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Australian Institute of Health and Welfare. Australia's health 2016 [Internet]. Canberra: Australian Institute of Health and Welfare, 2016 [cited 2022 May. 26]. Available from: https://www.aihw.gov.au/reports/australias-health/australias-health-2016
Australian Institute of Health and Welfare (AIHW) 2016, Australia's health 2016, viewed 26 May 2022, https://www.aihw.gov.au/reports/australias-health/australias-health-2016
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Determinants of health are factors that influence how likely we are to stay healthy or to become ill or injured. This chapter examines three key determinants of health: social determinants, biomedical risk factors and behavioural risk factors.
Many of the key drivers of health reside in our everyday living and working conditions—the circumstances in which we grow, live, work and age. These social determinants include factors such as income, education, employment and social support.
Social determinants can strengthen or undermine the health of individuals and communities. For example, in general, people from poorer social or economic circumstances are at greater risk of poor health than people who are more advantaged.
A person's health is also influenced by biomedical factors and health behaviours that are part of their individual lifestyle and genetic make-up. These factors can be positive in their effects (for example, being vaccinated against disease), or negative (for example, consuming alcohol at risky levels).
Biomedical risk factors such as high blood pressure can have a direct impact on illness and chronic disease. For example, in 2014–15, 23% of Australian adults had high blood pressure, which is a risk factor for stroke, coronary heart disease, heart failure and chronic kidney disease.
Behavioural risk factors such as tobacco smoking, risky alcohol consumption, using illicit drugs, not getting enough exercise and poor eating patterns can also have a detrimental effect on health.
Although there is a lot to celebrate about Australia's changing smoking and drinking behaviours, there are still areas of concern.
Some population groups are far more likely to smoke daily than the general population—for example, smoking rates are much higher among single parents with dependent children, and Aboriginal and Torres Strait Islander people are more likely to smoke than non-Indigenous Australians.
Although the overall volume of alcohol being consumed by Australians aged 15 and over has fallen to its lowest level in 50 years, some people still drink to excess, putting them at risk of short- and long-term adverse health effects.
This chapter also looks at illicit drug use, which contributes to substantial illness, disease and many deaths in Australia. It is estimated that about 2.9 million people aged 14 and over—15% of the population—are illicit drug users. The four most commonly used illicit drugs are cannabis, ecstasy, methamphetamine and cocaine.
Our health is influenced by the choices that we make—whether we smoke, drink alcohol, are immunised, have a healthy diet or undertake regular physical activity. Health prevention and promotion, and timely and effective treatment and care, are also important contributors to good health. Less well recognised is the influence of broader social factors on health (see 'Chapter 1.1 What is health?').
Evidence on the close relationship between living and working conditions and health outcomes has led to a renewed appreciation of how human health is sensitive to the social environment. Factors such as income, education, conditions of employment, power and social support act to strengthen or undermine the health of individuals and communities. Because of their potent and underlying effects, these health-determining factors are known as the 'social determinants of health' (Wilkinson & Marmot 2003).
The World Health Organization (WHO) has described social determinants as:
...the circumstances in which people grow, live, work, and age, and the systems put in place to deal with illness. The conditions in which people live and die are, in turn, shaped by political, social, and economic forces (CSDH 2008).
According to WHO, the social conditions in which people are born, live and work is the single most important determinant of good health or ill health. As factors that affect health, social determinants can be seen as 'causes of the causes'—that is, as the foundational determinants which influence other health determinants. In keeping with this model, Figure 4.1.1 illustrates how social determinants extend inward to affect other factors, including health behaviours and biomedical factors that are part of a person's individual lifestyle and genetic make-up.
Source: Dahlgren & Whitehead 1991.
The National Health Performance Framework also recognises the importance of social determinants to our health. The framework includes community and socioeconomic factors that relate to income, health literacy and educational attainment (see 'Chapter 7.1 Indicators of Australia's health').
The health advantages and disadvantages experienced by Australians are shaped by their broader social and economic conditions (see Box 4.1.1). Inequalities in health appear in the form of a 'social gradient of health', so that in general, the higher a person's socioeconomic position, the healthier they are.
Some health inequalities are attributable to external factors and to conditions that are outside the control of the individuals concerned. Inequalities that are avoidable and unjust—health inequities—are often linked to forms of disadvantage such as poverty, discrimination and access to goods and services (Whitehead 1992).
The evidence gathered from the ways in which social, economic, political and cultural conditions create health inequalities has led to the identification of key social determinants of health and wellbeing (CSDH 2008; Wilkinson & Marmot 2003), including socioeconomic position, early life circumstances, social exclusion, social capital, employment and work, housing and the residential environment.
In general, people from poorer social or economic circumstances are at greater risk of poor health, have higher rates of illness, disability and death, and live shorter lives than those who are more advantaged (Mackenbach 2015). Generally, every step up the socioeconomic ladder is accompanied by an increase in health.
Historically, individual indicators such as education, occupation and income have been used to define socioeconomic position (Galobardes et al. 2006).
The foundations of adult health are laid in-utero and during the perinatal and early childhood periods (Lynch & Smith 2005). The different domains of early childhood development—physical, social/emotional and language/cognitive—strongly influence learning, school success, economic participation, social citizenry and health (CSDH 2008). Healthy physical development and emotional support during the first years of life provide building blocks for future social, emotional, cognitive and physical wellbeing. Children from disadvantaged backgrounds are more likely to do poorly at school, affecting adult opportunities for employment, income, health literacy and care, and contributing to intergenerational transmission of disadvantage. Investment in early childhood development has great potential to reduce health inequalities, with the benefits especially pronounced among the most vulnerable children (Heckman & Mosso 2014).
Social exclusion is a broad concept used to describe social disadvantage and lack of resources, opportunity, participation and skills (Hayes et al.2008). Social exclusion may result from unemployment, discrimination, stigmatisation and other factors. Poverty; culture and language; and prejudices based on race, religion, gender, sexual orientation, disability, refugee status or other forms of discrimination limit opportunity and participation, cause psychological damage and harm health through long-term stress and anxiety. Social exclusion can damage relationships, and increase the risk of disability, illness and social isolation. Additionally, disease and ill health can be both products of, and contribute to, social exclusion.
Social capital describes the benefits obtained from the links that bind and connect people within and between groups (OECD 2001). The extent of social connectedness and the degree to which individuals form close bonds with relations, friends and acquaintances has been in some cases associated with lower morbidity and increased life expectancy (Kawachi et al. 1997), although not consistently (Pearce & Smith 2003). It can provide sources of resilience against poor health through social support which is critical to physical and mental wellbeing, and through networks that help people find work, or cope with economic and material hardship.
Social infrastructure—in the form of networks, mediating groups and organisations—is also a prerequisite for 'healthy' communities (Baum & Ziersch 2003).
The degree of income inequality within societies (the disparity between high and low incomes) has also been linked to poorer social capital and to health outcomes for some, although there is little evidence of consistent associations (Lynch et al. 2004).
Unemployed people have a higher risk of death and have more illness and disability than those of similar age who are employed (Mathers & Schofield 1998). The psychosocial stress caused by unemployment has a strong impact on physical and mental health and wellbeing (Dooley et al. 1996). For some, unemployment is caused by illness, but for many it is unemployment itself that causes health problems through its psychological consequences and the financial problems it brings.
Rates of unemployment are generally higher among people with no or few qualifications or skills, those with disabilities or poor mental health, people who have caring responsibilities, those in ethnic minority groups or those who are socially excluded for other reasons (AIHW 2015b).
Once employed, work is a key arena where many of the influences on health are played out. Dimensions of work—working hours, job control, demands and conditions—have an impact on physical and mental health (Barnay 2015). Participation in quality work is health-protective, instilling self-esteem and a positive sense of identity, while also providing the opportunity for social interaction and personal development (CSDH 2008).
Safe, affordable and secure housing is associated with better health, which in turn impacts on people's participation in work, education and the community. It also affects parenting and social and familial relationships (Mallet et al. 2011). There is a gradient in the relationship between health and quality of housing: as the likelihood of living in 'precarious' (unaffordable, unsuitable or insecure) housing increases, health worsens. The relationship is also two-way, in that poor health can lead to precarious housing. Single parents and single people generally, young women and their children and older private renters are particularly vulnerable to precarious housing (AIHW 2015b; Mallet et al. 2011).
The residential environment has an impact on health equity through its influence on local resources, behaviour and safety. Communities and neighbourhoods that ensure access to basic goods and services; are socially cohesive; which promote physical and psychological wellbeing; and protect the natural environment, are essential for health equity (CSDH 2008).
To that end, health-promoting modern urban environments are those with appropriate housing and transport infrastructure and a mix of land use encouraging recreation and social interaction.
