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Bulletin of the World Health Organization logoLink to Bulletin of the World Health Organization
. 2009 May;87(5):345–352. doi: 10.2471/BLT.08.055798

Global childhood unintentional injury surveillance in four cities in developing countries: a pilot study

Surveillance internationale des traumatismes non intentionnels de l’enfant dans quatre métropoles de pays en développement : étude pilote

Vigilancia mundial de las lesiones infantiles no intencionales en cuatro ciudades de países en desarrollo: estudio piloto

لترصُّد العالمي للإصابات غير المتعمدة لدى الأطفال في أربع مدن من بلدانٍ نامية: دراسة ارتيادية

Adnan A Hyder a,, David E Sugerman b, Prasanthi Puvanachandra c, Junaid Razzak d, Hesham El-Sayed e, Andres Isaza f, Fazlur Rahman g, Margie Peden h
PMCID: PMC2678776  PMID: 19551252

Abstract

Objective

To determine the frequency and nature of childhood injuries and to explore the risk factors for such injuries in low-income countries by using emergency department (ED) surveillance data.

Methods

This pilot study represents the initial phase of a multi-country global childhood unintentional injury surveillance (GCUIS) project and was based on a sequential sample of children < 11 years of age of either gender who presented to selected EDs in Bangladesh, Colombia, Egypt and Pakistan over a 3–4 month period, which varied for each site, in 2007.

Findings

Of 1559 injured children across all sites, 1010 (65%) were male; 941 (60%) were aged ≥ 5 years, 32 (2%) were < 1 year old. Injuries were especially frequent (34%) during the morning hours. They occurred in and around the home in 56% of the cases, outside while children played in 63% and during trips in 11%. Of all the injuries observed, 913 (56%) involved falls; 350 (22%), road traffic injuries; 210 (13%), burns; 66 (4%), poisoning; and 20 (1%), near drowning or drowning. Falls occurred most often from stairs or ladders; road traffic injuries most often involved pedestrians; the majority of burns were from hot liquids; poisonings typically involved medicines, and most drowning occurred in the home. The mean injury severity score was highest for near drowning or drowning (11), followed closely by road traffic injuries (10). There were 6 deaths, of which 2 resulted from drowning, 2 from falls and 2 from road traffic injuries.

Conclusion

Hospitals in low-income countries bear a substantial burden of childhood injuries, and systematic surveillance is required to identify the epidemiological distribution of such injuries and understand their risk factors. Methodological standardization for surveillance across countries makes it possible to draw international comparisons and identify common issues.

Introduction

Unintentional injuries are a leading cause of death among children and young adults.1 Over 875 000 children ≤ 18 years of age die annually in the world as a result of injuries, mostly in low- and middle-income countries (LMIC), where injuries account for 13% of the total burden of morbidity among children ≤ 15 years of age.2,3 According to a report from the United Nations Children’s Fund, childhood injuries declined by 50% in high-income countries (HIC) between 1970 and 1995. Unfortunately, several reports from low-income countries have shown the opposite trend.47

The burden and pattern of child injuries are just now being studied in LMIC, where the age distribution of the population compounds the problem posed by child injuries. In 2005, 23% of the world’s population of children < 5 years of age (i.e. 141 million children) lived in Africa, while only 10% lived in HIC.

In the global childhood unintentional injury surveillance (GCUIS) study, which was initiated in January 2007 in response to the lack of standardized child injury data from LMIC and the paucity of multi-country studies on child injuries, a standardized protocol was implemented to collect data from hospitals in several countries. The study objective was to determine the frequency and nature of childhood injuries in selected urban settings within LMIC by means of a pilot injury surveillance system. The pilot study described in this paper, which pools the results from four sites during the first phase of GCUIS, was intended to enhance the evidence base for planning child injury interventions in these areas. It is, to our knowledge, one of the first to collect standardized child injury data from emergency departments (EDs) in multiple sites in LMIC.

