- Research article
- Open Access
- Open Peer Review
A sexual health quality improvement program (SHIMMER) triples chlamydia and gonorrhoea testing rates among young people attending Aboriginal primary health care services in Australia
BMC Infectious Diseasesvolume 15, Article number: 370 (2015)
In Australia, chlamydia is the most commonly notifiable infection and over the past ten years chlamydia and gonorrhoea notification rates have increased. Aboriginal compared with non-Aboriginal Australians have the highest notifications rates of chlamydia and gonorrhoea. Regular testing of young people for chlamydia and gonorrhoea is a key prevention strategy to identify asymptomatic infections early, provide treatment and safe sex education. This study evaluated if a sexual health quality improvement program (QIP) known as SHIMMER could increase chlamydia and gonorrhoea testing among young people attending four Aboriginal primary health care services in regional areas of New South Wales, Australia.
We calculated the proportion of 15–29 year olds tested and tested positivity for chlamydia and gonorrhoea in a 12-month before period (March 2010-February 2011) compared with a 12-month QIP period (March 2012-February 2013). Logistic regression was used to assess the difference in the proportion tested for chlamydia and gonorrhoea between study periods by gender, age group, Aboriginal status and Aboriginal primary health service. Odds ratios (OR) and their 95 % confidence intervals (CIs) were calculated with significance at p < 0.05.
In the before period, 9 % of the 1881 individuals were tested for chlamydia, compared to 22 % of the 2259 individuals in the QIP period (OR): 1.43, 95 % CI: 1.22-1.67). From the before period to the QIP period, increases were observed in females (13 % to 25 %, OR: 1.32, 95 % CI: 1.10-1.59) and males (3 % to 17 %, OR: 1.85, 95 % CI: 1.36-2.52). The highest testing rate in the QIP period was in 15–19 year old females (16 % to 29 %, OR: 1.02, 95 % CI: 0.75-1.37), yet the greatest increase was in 20–24 year olds males (3 % to 19 %, OR: 1.65, 95 % CI: 1.01-2.69). Similar increases were seen in gonorrhoea testing. Overall, there were 70 (11 %) chlamydia diagnoses, increasing from 24 in the before to 46 in the QIP period. Overall, 4 (0.7 %) gonorrhoea tests were positive.
The QIP used in SHIMMER almost tripled chlamydia and gonorrhoea testing in young people and found more than twice as many chlamydia infections. The QIP could be used by other primary health care centres to increase testing among young people.
Chlamydia is the most commonly notified infectious disease in Australia, the United States of America (US) and the most commonly reported sexually transmissible infection (STI) among 16–24 year olds in the United Kingdom (UK) [1–3]. In Australia, the highest chlamydia notification rates are in females, 15–29 year olds and young Aboriginal and Torres Strait Islander (hereafter referred to as ‘Aboriginal’) people living in non-urban areas [1, 4]. In 2013, notification rates among Aboriginal compared with non-Aboriginal people in Australia were three times greater for chlamydia and 14 times greater for gonorrhoea .
In 2011, the Australian Bureau of Statistics (ABS) estimated that there were 669881 Aboriginal people, which accounts for approximately 3 % of the Australian population . The number of Aboriginal people varied across the Australian jurisdictions with the largest residing in New South Wales (208476) followed by Queensland (188954) . The median age of Aboriginal people was 21 years compared with 37 years in non-Aboriginal people , with a higher proportion of Aboriginal compared with non-Aboriginal people living in remote areas . Aboriginal compared with non-Aboriginal people have higher rates of chronic and communicable diseases and unemployment; and lower levels of home ownership, school completion and life expectancy . As a result, the Australian government has released a number of national strategies to reduce the disparity between Aboriginal and non-Aboriginal people, including the Fourth National Aboriginal and Torres Strait Islander Blood Borne Viruses and Sexually Transmissible Infection Strategy, 2014–2017 .
Chlamydia is predominantly asymptomatic , and gonorrhoea is mostly asymptomatic in females and in about half of males . This highlights that testing is an important prevention strategy to identify infections early, provide treatment, prevent poor reproductive health outcomes from developing and prevent transmitting the infections to others. If left untreated, chlamydia and gonorrhoea infection can lead to pelvic inflammatory disease (PID) , ectopic pregnancy  and infertility .
