Ross M. Andrews

Ross M. Andrews

PhD; MAppEpid; MPH; DipAppSci (Env Hlth)

Infectious Disease Specialist

Over 20 years of experience in the field of infectious diseases and epidemiology

Male📍 Casuarina

About of Ross M. Andrews

Ross M. Andrews is an Infectious Disease Specialist based at Ellengowan Dr, Casuarina, NT 0810, Australia.


Ross works with people who have infections that need a clear plan and the right testing. This can include everyday problems like flu and strep throat, but also more serious illnesses such as bacterial meningitis, pneumonia, and other tough infections. At times, the work also involves skin issues and parasite-related conditions, where treatment needs to be spot-on and follow-up is important.


With over 20 years of experience, Ross brings a calm, practical approach. Infectious diseases can move fast, and at times the symptoms can look similar across different conditions. Over the years, the focus has stayed on getting to the cause, checking risk factors, and helping people understand what happens next.


Ross’s background is built on both clinical and public health training. The education includes a Doctor of Philosophy (PhD) in Epidemiology from The Australian National University (2004), plus an MAppEpid in Epidemiology from the same university (1998). There’s also a Master of Public Health (MPH) from Monash University (1995), and a DipAppSci in Environmental Health from Swinburne University of Technology (1984).


In day-to-day care, that mix of skills helps when an infection may be linked to the environment, close contact, or wider outbreaks. It also supports clear advice on prevention and what to watch for at home.


Research is part of the picture too, with publications listed among the academic work. That kind of ongoing interest supports decision-making that’s grounded in evidence, not guesswork.


Clinical trials work isn’t listed here, so the main focus is on routine diagnosis and treatment, and working out the safest next step for each person and each situation.

Education

  • Doctor of Philosophy (PhD), Epidemiology; The Australian National University; 2004
  • MAppEpid, Epidemiology; The Australian National University; 1998
  • Master of Public Health (MPH), Public Health; Monash University; 1995
  • DipAppSci (Env Hlth), Environmental Health; Swinburne University of Technology; 1984

Services & Conditions Treated

ImpetigoScabiesRhabditida InfectionsStrongyloidiasisAscariasisFluHelminthiasisHookworm InfectionOtitisPertussisSecernentea InfectionsStrep ThroatAngiostrongyliasisBacterial MeningitisDiarrheaFungal Nail InfectionGiardia InfectionHead LiceHearing LossHepatitis AKerion CelsiMeningitisNecrotizing FasciitisPneumoniaSevere Acute Respiratory Syndrome (SARS)Streptococcal Group A InfectionTetanus

Publications

5 total
Influenza Epidemiology and Vaccine Effectiveness Following Funded Influenza Vaccine in Queensland, Australia, 2022.

Influenza and other respiratory viruses • April 26, 2024

Ashish Shrestha, Emma Field, Dharshi Thangarajah, Ross Andrews, Robert Ware, Stephen Lambert

Background: In 2022, publicly funded influenza vaccine was made available to all residents of Queensland, Australia. This study compared influenza epidemiology in 2022 with previous years (2017-2021) and estimated influenza vaccine effectiveness (VE) during 2022. Methods: The study involved a descriptive analysis of influenza notifications and a case-control study to estimate VE. Cases were notifications of laboratory-confirmed influenza, and controls were individuals who were test negative for COVID-19. Cases and controls were matched on age, postcode and specimen collection date. VE against hospitalisation was investigated by matching hospitalised cases to controls. Conditional logistic regression models were adjusted for sex. Results: In 2022, Queensland experienced an early influenza season onset (April-May) and high case numbers (n = 45,311), compared to the previous 5 years (annual average: 29,364) and 2020-2021 (2020:6047; 2021:301) during the COVID-19 pandemic. Adjusted VE (VEadj) against laboratory-confirmed influenza was 39% (95% confidence interval [CI]: 37-41), highest for children aged 30 months to < 5 years (61%, 95% CI: 49-70) and lowest for adults aged ≥ 65 years (24%, 95% CI: 17-30). VEadj against influenza-associated hospitalisation was 54% (95% CI: 48-59). Among children < 9 years of age, VEadj against laboratory-confirmed influenza (55%, 95% CI: 49-61) and hospitalisation (67%, 95% CI: 39-82) was higher in those who received a complete dose schedule. Conclusion: In Queensland, the 2022 influenza season started earlier than the previous 5 years. VE against influenza notifications varied across age groups. VE estimates against influenza-associated hospitalisation were higher than those against laboratory-confirmed influenza.

