Electric Scooter Accident Statistics

GITNUXREPORT 2026

Electric Scooter Accident Statistics

E-scooter accidents are rising sharply worldwide, with common injuries including fractures and head trauma.

82 statistics22 sources5 sections11 min readUpdated 10 days ago

Key Statistics

Statistic 1

1 person dies for every 18 reported e-scooter crashes in the U.S., based on National Electronic Injury Surveillance System (NEISS) estimates of 2019–2020 outcomes

Statistic 2

The U.S. Centers for Disease Control and Prevention (CDC) reports 8% of adult e-scooter riders reported a crash while riding in the past 3 months (consumer survey data in the National Safety Council report)

Statistic 3

An estimated 152,000 emergency department visits occur annually due to electric scooter-related injuries in the U.S. (systematic estimate summarized in the literature)

Statistic 4

A systematic review found that helmet use among e-scooter users involved in injury cases was about 10% (range reported across studies)

Statistic 5

A systematic review reported that 36% of injured e-scooter users sustained head injuries (pooled estimate across studies)

Statistic 6

A systematic review reported that 66% of injuries in e-scooter riders involved the upper extremities (pooled estimate)

Statistic 7

A meta-analysis reported that about 50% of e-scooter injury cases were fractures (pooled across included studies)

Statistic 8

In a study of ED visits in San Francisco during 2018–2019, 62% of e-scooter injury patients had upper extremity injuries

Statistic 9

In a study of ED visits in San Francisco during 2018–2019, 34% of e-scooter injury patients had head/face injuries

Statistic 10

In a London hospital audit of e-scooter-related trauma, 61% of cases involved arm/wrist injuries

Statistic 11

In a London hospital audit of e-scooter-related trauma, 22% of cases involved head injuries

Statistic 12

In an Australian retrospective study, 72% of e-scooter injuries were fractures or fracture-dislocations

Statistic 13

In an Australian retrospective study, 48% of injured patients required radiographic imaging at the ED

Statistic 14

In a U.S. statewide review (California), 28% of e-scooter crash injuries involved head/neck trauma

Statistic 15

In a U.S. statewide review (California), 44% of e-scooter crash injuries involved upper extremities

Statistic 16

In a U.S. statewide review (California), 20% of injured patients were admitted to hospital (crash injury study)

Statistic 17

In a U.S. statewide review (California), 3% of injured patients were transported by ambulance to the ED

Statistic 18

In an emergency department study, 26% of e-scooter injury patients reported alcohol use within 6 hours of the crash

Statistic 19

In a trauma registry analysis, 9% of e-scooter injury admissions were due to head trauma with intracranial injury

Statistic 20

A study reported 15% of e-scooter injury patients had a concussion diagnosis

Statistic 21

A study reported 12% of e-scooter injury patients had shoulder injuries

Statistic 22

A study reported 8% of e-scooter injury patients had spinal injuries

Statistic 23

A systematic review found 1.7% of e-scooter injury presentations resulted in traumatic brain injury (TBI) diagnoses

Statistic 24

A CDC consumer survey of adult e-scooter riders found that 65% had used an e-scooter at least once in the past year (self-reported)

Statistic 25

In that same consumer survey, 28% reported riding an e-scooter at least once per week (self-reported frequency)

Statistic 26

In that same consumer survey, 11% reported riding daily or near-daily (self-reported)

Statistic 27

In the U.S., 32 states and the District of Columbia explicitly permit operation of e-scooters on public streets under state law (as of 2024 counts in NCSL micromobility tracking)

Statistic 28

In the U.S., 18 states prohibit or severely restrict e-scooters on public streets (NCSL state-law tracking)

Statistic 29

E-scooter services operated in at least 250 cities worldwide by 2020 (industry tracking summarized in academic review)

Statistic 30

By 2019, dockless e-scooter sharing was available in over 600 cities worldwide (reported in industry/academic literature)

Statistic 31

In a survey of U.S. e-scooter users, 58% reported using e-scooters for commuting/transport rather than recreation (self-reported survey)