Methods

In the GCUIS study, a standard surveillance form was administered to the caretakers of injured children seen at EDs in four LMIC to identify all unintentional injuries. The surveillance questions were based on a variety of sources, including the International classification of external causes of injuries (in short form for pilot studies), the South African Red Cross War Memorial Children’s Hospital injury surveillance study instrument, and previous work done by the authors in Pakistan.811 By using a standardized electronic data entry form in Epi Info version 3.3.2 (Centers for Disease Control and Prevention, Atlanta, GA, United States of America), we recorded the following for the GCUIS study: demographic information; data on mortality and disability from injuries and an injury severity score (ISS); risk factors such as age, gender, time of day and activity of the child when injured; selected cost of treatment; use of safety measures by families; and outcome of treatment in the ED. Details of the ISS used in this study, which provides an overall severity score for patients with multiple injuries, can be found elsewhere; in general, the lower the ISS score, the higher the probability of survival.12,13 Physicians in the ED of the four participating sites were shown how to grade injury severity and were given comprehensive guidelines on using the surveillance instrument.14

In the GCUIS study, injury was operationally defined as any type of unintentional damage to any body part in patients seen in a designated GCUIS ED. The study focused on children < 12 years of age of either gender who presented to a designated ED in Bogotá, Colombia; Dhaka, Bangladesh; Ismailia, Egypt; or Karachi, Pakistan. Each participating hospital was a tertiary referral centre in an urban location and a general hospital for both children and adults. In each hospital data were collected for a 3–4 month period during 2007. To be selected for the study, each hospital had to be located in one of WHO’s six world regions, engaged in ongoing collaborative research with the Johns Hopkins Bloomberg School of Public Health (JHBSPH) in Baltimore, MD, USA, and interested in participating. Excluded from the study were children who had suffered intentional injuries perpetrated by others (i.e. stabbings, gunshot wounds, other physical violence or sexual abuse), self-inflicted injury, or injuries related to drugs or alcohol; children ≥ 12 years of age; children without a parent or legal guardian; and children who presented to the hospital uninjured. The respondent for the surveillance system was the caretaker who accompanied the child to the ED, while the unit of analysis was the injured child.

In all study sites, a pilot surveillance system with a common protocol was established, and the hospitals were requested to submit cases to the study coordinating centre at JHBSPH based on non-random, sequential sampling. A member of the team from JHBSPH visited each country and provided training on the surveillance system to the local collaborator. In addition, each site submitted the first 50 records on injured children to the coordinating centre for quality checks. Data from each country were recorded in Epi Info version 3.3.2 and then merged into a pooled database, which was subsequently cleaned, checked for errors and analysed with Intercooled STATA 7 (Stata Corp., College Station, TX, USA). Cross-tabulations of mode of injury by variables such as age, gender and time of injury were performed to provide greater insight into the determinants of unintentional injuries.

Data across four countries were pooled to describe the burden of injuries by means of simple frequencies. We examine the relationship between child injury and various factors surrounding the injury event and provide outcome data from each child’s initial management in the ED. Ethical approval for this study was secured from the Institutional Review Board at the JHBSPH and from a research ethics committee in each hospital before the start of the study.

Results

The study sample consisted of 1559 children ≤ 12 years of age who were seen in hospital EDs in four urban centres in developing countries. Of these children, 32% were in Egypt, 28% in Pakistan, 25% in Bangladesh and 15% in Colombia. This paper focuses on an analysis of pooled data by type of injury. Of the total of 1559 cases, 1010 (65%) were male; 941 (60%) were ≥ 5 years of age, and 32 (2%) were < 1 year old. The observed injuries occurred throughout the day, but mostly between 06:00 and 12:00, and between 12:00 and 14:30 (34% and 21%, respectively); 63% of injuries occurred mainly while children were at play, while only 7% took place during school or other activities (Fig. 1).

Fig. 1.

Activity of children at time of injury (n = 1559): GCUIS data from four cities in Bangladesh, Colombia, Egypt and Pakistan, 2007

GCUIS, global childhood unintentional injury surveillance.

