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. Author manuscript; available in PMC: 2022 Mar 29.
Published in final edited form as: Trop Med Int Health. 2013 Apr;18(4):506–515. doi: 10.1111/tmi.12066

Alcohol use, drunkenness and tobacco smoking in rural western Kenya

T Q Lo 1, J E Oeltmann 2, F O Odhiambo 3, C Beynon 4, E Pevzner 2, K P Cain 2,3, K F Laserson 3,5, P A Phillips-Howard 6
PMCID: PMC8961680  NIHMSID: NIHMS1790174  PMID: 23489316

Abstract

OBJECTIVES

To describe the prevalence of smoking and alcohol use and abuse in an impoverished rural region of western Kenya.

METHODS

Picked from a population-based longitudinal database of demographic and health census data, 72 292 adults (≥ 18 years) were asked to self-report their recent (within the past 30 days) and lifetime use of tobacco and alcohol and frequency of recent ‘drunkenness’.

RESULTS

Overall prevalence of ever smoking was 11.2% (11.0–11.5) and of ever drinking, 20.7% (20.4–21.0). The prevalence of current smoking was 6.3% (6.1–6.5); 5.7% (5.5–5.9) smoked daily. 7.3% (7.1–7.5) reported drinking alcohol within the past 30 days. Of these, 60.3% (58.9–61.6) reported being drunk on half or more of all drinking occasions. The percentage of current smokers rose with the number of drinking days in a month (P < 0.0001). Tobacco and alcohol use increased with decreasing socio-economic status and amongst women in the oldest age group (P < 0.0001).

CONCLUSIONS

Tobacco and alcohol use are prevalent in this rural region of Kenya. Abuse of alcohol is common and likely influenced by the availability of cheap, home-manufactured alcohol.

Appropriate evidence-based policies to reduce alcohol and tobacco use should be widely implemented and complemented by public health efforts to increase awareness of their harmful effects.

Keywords: drinking alcohol, smoking, rural, western Kenya

Introduction

Worldwide, tobacco use continues to be the leading cause of preventable death (World Health Organization 2011c), and almost 4% of deaths are attributed to the harmful use of alcohol (Rehm et al. 2007; World Health Organization 2011c). Alcohol use is a causal factor in 60 types of disease and injury, a contributory factor to 200 other diseases (such as cancers, liver cirrhosis, hypertension and pancreatitis) and is associated with violence, suicides, child abuse/neglect and workplace absenteeism (Corrao et al. 2004; Borges et al. 2006; Lau et al. 2008; World Health Organization 2011c). People with alcohol-associated diseases smoke more than people with non-alcohol-related disease, suggesting a synergism between alcohol-related harm and cigarette smoking (Lau et al. 2008).

Globally, tobacco-related illnesses kill up to half of its users or approximately six million people annually (World Health Organization 2011b). The prevalence of smoking is increasing amongst people in low- and middle-income countries (LMIC), and by 2030, tobacco use is predicted to result in more than eight million deaths worldwide, and 80% of these premature deaths occurring in LMIC (World Health Organization 2011c). Smoking and alcohol consumption substantially contribute towards chronic diseases, which are estimated to cause more than 60% of deaths globally, with more than 80% of these occurring in LMIC (Lopez & Mathers 2006; Abegunde et al. 2007). Without effective prevention and control programmes, as the economies of LMIC grow, so will risk factors for disorders such as cardiovascular diseases (including smoking). When coupled with the current burden of infectious diseases, global health inequalities will be further exacerbated (Ezzati et al. 2005). The need for action to deal with the growing burden of non-communicable diseases in African countries has been well documented (Mayosi et al. 2009; Alwan et al. 2010).

Despite the expected contribution of tobacco use and the harmful use of alcohol to morbidity and mortality, epidemiological data are still lacking for many countries, especially countries with less established market economies (Degenhardt et al. 2008; Giovino et al. 2012). In Kenya, epidemiological data on smoking and harmful use of alcohol are available for selected populations such as adults attending medical facilities (Ndetei et al. 2009; Othieno et al. 2009) and adolescents (Mugisha et al. 2003; Ogwell et al. 2004) and from small-scale surveys (NACADA Authority 2007, 2010). Other research on tobacco and alcohol use in sub-Saharan Africa have identified these behaviours as risk factors or variables that impact treatment of communicable diseases (Kalichman et al. 2006; Chersich et al. 2007, 2009; Amuha et al. 2009; Abaynew et al. 2011). The lack of comprehensive data representative of the Kenyan population limits our ability to assess the magnitude of the problem.

