Early Neurodevelopmental Disorders

The impact of our research

Around 10% of Australian children have a neurodevelopmental disorder such as autism, ADHD, cerebral palsy, or Tourette syndrome. These conditions are on the rise, but it can be difficult to identify which babies will need extra help until years later.

QIMR Berghofer researchers have harnessed the power of artificial intelligence (AI) to rapidly track how preterm babies are developing once they’re in neonatal intensive care.

We’re leading the Australian ASD and ADHD Study (AAA Study) to improve our understanding of autism spectrum disorder (ASD) and attention deficit hyperactivity disorder (ADHD). We’re looking at these conditions with a broad lens and tracking the emotional, educational, employment and financial impacts on individuals and their families.

In a world first, our research has pinpointed where in the brain the communication process breaks down for people with chronic ADHD.

We’re combining physics, machine learning, and cutting-edge neuroimaging technology to uncover the mysteries of the brain.

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About early neurodevelopmental disorders

What are early neurodevelopmental disorders?

Birth is a precarious time that coincides with rapid brain development. Problems that arise before, during, or shortly after birth can have a lifelong impact.

Babies have an increased risk of poor neurodevelopmental outcomes if they:

  • are premature;
  • have a low birth weight for their age (due to intrauterine growth restriction);
  • experience complications at birth such as asphyxia.

These outcomes can include:

  • cerebral palsy and other neuromotor disabilities;
  • hearing and vision impairments;
  • cognitive and learning difficulties;
  • autism spectrum disorder (ASD);
  • attention deficit hyperactivity disorder (ADHD).
What causes early neurodevelopmental disorders?

Preterm birth is the greatest single risk factor for lifelong neurological or cognitive disability. The more premature the birth, the higher the likelihood of neurodevelopmental disorders.

What are the symptoms of early neurodevelopmental disorders?

Children who have experienced abnormal neurodevelopment can have a wide range of symptoms including learning disabilities, reduced emotional regulation, and difficulty socialising.

Early neurodevelopmental disorders in Australia

Around one in 10 babies are born prematurely (before 37 weeks). Those born extremely preterm (before 28 weeks) and very preterm (28–32 weeks) account for a sizeable and growing proportion of premature births.

How are early neurodevelopmental disorders treated?

While treatments are available to support children with early neurodevelopmental disorders, it can be difficult to identify early on which babies will need extra help. When adverse events occur – such as preterm birth or complications at birth – it isn’t possible to know whether neurodevelopment has been impaired, or whether there will be longer-term consequences.

Typically, damage is only identified long after it has occurred. Cerebral palsy is usually diagnosed in the second year of life, and cognitive and educational deficits aren’t obvious until even later. There is an urgent need for new diagnostic and prognostic tools to identify babies that need more support, and to help us develop new treatments.


Our early neurodevelopmental disorders research

Brain Modelling Group

This group, led by Associate Professor James Roberts, models and analyses brain structure and dynamics in health and disease. The group is harnessing the rapid developments in neuroimaging technology and connectomics to develop new mathematical models of brain activity. The goal is to fill gaps in our knowledge of how neuroimaging brain signals emerge from brain structure, how this relationship varies as we grow and age, and how things can go wrong leading to neurological and psychiatric disorders.

"The Brain Modelling Group delves into the depths of brain structure and dynamics, pursuing two vital themes: developing diagnostic methods for neonatal brain health and modelling large-scale brain activity across the lifespan. Through harnessing physics, machine learning, and cutting-edge neuroimaging technology, our goal is to uncover the mysteries of brain signals, their relationship to structure, and their implications for neurological and psychiatric disorders."

Associate Professor James Roberts