Since social determinants are often pinpointed as a key cause of health inequalities, measuring the size of the health gap between different social groups is important. This provides essential information for policies, programs and practices which seek to address social determinants in order to reduce health gaps (Harper & Lynch 2006).
A common approach to measurement is to: (i) rank the population by socioeconomic position; (ii) divide the population into groups based on this ranking; and (iii) compare each group on health indicators of interest. To rank the population by socioeconomic position, factors such as education, occupation or income level are commonly used, although many other factors, such as housing, family structure or access to resources, can also be used. These factors closely reflect social conditions, such as wealth, education, and place of residence (WHO 2013a). Similar associations between socioeconomic position and health are generally found regardless of which factor is used.
Although individual measures of socioeconomic position are included in some health data sets, area-based measures can be calculated from most collections. An example is the Australian Bureau of Statistics (ABS) composite Index of Relative Socio-economic Disadvantage (IRSD), which is frequently used to stratify the population—see Box 4.1.2 for further details.
The IRSD is one of four indices compiled by the ABS using information collected in the Census of Population and Housing (ABS 2013). This index represents the socioeconomic conditions of Australian geographic areas by measuring aspects of disadvantage. The IRSD scores each area by summarising attributes of their populations, such as low income, low educational attainment, high unemployment, and jobs in relatively unskilled occupations. Areas can then be ranked by their IRSD score and are classified into groups based on their rank. Any number of groups may be used—five is common.
If five categories are used, then the IRSD commonly describes the population living in the 20% of areas with the greatest overall level of disadvantage as 'living in the lowest socioeconomic areas' or the 'lowest socioeconomic group. The 20% at the other end of the scale—the top fifth—is described as the 'living in the highest socioeconomic areas' or the 'highest socioeconomic group.
It is important to understand that the IRSD reflects the overall or average socioeconomic position of the population of an area; it does not show how individuals living in the same area might differ from each other in their socioeconomic position.
Often, the gap between the lowest and highest socioeconomic groups is of greatest interest. Simple differences in epidemiologic measures, such as rates and prevalences, can be used to examine this gap—and this gap can be absolute (for example, a difference in rates) or relative (for example, the ratio between two rates) (Harper et al. 2010).
Both absolute and relative measures help in understanding the differences in health status between the two groups. Absolute measures are important for decision makers, especially where goals in absolute terms have been set, since they allow a better appraisal of the size of a public health problem.
Simple measures generally use information from only two socioeconomic groups—the lowest and highest—and ignore the middle groups. More complex measures use information from all groups to measure the magnitude of socioeconomic inequalities in health (WHO 2013a).
Although complex measures include information on both the magnitude of inequality and the total population distribution of inequality, they are restricted by the types of data that can be used, and by their ease of interpretation.
There is clear evidence that health and illness are not distributed equally within the Australian population. Variations in health status generally follow a gradient, with overall health tending to improve with improvements in socioeconomic position (Kawachi et al. 2002).
One example is mortality (Figure 4.1.2). In 2009–2011, the female mortality rate was 518 deaths per 100,000 population in the lowest socioeconomic areas, compared with 503 in the second group, 472 in the third, 453 in the fourth, and 421 in the highest socioeconomic areas—with a 23% difference in mortality rates between the highest and lowest areas. For males, the effect was similar, with an even greater inequality (33%) between the highest and lowest areas (AIHW 2014d).
Note: Socioeconomic groups are based on the area of residence using the ABS Index of Relative Socio-economic Disadvantage.
Source: AIHW 2014d.
The gradient in mortality affects life expectancy. People living in the lowest socioeconomic areas generally have lower life expectancies (Figure 4.1.3). In 2009–2011, a baby born in a region where only 10% of the subregions were in the lowest socioeconomic group could, on average, expect to live to 83 years, whereas a baby born in a region where 70% of the subregions were in the lowest socioeconomic group could expect to live to 79 years.
The gradient is apparent even at young ages. Figure 4.1.4 illustrates the relationship between social exclusion and health outcomes among Australian children. Children at higher risk of social exclusion—measured using an index of socioeconomic circumstances, education, connectedness, housing and health service access—had higher rates of avoidable deaths (that is, deaths which were potentially preventable or treatable within the present health system) (AIHW 2014c).
The social gradient also extends to types of health care coverage (Figure 4.1.5). People living in the lowest socioeconomic areas report much lower rates of private health insurance than those living in the highest socioeconomic areas (33% compared with 80% in 2011–12). Related to this, people living in lower socioeconomic areas were more likely to be covered by other schemes such as government health concession cards, reflecting the greater proportion receiving pensions and other income support in these areas. This pattern is not surprising, given government policy and incentives to encourage people with higher incomes to contribute more to the costs of their care, including through the purchase of private health insurance (ABS 2010).
Note: Each point represents a Medicare Local administrative health region. These consist of smaller subregions based on ABS Statistical Areas Level 1 (SA1), which were classified using the ABS Index of Relative Socio-economic Disadvantage. The line through the scatterplot is based on regression analysis which has been used to determine the best fit through the observed data.
Source: NHPA 2013, based on ABS Causes of Death and Life Tables 2009–2011.
Source: AIHW 2014c.
Source: AIHW analysis of ABS 2011–12 Australian Health Survey.
The social gradient in health can also be seen in differing rates for many health risk factors; in the prevalence of many chronic diseases and conditions; in the need for doctor visits; in hospitalisation; and in the use of other health care services (AIHW 2014a, 2014b, 2015c; De Vogli et al. 2007).
The gradient also exists within population groups, including among Aboriginal and Torres Strait Islander Australians (see 'Chapter 4.2 Social determinants of Indigenous health'), and minority groups such as people from non-English speaking backgrounds and refugees (Shepherd et al. 2012; Wilkinson & Marmot 2003). The social gradient effects can start from birth and persist throughout life, through adulthood and into old age, often extending to the next generation. This tends to entrench differences in health and wellbeing across the population. The gradient is a global phenomenon affecting all countries, regardless of whether they are low-, middle- or high-income countries (CSDH 2008).
Action on the social determinants of health is often seen as the most appropriate way to address health inequalities, with the prospect of better health for all across the entire social gradient (CSDH 2008). One study has estimated that half a million Australians could be spared chronic illness, $2.3 billion in annual hospital costs saved, and Pharmaceutical Benefits Scheme prescriptions cut by 5.3 million, if the health gaps between the most and least disadvantaged were closed (Brown et al. 2012).
In 2008, the WHO Commission on Social Determinants of Health made recommendations on what is required to close the health gap through action on social determinants (CSDH 2008). WHO suggested that countries adopt a 'whole-of-government' approach to address the social determinants of health, with policies and interventions from all sectors and levels of society—for example, transport and housing policies at the local level; environmental, educational, and social policies at the national level; and financial, trade, and agricultural policies at the global level (WHO 2011).
The United Kingdom and the WHO Regional Office for Europe have both conducted reviews of political action required to narrow health inequalities (Marmot 2010; WHO 2013b). In Australia, a major focus has been on closing the gap in Indigenous health (see 'Chapter 5 Health of population groups').
Barriers remain, however, in adopting a social determinants approach. Despite strong evidence and an imperative to tackle health inequities, the complex nature of social determinants continues to challenge conventional policy-making and action (Baum et al. 2013; Carey et al. 2014).
Socioeconomically disadvantaged people are a priority population for health monitoring. The AIHW routinely uses available measures, such as the IRSD, to assess and report the health outcomes of socioeconomic groups, and it investigates, where possible, which factors contribute to observed inequalities.
The Closing the Gap Clearinghouse at the AIHW has produced a number of reports that discuss how social determinants influence Aboriginal and Torres Strait Islander health outcomes, and how these determinants are associated with the health gap (AIHW 2015d).
The AIHW is seeking to expand its use of health and welfare data to further understand how social factors influence health.
Social determinants of health act through complex and multidirectional pathways. Research is focusing on better understanding the causal links between social determinants and health outcomes, and on which policies might lead to better health outcomes. Across all key determinants, evaluation of programs and interventions to identify successes in reducing inequalities is important.
Data availability and analytical constraints limit the monitoring of social determinants and the evidence needed for policy development. The extension of reporting to include variables such as ethnicity, culture and language, social support and the residential environment would provide a more robust picture of socioeconomic position. There is also scope for linking health and welfare data to provide a broader and more comprehensive understanding of the effects of social determinants. Additional longitudinal data would also enable improved monitoring of gaps and gradients in health inequalities.
Many AIHW reports include analysis of health indicators based on socioeconomic position, for example, Mortality inequalities in Australia 2009–2011.
For more information about disadvantage and social inequalities, see the AIHW report Australia's welfare 2015.
The World Health Organization has a leading role in supporting countries to take action on the social determinants of health to address health inequities.