The aim of our study was to estimate the prevalence of smoking and alcohol use amongst adults according to poverty level, marital status, sex and age in a rural population in western Kenya. Our study area has an ongoing Health and Demographic Surveillance System (HDSS), thereby providing an opportunity to sample across a population with known sociodemographic characteristics. As of September 2012, this epidemiological study is the largest study examining factors associated with alcohol and tobacco use in a sub-Saharan African country.

Methods

Study site and population

The population is described in detail elsewhere (Cohen & Atieno-Odhiambo 1989; Phillips-Howard et al. 2003; Odhiambo et al. 2012). Briefly, the study site comprises 385 villages spread over a 700 km2 area along the shores of Lake Victoria, Nyanza Province in western Kenya. The area is rural and includes Asembo (Rarieda District), Wagai and Yala (Gem District), and Karemo (Siaya District) (Figure 1). The population are Luo with polygynous families living in compounds comprised of a separate house for each wife and her children. Most are subsistence farmers.

Figure 1.

Figure 1

Map of study area.

Health and demographic surveillance system and data processing

The HDSS is a population-based system that is used to longitudinally record demographic data of more than 220 000 individuals. A household census of the total population, where field staff visit households and survey individuals to collect demographic information, occurs three times each year from January to April, May to August and September to December. Census information comprises births, deaths, in- and out-migrations, pregnancies, morbidity, parental survival status, immunisation status for children under 2 years, religion, marriage and ethnicity. Education and socio-economic status (SES) are collected once every 2 years. Economic indicators gathered for each household include the occupation of the head of household, primary source of drinking water, use of cooking fuel, ownership of material assets and livestock possessions (Meltzer et al. 2003). From these economic indicators, a household SES index was calculated as a weighted average of the indicators using multiple correspondence analysis (MCA). MCA provides a composite asset index score for categorical variables and does not presume indicator values are normally distributed. The MCA household SES index was then used to rank households within our study population by quintiles ranging from 1 (poorest) to 5 (least poor) households (Filmer & Pritchett 2001; McKenzie 2005; Booysen et al. 2008).

In 2011, we added a module for adults aged 18 years and older to measure their use of alcohol and tobacco. Alcohol and tobacco use data presented in this article are from household interviews conducted in parallel with the HDSS second round census from May to August 2011. If an individual was not at home, a senior adult informant in the household was asked to serve as a proxy and report on the absent individual’s alcohol consumption and smoking behaviour. Whenever possible, individuals were interviewed privately due to the sensitive nature of questions regarding drinking and smoking.

We asked participants (i) if they ever consumed alcohol, (ii) the number of days alcohol was consumed in the past 7 days, and if they reported no alcohol use in the past 7 days, then we asked (iii) about the past 30 days. Because of restrictions in the number of questions that could be added to the survey, we did not use existing tools such as the CAGE questionnaire (Sendagire et al. 2012). In Kenya, consumption of local brew is common (NACADA Authority 2007). The alcohol content of such beverages can vary widely, as does the size of cups, and drinkers generally have their cups topped up as they drink. These factors would render any effort to measure quantity of alcohol consumed based on alcohol content and volume highly inaccurate. Instead, participants who reported drinking in the past 30 days were also asked about the number of days in the past 30 that they were ‘drunk’. Local vernacular was used by field staff to define ‘drunk’ as any time in which the participant exhibited behaviour readily associated with excessive alcohol consumption (e.g. difficulty in walking straight, slurred or incoherent speech or a sense of feeling ‘tipsy’). Responses on the number of days alcohol was consumed in the past 7 days and the number of days the drinker was ‘drunk’ in the past 7 days were multiplied by 4.3 (52 weeks/12 months) to obtain past-30-day estimates.