Hearing loss in Australian First Nations children at 6-monthly assessments from age 12 to 36 months: Secondary outcomes from randomised controlled trials of novel pneumococcal conjugate vaccine schedules.

PLoS Medicine • March 06, 2024

Amanda Leach, Nicole Wilson, Beth Arrowsmith, Jemima Beissbarth, Kim Mulholland, Mathuram Santosham, Paul Torzillo, Peter Mcintyre, Heidi Smith Vaughan, Sue Skull, Victor Oguoma, Mark Chatfield, Deborah Lehmann, Christopher Brennan Jones, Michael Binks, Paul Licciardi, Ross Andrews, Tom Snelling, Vicki Krause, Jonathan Carapetis, Anne Chang, Peter Morris

Background: In Australian remote communities, First Nations children with otitis media (OM)-related hearing loss are disproportionately at risk of developmental delay and poor school performance, compared to those with normal hearing. Our objective was to compare OM-related hearing loss in children randomised to one of 2 pneumococcal conjugate vaccine (PCV) formulations. Results: In 2 sequential parallel, open-label, randomised controlled trials (the PREVIX trials), eligible infants were first allocated 1:1:1 at age 28 to 38 days to standard or mixed PCV schedules, then at age 12 months to PCV13 (13-valent pneumococcal conjugate vaccine, +P) or PHiD-CV10 (10-valent pneumococcal Haemophilus influenzae protein D conjugate vaccine, +S) (1:1). Here, we report prevalence and level of hearing loss outcomes in the +P and +S groups at 6-monthly scheduled assessments from age 12 to 36 months. From March 2013 to September 2018, 261 infants were enrolled and 461 hearing assessments were performed. Prevalence of hearing loss was 78% (25/32) in the +P group and 71% (20/28) in the +S group at baseline, declining to 52% (28/54) in the +P groups and 56% (33/59) in the +S group at age 36 months. At primary endpoint age 18 months, prevalence of moderate (disabling) hearing loss was 21% (9/42) in the +P group and 41% (20/49) in the +S group (difference -19%; (95% confidence interval (CI) [-38, -1], p = 0.07) and prevalence of no hearing loss was 36% (15/42) in the +P group and 16% (8/49) in the +S group (difference 19%; (95% CI [2, 37], p = 0.05). At subsequent time points, prevalence of moderate hearing loss remained lower in the +P group: differences -3%; (95% CI [-23, 18], p = 1.00 at age 24 months), -12%; (95% CI [-30, 6], p = 0.29 at age 30 months), and -9%; (95% CI [-23, 5], p = 0.25 at age 36 months). A major limitation was the small sample size, hence low power to reach statistical significance, thereby reducing confidence in the effect size. Conclusions: In this study, we observed a high prevalence and persistence of moderate (disabling) hearing loss throughout early childhood. We found a lower prevalence of moderate hearing loss and correspondingly higher prevalence of no hearing loss in the +P group, which may have substantial benefits for high-risk children, their families, and society, but warrant further investigation. Background: ClinicalTrials.gov NCT01735084 and NCT01174849.

Having a real say: findings from first nations community panels on pandemic influenza vaccine distribution.

