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High rates of homicide in a rural South African population (2000–2008): findings from a population-based cohort study
© Otieno et al. 2015
- Received: 6 March 2014
- Accepted: 28 July 2015
- Published: 7 August 2015
South Africa has continued to receive increasing attention due to unprecedented high levels of violence. Homicide-related violence accounts for a significant proportion of unnatural deaths and contributes significantly to loss of years of expected life. We investigated levels and factors associated with homicide-related deaths and identify communities with excessively high homicide risk in a typical rural South African population.
Data drawn from verbal autopsies conducted on all deaths recorded during annual demographic and health surveillance in KwaZulu Natal, South Africa were used to derive the cumulative probability of death from homicide over a nine-year period (2000–2008). Weibull regression methods were used to investigate factors associated with homicide deaths. A Kulldorff spatial scan statistic was used to identify spatial clusters of homicide-related deaths.
With 536 homicide-related deaths, and a median seven years of follow-up, the study found an overall homicide incidence rate of 66 deaths per 100, 000 person-years of observation (PYOs) (95 % CI 60-72) for the period under study. Death related to the use of firearms was the leading reported method of homicide (65 %) and most deaths occurred over weekends (43 %). Homicides are the second-most common cause of death in men aged 25–34 after HIV-related deaths (including TB) in this community, at 210 deaths per 100,000 PYOs, and was highest among 55–64 year old women, at 78 deaths per 100,000 PYOs. Residency status, age, socioeconomic status, and highest education level attained independently predicted the risk of homicide death. The spatial distribution of homicide deaths was not homogenous and the study identified two clear geographical clusters with significantly elevated homicide risk.
The high rates of homicide observed in this typical rural South African population – particularly among men – underscore the need for urgent interventions to reduce this tragic and theoretically preventable loss of life in this population and similar South African settings.
- Verbal Autopsy
- Homicide Rate
- Civil Registration System
- Surveillance Area
- Lower Socioeconomic Position
Globally, violence has been recognized as one of the leading public health issues [1, 2]. No country or community is untouched by violence, with over 1.4 million people worldwide losing their lives to violence every year (WHO report 2013) . Homicide is an extreme form of violence, contributing to loss of years of expected life within a society or a country. More than 20 years after the end of apartheid, South Africa continues to experience excessive levels of violence [4, 5]. Homicide accounts for 56 % of fatal injuries among individuals aged 15–34 years [5, 6]. Although South Africa’s homicide rate may be dropping slowly, it is still among the world’s highest outside a war zone . The 2013 Global Study on Homicide report indicates that Southern Africa and Central America have homicide rates over four times higher than the current global average rate of 6.2 per 100, 000 population, making them the subregions with the highest homicide rates on record .
According to the Johannesburg-Based Centre for the Study of Violence and Reconciliation, South Africa’s current high rate of violent crime is related to social and economic marginalization of a large section of the population, which stemmed from the apartheid system. Poverty and inequality are likely to have contributed to South Africa’s burden of violent injury deaths [4, 5]. Coovadia et al describe how apartheid and colonial policies were used to generate great wealth for select racial groups while most of the population lived in abject poverty . This inequality is hypothesized to have fueled aggressive behavior as a reaction to social bias and discrimination, which resulted in an increase in violent crime.
South Africa has an established system for registration of births, deaths, and causes of death through the vital registration systems and National Injury Mortality Surveillance Systems (NIMSS). While civil registration systems remain underdeveloped in most African countries , recent political and public service transformations in South Africa have focused on improving coverage of civil registration systems to meet the international standards , and as such, South African cause-specific mortality patterns have been used to model mortality in many sub-Saharan Africa countries . However, despite this improvement, South Africa still assigns many injury deaths to ICD codes that are indeterminate with regard to intent, although it did bridge coding in 1996 using ICD-9 and ICD-10 at the three character level. However, statistics are reported only according to ICD-9 [10, 11], and thus the incidence of many important mechanisms of injuries cannot be determined. Usually the key dump codes (e.g., ICD-10 code: X59) are grouped together with other specified mechanisms and without access to data on these injury dump codes, and the quality of the data overall cannot be assessed and injury mortality cannot be reliably estimated . The Africa Centre Demographic Information System (ACDIS) provided a unique opportunity to study homicide in a complete rural population using verbal autopsy data collected routinely. We investigated the levels and factors associated with homicide-related deaths, and documented the subgroups and geographical areas of high risk in a rural culturally homogeneous population of KwaZulu-Natal (KZN), South Africa.