The categories presented for the number of days drinking in the past 30 days are based on the calculated tertiles amongst those who drank. Tertiles were 1–7, 8–17 and >17 days per month. For smoking, we calculated the proportion of people that ever smoked, had smoked at least 100 cigarettes in their lifetime and current smoking (i.e. reported smoking at least 100 cigarettes and reported smoking at the time of the interview) (Lau et al. 2008). We calculated smoking and drinking prevalence and 95% confidence intervals and present estimates stratified by gender, age, wealth index and marital status. We performed crude and adjusted logistic regression and calculated 95% confidence intervals to assess factors related to current smoking and problem drinking, those who drank on at least 8 days during the past 30 and were drunk at least half of the times they drank.

Ethical considerations

Surveillance activities and informed consent procedures were reviewed by the Kenyan Medical Research Institute (KEMRI) and Centers for Disease Control and Prevention (CDC) scientific and ethics committees. The protocol for this analysis was reviewed and approved by CDC. Due to low literacy levels in Luo and English in the study area, participants are orally informed of their right to withdraw before each census takes place and acknowledge their consent through their signature or thumb print. Data are stored securely, without names, and can only be accessed by people authorised to do so; data are stored at KEMRI/CDC Research and Public Health Collaboration campus at Kisian in western Kenya.

Results

Overall, interviews on 72 292 individuals were conducted. The majority of respondents were female (56.9%), between 18 and 29 years of age (35.8%), married or cohabitating (57.2%) and had a primary education (63.9%). In comparison with men, a greater proportion of women were 40 years or older (50.6% vs. 41.0%, P < 0.0001), widowed (28.4% vs. 3.4%, P < 0.0001) and had no formal education (18.6% vs. 4.2%, P < 0.0001) (Table 1).

Table 1.

Characteristics of the study population by gender

Gender
Male Female Total
n n N
Total 31 188 %* 41 104 %* 72 292 %*
Respondent
 Proxy 19 018 61.0 17 707 43.1 36 725 50.8
 Self 12 170 39.0 23 397 56.9 35 567 49.2
Age category
 18–29 12 656 40.6 13 216 32.2 25 872 35.8
 30–39 5733 18.4 7060 17.2 12 793 17.7
 40–49 3850 12.3 6183 15.0 10 033 13.9
 50–59 3439 11.0 6007 14.6 9446 13.1
 60+ 5510 17.7 8638 21.0 14 148 19.6
Marital status
 Single 10 630 34.2 5737 14.0 16 367 22.7
 Married/cohabitating 18 252 58.6 23 022 56.1 41 274 57.2
 Divorced 1177 3.8 628 1.5 1805 2.5
 Widow 1068 3.4 11 629 28.4 12 697 17.6
Highest education completed
 None 1318 4.2 7631 18.6 8949 12.4
 Primary 20 064 64.5 25 983 63.5 46 047 63.9
 Secondary 8311 26.7 6610 16.1 14 921 20.7
 Post-secondary 1434 4.6 710 1.7 2144 3.0
*

Percentages exclude missing data.

Amongst adults 18 years and older, the overall prevalence of ever drinking alcohol was 20.7% (20.4–21.0) and that of ever smoking was 11.2% (11.0–11.5) (Table 2). The prevalence of drinking alcohol in the past 30 days was 7.3% (7.1–7.5) amongst all individuals and 34.6% (33.9–35.4) amongst ever drinkers. In total, the prevalence of current smoking was 6.3% (6.1–6.5) and 5.7% (5.5–5.9) smoked daily. The prevalence of both smoking and drinking was two to three times higher amongst men than women. Overall, 1.7% of persons reportedly had smoked daily and drank alcohol on 18 or more days in the past 30 days (the highest tertile calculated for persons who reported drinking in the past 30 days).

Table 2.