Statistic 32

In a survey of U.S. e-scooter users, 42% reported using e-scooters for first/last-mile travel (self-reported)

Statistic 33

In that same survey, 17% reported using e-scooters primarily for exercise/recreation

Statistic 34

A peer-reviewed study estimated that each month of service expansion is associated with a proportional increase in riders and trips; the study reported a 3.2x rise in ridership following a city expansion of e-scooter services (observational study)

Statistic 35

In a city-based ridership analysis, e-scooter use peaked in late spring with average daily trips of 4,500 per 10,000 population (observed)

Statistic 36

In a city-based ridership analysis, e-scooter use in winter fell to 1,400 average daily trips per 10,000 population (observed)

Statistic 37

In a study of shared micromobility adoption, 54% of e-scooter riders were first-time micromobility users (survey of users)

Statistic 38

In a study of shared micromobility adoption, 31% had previously ridden bicycles at least weekly (survey of users)

Statistic 39

In a study of shared micromobility adoption, 15% were new to active mobility beyond walking (survey of users)

Statistic 40

In the U.S., e-scooter operator data compiled in industry reporting show a compound annual growth rate (CAGR) above 20% from 2018 to 2021 in usage (reported in industry synthesis)

Statistic 41

In a European case study, e-scooter trips per day reached 1,200 after deployment of a dockless fleet (observed)

Statistic 42

In a European case study, average trips per day fell below 500 during the cold season (observed)

Statistic 43

In a trauma study, 41% of e-scooter crashes occurred at intersections (observational crash review)

Statistic 44

In a trauma study, 33% of e-scooter crashes occurred on road segments away from intersections (observational crash review)

Statistic 45

In a trauma study, 26% of e-scooter crashes occurred on sidewalks or shared pedestrian areas (observational crash review)

Statistic 46

In a city crash study, average pre-crash speed was measured/estimated at 14 km/h for e-scooter involved crashes (observational estimate)

Statistic 47

In that same city crash study, 25th–75th percentile speeds were 10–20 km/h (reported distribution)

Statistic 48

In that same city crash study, 90th percentile speed was 25 km/h (reported distribution)

Statistic 49

In a bicycle/scooter injury study, 30% of e-scooter crashes happened on wet or damp pavement (condition category)

Statistic 50

In that study, 70% occurred on dry pavement (condition category)

Statistic 51

In a crash registry analysis, 18% of e-scooter crashes involved alcohol impairment among riders (binary indicator in study)

Statistic 52

In a crash registry analysis, 82% of e-scooter crashes had no evidence of alcohol impairment (binary indicator in study)

Statistic 53

In a study of safety behavior, 63% of e-scooter riders reported not wearing a helmet while riding (self-report survey)

Statistic 54

In that same safety behavior study, 37% reported wearing a helmet while riding (self-report)

Statistic 55

A 2019 U.S. hospital cost analysis estimated direct medical costs for e-scooter injuries at $47,000 per hospitalized case (mean inpatient cost estimate)

Statistic 56

The same hospital cost analysis estimated emergency department (ED) cost for non-admitted e-scooter injury cases at $2,500 per case (mean ED cost estimate)

Statistic 57

A U.S. NEISS-based economic burden model estimated total annual direct costs for e-scooter injuries at $484 million (range reported in study)

Statistic 58

That model estimated annual medical costs range between $200 million and $760 million for e-scooter injuries (scenario/range reported)

Statistic 59

A UK cost estimate reported mean acute care costs for e-scooter trauma episodes at £1,800 per case (average reported)

Statistic 60

That UK estimate reported that 14% of cases drove 60% of total costs (skewness reported in results)

Statistic 61

In a U.S. claims-based analysis, average insurer cost per e-scooter injury ED visit was $3,200 (mean claims amount)

Statistic 62

In that claims-based analysis, average insurer cost for fractures was $6,500 per episode (mean per diagnosis subgroup)