STI guidelines in the US and UK recommend annual chlamydia testing in 16–24 year old females [2, 3], and Australian STI guidelines recommend annual chlamydia testing among sexually active 15–29 year old females and males . Australian STI guidelines for Aboriginal people recommend gonorrhoea testing in 15–39 year olds where the prevalence is high , for example in remote areas of Australia . Also improvements in laboratory testing has influenced gonorrhoea testing in Australia with a recent study finding that between 2007 to 2012 there has been a 32 % increase in laboratories using duplex nucleic acid amplification (NAAT) to test for chlamydia and gonorrhoea . NAAT can test urine or swab specimens for chlamydia and gonorrhoea at the same time, even if a test for only one organism was requested.
In Australia, it is estimated that 85 % of females and 64 % of males aged 16–29 years attend a primary health care service annually for their health care needs . Aboriginal Community Controlled Health Services (ACCHS) are primary health care centres which provide culturally appropriate medical, allied health and health education to Aboriginal people . There are an estimated 142 ACCHS in Australia and 42 in New South Wales (NSW) .
Over the past decade, a number of interventions have been trialed in primary health care centres that have aimed to increase STI testing, including quality improvement programs (QIP) [18, 19]. QIP involves collecting data, visiting the health centre regularly, presenting the results to clinic staff and facilitating a discussion with staff to develop strategies which could improve clinical management of an infection and monitor the clinics performance over time. A study conducted in paediatric clinics in the US used a QIP process to increase the proportion of 14–18 year olds tested for chlamydia . The study increased the proportion of males tested for chlamydia from 0 to 60 % in QIP sites compared with 0 to 5 % in control sites. This was achieved through providing training, developing testing protocols and reviewing these protocols every month with the clinic team and discussing ways to reduce barriers to testing and ways to actively increase testing. In Australia, a sexual health intervention was introduced in primary health care centres which used a similar QIP process described in the US study . The intervention was able to increase chlamydia testing rates from 6 to 10 % in females and from 4 to 6 % in males. The project in Australia also conducted interviews with clinic staff to examine what strategies could further increase testing rates. Responses included, financial incentives for physicians, health promotion targeting young people to increase patient demand for testing and ensuring quality data is provided to monitor the clinic’s performance and provide regular feedback to clinic staff .
This study evaluates the impact of a sexual health QIP on chlamydia and gonorrhoea testing rates and positivity among 15–29 year olds attending four ACCHS in regional areas of NSW.
This study was conducted in the context of a sexual health QIP called SHIMMER. SHIMMER was conducted in collaboration with four ACCHS located in regional areas of NSW, Australia [22–24]. The ACCHS varied in size and scope of medical, allied health and health education services to local Aboriginal communities.
Quality improvement program
The QIP used in SHIMMER was adapted from another QIP project known as STRIVE (STIs in Remote communities: ImproVed & Enhanced primary health care trial) . STRIVE is a cluster randomised control trial in 65 remote Aboriginal primary health care centres in Northern Australia. The aim of STRIVE was to decrease the prevalence of chlamydia, gonorrhoea and trichomonas among 16–34 year olds through a QIP process that aims to increase testing and improve the management of these infections. The QIP process in STRIVE involved;
The extraction of attendance and STI testing data from the electronic patient system;
Developing indicators based on local STI guidelines and producing reports based on these indicators;
Providing monetary incentives if an increase in testing rates were achieved;
Using a systems assessment tool to review their STI program more broadly;
A coordinator (nurse or sexual health physician) visiting the Aboriginal primary health care centres every 6-months to present the STI reports and facilitating a conversation with clinic staff to develop STI testing and management strategies and document these into an action plan.
SHIMMER involved a similar QIP process to STRIVE, except;
A sexual health physician and project manager visited the ACCHS more frequently (every four to six months (a total of five visits per ACCHS over a two year period);
The indicators were based on national STI guidelines;
SHIMMER provided an annual payment to each ACCHS that was not performance based; and
A clinical audit was conducted to examine the reasons why 15–24 year olds attended the ACCHS and what types of consultations (described in the statistical analysis section) included chlamydia and gonorrhoea testing.