Fig. 1

The majority of the children arrived at the ED by taxi (33%) or private vehicle (28%), and a lesser proportion by ambulances (public or private) (Table 1). Most children were brought to the ED by their fathers (46%) or mothers (39%). Injuries that were not traffic-related occurred for the most part in and around homes. Children travelled an average of 20 km to the ED unless involved in a road traffic injury, in which case they travelled twice that distance. The proportion of each type of injury was fairly constant across all four sites, with a preponderance of falls (56%), followed by road traffic injuries (22%) and burns (13%). For all types of injury, respondents (n = 1382) relied on government welfare or out-of-pocket payments for health-care expenses. Very few (1%) had private insurance for emergency care (Fig. 2).

Table 1. Descriptive data surrounding childhood injuries (n = 1559): GCUIS data from four cities in Bangladesh, Colombia, Egypt and Pakistan, 2007.

RTI
Fall
Burn
Poisoning
Drowning
Total
No. % No. % No. % No. % No. % No. %
How was child transported to hospital?
Private car 86 25 263 29 44 21 27 41 11 55 431 28
Ambulance 107 31 110 12 33 16 9 8 1 6 260 17
Motorcycle 17 5 26 3 1 0 4 6 1 5 49 3
Bicycle 3 1 3 0 1 0 0 0 0 0 7 0
Walking 31 9 123 13 18 9 7 11 2 10 181 12
Taxi 80 23 303 33 109 52 10 15 5 25 507 33
Other 26 7 85 9 4 2 9 14 0 0 124 8
Who took child to hospital?
Mother 111 32 376 41 78 37 35 53 6 30 606 39
Father 159 45 412 45 108 51 25 38 9 45 713 46
Other family member 51 15 92 10 22 10 6 9 5 25 176 11
Friend/teacher 7 2 21 2 2 1 0 0 0 0 30 2
Other 22 6 12 1 0 0 0 0 0 0 34 2
Where did injury occur?
Home (inside and outside) 62 17 588 64 161 77 50 76 11 55 872 56
Road, street, highway 279 80 44 5 2 1 1 2 2 10 328 21
Countryside/farm/marketplace 2 1 9 1 1 0 0 0 1 5 12 1
Industrial building/other public building 2 1 157 17 44 21 13 20 6 30 222 14
School/sports/play area 3 1 96 11 2 1 2 3 0 0 103 7
Other/refused/unknown/no answer 2 1 19 2 0 0 0 0 0 0 21 1

GCUIS, global childhood unintentional injury surveillance; RTI, road traffic injury.

Fig. 2.

Primary method of payment for care received by injured children (n = 1382): GCUIS data from four cities in Bangladesh, Colombia, Egypt and Pakistan, 2007

GCUIS, global childhood unintentional injury surveillance.

Fig. 2

The majority of injured children in this study were treated and discharged, but about one-third were admitted to the hospital (Table 2). A total of 71 children required emergency surgery, died in the ED or were transferred to another centre. Of the children discharged, 552 (36%) were expected to suffer short-term disability (< 6 weeks); 163 (11%), long-term disability (≥ 6 weeks); and 31 (2%), permanent disability. Overall ISSs were low (median, 4; mean, 7) across all sites and injury types.

Table 2. Characteristics of childhood injuries: GCUIS data from four cities in Bangladesh, Colombia, Egypt and Pakistan, 2007.