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Brown L, Thurecht L & Nepal B 2012. The cost of inaction on the social determinants of health. Report No. 2/2012: CHA-NATSEM second report on health inequalities. Canberra: National Centre for Social and Economic Modelling.
Carey G, Crammond B & Keast R 2014. Creating change in government to address the social determinants of health: how can efforts be improved? BMC Public Health 14:1087.
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Harper S & Lynch J 2006. Measuring health inequalities. In: Oakes JM & Kaufman JS (eds). Methods in social epidemiology. San Francisco: Jossey-Bass.
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Lynch J & Smith GD 2005. A life course approach to chronic disease epidemiology. Annual Review of Public Health 26:1–35.
Mackenbach JP 2015. Socioeconomic inequalities in health in high-income countries: the facts and the options. In: Oxford textbook of global public health. Vol. 1. 6th edition. Oxford: Oxford University Press.
Mallett S, Bentley R, Baker E, Mason K, Keys D & Kolar V et al. 2011. Precarious housing and health inequalities: what are the links? Melbourne: Hanover Welfare Services, University of Melbourne, Melbourne City Mission and Adelaide: University of Adelaide.
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The social determinants of health refer to the close relationship between health outcomes and the living and working conditions that define the social environment. The previous article ('4.1 Social determinants of health') reviewed a wide range of social factors that influence health. One particular well-documented aspect of this relationship is the special role played by income and other related indicators of material affluence and socioeconomic position, such as education and occupation. That is the focus of this snapshot in the context of Indigenous health outcomes.
The social determinants of health related to socioeconomic position help to explain both the gaps in the average health status of Indigenous and non-Indigenous Australians, and also the wide variation observed in the health outcomes within the Indigenous population.
People with higher incomes live longer and have better health, on average, than do people with lower incomes. This relationship is a key component of the overall socioeconomic 'gradient' in health status (the strong association between health outcomes and socioeconomic position), and is regularly observed across countries and within the population subgroups of a country (CSDH 2008). This strong link occurs not just with higher levels of income but with a wide range of characteristics that denote a person's socioeconomic position, including educational attainment, employment and occupation. The higher the socioeconomic position, the better the health status on average. The gradient is not limited just to comparisons between the lowest and highest parts of the socioeconomic distribution, but is evident across the whole distribution (Case et al. 2002).
Previous studies have shown the importance of social determinants in understanding and addressing the health gap between Aboriginal and Torres Strait Islander Australians and non-Indigenous Australians (Booth & Carroll 2008; DSI Consulting 2009; Marmot 2011; Zhao et al. 2013). This was also confirmed by AIHW analyses on 'The size and causes of the Indigenous health gap' published in Australia's health 2014 (AIHW 2014). These studies found that between one-third and one-half of the health gaps between Indigenous and non-Indigenous Australians are associated with differences in socioeconomic position (AHMAC 2015).
Differences in social determinants can also explain a large part of the differences in health status within the Indigenous population. Indigenous Australians who are in the lowest income group, have a lower level of educational attainment or who are unemployed, are less likely to be in 'excellent' or 'very good' health (based on self-reported survey data) than those in the higher income groups, those with high educational attainment, or those who are employed (Figure 4.2.1).
Note: Q1–Q5 refer to income quintiles.
Source: AHMAC 2015.
The socioeconomic gradient in health status also occurs because rates of risky health behaviours are usually higher among individuals in low socioeconomic positions. One example of this relationship is the difference in behavioural risk factors associated with employment status. Indigenous Australians who are unemployed face a higher risk of poor health through higher rates of smoking, substance use and dietary behaviour (such as lower level of daily fruit consumption) compared with Indigenous Australians who are employed (Figure 4.2.2). A counter-example of a risk factor that has a higher prevalence among employed Indigenous adults is being overweight or obese.
The socioeconomic gradient in health starts early. Children in households with higher income have better health from an early age, and in many countries this relationship becomes more pronounced as children get older (Case et al. 2002).
There is limited direct evidence specifically for Indigenous children in Australia on the origins and trajectories of the gradient in health; but one proxy indicator—low birthweight—highlights the early start to socioeconomic disadvantage in health for many Indigenous children.
Source: AIHW 2015a.
AIHW analyses of the National Perinatal Data Collection show that:
The relationship between health status and its social determinants can be complex. Social determinants can also influence other determinants of health, such as health behaviours and access to health services. More detailed longitudinal analysis is required. Previous analyses mainly sought to explain the health gaps between Indigenous and non-Indigenous Australians. Less is known about the role of socioeconomic factors in explaining differences in the health status among Indigenous Australians, including the health status of specific subgroups, such as Indigenous Australians with a disability.
More information on the social determinants of Indigenous health in Australia and other related health issues is available at Closing the gap.
The report Australia's mothers and babies 2013 has more detailed data on low birthweight babies and other outcomes for Indigenous and non-Indigenous babies.
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Zhao Y, Wright J, Begg S & Guthridge S 2013. Decomposing Indigenous life expectancy gap by risk factors: a life table analysis. Population Health Metrics 11:1–9.
Biomedical risk factors are bodily states that can contribute to the development of chronic disease. Abnormal levels of the three biomedical factors in this snapshot—blood pressure, blood lipids and blood glucose—pose direct and specific risks to health.
Biomedical risk factors may also be influenced by behavioural risk factors. For example, a high blood cholesterol level (biomedical) may be the result of a diet high in saturated fats (behavioural). The effects of individual biomedical risk factors on a person's health can also be amplified when other behavioural or biomedical risk factors are present. The longer a person lives with one or more risk factors, the greater the risk to their overall health and wellbeing.
The latest risk factor results have been sourced from the Australian Bureau of Statistics (ABS) 2014–15 National Health Survey and the biomedical component of the ABS 2011–12 Australian Health Survey (ABS 2013, 2015).
Blood pressure is the force exerted by blood on the wall of the arteries. High blood pressure—also known as hypertension—is a risk factor for chronic diseases including stroke, coronary heart disease, heart failure and chronic kidney disease (see 'Chapter 3 Leading causes of ill health').
Poor diet (especially high salt intake), overweight and obesity, excessive alcohol consumption and physical inactivity can all contribute to high blood pressure. People with high blood pressure may be able to control their condition with lifestyle changes that reduce these risk factors, or they may require medication.
In 2014–15, 23% of adults, or 4.1 million people, had measured high blood pressure, excluding those taking medication.
Note: High blood pressure is defined as systolic/diastolic blood pressure equal to or greater than 140/90 mmHg. The usual definition for the proportion of the population with high blood pressure generally includes people on blood pressure medication. These data were not available from the ABS 2014–15 National Health Survey for inclusion in this report.
The prevalence of high blood pressure is even greater among people with specific conditions. For example, in 2011–12, 77% of people with diabetes and 59% of people with chronic kidney disease had high blood pressure.
Dyslipidaemia—abnormal levels of blood lipids such as cholesterol and triglycerides—can contribute to the development of atherosclerosis, a build-up of fatty deposits in the blood vessels that may lead to the development of cardiovascular disease. Dyslipidaemia is a risk factor for chronic diseases such as coronary heart disease and stroke. People with dyslipidaemia are encouraged to adopt a healthy lifestyle through a balanced diet and sufficient physical activity, and may also be treated using lipid-modifying medications such as statins.
In 2011–12, 63% of adults or 8.5 million Australians had dyslipidaemia. Of these:
Dyslipidaemia increased with age, to a peak of 81% in people aged 65–74 and then declined. Eighty-nine per cent of people with measured dyslipidaemia (7.6 million people) were not using lipid-modifying medication.
Note: Dyslipidaemia is defined as having either total cholesterol > 5.5 mmol/L, LDL cholesterol > 3.5 mmol/L, HDL cholesterol < 1.0 mmol/L for men and < 1.3 mmol/L for women, triglycerides > 2.0 mmol/L, or taking lipid-modifying medication.
The prevalence of dyslipidaemia is even greater among those with specific conditions. In 2011–12, 86% of people with diabetes and 78% of people with cardiovascular disease had dyslipidaemia.
Impaired glucose regulation is a characteristic of pre-diabetes, a condition in which blood glucose levels are higher than normal, although not high enough to be diagnosed with type 2 diabetes. Impaired fasting glucose (IFG)—the presence of higher than usual levels of glucose in the blood after fasting—is one of two measures that are used to define impaired glucose regulation, the other being impaired glucose tolerance (IGT).
People who have IFG and IGT are at risk for the future development of diabetes and cardiovascular disease (see 'Chapter 3.7 Diabetes' and 'Chapter 3.5 Coronary heart disease'). Lifestyle changes incorporating increased physical activity and healthy eating can slow the progression of IFG to diabetes.