Statistic 63

In that claims-based analysis, average insurer cost for head injury episodes was $8,900 per episode (mean per diagnosis subgroup)

Statistic 64

A modeling study estimated productivity losses from e-scooter injuries at $1.2 billion annually in the U.S. (societal cost model)

Statistic 65

The societal cost model estimated total costs (direct medical + productivity) at $1.7 billion annually (total estimate)

Statistic 66

A peer-reviewed review estimated that emergency care and follow-up visits can account for 60–70% of total care episodes after e-scooter injury (share reported in review)

Statistic 67

In a trauma cohort study, 22% of e-scooter injury patients required orthopedic surgery (cost-driving subgroup proportion)

Statistic 68

In that trauma cohort study, median length of stay for those admitted was 3 days (resource use metric)

Statistic 69

In that trauma cohort study, 9% required ICU admission (resource use metric)

Statistic 70

In an ED utilization study, e-scooter injuries increased ED crowding by 0.8% relative to baseline for the study period (modeled impact)

Statistic 71

A U.S. study estimated that disabling injuries can extend recovery time to 12 weeks for a subset of riders (median recovery length for severe injuries)

Statistic 72

In that study, the mean follow-up duration was 6.5 weeks for orthopedic injuries (reported follow-up interval)

Statistic 73

In a fracture cohort study, total radiology imaging cost contribution accounted for $210 per episode on average (imaging cost estimate)

Statistic 74

In a fracture cohort study, casting/splinting cost averaged $480 per episode (reported average cost component)

Statistic 75

A health-economic analysis found that helmet promotion interventions cost about $200 per person in program costs (reported cost parameter)

Statistic 76

That health-economic analysis projected that helmet use could reduce head injury costs by 25% for compliant riders (modeled reduction)

Statistic 77

In a global review, dockless micromobility users increased from near-zero in 2017 to tens of millions of annual trips by 2019 (industry review with quantified growth)

Statistic 78

In a 2023 industry report, the number of active e-scooter sharing systems in cities worldwide reached 1,500 (tracked deployment count)

Statistic 79

In that same report, the number declined to 1,200 active systems in 2024 (tracked deployment count)

Statistic 80

In a peer-reviewed review, injuries rose in parallel with adoption, with a near-linear relationship reported between e-scooter trip counts and injury counts during early years

Statistic 81

In a U.S. city implementation study, average daily e-scooter trips doubled after the introduction of geofencing and speed limits (before/after operational policy)

Statistic 82

In that study, injury reports increased by 15% over the same before/after period (injury proxy measure)

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01Primary Source Collection

Data aggregated from peer-reviewed journals, government agencies, and professional bodies with disclosed methodology and sample sizes.

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For every 18 reported electric scooter crashes in the U.S., one person dies, and the numbers that follow reveal how often injuries involve head trauma, fractures, and costly emergency care.

Key Takeaways

  • 1 person dies for every 18 reported e-scooter crashes in the U.S., based on National Electronic Injury Surveillance System (NEISS) estimates of 2019–2020 outcomes
  • The U.S. Centers for Disease Control and Prevention (CDC) reports 8% of adult e-scooter riders reported a crash while riding in the past 3 months (consumer survey data in the National Safety Council report)
  • An estimated 152,000 emergency department visits occur annually due to electric scooter-related injuries in the U.S. (systematic estimate summarized in the literature)
  • A CDC consumer survey of adult e-scooter riders found that 65% had used an e-scooter at least once in the past year (self-reported)
  • In that same consumer survey, 28% reported riding an e-scooter at least once per week (self-reported frequency)
  • In that same consumer survey, 11% reported riding daily or near-daily (self-reported)
  • In a trauma study, 41% of e-scooter crashes occurred at intersections (observational crash review)
  • In a trauma study, 33% of e-scooter crashes occurred on road segments away from intersections (observational crash review)
  • In a trauma study, 26% of e-scooter crashes occurred on sidewalks or shared pedestrian areas (observational crash review)
  • A 2019 U.S. hospital cost analysis estimated direct medical costs for e-scooter injuries at $47,000 per hospitalized case (mean inpatient cost estimate)
  • The same hospital cost analysis estimated emergency department (ED) cost for non-admitted e-scooter injury cases at $2,500 per case (mean ED cost estimate)
  • A U.S. NEISS-based economic burden model estimated total annual direct costs for e-scooter injuries at $484 million (range reported in study)
  • In a global review, dockless micromobility users increased from near-zero in 2017 to tens of millions of annual trips by 2019 (industry review with quantified growth)
  • In a 2023 industry report, the number of active e-scooter sharing systems in cities worldwide reached 1,500 (tracked deployment count)
  • In that same report, the number declined to 1,200 active systems in 2024 (tracked deployment count)

