The field of pedestrian safety has advanced with new evidence related to pediatric pedestrian education, the risks of distracted walking, the benefits of design and programming in safe routes to school, and the emergence of the “Vision Zero” strategy to eliminate all traffic fatalities and severe injuries while increasing safe, healthy, equitable mobility for all.

This statement is a revision of the 2009 American Academy of Pediatrics policy statement “Pedestrian Safety” and is accompanied by a technical report (www.pediatrics.org/cgi/doi/10.1542/peds.2023-062508) providing additional detail to support recommendations. This statement is intended to assist practicing pediatricians to offer evidence-based advice to families about the benefits of active transportation and the specific risks and safety precautions to consider for child pedestrians at different ages. For community pediatricians and the American Academy of Pediatrics, the statement provides an overview of specific programs and policies that, if implemented, could foster independent mobility for children while increasing pediatric pedestrian safety. This statement identifies trends in public health and urban design relevant to pedestrian safety.

At some point in the day, almost everyone is a pedestrian, whether walking independently or with the support of an assistive device. Walking is the most fundamental mode of human transport and is a part of every trip, even those completed by driving or on public transit. Although pedestrian deaths decreased consistently over most of the last 30 years, child pedestrian mortality rates have shown an increase of 11% since 2013, driven by increases among 10- to 14-year-olds and 15- to 19-year-olds.1  Fatality data suggest that evenings (from 6:00–9:00 pm) are the riskiest times of day for child pedestrians. Sixty-four percent of deaths occur in daylight hours or at dusk,2  and most (62%) child pedestrian traffic fatalities occurred mid-block, rather than at intersections.2 

The burden of pedestrian injuries differentially impacts certain populations. As with most mechanisms, males are more likely to be injured as pedestrians.3  The risk of child pedestrian death is greater in rural (0.85 per 100 000) than urban (0.66 per 100 000) areas.3  Children with disabilities are also at disproportionate risk.4  People who use wheelchairs experience a well-documented pedestrian mortality disparity.5  Preschool-aged children have a higher pedestrian death rate (typically from nontraffic incidents in driveways or parking lots) than do school-aged children. Rates climb again in the teen years when more children become independently mobile as pedestrians. The rate of death of Black and American Indian pedestrians younger than 19 years is 1.8 times that of white children, whereas the risk to Hispanic children is 1.2 times the risk to non-Hispanic children.3  Factors underlying these inequities include the pervasive impacts of poverty, economic disparities in access to public transportation, individual and systemic racism, and disparities in the investment of transportation safety measures, such as sidewalks, to separate pedestrians from vehicles.6,7  Low-income areas often have interrupted sidewalk networks and larger roads with a higher traffic burden, which both increase the likelihood of traffic conflicts between pedestrians and vehicles.8 

Active transport to school—walking or riding a bicycle—is an appealing public health strategy for promoting physical activity and reducing pediatric obesity.9  However, the safety of commuting to school on foot is integrally related to measures that separate walkers from vehicles and slow vehicle speeds. Compared with automobile passengers, child pedestrians experience double the risk of injury or fatality, whether measured per trip or per mile traveled.10  Because children from lower socioeconomic backgrounds are more likely to travel as pedestrians, these disparities in risk and exposure contribute to inequities in health outcomes.11,12  Targeted public health interventions aim to make walking safer, not to discourage pedestrian activity.

Child pedestrian safety can be characterized on a spectrum from active programs designed to educate or train individuals to change their behavior, to passive interventions that increase the safety of products or environments in a manner that impacts all users.13  These passive interventions tend to be more costly and difficult to implement but are also more likely to result in real and sustained reductions in injury incidence.14 

Road environments should safely accommodate the needs of all users. Although streets were used for all manner of social activity until the advent of the automobile, the early 20th century saw a cultural change wherein roads were viewed as solely for the rapid conveyance of motorized traffic.15  This perspective was actively encouraged by campaigns that characterized pedestrian injury as the result of irresponsible individual behavior.16  This focus on the behavior of the victim obscures the fact that speed, technology, and road design create the context in which these injuries occur. Planning and policy can be used to make the streets safer for all users, regardless of age or ability. This includes traffic-calming measures, increasing walkability through changes in the built environment, urban planning with the pedestrian in mind, and legislative advocacy for pedestrian-friendly policies.