In 2011–12, 3.1% of adults or 416,000 Australians had IFG.
Note: Impaired fasting glucose is defined as a fasting plasma glucose level ranging from 6.1 mmol/L to less than 7.0 mmol/L.
The prevalence of IFG is even greater among those with specific conditions. In 2011–12, 5.9% of people with cardiovascular disease and 4.6% of people with chronic kidney disease had IFG.
There is limited national data to measure progress and monitor trends in some biomedical risk factors. Future collections measuring dyslipidaemia and impaired glucose regulation will be needed to provide updated data on these risk factors and to determine trends in the Australian population.
More information on these biomedical risk factors is available on the AIHW website at Risk factors to health.
The report Cardiovascular disease, diabetes and chronic kidney disease—Australian facts: risk factors and other recent publications can be downloaded for free.
ABS (Australian Bureau of Statistics) 2013. Australian Health Survey: biomedical results for chronic diseases, 2011–12. ABS cat. no. 4364.0.55.005. Canberra: ABS.
ABS 2015. National Health Survey: first results, Australia, 2014–15. ABS cat. no. 4364.0.55.001. Canberra: ABS.
Overweight and obesity refers to abnormal or excessive fat accumulation which presents health risks. It generally arises from a sustained energy imbalance when energy intake through eating and drinking exceeds energy expended through physical activity.
Being overweight or obese increases the risk of chronic diseases such as cardiovascular disease (including heart disease and stroke), type 2 diabetes, musculoskeletal conditions, some cancers and mental health conditions. Mortality risk also increases progressively as weight increases, with being obese presenting greater health risks than being overweight. Weight loss can help reduce the incidence and severity of many chronic conditions.
The main factors influencing overweight and obesity are poor diet and inadequate physical activity. As well as being important components in weight management, a healthy diet and regular physical activity also assist in preventing chronic diseases such as heart disease, stroke, type 2 diabetes and colorectal cancer.
Minimal consumption of discretionary foods—foods and drinks not necessary to provide the nutrients the body needs, and often high in saturated fats, sugars, salt and/or alcohol—and sufficient consumption of fruit and vegetables (recommended intake of 2 and 5–6 serves per day, respectively) are good indicators of a healthy diet (NHRMC 2013).
For adults aged 18–64, the recommended minimum level of activity for health benefits is 150 minutes of moderate intensity physical activity or 75 minutes of vigorous intensity physical activity, or an equivalent combination of both, each week (Department of Health 2014).
The combination of overweight or obesity, poor dietary intake and/or insufficient physical activity further increases the risk of chronic disease. In 2011–12, most adults who were overweight or obese were also inactive or insufficiently active, and/or had inadequate fruit and vegetable consumption (Figure 4.4.2). Almost one-third (31%) of adults had all three risk factors. This increased to over half (54%) for those with diabetes and 42% for those with cardiovascular disease.
Better data are needed to monitor trends in overweight and obesity among particular groups over time, especially children. Longitudinal research into factors associated with overweight and obesity, such as changing patterns of health, nutritional status, vulnerable populations and education could provide further public health benefits for Australians.
Regular data on food, nutrition and physical activity will inform policy development and resource investment, and assist in evaluation and monitoring. Some data used to report on these aspects are self-reported and may be prone to under-reporting; exploring ways to obtain additional measured data could eliminate some of this bias.
For more information on overweight and obesity, nutrition and physical activity, refer to Overweight and obesity and Food and nutrition. The following reports are available for free download: Cardiovascular disease, diabetes and chronic kidney disease—Australian facts: risk factors; Risk factors contributing to chronic disease and Australia's food and nutrition 2012.
ABS (Australian Bureau of Statistics) 2013. Australian Health Survey: physical activity, 2011–12. Cat. no. 4364.0.55.004. Canberra: ABS.
ABS 2014. Australian Health Survey: nutrition first results—foods and nutrients, 2011–12. Cat. no. 4364.0.55.007. Canberra: ABS.
ABS 2015. National Health Survey: first results, 2014–15. Cat. no. 4364.0.55.001. Canberra: ABS.
Department of Health 2014. Australia's physical activity and sedentary behaviour guidelines. Canberra: Department of Health.
NHMRC (National Health and Medical Research Council) 2013. Australian dietary guidelines. Canberra: NHMRC.
Drug use is a serious and complex issue, which contributes to substantial illness, disease and injury, many deaths, social and family disruptions, workplace concerns, violence and to crime and community safety issues (MCDS 2011). The misuse of licit and use of illicit drugs is widely recognised in Australia as a major health problem, and one with wider social and economic costs (Collins & Lapsley 2008). While illicit drug use is a significant issue in the context of Australia's health, tobacco continues to cause more ill health and premature death than any other drug, and alcohol-related hospital separations are higher than those related to illicit drugs (including heroin, cannabis, methamphetamine and cocaine) (Roxburgh and Burns 2013).
Illicit drug use contributed to 1.8% of the total burden of disease and injury in Australia in 2011. This included the impact of injecting drug use and cocaine, opioid, amphetamine and cannabis dependence. Globally, illicit drug use contributed 0.8% of the total burden of disease in 2010 and has increased since 1990—moving from the 18th to 15th ranking risk factor (IHME 2014). It is estimated that illicit drug use costs the Australian economy $8.2 billion annually through crime, productivity losses and health care costs (Collins & Lapsley 2008).
Illicit drug use is associated with many risks of harm to the user and to their family and friends. It has both short-term and long-term health effects, which can be severe, including poisoning, heart damage, mental illness, self-harm, suicide and death (NRHA 2015).
The first part of this article profiles illicit drug use and looks at the four most commonly used illegal drugs. As there is currently a substantial community and policy interest in the use and effects of 'ice', (see Box 4.5.1) the second part of this article focuses in more detail on methamphetamine and explores recent trends in availability, use and treatment, and highlights the current evidence about this drug.
According to the 2013 National Drug Strategy Household Survey (NDSHS), around 2.9 million people in Australia aged 14 and over were estimated to have used illicit drugs in the previous 12 months, and 8 million were estimated to have done so in their lifetime (AIHW 2014b). Both nationally and internationally, the proportion of people using illicit drugs has remained relatively stable over the last 10 years—around 15% of adults in Australia, and around 5% of the global adult population (AIHW 2014a; UNODC 2015).
However, over time, changes occur in the use of specific drugs, in the forms of drugs used and in the way drugs are taken. In Australia, changes in the use of methamphetamine have been one area of increasing concern among the community (see Box 4.5.1).
Since 1985, the National Drug Strategy (NDS) has provided an overarching framework for a consistent and coordinated approach to addressing licit and illicit drug use in Australia. The NDS is guided by the principle of harm minimisation. Harm minimisation encompasses three components (pillars): demand reduction, supply reduction and harm reduction. The aim of the NDS is to prevent the uptake and misuse of drugs and to reduce the production and supply of illicit drugs and the negative social, economic and health consequences of drug use. The NDS also continues to support and develop essential partnerships between the law enforcement, health and non-government sectors, communities, and all levels of government (MCDS 2011).
Research undertaken by the Drug Policy Modelling Program revealed that Australian governments spent approximately $1.7 billion in 2009–10 on illicit drug programs and estimated that 64% was spent on law enforcement, 22% on treatment, 9.7% on prevention and 2.2% on harm reduction (Ritter et al. 2013).
The NDS recognises illicit drug use as a health and social issue, while acknowledging the role of law enforcement in detecting and deterring drug-related crime. Legislative and regulatory provisions relating to illicit drugs, precursor chemicals and proceeds of crime exist at the national level (for example, border protection and compliance), but most action (including expenditure) in relation to illicit drugs rests with the states and territories (Ritter et al. 2013).
Many national initiatives are implemented under the NDS, including the National Drugs Campaign. This is a media campaign aimed at reducing illicit drug use among young Australians, by increasing their knowledge of the negative consequences of drug use. The campaign has been running since 2001 and the focus varies, depending on trends in drug use and emerging drugs. The most recent campaign focused on crystal methamphetamine (Department of Health 2015).
The Australian Government established a National Ice Taskforce in April 2015 and released its final report in December 2015. The Government will provide almost $300 million over 4 years from 1 July 2016 to improve treatment, education, prevention, support and community engagement, and to capture better data to identify emerging trends on illicit drug use (PM&C 2015). The Final Report of the National Ice Taskforce made 38 recommendations across five key areas:
Among the 15% of people aged 14 and over in Australia who are illicit drug users (see Box 4.5.2 for a definition of illicit drug use), 4 in 5 reported using illegal drugs such as cannabis and cocaine, or other substances such as inhalants (Figure 4.5.1). The remaining 1 in 5 reported misuse of a pharmaceutical drug (without use of any other illicit drug) (AIHW 2014b).