The Africa Centre demographic surveillance area (DSA), in the Umkhanyakude district of northern KZN, covers 438 km2 in size and includes deep rural areas, a township and peri-urban informal settlements. The study longitudinally follows a population cohort of approximately 87,000 persons in 11,538 households. The population is predominantly Zulu. Although it is a largely rural area, subsistence agriculture is not common; the principal source of income for most households is waged employment and state pension. The majority of the people are poor; only two in five adults are formally employed. Literacy levels, access to electricity and clean water were 78 %, 51 %, and 62 %, respectively, in 2011 . Life expectancy has been severely affected by the HIV pandemic but has increased markedly in the last decade due to the rapid scale up in ART . In 2003, the year before ART became available in the public-sector health system, adult life expectancy was 49.2 years; by 2011, adult life expectancy had increased to 60.5 years—an 11.3-year gain . Unlike many others parts of Africa where homesteads are clustered in clearly identifiable villages, most of the rural population in KwaZulu-Natal lives in scattered multigenerational homesteads of varying sizes (1–100) . The area also experiences substantial circulatory in- and out-migration .
Routine surveillance visits to each household were conducted three times a year, from 2000 to 2003 and twice a year thereafter. At each visit, a questionnaire was administered to key household informants providing up-to-date information on all household members; those residing in the DSA and those that are considered nonresidents. Demographic and health information was collected prospectively every six months from all registered households. Household socio-economic status, employment, and education data were collected once a year.
Ethical approval for the ACDIS research was obtained from the Research Ethics Committee of the Nelson R. Mandela School of Medicine, University of Natal. The title of the approved protocol is: ‘A Socio-demographic platform for population-based reproductive health research in a rural district of KwaZulu-Natal’ (Ref E009/00, September 2000). Annually, this protocol has to be recertified. For any changes to that protocol or development of new modules, separate protocols are submitted to the Research Ethics Committee as an amendment to the approved protocol.
Measurement of homicide
ACDIS collects longitudinal information on residents as well as nonresidents who retain membership in household in the surveillance area. Residents reside at a physical structure within the surveillance area at a particular point in time, whereas nonresident members (self-defined by members of the household) retain links to the household but are not physically present in the surveillance area. A partial resident is a person who was not resident in the surveillance area for the entire period of observation. Verbal autopsies  are used to provide data on illness history prior to death and possible causes of death . All registered individuals, both residents and nonresidents as of January 1, 2000 to December 31, 2008, were included in this study (N = 126, 462, 814,715 person-years of observation).
Verbal autopsy interviews with a close caregiver of the deceased were conducted for every death by a trained nurse. The nurse used a validated verbal autopsy questionnaire . Two physicians, using the collected data, disease history, signs, and symptoms, independently assign probable cause of death. Where there were differences in assigned cause of death, a third physician blinded to the other results reviewed the verbal autopsy information and assigned a cause. If two of the three results agreed, a consensus was reached among the three coders and a decision made, otherwise the cause of death assigned as undefined. Validation studies have shown good overall sensitivity and specificity in comparison with physician’s certification [20, 21]; specificity and sensitivity of intentional injuries has been measured at 70 % and 98 %, respectively . Homicide was defined as the intentional killing of a human being by another person or criminal negligence that causes the death of another person.
Data were analyzed using Stata version 11.0 (Corporation, College Station, Texas, USA). Cumulative probabilities of homicide were estimated using Kaplan Meier (K-M) methods. Follow-up started on January 1, 2000, and observations were censored on the December 31, 2008, or the last time the person was resident in the demographic site. Homicide incidence rates were computed using number of deaths as the numerator and person-time of follow-up as the denominator. We performed a Mann-Whitney rank-sum test for trends in homicide rate over time. Univariate and multivariate Weibull parametric regression models were fitted to investigate factors associated with homicide. Unlike the Cox regression model, a Weibull model allows the hazards functions to either increase or decrease monotonically over time. Categorical variables with missing data were coded ‘unknown’ to maintain the overall denominator (Socio-economic (10 %), Age (0.8 %)). A household asset was created using an assets count, following summation using the method of Case et al . Briefly, household items were combined into a single aggregate using Principal Component Analysis, ranked using index, and divided into quintiles from poorest (“1”) , very poor (“2”), poor (“3”), less poor (“4”), and least poor (“5”), representing the lowest socio-economic position to the highest socio-economic position, respectively.