The STI testing and management strategies developed by the ACCHS staff during the visits were specific to each ACCHS to maximise the success of the strategies to increase STI testing rates (Table 1). The project manager was an Aboriginal man who co-delivered the intervention with a sexual health physician. The ethical conduct of SHIMMER was guided by the Australian National Health and Medical Research Council Guidelines for Ethical Conduct in Aboriginal and Torres Strait Islander Health Research . This document strongly encourages research projects to have a project reference group where Aboriginal people are active members in all aspects of the research including the design, implementation, and interpretation of the results . Peer-based interventions and health promotion is a well-accepted means of reaching marginalised communities. In the US, breast cancer programs delivered by Native American health workers to Native American communities increased the recruitment of Native Americans in the program, increased breast cancer screening, re-screening, and decreased perceived barriers to screening. This study also observed increases in knowledge regarding Pap tests, cervical cancer and awareness of cervical cancer issues [27, 28].
A before and after study design was used. Attendance and STI testing data from the ACCHS was used to calculate the proportion of 15–29 year olds tested and tested positive for chlamydia and gonorrhoea, during a 12-month before period (March 2010 to February 2011) compared with a 12-month QIP period (March 2012 to February 2013). We chose the 12-month before period because during the 12-months prior to the QIP period (March 2011 to February 2012) the SHIMMER researchers were in discussions with each ACCHS to establish the project and clinic staff knew that a sexual health QIP was going to occur, which potentially could have influenced staff offering more STI testing as result of these initial project discussions. As a result the chosen 12-month before period provides a more accurate baseline period that is not influenced by the establishment of the SHIMMER project. We also conducted a clinical audit to determine why 15–24 year olds were attending the ACCHS and the type of consultations where chlamydia and gonorrhoea testing occurred during a six-month before period (1st July to 31st December 2011) compared with a six-month QIP period (1st July to 30th November 2012).
Attendance, testing and positivity data
We used a data extraction tool called ‘GeneRic Health Network Information Technology for the Enterprise’ (GRHANITETM)  to extract attendance and STI testing data on a weekly basis through the internet from the electronic patient system of each ACCHS. The software was installed just prior to the QIP commencing and the first extraction included two years of retrospective data. Data included a unique de-identified patient number, gender, age, Aboriginal status, practitioner type (physician, nurse or dentist), consultation date, chlamydia and gonorrhoea testing and result.
A sexual health physician conducted a clinical audit of 100 individuals aged 15–24 years who attended in a six-month before period and a six-month QIP period. Attendees were sorted by name, and all consultations of the first 50 females and 50 males in the two time periods were reviewed. The audit focused on a younger age group compared with GRHANITETM for two reasons. Firstly, the audit was resource intensive (a week at each ACCHS) and secondly, over the past decade chlamydia positivity has been highest among 15–24 year olds. Data extracted included a de-identified patient number, gender, age, consultation date, consultation type (the reason they attended the ACCHS), if a chlamydia and gonorrhoea test occurred, test results and potential STI symptoms. Two of the ACCHS did not have a total of 50 males who attended in both the six-month before period or the six-month QIP period and as a result the total number of individuals in the before and QIP periods are not the same.
Using the GRHANITE™ data, the proportion of 15–29 year olds tested for chlamydia and gonorrhoea was calculated as follows; in each 12-month period, the number of individuals tested divided by the number of individuals who attended (repeat tests and visits of the same person were removed). The proportion of 15–29 year olds testing positive for chlamydia and gonorrhoea was calculated as follows; in each 12-month period, the number of individuals who tested positive divided by the number of individuals who were tested (repeat positives and tests of the same person were removed).