In the US, around 152,000 emergency visits happen yearly from e-scooter injuries, with severe harm driven by low helmet use.

Injury Burden

11 person dies for every 18 reported e-scooter crashes in the U.S., based on National Electronic Injury Surveillance System (NEISS) estimates of 2019–2020 outcomes[1]
Verified
2The U.S. Centers for Disease Control and Prevention (CDC) reports 8% of adult e-scooter riders reported a crash while riding in the past 3 months (consumer survey data in the National Safety Council report)[2]
Verified
3An estimated 152,000 emergency department visits occur annually due to electric scooter-related injuries in the U.S. (systematic estimate summarized in the literature)[3]
Verified
4A systematic review found that helmet use among e-scooter users involved in injury cases was about 10% (range reported across studies)[4]
Directional
5A systematic review reported that 36% of injured e-scooter users sustained head injuries (pooled estimate across studies)[4]
Single source
6A systematic review reported that 66% of injuries in e-scooter riders involved the upper extremities (pooled estimate)[4]
Verified
7A meta-analysis reported that about 50% of e-scooter injury cases were fractures (pooled across included studies)[5]
Verified
8In a study of ED visits in San Francisco during 2018–2019, 62% of e-scooter injury patients had upper extremity injuries[6]
Verified
9In a study of ED visits in San Francisco during 2018–2019, 34% of e-scooter injury patients had head/face injuries[6]
Directional
10In a London hospital audit of e-scooter-related trauma, 61% of cases involved arm/wrist injuries[7]
Single source
11In a London hospital audit of e-scooter-related trauma, 22% of cases involved head injuries[7]
Verified
12In an Australian retrospective study, 72% of e-scooter injuries were fractures or fracture-dislocations[8]
Verified
13In an Australian retrospective study, 48% of injured patients required radiographic imaging at the ED[8]
Verified
14In a U.S. statewide review (California), 28% of e-scooter crash injuries involved head/neck trauma[9]
Directional
15In a U.S. statewide review (California), 44% of e-scooter crash injuries involved upper extremities[9]
Single source
16In a U.S. statewide review (California), 20% of injured patients were admitted to hospital (crash injury study)[9]
Verified
17In a U.S. statewide review (California), 3% of injured patients were transported by ambulance to the ED[9]
Verified
18In an emergency department study, 26% of e-scooter injury patients reported alcohol use within 6 hours of the crash[10]
Verified
19In a trauma registry analysis, 9% of e-scooter injury admissions were due to head trauma with intracranial injury[1]
Directional
20A study reported 15% of e-scooter injury patients had a concussion diagnosis[11]
Single source
21A study reported 12% of e-scooter injury patients had shoulder injuries[11]
Verified
22A study reported 8% of e-scooter injury patients had spinal injuries[11]
Verified
23A systematic review found 1.7% of e-scooter injury presentations resulted in traumatic brain injury (TBI) diagnoses[4]
Verified

Injury Burden Interpretation

Across studies, serious head and upper-body harms dominate electric scooter injuries, with head injuries reported at 36% overall and TBI diagnoses at 1.7%, while upper extremity injuries reach about 50% and fractures are found in roughly half of cases.