ACDIS has developed and maintained a Geographical Information System (GIS) that allows the detailed spatial analysis of all data collected. All homesteads and facilities in the area have been mapped by field workers using differential global positioning systems. To identify clusters of homicide and test the null hypothesis of uniform distribution within the DSA, all mortality events and person-years of observation for all those resident in the surveillance area at any stage during the period of observation (a total of 304,047 person-years of observation) were summed at each of the 11,000 homesteads in the study area. We then applied Kulldorff’s spatial scan statistic implemented in SaTScan software version 8.0 to perform spatial analysis scanning to detect any clustering of homicide events across the surveillance area . The analysis was done using SaTScan spatial cluster detection program [23, 24]. A purely spatial distribution scan statistic using the exponential probability model, which is designed for survival data, was employed. A spatial scan statistic is a cluster detection test that is able to both detect the location of cluster and evaluate their statistical significance without the problems associated with multiple testing. A detailed description of the methodology is given elsewhere . Briefly, the spatial scan statistic imposes a circular window on a map, and it allows the center of the circle to move across the study region. For any given position of the center, the radius of the circle changes continuously so that it can take any value from zero up to a specified maximum value. For each potential cluster, a likelihood ratio test statistic was used to determine if the number of homicide cases within the potential cluster was higher than expected. Expected numbers of homicide cases were calculated on the basis of the null hypothesis of complete spatial randomness. We allowed the clusters to overlap by <50 % and set the maximum search radius of the circle to be 3 km. The advantage of such an approach is that we do not aggregate the homicide data by arbitrary administrative units (resulting in loss of spatial precision) but instead use the precise spatial location of each individual to identify the clusters using the Kulldorff spatial scan statistic.
Univariate Weibull regression analysis of homicide risk in a rural setting, KwaZulu-Natal (2000–2008)
Individual risk factor
HR (95 % CI)
HR (95 % CI)
0.36 (0.21, 0.62)
0.68 (0.54, 0.85)
1.62 (0.92, 2.87)
2.58 (2.07, 3.22)
1.07 (0.58, 1.99)
1.92 (1.34, 2.76)
1.23 (0.68, 2.22)
2. 92 (2.06, 4.12)
Household Socio-economic status
0.88 (0.38, 2.05)
1.30 (0.80, 2.09)
0.71 (0.30, 1.69)
1.29 (0.81, 2.04))
0.88 (0.39, 1.97)
1.89 (1.23, 2.91)
0.74 (0.31, 1.76)
1.37 (0.87, 2.18)
Age group (years)
0.24 (0.08, 0.71)
0.03 (0.01, 0.10)
1.44 (0.77, 2.71)
2. 10 (1.64, 2. 69)
0.90 (0.39, 2.07)
2.08 (1.57, 2.77)
1.29 (0.56, 2.97)
1.55 (1.09, 2.20)
4.13 (2.05, 8.31)
1.34 (0.84, 2.15)
3.33 (1.72, 6.47)
1.27 (0.77, 2.07)
Stratified multivariable analysis of factors associated with homicide-related death (2000–2008)
Male (N = 59,789)
Female (N = 66,670)
95 % CI
95 % CI
Education level attained
Age group (years)
Factors associated with homicide death among males were place of residence (rural, peri-urban, urban), socioeconomic status, and age group, whereas only place of residence and age were associated with homicide among females. Males and females aged 0–14 years had the lowest risk of homicide in comparison to other age categories. Males aged 25–34 were 17 % more likely to experience homicide (p-value < 0.001) compared to males aged 15–24 years. Females aged 55 years or above had increased risk of homicide death compared to their male counterparts within the same age group. Females’ homicide risk increased with age, peaking in age group 55 to 64 (HR = 3.31, p = 0.001).