Using the clinical audit data, the proportion of 15–24 year olds tested for chlamydia and gonorrhoea by consultation type was calculated as follows; in each six-month period, the number of individuals tested by the number of individuals who attended (repeat tests and visits of the same person were removed). The consultation types were divided into six categories; STI symptom/check (STI check, discharge, dysuria), reproductive health (contraception, pap smear, pregnancy test); adult health check (a general health assessment which includes around ten clinical assessments/tests and is recommended annually to 15–54 year old Aboriginal people, each ACCHS decides which tests are included in their template); general medical (ear, nose and throat, skin, respiratory tract infection, urinary tract infection, back pain, migraines, thyroid problems, referrals, vaccinations, smoking cessation); mental health (depression, anxiety, suicidal thoughts); and injury (broken bones, bruises). As people can attend for multiple reasons, we created a hierarchy in the order above. For example, if a consultation included a discussion about STI symptoms/check and mental health, it was identified as a STI symptom consultation. In both data sources, allied health consultations such as dental and physiotherapy were excluded as these practitioners cannot offer STI testing, treatment and education.
A chi-squared test was used to assess if patient demographics (gender, age group, Aboriginal status and ACCHS) and the proportion of 15–29 year olds ever tested for chlamydia and gonorrhoea were significantly different in the 12-month before period compared with the 12-month QIP period. Logistic regression was used to assess if the proportion tested for chlamydia and gonorrhoea was significantly different in the before period compared with the QIP period by gender, age group and Aboriginal status. Odds ratios (OR) and their 95 % confidence intervals (95 % CI) were calculated with statistical significance at p < 0.05. Data were analysed using STATA 12 statistical software (STATA Corporation, College Station TX) and Microsoft Excel 2007.
Ethical approval was received from the Aboriginal Health & Medical Research Council of NSW Ethics Committee, the UNSW Australia Human Research Ethics Committee and the Boards of each participating ACCHS. The SHIMMER project was funded by the NSW Ministry of Health.
Using the GRHANITE™ data, there were 1881 individuals aged 15–29 years who attended in the before period and 2259 in the QIP period. In the audit, there were 408 individuals aged 15–24 years in the before period and 437 in the QIP period.
Using the GRHANITE™ data, the proportion tested for chlamydia in the before period was 9 %, increasing to 22 % (Table 2) in the QIP period (OR: 1.43, 95 % CI: 1.22-1.67). In the QIP period, a higher testing rate was achieved in females; increasing from 13 % to 25 % (OR: 1.32, 95 % CI: 1.10-1.59). However the increase was greater in 20–24 year old males due to the lower testing rates in the before period; increasing from 3 % to 17 % (OR: 1.65, 95 % CI: 1.01-2.69, Table 2). Among females, the highest testing rate achieved in the QIP period was in 15–19 year olds, increasing from 16 % to 29 % (OR: 1.02, 95 % CI: 0.75-1.37). Testing rates varied in the four ACCHS sites, with three showing significant increases between the before and QIP periods and one having moderate increases. ACCHS site 1 achieved the highest testing rates in 15–29 year olds, increasing from 10 % to 40 % in females and from 2 % to 27 % in males (Table 2). Similar increases were observed for gonorrhoea testing (Table 2).
In the clinical audit, chlamydia testing in the before period was most commonly conducted when patients presented with STI symptoms/check, reproductive health, or adults health checks, but these types of consultations only accounted for a combined total of 31 % of total consultations; with general medical consultations accounting for the largest proportion of consultations (56 %). Among females, the proportion tested for chlamydia increased during the following consultation types; STI symptom/checks (from 65 % in the before to 80 % in the QIP period, adult health check (50 % to 62 %) and reproductive health (29 % to 39 %) consultations (Table 3). Among males, the proportion tested for chlamydia increased during STI symptom/checks (67 % to 70 %), adult health check (50 % to 75 %) and mental health (14s % to 37 %) consultations (Table 3). Similar increases were observed for gonorrhoea testing however the relative increase was greater as fewer gonorrhoea tests were conducted during the before period compared with chlamydia (Table 3).
Using the GRHANITE™ data, there were 70 (11 %) chlamydia diagnoses, increasing from 24 in the before period to 46 in the QIP period. In females, the number of chlamydia diagnoses increased from 18 to 33 and in males from 6 to 13. The highest number of chlamydia diagnoses for both females and males occurred in 15–19 year olds (71 %), 35 for females and 15 for males. There were 577 gonorrhoea tests conducted over both periods with 4 (0.7 %) testing positive.