'Illicit drug use' can encompass a broad range of substances including:
Each data collection cited in this article uses a slightly different definition of illicit drug use; please refer to the relevant report for additional information.
Source: AIHW 2014b.
According to the 2013 NDSHS, there was no change in the overall use of any illicit drug between 2010 and 2013 (15% of people reporting they had used at least 1 of 17 illicit drugs). However, there were significant changes for a few specific drugs. There were falls in the reported use of ecstasy (from 3.0% to 2.5%), heroin (from 0.2% to 0.1%) and gamma hydroxybutyrate (GHB). Longer-term trends, since 2001, show that use of cannabis, ecstasy and methamphetamine have all declined, but use of cocaine and misuse of pharmaceuticals have increased (AIHW 2014b). Although methamphetamine use has declined over the last 12 years, and remained stable between 2010 and 2013, there was change in the main form used, with ice replacing powder (discussed in further detail in the 'Methamphetamine use, availability and treatment' section).
This section focuses on key findings from the 2013 NDSHS for the four most commonly used illegal drugs—cannabis (10%), ecstasy (2.5%), methamphetamine (2.1%) and cocaine (2.1%). Box 4.5.3 then highlights the increasing misuse of pharmaceuticals, which is an important and emerging issue in relation to illicit drug use in Australia.
According to the 2013 NDSHS, an estimated 6.6 million (or 35%) people aged 14 and over older had used cannabis in their lifetime and about 1.9 million (or 10%) had used cannabis in the previous 12 months. About 1 in 20 Australians (5.3%) had used it in the month prior to the survey and 3.5% had used it in the previous week.
About one-third (32%) of recent cannabis users used the drug as often as weekly, and older people (50 and over) were more likely than younger people to use cannabis regularly, with at least 4 in 10 recent users in these age groups using it as often as once a week or more. Among people aged 14–24, the average age for first cannabis use increased between 2001 and 2013 (from 15.5 to 16.7 years).
In 2013, ecstasy was the second most commonly used illicit drug in a person's lifetime, with 2.1 million (10.9%) people aged 14 and over reporting having ever used the drug and 500,000 having done so in the past 12 months, representing 2.5% of the population. Ecstasy use had been gradually increasing since 2001, before peaking in 2007 at 3.5%. It then declined in 2010 (3.0%) and again in 2013 (2.5%).
The majority of recent ecstasy users only took ecstasy once or twice a year (54%). The average age for first trying ecstasy has remained relatively stable, since 2001, at 18 years.
In 2013, about 1.3 million (7.0%) people had used methamphetamines in their lifetime and 400,000 (2.1%) had done so in the last 12 months. Methamphetamine use had been declining since it peaked at 3.7% in 1998 but remained stable at 2.1% between 2010 and 2013. While there was no increase in methamphetamine use in 2013, there was a change in the main form of methamphetamines used, with crystal replacing powder as the preferred form of the drug. Among recent users, powder decreased from 51% to 29%, while the use of crystal more than doubled, from 22% in 2010 to 50% in 2013. This is discussed in further detail in the 'Methamphetamine use, availability and treatment' section.
Of people aged 14 and over, 8.1% (or 1.5 million) had used cocaine in their lifetime, and 2.1% (or about 400,000 people) had used it in the previous 12 months. While use of drugs such as cannabis, ecstasy and methamphetamines has generally declined since 2004, the proportion of people using cocaine has been increasing since 2004. This is particularly so among those aged 20–29 and 30–39. Cocaine use in Australia is currently at the highest levels seen since the survey collection commenced.
However, recent users used cocaine less often in 2013 than in previous years, with a lower proportion using it every few months (from 26% to 18%) and a higher proportion using it once or twice a year from 61% to 71%.
According to the 2013 NDSHS, an estimated 900,000 Australians aged 14 and over (4.7%) used a pharmaceutical drug for non-medical purposes in the previous 12 months. This represents a significant rise from 4.2% in 2010, and is the highest proportion reported since 2001 (AIHW 2014b).
Australia has seen an increase in mortality and morbidity associated with prescription drugs, from opioids in particular. From 2002 to 2011, the rate of accidental overdose deaths due to opioids increased from 32.3 to 49.5 per million people aged 15–54. In the 10 years since 2004–05, hospital separations for opioids also increased from 292 to 362 separations per million people (Roxburgh & Burns 2015; AIHW National Hospital Morbidity Database).
The AIHW will undertake further exploration and analysis on this emerging trend in 2016–17 and will publish results in a future report.
According to the 2013 NDSHS, people in their 20s were the most likely of all age groups to report using an illicit drug in the previous 12 months (27%) (Figure 4.5.2). Recent cannabis use was by far the most common illicit drug use reported by this group in 2013; however, since 2001, recent use of cannabis decreased (from 29% to 21%).
While people aged 40 and over generally have the lowest rate of illicit drug use, this was the only age group in which a statistically significant increase was found in recent illicit drug use, increasing from 7.5% to 9.9% between 2001 and 2013. This was mainly driven by an increase among people in their 50s and people aged 60, and the largest relative rise in illicit drugs use was reported among people in their 50s (from 6.7% in 2001, to 8.8% in 2010 and 11% in 2013).
Note: 'Any illicit drug use' means they reported using at least 1 of 17 illicit drugs in the previous 12 months.
Analysis of the 2011 Australian Secondary Students' Alcohol and Drug Survey suggests that an estimated 16% of 12–17 year olds had used an illicit drug, down from 20% in 2005. Illicit drug use was more common for older teenagers, with 27% of 16–17 year olds using an illicit drug in their lifetime, but again this declined from 33% in 2005. Among secondary students, misuse of tranquillisers (misuse of a specific pharmaceutical) (17%) was the most common behaviour of concern reported to have occurred in their lifetime, followed by marijuana/cannabis use (15%) (White & Bariola 2012).
Illicit drug use varies across different population groups in Australia and Figure 4.5.3 focuses on those groups that show some of the largest disparities in illicit drug use compared with the general population—Indigenous people; people who were unemployed; people identifying as homosexual or bisexual; people with a mental illness; and people living in remote areas.
Methamphetamine (generally referred to by the street names of its two main illicit forms, 'ice' or 'speed'—see Box 4.5.4 for methamphetamine terminology) is a drug of national concern, with the Australian Crime Commission assessing it to be the illicit drug posing the greatest risk to the Australian community (ACC 2015). A number of indicators suggest that the Australian methamphetamine market has grown since 2010, as there have been increases in the detected importation, manufacture and supply of the drug. Use of crystal methamphetamine has also increased among some population groups; the number of people seeking treatment for amphetamines is increasing; and there are more hospitalisations for amphetamine-related problems. Methamphetamine comes in a number of forms and can be administered in different ways (see Box 4.5.5).
Methamphetamine is commonly referred to as methamphetamine or 'meth' or by one of the forms in which it is purchased, such as its crystalline form 'ice'; and the terminology varies across data sources. Where possible, the crystalline form of methamphetamines has been referred to as 'crystal' throughout this feature article, rather than its street name, 'ice'. Not all data sources collect data on methamphetamine specifically; some use the broader classes of drugs— amphetamines, amphetamine-type stimulants, or 'meth/amphetamines'—to which methamphetamine belongs. This diagram provides a description of the various terms used.
Methamphetamine comes in many forms, and changes in the use of methamphetamine have been one area of increasing concern among health professionals and the Australian community.
Since 2009, the global market for amphetamine-type stimulants (ATS—see Box 4.5.4) has increased substantially. An upsurge in seizures since 2009 point to a rapid expansion of the global ATS market, with ATS seizures almost doubling to reach over 130 tonnes in 2011 and 2012—the highest amount since the United Nations Office on Drug Crime systematic monitoring began—before decreasing slightly in 2013 (UNODC 2015). The increase from 2009 is primarily attributable to the growing amount of methamphetamine seized, which increased from 31 tonnes in 2009 to 80 tonnes in 2013.
Over the last 5 years, the total number of arrests for ATS increased—accounting for 16% of illicit drug arrests in 2009–10 (12% were for consumers; 4.6% for providers) and 23% (18% for consumers; 5.6% for providers) in 2013–14 (Figure 4.5.4). Consumers apprehended for possessing or using illicit drugs accounted for more than three-quarters (76%) of all ATS arrests in 2013–14 (ACC 2015).
In Australia, the number of ATS (excluding MDMA) detections at the Australian border has increased dramatically since 2009–10 (ACC 2015) and was the highest number on record in 2013–14 (from 672 in 2009–10 to 2,367 in 2013–14). The total mass of these detections also increased from 67 kg in 2009–10 to 1,812 kg in 2013–14, although the national mass of seizures decreased by 326 kg between 2012–13 and 2013–14 (ACC 2015). The number of national seizures followed similar trends, increasing from 10,543 in 2009–10 to 26,805 in 2013–14. The national mass of seizures also increased over this period (from 671kg to 4,076kg).