Complete Streets policies promote the development and use of roadways with all forms of transportation and people in mind, including motor vehicles, pedestrians, bicyclists, and others.17  These policies are most effective when implemented in conjunction with land use development with all forms of transportation in mind, and education, enforcement, and technology use. This type of coordination requires a multidisciplinary effort including policy makers, city planners, architects, and developers.18 

“Vision Zero” is another effort focused on the reduction of traffic fatalities and severe injuries. Vision Zero is built on the premise that traffic injuries are a public health problem in which human error is assumed and accepted, and solutions are created with that assumption at the foundation.19  This effort has shifted the focus away from individual behavior and toward systemwide change created with human error in mind. After implementation of Vision Zero policies in Sweden, there was a 50% reduction in pedestrian fatalities.20  In the United States, as of 2016, there were over 30 cities in which Vision Zero was being implemented.19 

Modifications in automobile product design are integral components of many injury-prevention campaigns. Design features to reduce severity of pedestrian injuries include soft bumpers, an active hood mechanism to provide a more forgiving crumple-zone, and pedestrian airbags to protect from impacts on the windscreen or frame.21  Technological improvements in vehicle function include pedestrian crash avoidance and automatic braking systems, seen by many as steps toward fully autonomous vehicles (AV). As this technology advances, the ability of AVs to detect and avoid pedestrians has been one source of concern. AVs depend on prediction software, cameras, and a collection of sensors to detect the environment (including pedestrians).22  Child pedestrians are smaller and less predictable in their roadside behavior and may not be well served by algorithms that are adequate for adults.23  Thus, although AVs have the potential to decrease pedestrian crash risk, the technology may intensify age-related disparities by primarily reducing crashes with adults.24,25 

Although changes in policy, planning, and the built environment have the greatest potential to improve pedestrian safety, many of the most promoted strategies to address pedestrian risk focus on individual-level interventions to improve the skills or behavior of child pedestrians, their adult guardians, or the drivers with whom they interact.

Pedestrian and driver distraction are two factors that increase the risk of a pedestrian being struck. Almost 500 000 people drive daily while using cell phones26  and up to 14% of those injured by distracted drivers are pedestrians.27  Pedestrians can also be distracted.28,29  Observational data show that, when using smartphones and other devices, both children and adults are less likely to follow basic safety measures when crossing the street.3032 

Although there are promising educational techniques for improving the skills needed to navigate roadways and intersections, these require careful attention to implementation and will not, alone, ensure the safety of child pedestrians.33,34  The literature does suggest that pedestrian safety hinges on skills that can be actively learned and that, at some point, can reliably be taught. However, the abilities and developmental level of the individual child are important, and it is unlikely that most children can be taught to safely navigate diverse traffic environments earlier than 10 years of age.35 

To reduce pediatric morbidity and mortality from pedestrian injury and promote walking and increased physical activity, the American Academy of Pediatrics recommends the following:

  1. Legislative advocacy: to address environmental and urban design factors that impact pedestrian safety. Pediatricians can work with local, state, or federal lawmakers to do the following:

    • Encourage support for Complete Streets policies and the Vision Zero strategy.

    • Support legislation to reduce speed limits in urban areas, including areawide 20 mph zones, and to permit photo speed limit enforcement in critical areas, including school zones.

    • Develop legislation to encourage or require adoption of safety technology, such as pedestrian detection systems and automatic braking in new vehicles.

    • Advocate for the unique needs of child pedestrians as algorithms and technologies to control autonomous vehicles are developed.

  2. Advocacy: As community experts in child and adolescent health, pediatricians can do the following, placing special priority on high-risk communities and minority populations:

    • Lobby for safer and healthier pedestrian environments through engineering and design approaches in the local community.

    • Support, or introduce and promote, community-level Vision Zero interventions.

    • Support, or introduce and promote, Safe Routes to School interventions.

    • Promote safe and active transport, including walking, as an alternative to motorized conveyance, to reduce vehicular traffic and increase demand for pedestrian amenities.

    • Advocate for pedestrian infrastructure when communities consider how to repurpose urban space and roadway lanes that are freed up by a reduced demand for parking as autonomous vehicles become more prevalent.