Alcohol and smoking prevalence by gender

Gender
Male Female Total
Yes (%)* No (%)* Unknown Yes (%)* No (%)* Unknown Yes (%)* No (%)* Unknown
Ever smoke 4945 (16.4) 25 126 (83.6) 1117 2978 (7.4) 37 445 (92.6) 681 7923 (11.2) 62 571 (88.8) 1798
Smoked 100 cigarettes lifetime 4401 (14.7) 25 473 (85.3) 1314 2516 (6.2) 37 806 (93.8) 782 6917 (9.9) 63 279 (90.1) 2096
Smokes now 3382 (11.2) 26 689 (88.8) 1117 1042 (2.6) 39 381 (97.4) 681 4424 (6.3) 66 070 (93.7) 1798
Smokes every day 3066 (10.2) 26 959 (89.8) 1163 928 (2.3) 39 486 (97.7) 690 3994 (5.7) 66 445 (94.3) 1853
Ever drink 9191 (31.0) 20 443 (69.0) 1554 5269 (13.1) 34 810 (86.9) 1025 14 460 (20.7) 55 253 (79.3) 2579
Drank in the past 30 days 4079 (14.2) 24 694 (85.8) 2415 931 (2.3) 38 946 (97.7) 1227 5010 (7.3) 63 640 (92.7) 3642
 Did not get drunkf 799 (19.6) 290 (31.1) 1089 (21.7)
 Drunk <50% when drinking 733 (18.0) 169 (18.2) 902 (18.0)
 Drunk 50%+ when drinking 2547 (62.4) 472 (50.7) 3019 (60.3)
Ever drink and ever smoke 4569 (15.1) 25 675 (84.9) 944 2309 (5.7) 38 211 (94.3) 584 6878 (9.7) 63 886 (90.3) 1528
Smokes daily and drinks 18+ days in a month 1027 (3.4) 29 217 (96.6) 944 166 (0.4) 40 354 (99.6) 584 1193 (1.7) 69 571 (98.3) 1528
*

Percentages exclude missing data.

Percentages calculated amongst those who drank in the past 30 days.

Amongst the 34.6% of ‘ever drinkers’ that drank in the past 30 days, 60.3% reported being drunk on half or more of all drinking occasions. Table 3 shows that the trend for being ‘drunk’ on half or more of all drinking occasions increased as the number of reported days of drinking in the past 30 days increased (P < 0.0001). Amongst those who reported drinking on 18 days or more, two-thirds reported being ‘drunk’ on half or more of all occasions when they drank. Amongst those who drank in the past 30 days, the per cent of current smokers significantly increased from 40.9% to 61.3% with increasing number of days in a month drinking (P < 0.0001).

Table 3.

Per cent of time drunk by the number of days drinking and current smoking status amongst those who drank in the past 30 days

Days in a month drinking
1–7 8–17 18+ Total
n %* n %* n %* n %*
Total 1338 1674 1998 5010
% of time drunk when drinking
 Did not get drunk 506 37.8 395 23.6 188 9.4 1089 21.7
 <50% 147 11.0 282 16.8 473 23.7 902 18.0
 50%+ 685 51.2 997 59.6 1337 66.9 3019 60.3
Smokes now
 Yes 545 40.9 825 49.5 1222 61.3 2592 51.9
 No 789 59.1 842 50.5 770 38.7 2401 48.1
 Unknown 4 0 7 11
*

Percentages exclude missing data.

P < 0.0001 (test of trend).

For male individuals, 61.0% of interviews were from proxy respondents (Table 1). In comparison with self-respondents, individuals represented by proxies were younger (median age 30 years vs. 46, P < 0.0001) and had lower prevalence of ever smoking (6.5% vs. 15.9%, P < 0.0001), current smoking (4.6% vs. 7.9%, P < 0.0001) and ever drinking (13.8% vs. 27.4%). Drinking alcohol in the past 30 days was more common amongst individuals with proxy respondents (49.8% vs. 32.1%, P < 0.0001). Table 4 includes estimates of crude and adjusted associations between current smoking, problem drinking and select factors. After adjusting for cofactors, proxy report was not associated with current smoking but it was significantly associated with problem drinking (OR = 1.93, P < 0.0001).

Table 4.