In addition to increased seizures and detections at the Australian border, the number of clandestine laboratories detected (also known as 'clan' labs—sites where illegal drugs are manufactured in secret, usually with improvised materials and methods) also increased, which is another indicator of the size of the ATS market. The number of clandestine laboratories detected in Australia more than doubled from 2003–04 to 2013–14—from 358 to 744. Of these, the majority were identified as producing ATS (excluding MDMA) (ACC 2015), and given the ease of access of precursor chemicals, such as pseudoephedrine, methamphetamine is reported as the most common ATS produced in Australia (AIC 2015).
In 2014, around three-quarters of people using powder, base and crystal forms of methamphetamine reported stable prices (Stafford & Burns 2014) and have reported a relatively stable price of all three forms (powder, crystal and base) since 2009.
However, using a purity-adjusted price of both powder and crystal, based on Victorian data, Scott et al. (2015) argue that the increasing purity of crystal means the price of both powder and crystal are effectively on par and the price of both has decreased over time.
Despite the apparent increases in supply (see the 'Production and supply' section), lifetime and recent use of methamphetamine has declined over the last decade and remained stable in recent years. There was, however, a change in the main form of methamphetamine used between 2010 and 2013, with crystal methamphetamine being the preferred form and used more often than powder. In addition, there were consistent increases across a number of data sources between 2010 and 2013. For example:
Sources: 2004 to 2013 National Drug Strategy Household Surveys; 2003–04 to 2013–14 Alcohol and Other Drug Treatment Services National Minimum Data Set.
High doses and frequent use of methamphetamine can cause amphetamine-induced psychosis (characterised by symptoms similar to paranoid schizophrenia and other psychoses); increased risk of suicide; violent behaviour; diminished effects over time (leading to users increasing their dose to achieve intoxication); and methamphetamine dependence (Campbell 2001). Dependent users have been found to be three times as likely to experience psychotic symptoms as non-dependent users (McKetin et al. 2006). Results indicate that those using methamphetamine, particularly ice, are doing so with increased frequency. Between 2010 and 2013:
Data from the Illicit Drug Reporting System (IDRS) indicates that this trend in increased frequency of crystal use has also been observed among the population of people who inject drugs, and it has continued past 2013. Between 2010 and 2015, the reported median number of days crystal was used in the last 6 months surpassed the median number of days for powder use—7 days for crystal and 10 days for powder in 2010, compared with 20 days for crystal and 11 days for powder and in 2015 (Stafford & Burns 2014).
In 2013, males were more likely than females to have reported the use of methamphetamine in their lifetimes (8.6% and 5.3% respectively) and recently (2.7% and 1.5% respectively), and this pattern is consistent with previous years. Recent users of methamphetamine were most commonly aged 20–29, and this age group has consistently accounted for the largest prevalence of recent methamphetamines users. However, the proportion of recent users in this age group has been steadily decreasing since 2001 (from 11% in 2001 to 5.7% in 2013) (AIHW 2014b).
Certain groups within the population are more likely to use drugs and to experience drug-related harms, with some population groups in the 2013 NDSHS far more likely to report having used methamphetamines recently than the general population. For example, methamphetamine use was 6.1 times as high among people experiencing high or very high levels of psychological distress as among the general population (AIHW 2014b).
For the first time since the National Prisoner Health Data Collection began in 2009, in 2015 methamphetamine was the most commonly reported illicit drug used among prison entrants in the previous 12 months (AIHW 2015c). More specifically:
Alcohol and other drug treatment services (AODTS) play an important role in efforts to respond to the recent trends in methamphetamine use. Information on publicly funded alcohol and other drug (AOD) treatment services in Australia, and the people and drugs treated, are collected through the AODTS National Minimum Data Set (NMDS). In 2013–14, amphetamines were the third most common principal drug of concern (17% of all treatment episodes), behind alcohol (40%) and cannabis (24%). Since 2003–04, the proportion of episodes where amphetamines were the principal drug of concern has increased (from 11% in 2003–04 to 17% in 2013–14) (AIHW 2015a).
Treatment episodes for clients using amphetamines in 2013–14 typically involved males aged 20–29—the same profile seen for methamphetamine users in the general population (AIHW 2015a).
Information on the different forms of methamphetamine is not captured in the AODTS NMDS, but the client's usual method of administration is captured. This can provide an indication of the form a client used. For example, clients smoking (report either smoking or inhaling amphetamines in vapour form) will largely be using the crystal form and clients ingesting or snorting are most likely to be using the powder form. For clients injecting amphetamines it is less clear, as each of the base, crystal, powder, or liquid forms can be injected. But, according to the most recent data from the IDRS, for injecting users who were injecting methamphetamine, crystal was the form most often used in the month preceding interview (Stafford & Burns 2014).
Since 2009–10, the number of episodes for clients injecting and smoking amphetamines has increased, while use via other methods remained relatively stable. In 2003–04, injectors accounted for 4 in 5 (79%) episodes for amphetamines and just 3.0% involved smoking the drug. However, the proportion of clients reporting they smoked amphetamines had increased, over the 11-year period to 2013–14, to 41%, while clients injecting fell to 44% (AIHW 2015a).
These trends in method of use for treatment episodes parallel those seen in the population of recent methamphetamine users from the NDSHS, where there was a substantial change in the main form of methamphetamine used—from powder to crystal—between 2010 and 2013 (AIHW 2014b).
Between 2003–04 and 2012–13, there was an increase in the geographic spread of amphetamine-related treatment episodes across Statistical Local Areas in Australia (AIHW 2015a). Overall, this represented a change of around two percentage points, with an increase in the number of episodes across all regional and remote areas (from 24% to 26%) and a decrease across Major cities (from 76% to 74%) (see also 'Chapter 6.16 Specialised alcohol and other drug treatment services').
Amphetamine-related hospital separations have also risen. Between 2003–04 and 2013–14, separations rose from 43 to 348 separations per million people. In addition, the number of methamphetamine-related hospital separations has risen since these data were first collected in 2008–09, from 22 to 131 separations per million people in 2013–14 (note that counts of methamphetamines separations are likely to be underestimated) (AIHW National Hospital Morbidity Database). These increases could partly be attributed to the increase in use of methamphetamines in their purer crystal form—crystal generally being recognised as the highest in levels of purity of methamphetamine (DoHA 2008)—which is generally considered to cause more potential harm.
As with previous iterations of the NDSHS, the AIHW has established a Technical Advisory Group to provide advice on the survey design and content for the 2016 survey. Refinements to the 2016 questionnaire being considered include an additional question to measure the use of crystal methamphetamine in the previous 12 months, and changes to the pharmaceutical opioid/analgesic questions to better capture the misuse of prescription and over-the-counter opioids/analgesics.
A number of data-development activities have been identified to enhance the AODTS NMDS, including a review of treatment types and settings to better reflect current practice in the AOD sector; analysis of existing data items on pharmaceutical misuse and their involvement in polydrug use; and exploration of options for capturing treatment outcomes.
A data portal with dynamic and interactive data is also being developed.
The AIHW is undertaking a data linkage project to explore the relationship between AOD use and homelessness. This research will inform the development of integrated service approaches to help people with multiple and complex needs to stabilise their lives and reintegrate with the community.
People who use illicit drugs can be a difficult population to survey, as they may not wish to disclose that they are involved in an illegal activity. Currently, it is not possible to calculate the number of people who used crystal methamphetamine in the previous 12 months, from the NDSHS. From 2007, an additional question about the main form of meth/amphetamine used was added to the survey, which has enabled estimates to be produced for the minimum number of people using, but not for the total number who have used in the previous 12 months.
It is difficult to fully quantify the scope of AOD services in Australia. There are a variety of settings in which people receive treatment for alcohol and other drug-related issues that are not in scope for the AODTS NMDS. In addition, the AODTS NMDS does not cover all agencies providing substance-use services to Indigenous Australians. These agencies provide data to the Online Services Report collection.
Data on the different forms of amphetamines, and methamphetamine specifically, are not separately available in the AODTS NMDS due to the nature of the classification structure used in this collection.
For more information on illicit drug use and harms in Australia, see AIHW drug-related reports available online at Illicit use of drugs and Alcohol sections. The National Drug Strategy Household Survey detailed report: 2013; Trends in methylamphetamine availability, use and treatment, 2003–04 to 2013–14; and other recent publications are available for free download.
Additional research and statistics are available from the National Drug and Alcohol Research Centre; the Australian Crime Commission; National Drug Research Institute; and the National Centre for Education and Training on Addiction websites.