    • Lobby for areawide 20 mph zones in residential or commercial districts to reduce pedestrian injury risk and improve walkability.

    • Support research to further understand and test interventions for pedestrian education for children and their caregivers.

    • Support the development of more robust surveillance systems to collect exposure data for pediatric pedestrians and identify high-risk locations for pediatric pedestrian injury.

  3. Anticipatory guidance: Although legislative and community advocacy, as discussed above, have the most potential to make a significant impact on pedestrian safety as a public health problem, it is important for pediatricians to also provide individual guidance to families. Important pedestrian safety-centered anticipatory guidance for children and their parents includes the following:

    • Remind parents of the complexity of the traffic environment and the unique vulnerability of child pedestrians exposed to tasks that exceed their cognitive, perceptual, and behavioral abilities.

    • Advise parents of young children that driveways and adjacent, unfenced yards are unsafe play areas, because small children may not be seen by drivers in backing vehicles.

    • Recommend adult accompaniment, with ongoing, active instruction on pedestrian safety, for most child pedestrians younger than 10 years of age, in most environments. Depending on their developmental level, older children may be granted more independence. When they are granted more independence, it should be given on protected routes with signalized crossings in low-traffic environments.

    • Encourage parents of children with limited mobility or other disabilities to invest extra time in helping their child to acquire pedestrian skills. This might include selection of routes with low barriers to mobility, interventions to increase pedestrian visibility, instruction on use of audible pedestrian signals, and white-cane skills for children with visual impairment.

    • Counsel patients of all ages about the risk of distracted walking, including text messaging, talking on or looking at the mobile phone, and listening to music.

Walking is the basic mode of human locomotion and, for children, the primary source of independent mobility. Active transport is associated with a host of physical and mental health benefits. However, when pedestrians share the roadway with vehicular traffic, they face real risk of injury or death. Child pedestrian mortality decreased for the last 3 decades but has shown an upward trend in recent years, with disproportionate impact on low-income and underrepresented ethnic communities.

The most important interventions to address pedestrian safety involve urban planning and street design to safely accommodate all users. The Vision Zero initiative assumes that a target of no pedestrian fatalities or serious injuries is realistic with appropriate design and infrastructure investment. The development of autonomous vehicles presents urgent new opportunities to enhance child pedestrian safety. And although environmental modifications should have top priority, there is also a need for continued innovation and rigorous testing of educational interventions to help parents and communities safely train young pedestrians.

  • Sadiqa Kendi, MD, FAAP

  • Brian D. Johnston, MD, MPH, FAAP

  • Benjamin Hoffman, MD, FAAP, Chairperson

  • Phyllis F. Agran, MD, MPH, FAAP

  • Alison Culyba, MD, MPH, PhD, FAAP

  • James Dodington, MD, FAAP

  • Brian Johnston, MD, MPH, FAAP

    Sadiqa Kendi, MD, FAAP

  • Lois K. Lee, MD, MPH, FAAP

  • Terri McFadden, MD, FAAP

  • Kathy Monroe, MD, FAAP

  • Milton Tenenbein, MD, FAAP

  • Kyran Quinlan, MD, MPH, FAAP, Immediate Past Chairperson

  • Suzanne Beno, MD – Canadian Pediatric Society

  • Cinnamon Dixon, DO, MPH, FAAP – National Institute of Child Health and Human Development

  • Laura Dunn, MPH, CPST-I – National Highway Traffic Safety Administration

  • Jonathan D. Midgett, PhD – Consumer Product Safety Commission

  • Bethany Miller, MSW, Med – Health Resources and Services Administration

  • Judith Qualters, PhD – Centers for Disease Control and Prevention

Bonnie Kozial

Drs Kendi and Johnston together conducted the literature review, drafted the statement, and formulated all recommendations; and both authors approved the final manuscript as submitted and agree to be accountable for all aspects of the work.

Policy statements from the American Academy of Pediatrics benefit from expertise and resources of liaisons and internal (AAP) and external reviewers. However, policy statements from the American Academy of Pediatrics may not reflect the views of the liaisons or the organizations or government agencies that they represent.

The guidance in this statement does not indicate an exclusive course of treatment or serve as a standard of medical care. Variations, taking into account individual circumstances, may be appropriate.