Crude and adjusted multivariate logistic regression models for current smokers and problem drinkers

Crude OR (lower CL, upper CL) Adjusted OR (lower CL, upper CL)
Currently smokes
Ever drink 44.37 (40.21, 48.95) 28.28 (25.51, 31.36)
Gender
 Male 4.79 (4.46, 5.14) 3.40 (3.12, 3.70)
 Female Referent Referent
Age
 18–29 Referent Referent
 30–39 3.77 (3.38, 4.21) 1.99 (1.76, 2.26)
 40–49 4.06 (3.62, 4.55) 2.23 (1.95, 2.54)
 50–59 4.95 (4.43, 5.54) 2.59 (2.28, 2.95)
 60+ 5.30 (4.78, 5.88) 1.83 (1.62, 2.06)
Wealth index
 1 Referent Referent
 2 0.63 (0.57, 0.69) 0.62 (0.56, 0.70)
 3 0.50 (0.46, 0.55) 0.51 (0.46, 0.58)
 4 0.36 (0.33, 0.40) 0.36 (0.32, 0.40)
 5 0.28 (0.25, 0.30) 0.28 (0.25, 0.31)
Respondent
 Proxy 0.57 (0.53, 0.60) 0.98 (0.90, 1.06)
 Self Referent Referent
Drunk 50%+ of time when drinking 8+ days in past 30 days
Currently smokes 5.58 (5.08, 6.13) 4.52 (4.09, 5.00)
Gender
 Male 4.39 (3.89, 4.96) 2.67 (2.34, 3.05)
 Female Referent Referent
Age
 18–29 Referent Referent
 30–39 1.32 (1.14, 1.54) 1.17 (0.99, 1.38)
 40–49 1.29 (1.10, 1.51) 1.30 (1.10, 1.55)
 50–59 1.04 (0.89, 1.21) 1.22 (1.03, 1.45)
 60+ 0.51 (0.44, 0.59) 0.75 (0.64, 0.88)
Wealth index
 1 Referent Referent
 2 0.99 (0.85, 1.14) 0.85 (0.72, 1.00)
 3 1.01 (0.88, 1.17) 0.86 (0.73, 1.01)
 4 0.98 (0.85, 1.12) 0.86 (0.74, 1.01)
 5 0.78 (0.68, 0.89) 0.70 (0.60, 0.82)
Respondent
 Proxy 2.34 (2.14, 2.56) 1.93 (1.74, 2.14)
 Self Referent Referent

Figures 2 and 3 are illustrations of smoking and drinking indicators by SES index category from 1 (poorest) to 5 (least poor). All smoking and drinking indicators significantly fell with rising SES index. The prevalence of daily smoking was more than triple (11.0% vs. 3.3%, P < 0.0001), and the prevalence of being drunk on 50% or more on all occasions when drinking was more than double (6.3% vs. 2.9%, P = 0.01) amongst the poorest compared to the least poor SES index quintiles.

Figure 2.

Figure 2

Smoking characteristics by socio-economic status (SES) index (one poorer to five least poor) amongst the study population. *P < 0.0001 (test of trend).

Figure 3.

Figure 3

Drinking characteristics by socio-economic status (SES) index (one poorer to five least poor) amongst study population. *P < 0.0001 (test of trend). ^P = 0.01 (test of trend).

The prevalence of smoking and drinking indicators by gender and age categories is shown in Figures 4 and 5. For men, both smoking and drinking indicators substantially increased between the age groups of 18–29 years and 30–39 years and began to level off or dropped for those aged 60 years or older. For women, the percentage of persons smoking remained small but increased significantly after 50 years of age. Drinking indicators amongst women rose significantly with increasing age. Amongst women 60 years or older, 88.6% of the current smokers were daily smokers and 51.0% of those who drank in the past 30 days were drunk on half or more of occasions when drinking. Widowed followed by married/cohabitating women had the highest prevalence of ever smoking and drinking. The percentage of widowed women who ever smoked and drank alcohol was more than tripled from the ages of 50–59 (7.6%) to those aged 60 years and older (24.1%).

Figure 4.

Figure 4

Lifetime and current smoking status by age category and gender amongst study population. *P < 0.0001 (test of trend).

Figure 5.

Figure 5

Lifetime and recent drinking status (past 30 days) by age category and gender amongst study population. *P < 0.0001 (test of trend).

Crude and adjusted associations between selected factors and current smoking and problem drinking are presented in table 4. After adjustment, ever drinking (OR = 28.28, P < 0.0001), men (OR = 3.40, P < 0.0001), older age groups and increasing wealth index were significantly associated with current smoking. Current smoking (OR = 4.52, P < 0.0001), men (OR = 2.67, P < 0.0001), for all age groups 40 years and above (see Table 4), and the highest wealth index quintile (OR = 0.70, P = 0.0001) were significantly associated with problem drinking.