Two key reports quantify the efforts of such agencies: the Illicit drug data report, produced by the ACC, and the World drug report, produced by the United Nations Office on Drug Crime.
ACC (Australian Crime Commission) 2015. The Australian methylamphetamine market: the national picture. Canberra: ACC.
AIC (Australian Institute of Criminology) 2015. Canberra: AIC. Amphetamines.
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AIHW 2014b. National Drug Strategy Household Survey detailed report: 2013. Drug statistics series no. 28. Cat. no. PHE 183. Canberra: AIHW.
AIHW 2015a. Alcohol and other drug treatment services in Australia 2013–14. Drug treatment series no. 25. Cat. no. HSE 158. Canberra: AIHW.
AIHW 2015b. National opioid pharmacotherapy statistics annual data (NOPSAD) collection. Canberra: AIHW.
AIHW 2015c. The health of Australia's prisoners 2015. Cat. no. PHE 207. Canberra: AIHW.
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MCDS (Ministerial Council on Drug Strategy) 2011. The National Drug Strategy 2010–2015. Canberra: DoHA.
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McKetin R, Ross J, Kelly E, Baker A, Lee N, Lubman DI et al. 2008. Characteristics and harms associated with injecting and smoking methamphetamine among methamphetamine treatment entrants. Drug and Alcohol Review 27(3):277–85.
NRHA (National Rural Health Alliance) 2015. Illicit drug use in rural Australia. Fact sheet 33, June 2015. Canberra: NRHA.
PM&C (Department of the Prime Minister and Cabinet) 2015. Release of the final report of the National Ice Taskforce. Canberra: PM&C.
Ritter A, McLeod R, & Shanahan M 2013. Monograph no. 24: Government drug policy expenditure in Australia—2009/10. DPMP Monograph Series. Sydney: National Drug and Alcohol Research Centre, University of New South Wales.
Roxburgh A & Burns L 2015. Accidental drug-induced deaths due to opioids in Australia, 2011. Sydney: National Drug and Alcohol Research Centre, University of New South Wales.
Scott N, Caulkins JP, Dietze P & Ritter A 2015. Understanding and describing Australian illicit drug markets: drug price variations and associated changes in a cohort of people who inject drugs. Monograph series no. 58. Canberra: National Drug Law Enforcement Research Fund.
Sindicich, N & Burns, L 2014. Australian trends in ecstasy and related drug markets 2013. Findings from the Ecstasy and Related Drugs Reporting System (EDRS). Australian Drug Trends Series No. 118. Sydney: National Drug and Alcohol Research Centre, University of New South Wales.
Stafford J & Burns L 2014. Australian drug trends 2013. Findings from the Illicit Drug Reporting System (IDRS). Australian Drug Trend Series No. 109. Sydney: National Drug and Alcohol Research Centre, University of New South Wales.
White V & Bariola E 2012. Australian secondary school students' use of tobacco, alcohol, and over-the counter and illicit substances in 2011. Melbourne: Cancer Council of Victoria.
UNODC (United Nations Office on Drugs and Crime) 2015. World drug report 2015. Vienna: United Nations.
The consumption of alcohol is widespread within Australia and associated with many social and cultural activities. However, excessive alcohol consumption is a major cause of ill health and social harms, not limited to individual drinkers but also affecting families, bystanders and the broader community (NHMRC 2009). Alcohol-related absenteeism in Australia in 2013 was estimated at 7.5 million days, resulting in a cost of over $2 billion in lost workplace productivity (Roche et al. 2015).
Alcohol use was responsible for 5.1% of the total burden of disease and injury in Australia in 2011. It was responsible for 28% of the burden due to road traffic injuries (motor vehicle occupants), 24% of the burden due to chronic liver disease, 23% of the burden due to suicide and self-inflicted injuries, and 19% of the burden due to stroke.
The 2013 National Drug Strategy Household Survey has highlighted improvements in drinking patterns in Australia (Figure 4.6.1). The overall volume of alcohol consumed by people in Australia fell from 10.8 litres of pure alcohol per person in 2007–08 to 9.7 litres in 2013–14. This is the lowest level since 1962–63 (ABS 2015).
Note: the above drinking categories are not mutually exclusive.
Between 2010 and 2013, daily drinking fell from 7.2% to 6.5% in people aged 14 and over. Before this, the daily drinking rate had remained fairly stable at around 8% between 1993 and 2007.
Between 2010 and 2013, the proportion of people who drank at levels placing them at lifetime risk of harm (more than two standard drinks per day on average) fell from 20% to 18%. Fewer people also consumed five or more standard drinks on a single drinking occasion at least once a month—29% in 2010 compared with 26% in 2013. The alcohol risk data presented here are reported against guideline 1 and guideline 2 of The Australian guidelines to reduce health risks from drinking alcohol released in March 2009 by the National Health and Medical Research Council (NHMRC 2009).
Before this, the consumption of alcohol in quantities that placed Australians at risk of an alcohol-related disease, illness or injury had remained at similar levels between 2001 and 2010.
The proportion of people choosing to abstain from drinking alcohol rose from 20% in 2010 to 22% in 2013. This was largely influenced by an increase in young people aged 12–17 abstaining, from 64% in 2010 to 71% in 2013.
In 2013, around 1 in 6 (16%) people aged 12 or older had consumed 11 or more standard drinks on a single drinking occasion in the past 12 months (compared with 17% in 2010).
In 2013, 47% of pregnant women reported consuming alcohol during their pregnancy (little changed from 2010), but most (96%) consumed only 1–2 standard drinks on that drinking occasion.
While many drinkers consume alcohol responsibly, a substantial proportion of drinkers consume alcohol at a level that is considered to increase their risk of alcohol-related disease, illness or injury. Excessive intake of alcohol not only affects a drinker's health, but also affects the people around them. In 2013:
In 2014–15, there were around 115,000 clients who received treatment from publicly funded alcohol and other drug treatment agencies across Australia. Alcohol was the most common principal drug of concern, accounting for over one-third (37%) of clients and 40% of treatment episodes (a total of 60,000 episodes) (AODTS NMDS). See 'Chapter 6.16 Specialised alcohol and other drug treatment services' for more information.
In 2013–14, about 1% of hospitalisations had a drug-related principal diagnosis; of those, 55% were for alcohol. Over the 5 years to 2013–14, alcohol has consistently been the drug-related principal diagnosis with the highest number of hospital separations, increasing from 61,000 to nearly 66,000 hospitalisations in that time (from about 280 to 282 hospitalisations per 100,000) (AIHW analysis of the National Hospital Morbidity Database).
In 2014–15, around 70,000 emergency department presentations for alcohol/ drug abuse and alcohol/drug induced mental disorders were reported, based on diagnosis information. This equates to approximately 1% of all emergency department presentations. (Note, the quality of diagnosis information in the National Non-Admitted Patient Emergency Department Care Database has not been assessed.)
Estimation of ill health and death associated with alcohol use is complex. While both can occur as a direct result of alcohol use (for example, alcohol poisoning), in most cases alcohol is one of a number of contributing factors. The data presented on alcohol-related hospitalisations is therefore likely to represent only a fraction of the total harm caused by alcohol.
Surveys of self-reported alcohol consumption are likely to produce an underestimate of the total amount of alcohol consumed in Australia (Stockwell et al. 2004). Wholesale sales data are an alternative measure of consumption. While national data are available, they have not been available at a regional level since 1997. Recent progress has been made to collect data from most (but not all) states and territories (Loxley et al. 2014). While wholesale data provides a more accurate estimate of average consumption, it cannot identify individual drinking levels and the number of drinkers exceeding the recommended alcohol guidelines.
More information on alcohol consumption and harms in Australia is available at Illicit use of drugs and Alcohol sections. The National Drug Strategy Household Survey detailed report: 2013; Alcohol and other drug treatment services in Australia 2013–14; and Emergency department care 2014–15: Australian hospital statistics can be downloaded for free.
ABS (Australian Bureau of Statistics) 2015. Apparent consumption of alcohol, Australia, 2013–14. ABS cat. no. 4307.0.55.001.
Loxley W, Gilmore W, Catalano P & Chikritzhs T 2014. National Alcohol Sales Data Project (NASDP) stage four report, 2014. Perth, Western Australia: National Drug Research Institute, Curtin University.
NHMRC (National Health and Medical Research Council) 2009. Australian guidelines to reduce health risks from drinking alcohol. Canberra: NHMRC.
Roche A, Pidd K & Kostadinov V 2015. Alcohol- and drug-related absenteeism: a costly problem. Australian and New Zealand Journal of Public Health. DOI: 10.1111/1753-6405.12414.