Although both male and female partial-residents were significantly protected from the risk of homicide compared to residents; the risk was much lower among females than males at 34 % (p <0.001) and 46 % (p < 0.001), respectively. Nonresident males were more than 40 % more likely to experience a homicide death compared to male residents (p = 0.001), while there was no evidence of differential homicide deaths between female residents and female nonresidents.
In males there was no clear influence of education on homicide risk. Males within the slightly higher socio-economic position (defined on the basis of assets) were 66 % more likely to die from homicide in comparison to those in the lower socioeconomic status (p-value = 0.002). The same wealth gradient was not evident among females.
Our study measured a crude homicide incidence rate of 66 deaths per 100,000 person years of follow-up in a rural community in KwaZulu-Natal. This rate is substantially higher than the crude estimate for the whole of South Africa in 2003, when South Africa was second to Columbia at 51 homicides per 100,000 population per year [2, 27]. In 2007–2008, the South African Police Service (SAPS) recorded a homicide rate of 39 per 100,000 populations per year, while NIMSS reported 65 per 100,000 population per year . Suffla et al (2008) reported 85 homicide deaths due to strangulation per 100,000 population per year in Cape Town in 2001 and 67 per 100,000 per year in 2005 . By comparison, a study in Dar es Salaam, Tanzania in 2005 by Outwater et al reported a homicide rate of 13 per 100,000 PYOs , while a 2007 injury mortality burden study by Mamady et al in Guinea reported a homicide rate of seven per 100, 000 PYOs . A child homicide mortuary-based study in South Africa by Mathews et al in 2009 documented a homicide rate of 5.5 per 100,000 PYOs for children under the age of 18 years. This was double the World Health Organization’s estimated rate of 2.4 per 100,000 PYOs .
Our study is the first study to quantify the levels of and factors associated with homicide-related deaths in a full population cohort in Kwazulu-Natal, and because of its completeness, our findings were not limited by the possibility of bias due to under-reporting. In addition, the spatial statistical techniques employed to identify clustering of homicide cases at the microgeographical scale have never been used before in this type of setting.
Despite the high level of homicide in the study population, the rate is not uniformly geographically distributed. We found two clusters with approximately double the expected risk of homicide, and thus rejected the null hypothesis of no homicide clustering. Clear differences also existed by age and sex, with rates peaking in the age group 25–34 for males and 55–64 for females. This finding was consistent with those of Suffla et al (2008) on female homicidal strangulation in South Africa’s major cities. Suffla’s study found that in three of the major cities, the highest rates of female homicide by strangulation were reported in the over 60 years category, with Durban, the closest major city to the study area, having the highest rate . Previous studies in Tanzania and the United States found similar results [29, 32, 33]. The six-fold difference noted in homicide rate between males and females for the period studied is actually higher than the three-fold difference seen at the global level (men 13.6/100,000; women 4.0/100,000) . The finding conforms to previous studies that have consistently reported uneven distribution of homicide rate by age and sex, with rates substantially lower among females at all age groups, showing that being male is a strong demographic risk factor [6, 34, 35]. More than 90 % of global deaths from injuries occur in low- and middle-income countries. Males in Africa and Central and Latin America have the highest homicide rates in the world [1, 2]. Our findings revealed that the likelihood of an average male falling victim to homicide is strongly influenced by his age, socioeconomic status, and place of residence. In females, only residency and age were significant predictors of homicide risk. Firearm-related fatalities made up a substantial proportion (65 %) of all violent deaths in this study. The finding is consistent with several reports that firearm-related mortality was the major component of homicide in most countries [35–38]. According to United Nations surveys of 69 countries, South Africa has one of the highest firearm-related homicide rates in the world [27, 39]; firearm-related homicide rates in this study are even higher than the national South Africa average (28 per 100,000) . Estimates suggest that there are 11 to 13 million firearms in South Africa, of which 4 million are illegally owned .