Characteristics RTI
Fall
Burn
Poisoning
Drowning
Total
No. % No. % No. % No. % No. % No. %
Most severe injury
Fracture 65 21 195 25 0 0 1 2 1 6 262 19
Sprain 33 11 93 12 0 0 1 2 1 6 128 9
Cut/bite/open wound 78 25 200 25 0 0 1 2 7 39 286 21
Bruise/superficial 42 14 152 19 2 1 0 0 3 17 199 15
Burn 2 1 4 1 191 96 6 13 1 6 204 15
Concussion 80 26 134 17 1 1 0 0 3 17 218 16
Organ system injury 3 1 1 0 1 1 27 57 4 22 36 3
Other/refused/unknown/no answer 5 2 11 1 4 2 11 23 0 0 31 2
Outcome of injury
Left before treatment completed 3 1 4 0 1 0 2 3 0 0 10 1
Referred to another centre 9 3 14 2 2 1 1 2 3 15 29 2
Treated and discharged home 173 55 717 79 41 20 52 79 11 55 994 66
Admitted to ward/burn unit/ICU 100 32 136 15 164 79 10 15 4 20 414 27
Admitted for emergency surgery 20 6 15 2 0 0 1 2 0 0 36 2
Died in ED 2 1 2 0 0 0 0 0 2 10 6 0
Other 7 2 20 2 0 0 0 0 0 0 27 2
Projected effect of injurya (n = 1552)
No significant disability 119 38 483 53 108 51 53 80 13 65 776 51
Short-term temporary disability (< 6 weeks) 135 43 354 39 51 24 8 12 4 20 552 36
Long-term temporary disability (≥ 6 weeks) 52 17 70 8 35 17 5 8 1 5 163 11
Permanent disability 8 3 5 1 16 8 0 0 2 10 31 2
Total 350 913 210 66 20 1 559

GCUIS, global childhood unintentional injury surveillance; ED, emergency department; ICU, intensive care unit; RTI, road traffic injury.
a As assessed by the treating physician.

Road traffic injuries

Of the 350 children involved in road traffic injuries, 39% were pedestrians, 19% were car passengers and 13% were motorcycle or moped riders (Table 3). Over 70% were males > 5 years of age, and the striking vehicles (315) were motorcycles (21%), cars (20%) and buses (19%). Of the children who suffered a road traffic injury, only 5% reported using seatbelts or helmets when injured. Road traffic injury cases had the highest percentage of projected long-term disability (17%) and 20 children required emergency surgery, representing the greatest need for emergency surgery across all causes of injury. The mean ISS for road traffic injury victims was 10. Two children died from their injuries (Table 2).

Table 3. Road traffic injury data (n = 350): GCUIS data from four cities in Bangladesh, Colombia, Egypt and Pakistan, 2007.

Road traffic injury data No. %
Mode of transit (n = 307)a
Passenger car 58 19
Three-wheeler 15 5
Bus (≥ 10 people) 15 5
Pickup/LDV/van/jeep/minibus (< 10 people) 8 3
Truck/heavy vehicle 0 0
Train 3 1
Motorcycle/moped 40 13
Animal or animal-drawn vehicle 3 1
Bicycle 29 9
Walk/run 121 39
Other 15 5
Activity at impact (n = 148)a
Walking 18 12
Drivingb 56 38
Passenger 53 36
Boarding vehicle 12 8
Riding on the outside of the vehicle 7 5
Other 2 1
Striking vehicle or object (n = 315)a
Car 63 20
Three-wheeler 19 6
Bus/van 61 19
Truck/heavy car 18 6
Motorcycle 66 21
Bicycle 13 4
Animal 3 1
Fixed object 15 5
Other 57 18

GCUIS, global childhood unintentional injury surveillance; LDV, large domestic vehicle.
a Not all of the respondents whose children were involved in an RTI responded to these questions.
b Denotes children who were driving bicycles, mopeds or three-wheelers or prematurely driving cars and motorcycles.

Falls

Falls were twice as common as road traffic injuries and the most common cause of injury (913, or 58.6%) among children who presented to the ED. They occurred mainly from ladders or stairs (23%), or from beds or other furniture (19%). Most falls occurred in males > 5 years of age and took place inside the home (38%) or during play (75%). The most severe fall-related injuries were fractures or open wounds. Children spent 3 hours on average in the ED (Table 2). Unlike children who suffered road traffic injuries, those who fell were generally treated and discharged with minimal disability or none. Two children died from fall-related injuries, for a proportionate mortality of 0.2%.