Stockwell T, Donath S, Cooper-Stanbury M, Chikritzhs T, Catalano P & Mateo C 2004. Under-reporting of alcohol consumption in household surveys: a comparison of quantity-frequency, graduated-frequency and recent recall. Addiction 99(8):1024–33.
In 2011, tobacco smoking was the leading risk factor contributing to death and disease in Australia and was responsible for 9.0% of the total burden of disease and injury. This includes the risks associated with past tobacco use, current use, and exposure to second-hand smoke. Tobacco smoking increases the risk of cardiovascular disease, respiratory diseases and other health problems (USHHS 2014). In Australia in 2011, it was estimated that 80% of lung cancer burden and 75% of chronic obstructive pulmonary disease burden were attributable to tobacco smoking.
It has been estimated that, during a given year, smoking kills around 15,000 Australians and has significant social (including health) and economic costs—estimated at $31.5 billion in 2004–05 (Collins & Lapsley 2008).
Australia has been successful in reducing smoking prevalence over many years through the use of many strategies (IGCD 2013). These have included advertising bans; bans on smoking indoors and increasingly in outdoor public spaces; plain packaging; price increases; restrictions on sales to minors; public education; and media campaigns (IGCD 2013; MCDS 2011).
Fewer people, both proportionally and absolutely, are smoking daily and more people have never smoked, compared with 20 years ago.
Fewer people are being exposed to tobacco smoking, more people are delaying the uptake of smoking and smokers are smoking fewer cigarettes.
2 times as high in Remote/Very remote areas compared with Major cities
1.9 times as high for homosexual/bisexual people compared with heterosexual people
3 times as high in the lowest socioeconomic areas compared with the highest socioeconomic areas
2.7 times as high for single people with dependent children compared with couples with dependent children
1.7 times as high for unemployed people compared with employed people
5.7 times as high for prison entrants compared with the general population
2.6 times as high for Aboriginal and Torres Strait Islander Australians compared with non-Indigenous Australians.
Although substantial progress has been made in reducing the rates of smoking in Australia, smoking remains one of the leading causes of preventable disease and death. In 2013, certain groups within the population were far more likely to smoke daily than their counterparts, and are at greater risk of tobacco smoking and tobacco-related harm.
The proportion of people smoking daily in 2013 was highest among people aged 25–29 and 40–49. The fall in daily smoking rates over the past 12 years has predominantly been for people aged 18–49—there has been little change among people aged 60 and over during this period (Figure 4.7.1). Use of battery-operated electronic cigarettes (e-cigarettes) is more common among younger smokers and was highest for smokers aged 18–24 (27%) in the last 12 months and declined with age (to 5.3% of smokers aged 70 and over).
The most recent estimate of the social and economic costs of tobacco smoking is for 2004–05. Substantial changes to smoking patterns have occurred since 2004 and more recent data on these costs would enhance evaluations of policy effectiveness.
There are limited data on smoking behaviours for some population groups at risk of tobacco smoking and related harm. For example, there is no regular data collection on smoking prevalence among many groups that face multiple levels of disadvantage, such as people experiencing homelessness; people living with a mental illness; culturally and linguistically diverse populations; and the drug treatment population.
There are also limited data on behaviours or circumstances that lead ex-smokers to successfully quit and maintain cessation.
More information on tobacco use in Australia is available at National Drug Strategy Household Survey (NDSHS). The National Drug Strategy Household Survey detailed report: 2013 can be downloaded for free. More information about tobacco control measures in Australia is available at Tobacco Control key facts and figures.
ABS (Australian Bureau of Statistics) 2014. Australian Aboriginal and Torres Strait Islander Health Survey: first results, Australia, 2012–13. Cat. no. 4727.0.55.001. Canberra: ABS.
Collins D & Lapsley H 2008. The costs of tobacco, alcohol and illicit drug abuse to Australian society in 2004/05. National Drug Strategy Monograph Series: Monograph no. 64. Canberra: Department of Health and Ageing.
IGCD (Intergovernmental Committee on Drugs) 2013. National Tobacco Strategy 2012–2018. Canberra: Department of Health and Ageing.
MCDS (Ministerial Council on Drug Strategy) 2011. National Drug Strategy 2010–2015: a framework for action on alcohol, tobacco and other drugs. Canberra: Department of Health and Ageing.
USHHS (US Department of Health and Human Services) 2014. The health consequences of smoking—50 years of progress: a report of the Surgeon General, 2014. Atlanta, Georgia: US Department of Health and Human Services, Centers for Disease Control and Prevention, National Center for Chronic Disease Prevention and Health Promotion, Office on Smoking and Health.
White V & Williams T 2015. Australian secondary school students' use of tobacco in 2014: report. Report prepared for: Tobacco Control Taskforce, Australian Government Department of Health. Sydney: Cancer Council.
The prevalence of major behavioural and biomedical health risk factors is generally higher for Aboriginal and Torres Strait Islander Australians than for other Australians. Behavioural risks include smoking, poor nutrition, physical inactivity and excessive alcohol consumption. Biomedical risks are bodily states that can contribute to the development of chronic disease, such as being obese or having abnormal levels of blood lipids (see 'Chapter 4.3 Biomedical risk factors').
This snapshot describes some of the behavioural and biomedical risk factors that contribute to poor health status for Indigenous Australians.
The prevalence of smoking remains significantly higher in the Indigenous population than in the non-Indigenous population, while the picture for alcohol consumption is more complex.
Physical inactivity is a risk factor associated with several potentially preventable chronic diseases that are prevalent in the Indigenous population, including cardiovascular disease, hypertension and diabetes.
Sources: ABS 2013, 2014b, 2014c.
Based on 2012–13 Australian Aboriginal and Torres Strait Islander Health Survey (AATSIHS) data:
The physical activity of Indigenous adults was assessed differently in remote areas (and this measure is not comparable with the physical activity data for persons living in non-remote areas).
Several principal causes of ill health are nutrition-related, including type 2 diabetes and coronary heart disease. The AATSIHS self-reported results (ABS 2014c) show that:
This section summarises data on four biomedical factors that can pose direct and specific risks to health: high blood pressure, obesity, vitamin D deficiency and abnormal blood lipid levels (such as high cholesterol and triglycerides). Data about high blood pressure and being overweight or obese (based on body mass index, or BMI) among Indigenous Australians are sourced from the 2012–13 AATSIHS. Information on vitamin D deficiency and high levels of cholesterol and triglycerides are from the National Aboriginal and Torres Strait Islander Health Measures Survey (NATSIHMS), a voluntary component of the AATSIHS, in which around 3,300 Indigenous adults aged 18 and over from across Australia provided blood and urine samples for analyses (ABS 2014a).
Levels of physical activity are related to being overweight or obese:
The NATSIHMS results show that, among Indigenous adults in 2012–13:
After adjusting for differences in the age structure (Figure 4.8.2):
Sources: ABS 2014a, 2014c.
Data on the behavioural and biomedical health risk factors among Indigenous Australians were enhanced through the additional components of the 2012–13 AATSIHS, such as the Health Measures Survey and the Nutrition and Physical Activity Survey. The frequency of these additional components, however, is insufficient to produce a consistent time series. The available data are too sparse to regularly assess changes in these risk factors, or explain their contribution to the health gaps between the Indigenous and non-Indigenous populations, and the health inequities within the Indigenous population. Some of these data items are collected only from Indigenous people living in non-remote locations. There also are data gaps on the relationship between the observed behavioural risk factors and an individual's participation in and outcomes from treatment programs and other preventative health interventions.
For more details on the health behaviours and biomedical markers of Indigenous Australians, see the Australian Aboriginal and Torres Strait Islander Health Survey (AATSIHS) 2012–13.
ABS (Australian Bureau of Statistics) 2013. Australian Aboriginal and Torres Strait Islander Health Survey: first results, 2012–13. ABS cat. no. 4727.0.55.001. Canberra: ABS.
ABS 2014a. Australian Aboriginal and Torres Strait Islander Health Survey: biomedical results, 2012–13. ABS cat. no. 4727.0.55.003. Canberra: ABS.
ABS 2014b. Australian Aboriginal and Torres Strait Islander Health Survey: physical activity, 2012–13. ABS cat. no. 4727.0.55.004. Canberra: ABS.
ABS 2014c. Australian Aboriginal and Torres Strait Islander Health Survey: updated results, 2012–13. ABS cat. no. 4727.0.55.006. Canberra: ABS.
ABS 2015. Australian Aboriginal and Torres Strait Islander Health Survey: nutrition results—food and nutrients, 2012–13. ABS cat. no. 4727.0.55.005. Canberra: ABS.
AIHW (Australian Institute of Health and Welfare) 2015. Aboriginal and Torres Strait Islander Health Performance Framework 2014 report: detailed analyses. Cat. no. IHW 167. Canberra: AIHW.
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