South Africa’s unique political history and the resulting social and economic inequalities have been identified as some of the possible contributing factors to the high rate of interpersonal violence [5, 37]. Several other factors reported to be associated with violent deaths include poverty, lack of education, unemployment, alcohol abuse, substance abuse, and power (male dominance) [4, 6, 8, 41]. Alcohol is an important contributing factor in fatal and nonfatal injuries in South Africa . Andreuccetti and colleagues, for example, noted that history of alcohol use by victims was greater for homicides occurring over the weekend (56.4 % higher compared to weekdays) . Given the fact that most homicides occurred during weekends and on Fridays in our study, increased alcohol consumption is a plausible explanation for this finding.
In contrast to previous work [4, 43], our study did not find any evidence that poverty is a major predictor of homicide in this population. In fact, among males, belonging to a relatively higher wealth group was associated with a higher likelihood of being a homicide victim. The low survival observed among males in the higher socioeconomic status could imply that wealth increases one’s risk of homicide, especially those considered to be in the relatively higher socio-economic position (less poor category) who are perceived to be economically better off and may be a target of assault, robbery, and subsequently murder. The finding supports Schneider and colleagues’ view that although being in a lower socioeconomic position predicts homicide , there is no direct causal relationship between poverty and homicide. However, these results are different from a study on the experiences of violence and socioeconomic position in South Africa, which found that being in the wealthiest quintile was associated with a decrease in risk of violent death .
The high rates of homicide observed in this typical rural South African population – particularly among men – underscore the need for urgent interventions to reduce this tragic and theoretically preventable loss of life in this population and in similar South African settings.
This study could not have been conducted without financial support from INDEPTH Network. FT and TB were supported by grant 1R01-HD058482-01 from the National Institute of Child Health and Human Development (NICHD). Funding for the Africa Centre’s Demographic Surveillance Information System was received from the Wellcome Trust, UK (grant # 082384/Z/07/Z). A special word of thanks goes to Africa Centre for Health and Population Studies, and more so to the field staff who participated in the data collection.
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- Krug EG, Mercy JA, Dahlberg LL, Zwi AB. The world report on violence and health. Lancet. 2002;360(9339):1083–8.View ArticlePubMedGoogle Scholar
- Krug EG, Sharma GK, Lozano R. The global burden of injuries. Am J Public Health. 2000;90(4):523–6.View ArticlePubMedPubMed CentralGoogle Scholar
- World Health Organization. Global Campaign for Violence Prevention September. 2013. http://www.who.int/violenceprevention/pvl_eupdate_july2013.pdf.Google Scholar
- Seedat M, Van Niekerk A, Jewkes R, Suffla S, Ratele K. Violence and injuries in South Africa: prioritising an agenda for prevention. Lancet. 2009;374(9694):1011–22.View ArticlePubMedGoogle Scholar
- Bronwyn H. Spaces of violence, places of fear: Urban conflict in post-apartheid South Africa. In: Paper presented on the Conflicts and Urban Violence panel, Foro Social Mundial Tematico, Cartagena, Colombia, 16-20 June 2003, vol. 16. 2003.Google Scholar
- Matzopoulos R, Myers JE, Bowman B, Mathews S. Interpersonal violence prevention: prioritising interventions. S Afr Med J. 2008;98(9):682, 684, 686. passim.Google Scholar
- UNODC. Global Study on Homicide. In: (United Nations publication, Sales No 14IV1). 2013.Google Scholar