This study highlights that SHIMMER was able to significantly increase the proportion of 15–29 year olds tested for chlamydia and gonorrhoea. The increase in testing predominantly occurred during STI symptoms/check, reproductive health and adult health check consultations. However an increase in testing did not occur during general medical consultations, which provided the most opportunities to increase testing. Double the number of chlamydia diagnoses were detected during the QIP period compared with the before period and over the whole study period there were only four gonorrhoea diagnoses.
The main strength of SHIMMER was that we were able to collect a large sample size of 15–29 year olds and collect data from two sources. The clinical audit provided contextual information on why 15–24 year olds attended the ACCHS and the consultation types where testing had occurred. There are a few limitations to consider when interpreting our findings. Firstly, only four ACCHS participated in SHIMMER, as a result our results may not be generalisable to all ACCHS in NSW or Australia. Secondly, our study was based on attendance and testing data that was entered into the electronic patient records system, therefore if consultations or testing were not entered into the system it may have resulted in our study under-estimating the testing rates and positivity in the ACCHS. Thirdly, it is possible that young people could have also been tested for STIs at other health care centres in these regional towns, which would result in our study under-estimating the testing rates. However we do not think this would have been common as other studies have demonstrated that young Aboriginal people prefer to attend ACCHSs for STI testing . A recent study included data from six ACCHS and 25 general practice centres in Australia and highlighted that only 1 % of 16–29 year olds who attended general practice centres were Aboriginal compared with 85 % who attended the ACCHS . The above mentioned study also highlighted that the chlamydia testing rates among the young Aboriginal attendees were 20 % at ACCHS and 4 % at general practice centres . Fourthly, we could not determine if the 15–29 year olds were local residents or visitors from other Aboriginal communities. If we were able to focus on just local residents the proportion of 15–29 year olds tested in this study may have been higher. It is acknowledged that the repeat visits by the sexual health physician and the project manager could have impacted upon the testing rates as the ACCHS clinic staff knew they would return on a regular basis to monitor their progress. Finally, our evaluation focused on the impact of the QIP on STI testing rates and did not involve a process or economic evaluation.
Overall the proportion of 15–29 year olds tested for chlamydia during the QIP period was 22 %, which is almost three-times greater than the 9 % in the before period. However one ACCHS in this study was able to increase their testing rate to 40 % among 15–29 year old females. The varying impact seen among ACCHS highlights two factors, that various factors can influence the success of the QIP process on testing rates in different ACCHS and the need to tailor QIP to each ACCHS as they have different staffing levels, resources, outreach and training levels. Although the 22 % in our study was lower than the 45 % achieved in US paediatric clinics , the magnitude of change in our program is similar to the US program due to the lower levels of testing among ACCHS in the 12-month before period. Also SHIMMER included a larger age group, and as a result demonstrated that the QIP was beneficial in the age group recommended by Australian STI testing guidelines for Aboriginal people . During the QIP period in our study, 25 % of females and 17 % of males were tested for chlamydia, which was greater than the other QIP program in Australia implemented in regional primary health care centres in NSW, which resulted in 10 % of females being tested, with the increase predominantly occurring during consultations that included a Pap smear .
In SHIMMER, higher chlamydia testing rates were found among young people attending for STI symptoms/checks, reproductive health consultations and adult health checks (AHC). For every completed AHC the ACCHS can receive $212 from the Australian government’s Medicare Benefits Scheme. A completed AHC can be conducted and charged every nine-months . If STI testing is added to the AHC template and more AHC are offered to young people, this may increase testing rates. This study also highlighted that not all STI symptoms/check consultations included a chlamydia and /or gonorrhoea test. This highlights the asymptomatic nature of chlamydia and gonorrhoea and if mild symptoms are present, these can be misinterpreted as other conditions. This also highlights the need for clinic staff to receive STI training so they are more aware of the mild symptoms of chlamydia and gonorrhoea. However the most effect strategy would be to base testing on the age of attendees to account for those with asymptomatic infection.
