome depends heavily on technology cost, labor reallocation, local AV investment and operational performance.
βˆ’$20M $0 +$30M +$60M +$90M +$120M Pessimistic βˆ’$10M to +$10M Base Case +$15M to +$70M Optimistic +$70M to +$120M
Pessimistic:
High vendor leakage, high technology cost, weak productivity spillovers.
Base Case:
Moderate productivity gains and partial labor-market adjustment.
Optimistic:
Virginia captures AV maintenance, software support and remote operations.
Figure 7
Workforce Transition Is Larger Than the GDP Shock
Full autonomy could materially reduce towing-sector employment even while increasing aggregate GDP.
Existing Jobs Exposed
2,000–2,500
Drivers and some dispatch functions carry the greatest exposure.
New AV-Related Jobs
500–900
Remote operations, calibration, cybersecurity, fleet maintenance and technical support.
Estimated Net Direct Employment Change
βˆ’1,200 to βˆ’1,900
Fewer but potentially higher-paying technical jobs replace a substantially larger number of driving and dispatch positions. Labor reallocation therefore becomes one of the most important policy variables.
Figure 8
The New Autonomous-Towing Workforce
πŸ›°οΈ
Remote Operators
Exception handling and fleet supervision
πŸ”§
AV Technicians
Sensors, actuators and redundant systems
πŸ“‘
Calibration Teams
LiDAR, radar, camera and positioning systems
πŸ›‘οΈ
Cybersecurity
Fleet, communications and software security
πŸ’»
Software Support
Diagnostics, mapping and update management
Figure 9
Autonomy Changes the Tow-Truck Cost Stack
Direction of expected steady-state cost effects; magnitude remains scenario-dependent.
Cost Category
Conventional
Autonomous
Driver Labor
HIGH
β–Ό LARGE
Dispatch / Administration
Moderate
β–Ό
AV Hardware / Software
Minimal
β–² LARGE
Insurance / Safety Cost
Baseline
β–Ό Potential
Fuel / Routing Waste
Baseline
β–Ό
Fleet Utilization
Human-limited
β–²
Freight-autonomy research shows substantial potential TCO savings, but this report applies a material haircut because roadside recovery is more complex than structured line-haul trucking.
Figure 10
Roadway-Clearance Productivity Spillover
Autonomous towing could create economic value outside the towing industry by reducing incident duration and vehicle downtime.
1,079
Interstate Miles
VDOT Safety Service Patrol coverage
232,000+
Motorist Assists
reported for 2025
β‰ˆ19,600
Lane-Impacting Incidents
district totals, 2024 estimate
Central Model Spillover
+$18 million / year
Attributed to faster clearance and reduced downtime in the report’s central GDP decomposition.
Figure 11
Technology Readiness: Freight Autonomy β‰  Autonomous Recovery
TODAY
Commercial autonomous freight
Aurora / structured trucking
TODAY
Middle-mile autonomy
Structured dock-to-dock operations
EARLY
Autonomous towing concepts
Patent / prototype-level evidence
2035?
Unsupervised roadside recovery
Still technically and regulatorily uncertain
Interpretation: 2035 is best treated as an earliest-plausible full-adoption scenario, not a forecast of when autonomous towing will necessarily become universal.
Figure 12
What Determines Whether Virginia Captures the Upside?
State GDP improves most when high-value AV activity remains inside Virginia rather than leaking to outside suppliers.
πŸŽ›οΈ
Remote Operations Centers
Retain technical operations and supervisory employment locally.
🧰
Calibration & Maintenance
Create a local service ecosystem for AV hardware and fleet systems.
πŸ›‘οΈ
Cybersecurity
Leverage Virginia’s existing technology and defense workforce.
πŸŽ“
Worker Transition
Reduce the induced GDP drag from prolonged driver displacement.
Figure 13
GDP Estimate Sensitivity
Direction and relative importance of the assumptions most capable of moving the final estimate.
Model Variable Low Case Base Case High Case GDP Sensitivity
Realized AV Efficiency Low Moderate High β˜…β˜…β˜…β˜…β˜…
Virginia Capture of AV Spending Low Moderate High β˜…β˜…β˜…β˜…β˜…
Worker Reemployment Slow Partial Rapid β˜…β˜…β˜…β˜…β˜†
Roadway Clearance Benefit Small Moderate Large β˜…β˜…β˜…β˜†β˜†
AV Capital Cost Low Moderate High β˜…β˜…β˜…β˜†β˜†
Figure 14
The Core Economic Trade-Off
State GDP
+$42M
Central annual estimate
Productivity rises even as the sector uses less labor.
Direct Employment
β–Ό
βˆ’1,200 to βˆ’1,900
Job displacement remains the dominant distributional cost.
Key finding: The transformation is more important as a labor-market and industrial-policy issue than as a statewide macroeconomic growth event.
Economic Study Summary
Virginia Autonomous Tow-Truck Transition
GDP Direction
Positive
Central Estimate
+$42M / yr
Base Range
+$15M–$70M
Employment
Net Negative
Confidence
Low–Moderate
Bottom Line
Full autonomous towing would probably increase Virginia GDP modestly while materially reducing employment within the traditional towing industry. The economic upside grows substantially if Virginia captures remote operations, AV maintenance, calibration, software support and cybersecurity activity locally.
Visualization methodology: Figures synthesize the report’s baseline and modeled results. Core sources include the U.S. Bureau of Economic Analysis, U.S. Bureau of Labor Statistics, U.S. Census Bureau, Virginia Department of Motor Vehicles, Virginia Department of Criminal Justice Services, Virginia Department of Transportation, Virginia Transportation Research Council, IBISWorld, GO Virginia, Aurora, Gatik, McKinsey and peer-reviewed autonomous-trucking research. Scenario, employment, value-added and GDP-impact figures identified as estimates are author-model outputs rather than official government forecasts.

[1] [2] [3] [5] [9] [12] [16] [19] [20] [22] [24] [27] [28] https://www.ibisworld.com/united-states/industry/virginia/automobile-towing/41848/ 

[4] [13] [25] https://patents.google.com/patent/US20190233034A1/en 

[6] https://fred.stlouisfed.org/series/VANQGSP 

[7] [26] https://www.dcjs.virginia.gov/licensure-and-regulatory-affairs/tow-truck-drivers 

[8] https://www.bls.gov/oes/oessrcres.htm 

[10] https://fred.stlouisfed.org/series/REVEF48841ALLEST 

[11] [21] https://www.dhcd.virginia.gov/sites/default/files/DocX/gova/region-eight/gova-r8-gd-plan-25.pdf 

https://www.dhcd.virginia.gov/sites/default/files/DocX/gova/region-eight/gova-r8-gd-plan-25.pdf 

[14] https://gatik.ai/ 

[15] https://www.vaco.org/county-connections/virginia-moves-toward-autonomous-vehicle-framework-as-work-group-convenes/ 

[17] [23] https://www.mdpi.com/2076-3417/13/18/10467 

[18] https://vdot.virginia.gov/about/programs/safety-service-patrol/