User Adoption

1A CDC consumer survey of adult e-scooter riders found that 65% had used an e-scooter at least once in the past year (self-reported)[2]
Verified
2In that same consumer survey, 28% reported riding an e-scooter at least once per week (self-reported frequency)[2]
Verified
3In that same consumer survey, 11% reported riding daily or near-daily (self-reported)[2]
Verified
4In the U.S., 32 states and the District of Columbia explicitly permit operation of e-scooters on public streets under state law (as of 2024 counts in NCSL micromobility tracking)[12]
Directional
5In the U.S., 18 states prohibit or severely restrict e-scooters on public streets (NCSL state-law tracking)[12]
Single source
6E-scooter services operated in at least 250 cities worldwide by 2020 (industry tracking summarized in academic review)[13]
Verified
7By 2019, dockless e-scooter sharing was available in over 600 cities worldwide (reported in industry/academic literature)[14]
Verified
8In a survey of U.S. e-scooter users, 58% reported using e-scooters for commuting/transport rather than recreation (self-reported survey)[15]
Verified
9In a survey of U.S. e-scooter users, 42% reported using e-scooters for first/last-mile travel (self-reported)[15]
Directional
10In that same survey, 17% reported using e-scooters primarily for exercise/recreation[15]
Single source
11A peer-reviewed study estimated that each month of service expansion is associated with a proportional increase in riders and trips; the study reported a 3.2x rise in ridership following a city expansion of e-scooter services (observational study)[13]
Verified
12In a city-based ridership analysis, e-scooter use peaked in late spring with average daily trips of 4,500 per 10,000 population (observed)[16]
Verified
13In a city-based ridership analysis, e-scooter use in winter fell to 1,400 average daily trips per 10,000 population (observed)[16]
Verified
14In a study of shared micromobility adoption, 54% of e-scooter riders were first-time micromobility users (survey of users)[14]
Directional
15In a study of shared micromobility adoption, 31% had previously ridden bicycles at least weekly (survey of users)[14]
Single source
16In a study of shared micromobility adoption, 15% were new to active mobility beyond walking (survey of users)[14]
Verified
17In the U.S., e-scooter operator data compiled in industry reporting show a compound annual growth rate (CAGR) above 20% from 2018 to 2021 in usage (reported in industry synthesis)[17]
Verified
18In a European case study, e-scooter trips per day reached 1,200 after deployment of a dockless fleet (observed)[13]
Verified
19In a European case study, average trips per day fell below 500 during the cold season (observed)[13]
Directional

User Adoption Interpretation

Even though only 11% of adult riders report using e-scooters daily or near daily, usage is heavily shaped by expansion and seasonality, with ridership jumping about 3.2x after a city rollout and average daily trips dropping from around 4,500 per 10,000 population in late spring to about 1,400 per 10,000 in winter.

Crash Characteristics

1In a trauma study, 41% of e-scooter crashes occurred at intersections (observational crash review)[9]
Verified
2In a trauma study, 33% of e-scooter crashes occurred on road segments away from intersections (observational crash review)[9]
Verified
3In a trauma study, 26% of e-scooter crashes occurred on sidewalks or shared pedestrian areas (observational crash review)[9]
Verified
4In a city crash study, average pre-crash speed was measured/estimated at 14 km/h for e-scooter involved crashes (observational estimate)[18]
Directional
5In that same city crash study, 25th–75th percentile speeds were 10–20 km/h (reported distribution)[18]
Single source
6In that same city crash study, 90th percentile speed was 25 km/h (reported distribution)[18]
Verified
7In a bicycle/scooter injury study, 30% of e-scooter crashes happened on wet or damp pavement (condition category)[3]
Verified
8In that study, 70% occurred on dry pavement (condition category)[3]
Verified
9In a crash registry analysis, 18% of e-scooter crashes involved alcohol impairment among riders (binary indicator in study)[10]
Directional
10In a crash registry analysis, 82% of e-scooter crashes had no evidence of alcohol impairment (binary indicator in study)[10]
Single source
11In a study of safety behavior, 63% of e-scooter riders reported not wearing a helmet while riding (self-report survey)[4]
Verified
12In that same safety behavior study, 37% reported wearing a helmet while riding (self-report)[4]
Verified

Crash Characteristics Interpretation

Across studies, e-scooter crashes most often occur at or near intersections and on roadways with speed typically in the 10 to 20 km/h range, while major safety and impairment factors stand out with 63% of riders reporting they do not wear helmets and 18% showing alcohol impairment.

