Study Results
The study team has not published outcome measurements, participant flow, or safety data for this trial yet. Check back later for updates.
Basic Information
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TERMINATED
NA
1 participants
INTERVENTIONAL
2024-01-08
2024-10-07
Brief Summary
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Detailed Description
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Sensory Processing in ASD: Sensory processing disorders were added to ASD diagnosis in The Diagnostic and Statistical Manual of Mental Disorders, Fifth Edition in 2013. Since then, there has been little research into the role that sensory processing disorders plays in the anxiety of people with ASD. Functional magnetic resonance imaging (fMRI) studies have demonstrated that people with ASD have greater brain activity in relevant sensory areas, the amygdala, and the orbital frontal cortex when exposed to combinations of unpleasant auditory, tactile, or visual stimuli. Further, people with ASD have a reduced ability to habituate to the same unpleasant stimuli in the relevant sensory cortices and amygdala, differences in the changes of brain activity in the orbital-frontal cortex, and differences in functional connectivity between the amygdala and orbital-frontal cortex. These brain responses have also been connected with physiological responses in children with ASD, as those with greater skin conductivity having reduced neural response in the orbital-frontal cortex and heart rate being positively correlated with activity in the inferior and medial frontal gyrus.
Even though the neurophysiological evidence supports sensory processing differences in ASD, current treatment strategies are sparse and the results are often inconsistent. The most successful paradigm is exposure therapy through systematic desensitization, which has been used in both ASD and people with anxiety. While multisensory integration skills may be malleable, it has been suggested that exposure therapy may not be an effective long-term strategy, as the clinical team cannot perform exposure to every stimulus in every environment. With this in mind, new therapeutic techniques need to be designed to enable personalization of exposure experiences.
Virtual Reality for ASD: One emerging technique that could enable quick personalization of unpleasant stimulus and environments is virtual reality (VR). Therapeutic VR software has shown to be an effective platform for skill training, mainly focusing on behavioral skills in social or educational environments. Two investigations demonstrated changes in neural activity after participating in VR social cognition training. However, the effects of using VR as a sensory exposure platform on the physiological response to unpleasant stimuli has not been explored.
Purpose The research objectives of this application are to quantify the neurophysiological changes that occur after participating in a virtual reality systematic desensitization protocol. The following aims will be achieved the top physiological recording devices for ASD to collect physiological responses, front-line virtual reality systems to provide automated desensitization exposure therapy, and University of Nebraska Medical Center's research MRI system. 30 people with ASD and 30 neurotypical peers will be recruited to utilize this software. This proposal will be the first step in developing evidence-based therapies aimed at addressing sensory processing differences in ASD.
Conditions
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Study Design
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NON_RANDOMIZED
PARALLEL
BASIC_SCIENCE
NONE
Study Groups
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Autism Spectrum Disorder Habituation Group
This will be the group of subjects with Autism and sensory over-responsivity. This group will go through a mock-MRI, a pre-habituation MRI, the habituation protocol in virtual reality, and a post-habituation MRI.
Sensory Habituation Protocol
The first session continues with the Mock MRI, which lasts 10 minutes. Participant's comfort level in VR will be evaluated.
At the pre-exposure visit, participants complete an MRI scan on a 3 Tesla MRI, which takes approximately 1 hour \& 15 minutes. It consists of structural \& functional MRI scans. Structural scans require the participant to stay still with eyes closed. Functional scans will require the participant to lie with eyes closed or watch and listen to sensory stimulation.
VR exposure will occur across 3 1-hour sessions at most. Participants will be asked to complete a sensory habituation protocol, in which they will watch and listen to sensory stimuli in VR for an increasing amount of time. Between the sensory stimuli, the participant will watch a self-selected video.
Finally, the subject will be asked to do a post-exposure MRI visit, which is the same as the pre-exposure visit.
Neurotypical Habitation Group
This will be the group of subjects who are neurotypical peers. This group will go through a mock-MRI, a pre-habituation MRI, the habituation protocol in virtual reality, and a post-habituation MRI.
Sensory Habituation Protocol
The first session continues with the Mock MRI, which lasts 10 minutes. Participant's comfort level in VR will be evaluated.
At the pre-exposure visit, participants complete an MRI scan on a 3 Tesla MRI, which takes approximately 1 hour \& 15 minutes. It consists of structural \& functional MRI scans. Structural scans require the participant to stay still with eyes closed. Functional scans will require the participant to lie with eyes closed or watch and listen to sensory stimulation.
VR exposure will occur across 3 1-hour sessions at most. Participants will be asked to complete a sensory habituation protocol, in which they will watch and listen to sensory stimuli in VR for an increasing amount of time. Between the sensory stimuli, the participant will watch a self-selected video.
Finally, the subject will be asked to do a post-exposure MRI visit, which is the same as the pre-exposure visit.
Interventions
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Sensory Habituation Protocol
The first session continues with the Mock MRI, which lasts 10 minutes. Participant's comfort level in VR will be evaluated.
At the pre-exposure visit, participants complete an MRI scan on a 3 Tesla MRI, which takes approximately 1 hour \& 15 minutes. It consists of structural \& functional MRI scans. Structural scans require the participant to stay still with eyes closed. Functional scans will require the participant to lie with eyes closed or watch and listen to sensory stimulation.
VR exposure will occur across 3 1-hour sessions at most. Participants will be asked to complete a sensory habituation protocol, in which they will watch and listen to sensory stimuli in VR for an increasing amount of time. Between the sensory stimuli, the participant will watch a self-selected video.
Finally, the subject will be asked to do a post-exposure MRI visit, which is the same as the pre-exposure visit.
Other Intervention Names
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Eligibility Criteria
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Inclusion Criteria
1. people with a diagnosis of autism spectrum disorder
2. people who have sensory over-responsivity
3. can wear a VR headset for up to 20 minutes
4. can understand and follow directions
For neurotypical participants
1. can wear a VR headset for up to 20 minutes
2. can understand and follow directions
Exclusion Criteria
7 Years
18 Years
ALL
Yes
Sponsors
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University of Nebraska
OTHER
Responsible Party
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Principal Investigators
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James E Gehringer, PhD
Role: PRINCIPAL_INVESTIGATOR
University of Nebraska
Locations
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University of Nebraska Medical Center, Munroe-Meyer Insitute
Omaha, Nebraska, United States
Countries
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Other Identifiers
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0709-22-EP
Identifier Type: -
Identifier Source: org_study_id
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