All policy statements from the American Academy of Pediatrics automatically expire 5 years after publication unless reaffirmed, revised, or retired at or before that time.

COMPANION PAPER: A companion to this article can be found online at www.pediatrics.org/cgi/doi/10.1542/peds.2023-062508.

This document is copyrighted and is property of the American Academy of Pediatrics and its Board of Directors. All authors have filed conflict of interest statements with the American Academy of Pediatrics. Any conflicts have been resolved through a process approved by the Board of Directors. The American Academy of Pediatrics has neither solicited nor accepted any commercial involvement in the development of the content of this publication.

AV

autonomous vehicles

1
Coleman
H
,
Mizenko
K
.
Pedestrian and Bicyclist Data Analysis (Research Note. Report No. DOT HS 812 502)
.
Washington, DC
:
National Highway Traffic Safety Administration
;
2018
2
National Center for Statistics and Analysis
.
Children: 2020 data (traffic safety facts report No. DOT HS 813 285)
.
National Highway Traffic Safety Administration
;
2022
3
Centers for Disease Control and Prevention, National Center for Injury Prevention and Control
.
Web-based Injury Statistics Query and Reporting System (WISQARS) fatal injury data
.
Available at: https://www.cdc.gov/injury/wisqars/fatal.html. Accessed October 7, 2022
4
Xiang
H
,
Zhu
M
,
Sinclair
SA
,
Stallones
L
,
Wilkins
JR
III
,
Smith
GA
.
Risk of vehicle-pedestrian and vehicle-bicyclist collisions among children with disabilities
.
Accid Anal Prev
.
2006
;
38
(
6
):
1064
1070
5
Kraemer
JD
,
Benton
CS
.
Disparities in road crash mortality among pedestrians using wheelchairs in the USA: results of a capture-recapture analysis
.
BMJ Open
.
2015
;
5
(
11
):
e008396
6
Schwebel
DC
,
Davis
AL
,
O’Neal
EE
.
Child pedestrian injury: a review of behavioral risks and preventive strategies
.
Am J Lifestyle Med
.
2012
;
6
(
4
):
292
302
7
Goddard
T
,
Kahn
KB
,
Adkins
A
.
Racial bias in driver yielding behavior at crosswalks
.
Transp Res, Part F Traffic Psychol Behav
.
2015
;
33
:
1
6
8
Yu
CY
,
Zhu
X
,
Lee
C
.
Income and racial disparity and the role of the built environment in pedestrian injuries
.
J Plan Educ Res
.
2022
;
42
(
2
):
136
149
9
Larouche
R
,
Saunders
TJ
,
Faulkner
G
,
Colley
R
,
Tremblay
M
.
Associations between active school transport and physical activity, body composition, and cardiovascular fitness: a systematic review of 68 studies
.
J Phys Act Health
.
2014
;
11
(
1
):
206
227
10
Beck
LF
,
Dellinger
AM
,
O’Neil
ME
.
Motor vehicle crash injury rates by mode of travel, United States: using exposure-based methods to quantify differences
.
Am J Epidemiol
.
2007
;
166
(
2
):
212
218
11
Schofield
GM
,
Gianotti
S
,
Badland
HM
,
Hinckson
EA
.
The incidence of injuries traveling to and from school by travel mode
.
Prev Med
.
2008
;
46
(
1
):
74
76
12
Sonkin
B
,
Edwards
P
,
Roberts
I
,
Green
J
.
Walking, cycling and transport safety: an analysis of child road deaths
.
J R Soc Med
.
2006
;
99
(
8
):
402
405
13
Christoffel
T
,
Gallagher
SS
.
Injury Prevention and Public Health: Practical Knowledge, Skills, and Strategies
.
Burlington, MA
:
Jones & Bartlett Learning
;
2006
14
Peek-Asa
C
,
Zwerling
C
.
Role of environmental interventions in injury control and prevention
.
Epidemiol Rev
.
2003
;
25
(
1
):
77
89
15
Norton
PD
.
Fighting Traffic: The Dawn of the Motor Age in the American City