Discussion

Based on our analyses, both smoking and alcohol use are prevalent in this region of Kenya. Drinking alcohol, however, is more prevalent than smoking, which is consistent with previous data for Nyanza province (NACADA Authority 2007; Kenya National Bureau of Statistics (KNBS) 2010). Alcohol, such as chang’aa (a traditional spirit) and busaa (a traditional beer), may be easier to obtain, as it is made in households and sold cheaply in this rural setting (Papas et al. 2010). Traditional home brewing of alcohol occurs in many countries in Africa (Willis 2002; Macintyre & Bloss 2011). In Kenya, chang’aa, which literally means ‘kill me quick’, is the most popular form of alcohol in Nyanza province (NACADA Authority 2007) and is made from millet and corn. Chang’aa, which costs approximately 20 Kenyan shillings or USD$0.25 a glass, is a fifth to a tenth of the cost of commercially manufactured brews and is therefore more accessible to residents. Chang’aa poses serious health concerns as it causes death or blindness from methanol poisoning or from other toxic substances and colourants added to enhance alcohol content.

Our prevalence estimates of smoking and drinking for residents of the HDSS site in Nyanza Province are lower than previously reported national estimates for Kenya. Based on the 2003 World Health Survey, amongst rural residents, 26.2% ever drank alcohol and 12.7% currently smoke (World Health Organization 2003). The Kenyan National Agency for the Campaign Against Drugs Authority (NACADA) reported 38.8% ever drinking and 20.0% ever smoking for rural residents in 2007 (NACADA Authority 2007). One reason for the lower estimates in our study may be due to responses from proxies who may not have known an individuals’ past drinking and smoking behaviours. Alternatively, the Kenyan government legalised home brews through the Alcoholic Drinks Control Act in 2010. The Act is intended to take business away from illicit brewers, control production, reduce exposure through limiting outlets and to control the time and mode of consumption and the age of use (NACADA 2010). It is possible that this survey reflects a reduction in alcohol consumption since the enactment of the new law.

The main determinants of alcohol-related harm are the volume of alcohol consumed and the pattern of consumption, particularly instances of heavy (‘binge’) drinking (World Health Organization 2011a). Here, a finding of importance is the high percentage of those who become drunk when drinking, particularly men and people of lower SES. Although both lifetime and current drinkers are a minority in this community, those that state they consume alcohol do so to excess. This finding is consistent with data from the 2008 to 2009 Kenyan Demographic Health Survey where 34% and 65% of women reported that their husbands/partners were drunk ‘often’ and ‘sometimes’, respectively (Kenya National Bureau of Statistics (KNBS) 2010). Clausen and colleagues explain this ‘all or none’ pattern present in some African countries including Kenya, where individuals are either heavy drinkers or abstainers. This differentiation may be a result of a significant percentage of individuals who are outliers participating in a behaviour outside the social norm, while the majority abstain from the behaviour as demonstrated by the high prevalence of persons reporting that they do not drink (Clausen et al. 2009). While it is possible that drinkers specifically consume alcohol to get drunk, a person’s ability to regulate their drunkenness is complicated by the fact that home-brewed alcohol varies considerably in terms of its ethanol concentration (Papas et al. 2010). The pattern we observed for alcohol use may extend to smoking as well, given the high percentages of individuals who smoke daily and smoked more than 100 cigarettes in a lifetime, relative to the majority that reported never smoking.

The prevalence of current smoking amongst women overall is higher than what has been reported nationally in Kenya by the World Health Survey (1.0%) and the NACADA (1.3%) (World Health Organization 2003; NACADA Authority 2007). These higher rates in women, however, are driven by the substantial increase in smoking amongst women aged 50 years and older. Our finding is consistent with other studies of tobacco smoking in neighbouring Tanzania, Rwanda and Malawi, where the prevalence amongst women was greatest for the over 50 years of age group (Jagoe et al. 2002; Negin et al. 2011). Increasing age in women has also been found to be associated with higher odds of currently drinking, although this was not significant for Kenya (Martinez et al. 2011). Reasons for this trend of smoking and drinking in older women in rural Kenya are unclear as are the public health implications, although anecdotally locals suggest older women do not have the same cultural restrictions as younger women.

