Realistic assessment

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Improving quality of life and equitable opportunities

Solving the challenge of communicating in complex, noisy environments for people with listening difficulties.

Learn more about the projects we are undertaking in this area and the research teams involved.

The MOSAIC Study

Funded by: NSSN, Cochlear, Google Research (Australia)

A logo for the mosaic project with the words the Mosaic study in different coloured lettersHearing loss disrupts the pathway to healthy ageing and independent living by increasing communication difficulties and reducing social interactions and quality of life.

While hearing devices provide a means to re-establish the hearing pathway, listening through devices means communication can still be difficult, and breakdowns still occur.

We use sensor-fusion to:

  • determine the critical noise level of communication breakdowns for ageing individuals who wear hearing devices
  • detect the biomarkers that predict communication breakdowns.

Our long-term strategic goal is to exploit these processes to minimise or prevent breakdowns by enhancing signal processing strategies to mitigate communication loss.

Our research partners:

  • Cochlear
  • Google Research (Australia)
  • The MARCS Institute

Contact: kelly.miles@mq.edu.au

PRISM

Funded by: Australian Future Hearing Initiative

This project aims to advance knowledge on human communication in noise and multi-talker environments, and its interplay with hearing loss and hearing devices.

Our research partners:

  • Cochlear
  • Google Research (Australia)
  • National Acoustic Laboratories
  • The Shepherd Centre
  • NextSense

Contact: jorg.buchholz@mq.edu.au

Comparing the benefits of hearing aids and cochlear implants in real-world listening environments

Funded by: Cochlear-MQ fund

This project aims to understand the real-world listening performance of CI/HA users and the factors that contribute to performance variability.

We will employ audiological tests that assess speech understanding and basic sensitivity, laboratory tests of spatial hearing, and novel listening tests conducted in realistic virtual environments.

By identifying the factors that impact the ability to utilise spatial hearing when listening in noisy environments:

  1. more sensitive tools can be developed to assess the benefits of hearing intervention and
  2. evidence can be provided for when an intervention can have the greatest impact in everyday situations.

Our research partners:

  • Cochlear

Contact: jorg.buchholz@mq.edu.au

Developing next-generation sensors for stress and fatigue monitoring in cochlear implant recipients

Funded by: Cochlear-MQ fund

Our research focuses on understanding how stress and fatigue, as physiological responses, affect listening in noise and multi-talker environments for individuals with hearing loss.

We are developing next-generation sensors to integrate into hearing devices to better index stress and fatigue.

Our research partners:

  • Cochlear

Contactyvonne.tran@mq.edu.au

Realistic assessment of hearing ability and device benefit: Visual speech benefit

Funded by: Sonova-MQ-NAL alliance

The overarching goal of this project is to improve the ecological validity of current laboratory/clinical speech-in-noise assessments. The goal of this study is to understand how far the inclusion of visual speech information (ie seeing the talker speak) affects individual outcomes and increases their ecological validity.

Our research partners:

  • Sonova, National Acoustic Laboratories

Contactjorg.buchholz@mq.edu.au

Speech-in-noise outcomes following stroke

Everyday places where we come together to connect with our families and friends – like cafes and restaurants – are often the noisiest and most challenging environments for communication.

Characterised by unfavourable signal-to-noise ratios (SNRs) and rife with distractions such as people talking at adjacent tables, these settings require a complex interplay of auditory and cognitive-driven processes to facilitate successful communication.

However, cognitive processes are often compromised in the post-stroke population. Given cognition plays an important role in speech perception – especially in noise and multi-talker environments – we aim to better understand speech-in-noise outcomes following stroke.

Contact: kelly.miles@mq.edu.au