BMC Public Health • September 28, 2023

Kristy Crooks, Kylie Taylor, Kiara Burns, Sandy Campbell, Chris Degeling, Jane Williams, Ross Andrews, Peter Massey, Jodie Mcvernon, Adrian Miller

Background: Recent deliberations by Australian public health researchers and practitioners produced an ethical framework of how decisions should be made to distribute pandemic influenza vaccine. The outcome of the deliberations was that the population should be considered in two categories, Level 1 and Level 2, with Level 1 groups being offered access to the pandemic influenza vaccine before other groups. However, the public health researchers and practitioners recognised the importance of making space for public opinion and sought to understand citizens values and preferences, especially First Nations peoples. Methods: We conducted First Nations Community Panels in two Australian locations in 2019 to assess First Nations people's informed views through a deliberative process on pandemic influenza vaccination distribution strategies. Panels were asked to make decisions on priority levels, coverage and vaccine doses. Results: Two panels were conducted with eighteen First Nations participants from a range of ages who were purposively recruited through local community networks. Panels heard presentations from public health experts, cross-examined expert presenters and deliberated on the issues. Both panels agreed that First Nations peoples be assigned Level 1 priority, be offered pandemic influenza vaccination before other groups, and be offered two doses of vaccine. Reasons for this decision included First Nations people's lives, culture and families are important; are at-risk of severe health outcomes; and experience barriers and challenges to accessing safe, quality and culturally appropriate healthcare. We found that communication strategies, utilising and upskilling the First Nations health workforce, and targeted vaccination strategies are important elements in pandemic preparedness and response with First Nations peoples. Conclusions: First Nations Community Panels supported prioritising First Nations peoples for pandemic influenza vaccination distribution and offering greater protection by using a two-dose full course to fewer people if there are initial supply limitations, instead of one dose to more people, during the initial phase of the vaccine roll out. The methodology and findings can help inform efforts in planning for future pandemic vaccination strategies for First Nations peoples in Australia.

The effectiveness of maternal pertussis vaccination for protecting Aboriginal and Torres Strait Islander infants against infection, 2012-2017: a retrospective cohort study.

The Medical Journal Of Australia • May 25, 2023

Lisa Mchugh, Heather D'antoine, Mohinder Sarna, Michael Binks, Hannah Moore, Ross Andrews, Gavin Pereira, Christopher Blyth, Paul Van Buynder, Karin Lust, Annette Regan

Objectives: To evaluate the effectiveness of maternal pertussis vaccination for preventing pertussis infections in Aboriginal and Torres Strait Islander infants under seven months of age. Study Design: Retrospective cohort study; analysis of linked administrative health data. Setting, participants: Mother-infant cohort (Links2HealthierBubs) including all pregnant women who gave birth to live infants (gestational age ≥ 20 weeks, birthweight ≥ 400 g) in the Northern Territory, Queensland, and Western Australia during 1 January 2012 - 31 December 2017. Main outcome measures: Proportions of women vaccinated against pertussis during pregnancy, rates of pertussis infections among infants under seven months of age, and estimated effectiveness of maternal vaccination for protecting infants against pertussis infection, each by Indigenous status. Results: Of the 19 892 Aboriginal and Torres Strait Islander women who gave birth to live infants during 2012-2017, 7398 (37.2%) received pertussis vaccine doses during their pregnancy, as had 137 034 of 259 526 non-Indigenous women (52.8%; Indigenous v non-Indigenous: adjusted odds ratio, 0.66; 95% confidence interval [CI], 0.62-0.70). The annual incidence of notified pertussis infections in non-Indigenous infants declined from 16.8 (95% CI, 9.9-29) in 2012 to 1.4 (95% CI, 0.3-8.0) cases per 10 000 births in 2017; among Aboriginal and Torres Strait Islander infants, it declined from 47.6 (95% CI, 16.2-139) to 38.6 (95% CI, 10.6-140) cases per 10 000 births. The effectiveness of maternal vaccination for protecting non-Indigenous infants under seven months of age against pertussis infection during 2014-17 was 68.2% (95% CI, 51.8-79.0%); protection of Aboriginal and Torres Strait Islander infants was not statistically significant (36.1%; 95% CI, -41.3% to 71.1%). Conclusions: During 2015-17, maternal pertussis vaccination did not protect Aboriginal and Torres Strait Islander infants in the NT, Queensland, and WA against infection. Increasing the pertussis vaccination rate among pregnant Aboriginal and Torres Strait Islander women requires culturally appropriate, innovative strategies co-designed in partnership with Indigenous organisations and communities.