- Coovadia H, Jewkes R, Barron P, Sanders D, McIntyre D. The health and health sysytem of South Africa: historical roots of current public health challenges. Lancet. 2009. doi:10.1016/S0140-6736(09)60951-X. published online August 25.Google Scholar
- Setel PW, Macfarlane SB, Szreter S, Mikkelsen L, Jha P, Stout S, et al. A scandal of invisibility: making everyone count by counting everyone. Lancet. 2007;370(9598):1569–77.View ArticlePubMedGoogle Scholar
- Joubert J, Rao C, Bradshaw D, Vos T, Lopez AD. Evaluating the quality of national mortality statistics from civil registration in South Africa, 1997-2007. PLoS One. 2013;8(5):e64592.View ArticlePubMedPubMed CentralGoogle Scholar
- Chalapati R, Bradshaw D, Colin DM. Improving death registration and statistics in developing countries: Lessons from sub-Saharan Africa. S Afr J Demog. 2004;9:81–91.Google Scholar
- Bhalla K, Harrison JE, Shahraz S, Fingerhut LA. Availability and quality of cause-of-death data for estimating the global burden of injuries. Bull World Health Organ. 2010;88(11):831–838C.View ArticlePubMedPubMed CentralGoogle Scholar
- Statistics South Africa. Census 2011 Statistical release – P0301.4/Statistics South Africa. http://beta2.statssa.gov.za
- Tanser F, Barnighausen T, Grapsa E, Zaidi J, Newell ML. High coverage of ART associated with decline in risk of HIV acquisition in rural KwaZulu-Natal, South Africa. Science. 2013;339(6122):966–71.View ArticlePubMedPubMed CentralGoogle Scholar
- Bor J, Herbst AJ, Newell ML, Barnighausen T. Increases in adult life expectancy in rural South Africa: valuing the scale-up of HIV treatment. Science. 2013;339(6122):961–5.View ArticlePubMedGoogle Scholar
- Hontelez JA, de Vlas SJ, Baltussen R, Newell ML, Bakker R, Tanser F, et al. The impact of antiretroviral treatment on the age composition of the HIV epidemic in sub-Saharan Africa. Aids. 2012;26 Suppl 1:S19–30.View ArticlePubMedGoogle Scholar
- Lurie MN, Williams BG, Zuma K, Mkaya-Mwamburi D, Garnett G, Sturm AW, et al. The impact of migration on HIV-1 transmission in South Africa: a study of migrant and nonmigrant men and their partners. Sex Transm Dis. 2003;30(2):149–56.View ArticlePubMedGoogle Scholar
- Kahn K, Tollman SM, Collinson MA, Clark SJ, Twine R, Clark BD, et al. Research into health, population and social transitions in rural South Africa: data and methods of the Agincourt Health and Demographic Surveillance System. Scand J Public Health Suppl. 2007;69:8–20.View ArticlePubMedPubMed CentralGoogle Scholar
- INDEPTH Standard Verbal Autopsy Questionnaire. [http://www.indepth-network.org/core_documents/INDEPTH%20VA%20QUESTIONNAIRE%20UPDATE%2003%20September%202002.doc]. 2002.
- Misganaw A, Mariam DH, Araya T, Aneneh A. Validity of verbal autopsy method to determine causes of death among adults in the urban setting of Ethiopia. BMC Med Res Methodol. 2012;12:130.View ArticlePubMedPubMed CentralGoogle Scholar
- Setel PW, Whiting DR, Hemed Y, Chandramohan D, Wolfson LJ, Alberti KG, et al. Validity of verbal autopsy procedures for determining cause of death in Tanzania. Trop Med Int Health. 2006;11(5):681–96.View ArticlePubMedGoogle Scholar
- Case A, Hosegood V, Lund F. The reach and impact of Child Support Grants: evidence from KwaZulu-Natal. Development Southern Africa Development South Africa. 2005;22(4):467–82.View ArticleGoogle Scholar
- Kulldorff M, Heffernan R, Hartman J, Assuncao R, Mostashari F. A space-time permutation scan statistic for disease outbreak detection. PLoS Med. 2005;2(3):e59.View ArticlePubMedPubMed CentralGoogle Scholar
- Kulldorff M, Huang L, Konty K. A scan statistic for continuous data based on the normal probability model. Int J Health Geogr. 2009;8:58.View ArticlePubMedPubMed CentralGoogle Scholar
- Tanser F, Barnighausen T, Cooke GS, Newell ML. Localized spatial clustering of HIV infections in a widely disseminated rural South African epidemic. Int J Epidemiol. 2009;38(4):1008–16.View ArticlePubMedPubMed CentralGoogle Scholar