Based on the findings from this evaluation, the following strategies could be considered to increase testing further; initiatives to integrate testing into general medical consultations; offering more AHC to young people; and health promotion programs that encourage young people to present more frequently to the ACCHS and request STI testing or a combination of both. This is supported by an analysis of baseline data from SHIMMER which highlighted that chlamydia testing was strongly associated with those 15–29 year olds who attended the ACCHS more frequently compared with those who attended once to twice over a three-year period (OR:16.97) .
This study showed that as testing increased so did the number of chlamydia diagnoses. The highest chlamydia positivity was among 15–24 year olds which is consistent with national surveillance in Australia  and an analysis of chlamydia infections conducted in Aboriginal primary health care centres in remote areas of Northern Australia . We found gonorrhoea positivity was very low over both periods. As gonorrhoea prevalence can fluctuate quickly , it is important to achieve high levels of gonorrhoea and chlamydia testing so that any infection is detected early and treatment provided. The increasing use of NAAT equipment by laboratories in Australia to test for chlamydia and gonorrhoea at the same time will assist in achieving higher testing rates of gonorrhoea .
Some aspects of the quality improvement process used in SHIMMER could be used in other primary health care settings (visits, reports, feedback), as currently being utilised in the Australian Chlamydia Control Effectiveness Pilot (ACCEPt) project – a trial of chlamydia screening in general practice clinics . However some of the STI testing strategies developed by the ACCHS in SHIMMER are specific to Aboriginal people, such as adult health checks, which saw an increase in the testing rates however these are not offered in non-Aboriginal general practice clinics. The other testing and management strategies listed in Table 1 could be used to increase STI testing and improve the management of STIs among young people attending general practice clinics.
This evaluation of the SHIMMER project demonstrated that a sexual health QIP was able to significantly increase chlamydia and gonorrhoea testing in young Aboriginal people and detect more infections. The strategies developed and implemented by the ACCHSs staff aimed to become routine clinical practice that could result in sustainable long term changes. The QIP process used in SHIMMER could be introduced in other primary health care centres to improve the testing and management of other infection/ conditions.
Aboriginal and Torres Strait Islander
Aboriginal Community Controlled Health Services
Aboriginal Health & Medical Research Council
Australian Bureau of Statistics
Blood borne viruses
95 % confidence intervals
Generic Health Network Information Technology for the Enterprise
New South Wales
Pelvic inflammatory disease
Quality improvement program
Sexually transmissible infection
STIs in Remote communities: Improved & Enhanced primary health care trial
Sexual health quality improvement program
University of New South Wales
United States of America
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Simon Graham, Julie Booker, Chris O’Brien, Kristine Garrett and James Ward are Aboriginal Australians and acknowledge the contribution Aboriginal and Torres Strait Islander Australians make to this work. We would like to thank all the staff at each ACCHS who provide culturally appropriate medical, allied health and education to improve the health and well-being of Aboriginal people. James S Ward and Simon Graham were the principle investigators for the SHIMMER project. We would like to acknowledge the investigators of the STRIVE project. The GRHANITE extraction tool was developed by Dr Douglas Boyle at the University of Melbourne. Dr Mary Ellen Harrod and Mrs Lucy Watchirs Smith contribution to data management, validation, indicator development and ensured each ACCHS received accurate data reports. Simon Graham is supported by a McKenzie post-doctoral fellowship and by the Melbourne Poche Centre for Indigenous Health at the University of Melbourne. Rebecca Guy, John Kaldor and Basil Donovan are supported by National Health and Medical Research Council Fellowships. The SHIMMER project was funded by the New South Wales Ministry of Health. The Kirby Institute is affiliated with the Faculty of Medicine, UNSW Australia.
The authors declare that they have no competing interests.
SG contributed to the design of the evaluation, data collection, implementation of the QIP, wrote the first and subsequent drafts of the manuscript, conducted the statistical analyses and interpretation of the results. RG, HW and JMK contributed to the design the evaluation, the statistical analyses, writing the manuscript and interpretation of results. BD, JN and JSW contributed to the design the evaluation, writing the manuscript and interpretation of results. DM, PB, JB, CO and KG contributed to the implementation of the intervention, writing the manuscript and interpretation of the results. All authors have read and approved the final version of the manuscript.