Inequity of antenatal influenza and pertussis vaccine coverage in Australia: the Links2HealthierBubs record linkage cohort study, 2012-2017.

BMC Pregnancy And Childbirth • October 25, 2022

Lisa Mchugh, Annette Regan, Mohinder Sarna, Hannah Moore, Paul Van Buynder, Gavin Pereira, Christopher Blyth, Karin Lust, Ross Andrews, Kristy Crooks, Peter Massey, Michael Binks

Background: Pregnancy and early infancy are increased risk periods for severe adverse effects of respiratory infections. Aboriginal and/or Torres Strait Islander (respectfully referred to as First Nations) women and children in Australia bear a disproportionately higher burden of respiratory diseases compared to non-Indigenous women and infants. Influenza vaccines and whooping cough (pertussis) vaccines are recommended and free in every Australian pregnancy to combat these infections. We aimed to assess the equity of influenza and/or pertussis vaccination in pregnancy for three priority groups in Australia: First Nations women; women from culturally and linguistically diverse (CALD) backgrounds; and women living in remote areas or socio-economic disadvantage. Methods: We conducted individual record linkage of Perinatal Data Collections with immunisation registers/databases between 2012 and 2017. Analysis included generalised linear mixed model, log-binomial regression with a random intercept for the unique maternal identifier to account for clustering, presented as prevalence ratios (PR) and 95% compatibility intervals (95%CI). Results: There were 445,590 individual women in the final cohort. Compared with other Australian women (n = 322,848), First Nations women (n = 29,181) were less likely to have received both recommended antenatal vaccines (PR 0.69, 95% CI 0.67-0.71) whereas women from CALD backgrounds (n = 93,561) were more likely to have (PR 1.16, 95% CI 1.10-1.13). Women living in remote areas were less likely to have received both vaccines (PR 0.75, 95% CI 0.72-0.78), and women living in the highest areas of advantage were more likely to have received both vaccines (PR 1.44, 95% CI 1.40-1.48). Conclusions: Compared to other groups, First Nations Australian families, those living in remote areas and/or families from lower socio-economic backgrounds did not receive recommended vaccinations during pregnancy that are the benchmark of equitable healthcare. Addressing these barriers must remain a core priority for Australian health care systems and vaccine providers. An extension of this cohort is necessary to reassess these study findings.

Frequently Asked Questions

What services does Dr Ross M. Andrews offer?
Dr Ross M. Andrews provides services in infectious diseases and related conditions, including infections like impetigo, scabies, bacterial and viral infections, diarrhoea, meningitis, pneumonia, and SARS, as well as fungal, helminth, and skin infections.
What conditions can I see Dr Andrews for?
He handles a range of infectious diseases and related health issues such as respiratory infections, meningitis, ear infections, GI infections, skin infections, and other contagious conditions listed in his practice.
Where is Dr Andrews’s clinic located?
The clinic is at Ellengowan Dr, Casuarina, NT 0810, Australia.
How do I book an appointment with Dr Andrews?
To book, contact the clinic directly in Casuarina. They can organise a suitable time for an appointment with the infectious disease specialist.
What can I expect at a consult with an infectious disease specialist?
You can expect assessment of infections and related health concerns, discussion of symptoms, tests if needed, and a plan for treatment or management in plain language.
Does Dr Andrews speak languages other than English?
The profile does not list other languages, so please check with the clinic when you make an appointment if language support is important for you.

Contact Information

Ellengowan Dr, Casuarina, NT 0810, Australia

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Memberships

  • APPRISE Executive:
  • Australian Technical Advisory Group on Immunisation (ATAGI)
  • the Australian National University (ANU)