- Tanser F, Barnighausen T, Newel M. Identification of localized clusters of high HIV incidence in a widely disseminated rural South Africa epidemic: a case for targeted intervention strategies. Conference on Retroviruses and opportunistic infection in; March. CROI 2011.Google Scholar
- Ben B. Death by Murder: World Homicide Rate. Top ten countries for homicide. 2003. http://www.benbest.com/lifeext/murder.html.Google Scholar
- Suffla S, Van Niekerk A, Arendse N. Female homicidal strangulation in urban South Africa. BMC Public Health. 2008;8:363.View ArticlePubMedPubMed CentralGoogle Scholar
- Outwater AH, Campbell JC, Mgaya E, Abraham AG, Kinabo L, Kazaura M, et al. Homicide death in Dar es Salaam, Tanzania 2005. Int J Inj Contr Saf Promot. 2008;15(4):243–52.View ArticlePubMedGoogle Scholar
- Mamady K, Yao H, Zhang X, Xiang H, Tan H, Hu G. The injury mortality burden in Guinea. BMC Public Health. 2012;12:733.View ArticlePubMedPubMed CentralGoogle Scholar
- Mathews S, Abrahams N, Jewkes R, Martin LJ, Lombard C. The epidemiology of child homicides in South Africa. Bull World Health Organ. 2009;91(8):562–8.View ArticleGoogle Scholar
- Karch DL, Dahlberg LL, Patel N, Davis TW, Logan JE, Hill HA, et al. Surveillance for Violent Deaths -- National Violent Death Reporting System, 16 States, 2006. MMWR: Morbidity & Mortality Weekly Report. 2009;58(SS-1):1–43.Google Scholar
- Kann L, Kinchen SA, Williams BI, Ross JG, Lowry R, Hill CV, et al. Youth risk behavior surveillance-United States, 1997. Morbidity and Mortality Weekly Report. 1998;47(SS-3):iv-iv.Google Scholar
- Ehrlich RI, White N, Norman R, Laubscher R, Steyn K, Lombard C, et al. Predictors of chronic bronchitis in South African adults. Int J Tuberc Lung Dis. 2004;8(3):369–76.PubMedGoogle Scholar
- Richard G, Matzopoulos RG, Thompson ML, Myers JE. Firearm and nonfirearm homicide in 5 South African cities: a retrospective population-based study. Am J Public Health. 2014;104(3):455–60.View ArticleGoogle Scholar
- Gawryszewski VP, Kahn T, de Mello Jorge MH. Linking of information from health and security databases on homicides. Rev Saude Publica. 2005;39(4):627–33.View ArticlePubMedGoogle Scholar
- Minnaar A. Firearm and murder in South Africa Post-1994: Searching for an explanation. 2008. http://www.aic.gov.au/events/aic%20upcoming%20events/2008/~/media/conferences/2008-homicide/minaar.ashx.Google Scholar
- Andreuccetti G, de Carvalho HB, de Carvalho PJ, de Carvalho DG, Kahn T, Munoz DR, et al. Alcohol consumption in homicide victims in the city of Sao Paulo. Addiction. 2009;104(12):1998–2006.View ArticlePubMedGoogle Scholar
- Meel BL. Firearm fatalities in the Transkei region of South Africa, 1993-2004. S Afr Med J. 2005;95(12):963–7.PubMedGoogle Scholar
- Matzopoulos R, Seedat M, Cassim M. A profile of fatal injuries in South Africa: Fourth annual report of the National Injury Mortality Surveillance system (NIMSS). Cape Town: South African Medical Research Council/University of South Africa Crime, Violence and Injury Lead Programme; 2002.Google Scholar
- Bradshaw D, Nannan N, Groenewald P, Joubert J, Laubscher R, Nojilana B, et al. Provincial mortality in South Africa, 2000--priority-setting for now and a benchmark for the future. S Afr Med J. 2005;95(7):496–503.PubMedGoogle Scholar
- Parry CD, Pluddemann A, Steyn K, Bradshaw D, Norman R, Laubscher R. Alcohol use in South Africa: findings from the first Demographic and Health Survey (1998). J Stud Alcohol. 2005;66(1):91–7.View ArticlePubMedGoogle Scholar
- Cubbin C, Smith GS. Socioeconomic Inequalities In Injury: Critical Issues in Design and Analysis April 2002. Annual Review of Public Health. 2002;23:349–75.View ArticlePubMedGoogle Scholar
- Schneider M, Bradshaw D, Steyn K, Norman R, Laubscher R. Poverty and non-communicable diseases in South Africa. Scand J Public Health. 2009;37(2):176–86.View ArticlePubMedGoogle Scholar
- Doolan K, Ehrlich R, Myer L. Experience of violence and socioeconomic position in South Africa: a national study. PLoSOne. 2007;2(12):e1290.View ArticleGoogle Scholar