Burns

Of the 210 children with burns, 112 were injured by hot liquids, 41 by flames and 30 by electricity. Children of both genders were similarly affected, and 52% were < 5 years of age. Most burns occurred in the morning while the children played at home. Burned children remained in the ED an average of 1.5 hours. However, their admission rate (79%) was higher than that of children with other types of injuries. The mean ISS was 5.

Accidental poisoning

Children 1–4 years of age comprised the largest group of poisoning victims (56%), and males were most commonly involved (65%). Most of these children ingested medicines (32%), followed by cleaning agents (21%). The poisonings typically occurred in the morning while the children played at home. Organ system injury was the most severe and common consequence of poisoning (57%) (Table 2). Victims were typically sent home with limited disability or none (79%), and there were no deaths. Of the 1515 parents of poisoned children who replied to the question regarding storage, only 459 (30%) reported proper storage of hazardous materials at home.

Near drowning or drowning

Of the 20 children who drowned or nearly drowned, approximately half were male and 55% were > 5 years of age. Most children (85%) were playing outside their homes or in another building at the time of injury. Less than half of the parents reported supervising their children while bathing. Two children died in the ED, and the resulting proportionate mortality (10%) was higher than for any other injury type.

Discussion

This pilot study describes one of the first multi-country, ED-based injury surveillance systems for children in the developing world based on standardized methods. The results provide insight into the burden of childhood injuries on selected health facilities. In developing and implementing the GCUIS we learned that: (i) standardizing data collection is essential for comparing data on child injuries from different LMIC; (ii) new facility-based data collection systems can be developed and implemented in current EDs in different LMIC contexts; (iii) unless specifically included, childhood injuries are often ignored by routine hospital-based information systems; and (iv) country investigators are accomplished and capable of performing uniform protocol-based injury research in many LMIC.

The fact that a higher proportion of children who suffered road traffic injuries were pedestrians instead of vehicle passengers suggests that pedestrians of all ages are made vulnerable by sharing transport space with motorized vehicles. In studies from Pakistan, pedestrians and motorcyclists accounted for most of the injured and killed on the road, and 80% of all unintentional injuries and 67% of all resulting deaths in children were related to road traffic injuries.15,16 Over half of road traffic injuries in Colombia occur in pedestrians,17 while a study from Port-Said, Egypt, reported that pedestrians were involved in 81% of road traffic injuries.18 The GCUIS study data also call attention to the frequent role of commercial vehicles in road traffic injuries in LMIC, where buses were the striking vehicle in a large proportion of childhood injury cases. In other studies, buses have been the most common striking vehicle, even though they represent a small proportion of all vehicles on the road.15,16

Although fall injuries were numerous in this study, they caused much lower morbidity than road traffic injuries, burns or poisoning. In many parts of the world, most childhood injuries treated in hospitals are due to falls that occur mainly at home.19 Falls were the most common cause of injury in a study among school children in Ismailia, while in a study in Uganda, falls were the most common cause of severe injuries in children < 10 years of age.20,21 In the Islamic Republic of Iran, falls were a leading cause of death among children < 1 year of age.22 In Saudi Arabia, over 60% of orofacial injuries in children were due to falls23, and an ED study in Trinidad and Tobago showed that falls accounted for 42% of all paediatric injuries.24 The GCUIS study findings of a preponderance of early morning falls from stairs or ladders or from beds and other furniture while children were at play in and around the home suggests the need for a mixed intervention consisting of safer play areas, safer construction, safer furniture for sleeping and playing, and improved supervision.2527

Like other studies, the GCUIS study showed more frequent poisoning among males than females, predominantly with medicines and kerosene.28 In the developing world, homes often store hydrocarbon, alkali, acid, and medicinal compounds used in cooking, cleaning, pest control and farming, and their improper storage puts children at risk of accidental ingestion.2931 Unintentional poisoning can be fatal without rapid treatment. Management requires intensive supportive care, provision of appropriate antidotes, if available, and removal of the substance from the body, all of which place substantial demands on the health-care system.31,32

