News | Magnetic Resonance Imaging (MRI) | January 23, 2018

Study shows that early cochlear implantation is critical to language development in deaf children 

Brain Imaging Predicts Language Learning in Deaf Children

January 23, 2018 – In a new international collaborative study between The Chinese University of Hong Kong and Ann & Robert H. Lurie Children's Hospital of Chicago, researchers created a machine learning algorithm that uses brain scans to predict language ability in deaf children after they receive a cochlear implant. This study's novel use of artificial intelligence to understand brain structure underlying language development has broad-reaching implications for children with developmental challenges. It was published in the Proceedings of the National Academy of Sciences of the United States of America.

"The ability to predict language development is important because it allows clinicians and educators to intervene with therapy to maximize language learning for the child," said co-senior author Patrick C. M. Wong, Ph.D., a cognitive neuroscientist, professor and director of the Brain and Mind Institute at The Chinese University of Hong Kong. "Since the brain underlies all human ability, the methods we have applied to children with hearing loss could have widespread use in predicting function and improving the lives of children with a broad range of disabilities," said Wong.

A cochlear implant is the most effective treatment for children born with significant hearing loss when hearing aids are not enough for the child to develop age-appropriate listening and language ability. Decades of research have shown that early cochlear implantation is critical. Although a cochlear implant enables many children with hearing loss to understand and develop speech, some children lag behind their normal-hearing peers despite receiving an implant as an infant or toddler. Helping these children achieve the language and literacy of hearing children is important and the focus of much research, as these skills are critical to academic success, social and emotional well-being and employment opportunities.

"So far, we have not had a reliable way to predict which children are at risk to develop poorer language. Our study is the first to provide clinicians and caregivers with concrete information about how much language improvement can be expected given the child's brain development immediately before surgery," said co-senior author Nancy M. Young, M.D., Medical Director, Audiology and Cochlear Implant Programs at Lurie Children's, a surgeon and professor at Northwestern University Feinberg School of Medicine. "The ability to forecast children at risk is the critical first step to improving their outcome. It will lay the groundwork for future development and testing of customized therapies."

"A one-size-fits-all intensive therapy approach is impractical and may not adequately address the needs of those children most at risk to fall behind," added Wong.

Erin Ingvalson, assistant professor at Florida State University who began work on the project as a post-doctoral student at Northwestern University, said "our goal is to eliminate the gap in language outcomes often found when children with hearing loss are compared to those with normal hearing."

"The ability to optimize therapy for each child with hearing loss will transform many lives," said Ingvalson.

Successful hearing and spoken language development depends on both the ear and the brain. Hearing loss early in life deprives the auditory areas of the brain of stimulation, which causes abnormal patterns of brain development.

"We used MRI [magnetic resonance imaging] to capture these abnormal patterns before cochlear implant surgery and constructed a machine-learning algorithm for predicting language development with a relatively high degree of accuracy, specificity and sensitivity," Wong explained. "Although the current algorithm is built for children with hearing impairment, research is being conducted to also predict language development in other pediatric populations."

For more information: www.pnas.org

 


Related Content

News | Bone Densitometry Systems

June 19, 2025 — Naitive Technologies has published results demonstrating the diagnostic performance of its AI-powered ...

Time June 18, 2025
arrow
News | Lung Imaging

June 18, 2025 — Exo recently announced that now included on its Exo Iris is the first ever FDA 510(k) cleared AI for ...

Time June 18, 2025
arrow
News | Digital Pathology

June 11, 2025 — Diagnostic laboratory leaders view digital pathology and artificial intelligence (AI) as pivotal to ...

Time June 12, 2025
arrow
News | Lung Imaging

June 11, 2025 — To prepare healthcare workforces and providers for an AI-driven future, Qure.ai has expanded its Global ...

Time June 11, 2025
arrow
News | Radiology Imaging

June 10, 2025 — CIVIE has announced the official launch of RadPod, an AI-driven, on-demand radiology platform designed ...

Time June 10, 2025
arrow
News | Ultrasound Imaging

June 4, 2025 — RadNet, Inc., a provider of high-quality, cost-effective diagnostic imaging services and digital health ...

Time June 09, 2025
arrow
News | Mammography

June 9, 2025 — A new independent, peer-reviewed study published in the journal Clinical Breast Cancer reinforces the ...

Time June 09, 2025
arrow
News | Imaging Software Development

June 05, 2025 — Nano-X Imaging Ltd. has announced that its deep-learning medical imaging analytics subsidiary, Nanox AI ...

Time June 05, 2025
arrow
News | Prostate Cancer

June 5, 2025 – Artera, the developer of multimodal artificial intelligence (MMAI)-based prognostic and predictive cancer ...

Time June 05, 2025
arrow
News | Ultrasound Imaging

June 3, 2025 — In a collaborative study between the Departments of Radiology at the Children’s Hospital of Philadelphia ...

Time June 04, 2025
arrow
Subscribe Now