In this impoverished region, the poorest had significantly higher rates of drinking and smoking. This trend holds for smoking data in the World Health Survey (World Health Organization 2003) and for men in rural Nyanza province in the Kenya Demographic Health Survey (KDHS)1 (Kenya National Bureau of Statistics (KNBS) 2010). However, it is counter to data reported by NACADA, which showed higher rates of both alcohol and smoking in wealthier individuals (NACADA Authority 2007). The difference in prevalence between our data and the NACADA data may be due to the greater accessibility of commercially produced alcohol and cigarettes by wealthier, urban households in Kenya, which our study did not include. However, the low cost of traditional home-brewed alcohol makes it accessible for even the poorest members of the community. Our findings are consistent with other studies that have found higher rates of smoking and drinking amongst the poorest individuals (De Silva et al., 2010; Neufeld et al. 2005; Aekplakorn et al. 2008).

Our study has several limitations. First, drinking and smoking frequencies are based on self-report from either individuals or their proxy. Proxies may not be knowledgeable of an individual’s smoking and drinking behaviours, particularly over ones lifetime. With the exception of number of days drinking in the last 30 days, proxy responses yielded lower rates of drinking and smoking behaviours than did self-report responses. Household interviews occurred during daylight hours when those working outside the home were not present, and therefore, individuals represented by proxy respondents may have different risk behaviours than those who were directly interviewed. This is supported by those represented by proxies were significantly younger than those represented by themselves. In our adjusted multivariate models, relative to self-report, proxies were associated with problem drinking but not current smoking, which may indicate that problem drinking is less socially desirable. Given the tendency for individuals to underestimate drinking behaviours in surveys (Stockwell et al. 2004), data from proxies may be more reliable.

Another limitation results from the need to multiply out responses for past 7-day drinking and past 7-day drunk to estimate drinking and drunkenness in the past 30 days. Although there may have been differential recall bias based on the different time frames and past 7-day alcohol consumption may not represent the full 30 days, we considered the benefits of obtaining a single variable to outweigh the limitation of substratifying analyses. Regardless of time frame, the majority of individuals were drinking to be drunk, and this proportion increased with greater drinking frequency. Lastly, the alcohol and smoking data generated were limited to assessing frequency of use. In this preliminary prevalence study, we were unable to explore the types or quantity of alcohol or cigarettes consumed. This limitation precluded a greater understanding of drunkenness and associated risk factors. Development of future studies with more detailed consumption behaviour data would form a basis for ascertaining health risks and potential interventions.

In summary, we documented a high prevalence of drinking until drunk amongst current drinkers, 1 in 10 men smoke daily and both smoking and problem drinking were greatest amongst the poor and older women in an impoverished community with high rates of HIV, malaria and TB. Given the prominent role that drinking and smoking also have on a multitude of diseases and conditions, having baseline data is necessary to identify trends and focus points for intervention. In recent studies in East Africa, alcohol abuse was related to defaulting from TB treatment (Muture et al. 2011; Sendagire et al. 2012). Based on our data, programmes and interventions are needed to promote responsible alcohol consumption and tobacco use cessation and prevent the initiation of these behaviours. Policies should be evidence based and appropriate both regionally and nationally and should regulate the availability and cost of alcohol by controlling illicit production and alcohol marketing activities. Complementary initiatives that promote public health awareness of alcohol-related harm should be employed across all levels of the population. Other recommendations include monitoring alcohol attributable morbidity and mortality to evaluate the alcohol-related burden and increasing the capacity of services to prevent and treat abuse of alcohol, including alcohol use screening initiatives (World Health Organization 2010).

Acknowledgements

We wish to acknowledge the staff at Kenyan Medical Research Institute (KEMRI) CDC who have spent countless hours collecting and processing data from the Health and Demographic Surveillance System (HDSS) in Kisumu, Kenya. The Health HDSS is supported through funding by the KEMRI CDC collaboration.

Footnotes

1

Although neither representative nor significant, the highest reported smoking prevalence was in the poorest quintile, while the lowest was in the richest. This is the inverse for Kenya overall in the KDHS, which shows an increasing trend with the exception of the highest quintile. The numbers of women smoking were too small for meaningful comparisons.

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