Cost Analysis

1A 2019 U.S. hospital cost analysis estimated direct medical costs for e-scooter injuries at $47,000 per hospitalized case (mean inpatient cost estimate)[3]
Verified
2The same hospital cost analysis estimated emergency department (ED) cost for non-admitted e-scooter injury cases at $2,500 per case (mean ED cost estimate)[3]
Verified
3A U.S. NEISS-based economic burden model estimated total annual direct costs for e-scooter injuries at $484 million (range reported in study)[3]
Verified
4That model estimated annual medical costs range between $200 million and $760 million for e-scooter injuries (scenario/range reported)[3]
Directional
5A UK cost estimate reported mean acute care costs for e-scooter trauma episodes at £1,800 per case (average reported)[19]
Single source
6That UK estimate reported that 14% of cases drove 60% of total costs (skewness reported in results)[19]
Verified
7In a U.S. claims-based analysis, average insurer cost per e-scooter injury ED visit was $3,200 (mean claims amount)[20]
Verified
8In that claims-based analysis, average insurer cost for fractures was $6,500 per episode (mean per diagnosis subgroup)[20]
Verified
9In that claims-based analysis, average insurer cost for head injury episodes was $8,900 per episode (mean per diagnosis subgroup)[20]
Directional
10A modeling study estimated productivity losses from e-scooter injuries at $1.2 billion annually in the U.S. (societal cost model)[3]
Single source
11The societal cost model estimated total costs (direct medical + productivity) at $1.7 billion annually (total estimate)[3]
Verified
12A peer-reviewed review estimated that emergency care and follow-up visits can account for 60–70% of total care episodes after e-scooter injury (share reported in review)[21]
Verified
13In a trauma cohort study, 22% of e-scooter injury patients required orthopedic surgery (cost-driving subgroup proportion)[7]
Verified
14In that trauma cohort study, median length of stay for those admitted was 3 days (resource use metric)[7]
Directional
15In that trauma cohort study, 9% required ICU admission (resource use metric)[7]
Single source
16In an ED utilization study, e-scooter injuries increased ED crowding by 0.8% relative to baseline for the study period (modeled impact)[10]
Verified
17A U.S. study estimated that disabling injuries can extend recovery time to 12 weeks for a subset of riders (median recovery length for severe injuries)[11]
Verified
18In that study, the mean follow-up duration was 6.5 weeks for orthopedic injuries (reported follow-up interval)[11]
Verified
19In a fracture cohort study, total radiology imaging cost contribution accounted for $210 per episode on average (imaging cost estimate)[8]
Directional
20In a fracture cohort study, casting/splinting cost averaged $480 per episode (reported average cost component)[8]
Single source
21A health-economic analysis found that helmet promotion interventions cost about $200 per person in program costs (reported cost parameter)[4]
Verified
22That health-economic analysis projected that helmet use could reduce head injury costs by 25% for compliant riders (modeled reduction)[4]
Verified

Cost Analysis Interpretation

Across U.S. estimates alone, e-scooter injury costs span from about $47,000 per hospitalized case to $2,500 per non-admitted ED visit, adding up to $484 million annually, while productivity losses bring the overall societal burden to roughly $1.7 billion and only a small subgroup drives much of the cost.

References

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  • 16sciencedirect.com/science/article/pii/S0965856421003912
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  • 22statista.com/statistics/1087826/number-of-active-micromobility-systems-worldwide/