.
Cambridge, MA
:
MIT Press
;
2011
16
Norton
PD
.
Street rivals: Jaywalking and the invention of the motor age street
.
Technol Cult
.
2007
;
48
(
2
):
331
359
17
Smart Growth America
.
National Complete Streets Coalition
.
18
Geraghty
AB
,
Seifert
W
,
Preston
T
,
Holm
CV
,
Duarte
TH
,
Farrar
SM
.
Partnership moves community toward complete streets
.
Am J Prev Med
.
2009
;
37
(
6
Suppl 2
):
S420
S427
19
Vision Zero Network
.
What is Vision Zero?
Available at: https://visionzeronetwork.org/about/what-is-vision-zero/. Accessed October 7, 2022
20
Smart Growth America
.
Vision Zero: learning from Sweden’s successes
.
Available at: https://centerforactivedesign.org/visionzero. Accessed October 7, 2022
21
World Health Organization
.
Global Status Report on Road Safety
.
Geneva, Switzerland
:
Safer Vehicles and Roads
;
2015
:
46
59
22
Combs
TS
,
Sandt
LS
,
Clamann
MP
,
McDonald
NC
.
Automated vehicles and pedestrian safety: exploring the promise and limits of pedestrian detection
.
Am J Prev Med
.
2019
;
56
(
1
):
1
7
23
Millard-Ball
A
.
Pedestrians, autonomous vehicles, and cities
.
J Plann Educ Res
.
2018
;
38
(
1
):
6
12
24
Navarro
PJ
,
Fernández
C
,
Borraz
R
,
Alonso
D
.
A machine learning approach to pedestrian detection for autonomous vehicles using high-definition 3D range data
.
Sensors (Basel)
.
2016
;
17
(
1
):
18
25
Dimitrievski
M
,
Veelaert
P
,
Philips
W
.
Behavioral pedestrian tracking using a camera and LiDAR Sensors on a Moving Vehicle
.
Sensors (Basel)
.
2019
;
19
(
2
):
391
26
US Department of Transportation
.
Distracted driving
.
Available at: https://www.nhtsa.gov/risky-driving/distracted-driving. Accessed October 7, 2022
27
National Center for Statistics and Analysis
.
Distracted Driving 2018 (Traffic Safety Facts, Report No. DOT HS 812 926)
.
Washington, DC
:
National Highway Traffic Safety Administration
;
2020
28
Stavrinos
D
,
Pope
CN
,
Shen
J
,
Schwebel
DC
.
Distracted walking, bicycling, and driving: systematic review and meta-analysis of mobile technology and youth crash risk
.
Child Dev
.
2018
;
89
(
1
):
118
128
29
Simmons
SM
,
Caird
JK
,
Ta
A
,
Sterzer
F
,
Hagel
BE
.
Plight of the distracted pedestrian: a research synthesis and meta-analysis of mobile phone use on crossing behavior
.
Inj Prev
.
2020
;
26
(
2
):
170
176
30
Thompson
LL
,
Rivara
FP
,
Ayyagari
RC
,
Ebel
BE
.
Impact of social and technological distraction on pedestrian crossing behavior: an observational study
.
Inj Prev
.
2013
;
19
(
4
):
232
237
31
Schwebel
DC
,
Stavrinos
D
,
Byington
KW
,
Davis
T
,
O’Neal
EE
,
de Jong
D
.
Distraction and pedestrian safety: how talking on the phone, texting, and listening to music impact crossing the street
.
Accid Anal Prev
.
2012
;
45
(
2
):
266
271
32
Stavrinos
D
,
Byington
KW
,
Schwebel
DC
.
Effect of cell phone distraction on pediatric pedestrian injury risk
.
Pediatrics
.
2009
;
123
(
2
):
e179
e185
33
Schwebel
DC
,
Shen
J
,
McClure
LA
.
How do children learn to cross the street? The process of pedestrian safety training
.
Traffic Inj Prev
.
2016
;
17
(
6
):
573
579
34
Schwebel
DC
,
Combs
T
,
Rodriguez
D
,
Severson
J
,
Sisiopiku
V
.
Community-based pedestrian safety training in virtual reality: a pragmatic trial
.
Accid Anal Prev
.
2016
;
86
:
9
15
35
Schwebel
DC
,
Barton
BK
,
Shen
J
, et al
.
Systematic review and meta-analysis of behavioral interventions to improve child pedestrian safety
.
J Pediatr Psychol
.
2014
;
39
(
8
):
826
845