In the GCUIS study, children who drowned or nearly drowned were almost equally divided among boys and girls. It may be that only a small number of the injured children presented to the ED because in LMIC most drowning victims die before reaching health facilities. The small number of parents who reported supervising their children while they bathed suggests a potential point of intervention.33

Children 1–4 years of age were disproportionately affected by burns and often required admission. Many studies have cited the risk to older children from cooking. However, in the GCUIS study, younger children were found to be at risk from playing near hot liquids at home.34,35 A prospective case-control study from Bangladesh showed significant associations between burns and maternal illiteracy, pre-existing health impairments in children and low economic status.36 An epidemiological review of burns highlighted the importance of certain risk factors (e.g. low maternal education and lack of supervision) within LMIC and the need to address them to enhance preventive efforts in these settings.37 Such risk factors might differ among countries.

In the GCUIS study, the burden of severe injuries requiring hospitalization (27%) was higher than previously reported (2–10%).3841 Perhaps children who sustained only minor injuries did not seek treatment in the ED. Community-level data to explore this possibility was not, however, collected in the GCUIS study.

When parents have to leave work to take their injured children to the ED, or when they engage others to do it for them, the social cost is very high.42,43 Injuries among older children who work in the informal sector to supplement the household income are economically disastrous. Over one-third of families (37%) paid for their care out-of-pocket because they lacked insurance. Such medical expenditures can be catastrophic and may tip households into poverty.44 Another 39% of them relied on government or hospital welfare programmes, both of which increase the societal costs of managing child injuries.

A facility-based surveillance system like the GCUIS is advantageous when budgets are limited and time is a constraint, but its results cannot be extrapolated to the entire population, as the data are dependent on how often individuals seek care for injured children and thus subject to a host of financial, social and cultural factors that influence the decision to seek care.4547 Hospital-based data, especially in developing countries with lower rates of utilization, underestimate the injury burden. The results of this study were thus never meant to represent population-based morbidity from injuries. GCUIS focused only on unintentional injuries in children < 12 years of age, as a result of which the burden of intentional injuries (violence) and of injuries in children older than 12 years has not been captured. Age may have been misclassified in some cases, especially in children < 1 or 11–12 years of age.48 Another shortcoming is the lack of ongoing ED surveillance at the study sites, which made it impossible to compare morbidity and mortality from childhood injuries and from other causes. Because GCUIS was implemented at different rates across sites, in each site the data were collected over different periods of 3–4 months in 2007, and seasonal variability may have influenced the results. This was a reality when working in LMIC. The GCUIS study did not include data from every region in the world and does not claim to represent all LMIC.

Capacity development was core to GCUIS implementation. Many sites had never participated in collaborative research, and some had never used statistical software. Technical assistance with data collection was ensured throughout this study. Site visits were important in the training of collaborators and database management and allowed for the development of good relationships and of a network of centres willing to continue working in the future.

Conclusion

The results of the GCUIS pilot study illustrate the feasibility of documenting the burden of childhood injuries on health systems in developing countries and of undertaking standardized child injury surveillance. They also suggest the need for tailored injury prevention research in LMIC, where the resulting data should encourage the conduct of interventional trials. The next step would be to implement appropriate injury prevention strategies, such as safe storage of medicines and cleaning supplies, protection of children from hot liquids, improved pedestrian safety, supervision during bathing, and use of stair-blocking gates. Ongoing child injury surveillance using standardized methods in LMIC is a tested strategy needed to track injuries and their risk factors and to monitor the impact of appropriate interventions.49,50

Acknowledgements

We thank Etienne Krug for his encouragement of the project, as well as all staff involved in data collection in all centres and all institutional officials who supported the conduct of the study.

Footnotes

Funding: This pilot study was funded by the Department of Violence and Injuries Prevention and Disability of the World Health Organization in Geneva, Switzerland.

Competing interests: None declared.

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