Why we do what
we do
Every therapy at NeuroNest is grounded in published neuroscience & peer-reviewed research. Here's the science behind our approach, explained for parents, not professors.
Light therapy for the brain
Uses near-infrared light to stimulate brain cell energy production
Over 5,000 published studies on PBM with zero serious adverse effects reported
Proven to penetrate the skull and reach brain tissue at therapeutic levels
Shown to improve cognitive function in healthy adults, not just those with injuries
Photobiomodulation (PBM) uses specific wavelengths of near-infrared light to boost the energy production inside brain cells. Think of it as charging your child's brain at the cellular level. The light stimulates mitochondria (the power plants of every cell), increases blood flow to the brain, and reduces neuroinflammation. It is completely noninvasive, painless, and has an extensive safety record.
The nuts and bolts of low-level laser (light) therapy
2012Key finding: One of the most cited PBM papers (1,000+ citations). Confirmed PBM is noninvasive, nontoxic, and has no reported adverse effects at therapeutic doses.
View on PubMedShining light on the head: Photobiomodulation for brain disorders
2016Key finding: PBM reduces neuroinflammation, stimulates new brain cell growth, and improves blood flow to the brain across multiple conditions.
View on PubMedBrain Photobiomodulation Therapy: a Narrative Review
2018Key finding: Comprehensive 36-page review confirming transcranial PBM enhances mitochondrial function, increases cerebral blood flow, and promotes neurogenesis.
View on PubMedSignificant improvements in cognitive performance post-transcranial, red/near-infrared light-emitting diode treatments in chronic, mild traumatic brain injury: open-protocol study
2014Key finding: Patients with chronic brain injuries showed significant improvements in executive function, verbal learning, and memory after transcranial light treatments.
View on PubMedNear-infrared photonic energy penetration: can infrared phototherapy effectively reach the human brain?
2015Key finding: Proved that near-infrared light at therapeutic wavelengths can penetrate the skull and reach brain tissue, confirming transcranial PBM is physically feasible.
View on PubMedAugmentation of cognitive brain functions with transcranial lasers
2014Key finding: Improved sustained attention and working memory in healthy adults, showing PBM can enhance normal brain function, not just treat injury.
View on PubMedReview of transcranial photobiomodulation for major depressive disorder: targeting brain metabolism, inflammation, oxidative stress, and neurogenesis
2016Key finding: Establishes the neurobiological mechanisms of PBM: reducing neuroinflammation, improving mitochondrial function, and increasing BDNF (a brain growth factor).
View on PubMedTranscranial photobiomodulation in children aged 2-6 years: a randomized sham-controlled clinical trial assessing safety, efficacy, and impact on autism spectrum disorder symptoms and brain electrophysiology
2024Key finding: Randomized controlled trial in 30 children ages 2-6 with ASD. The treatment group showed a 7.23-point greater improvement in autism severity scores vs. controls, with no moderate or severe adverse effects reported.
View on PubMedTranscranial Photobiomodulation for the Treatment of Children with Autism Spectrum Disorder (ASD): A Retrospective Study
2022Key finding: Study of 21 children ages 5-15 with ASD who received six months of PBM. Significant reduction in autism severity scores (p < 0.001), plus improvements in behavioral compliance, attention, cognitive rigidity, and sleep quality.
View on PubMedTranscranial photobiomodulation for reducing symptoms of autism spectrum disorder and modulating brain electrophysiology in children aged 2-7: an open label study
2025Key finding: Open-label study of 23 children ages 2-7 with ASD receiving near-infrared light twice weekly for 10 weeks, showing improvements in ASD symptoms and changes in brain electrophysiology patterns.
View on PubMedCalming the nervous system from the source
The vagus nerve is the body's main "calm down" signal, connecting brain to body
VNS has been FDA-approved for epilepsy since 1997 with a strong pediatric safety record
Non-invasive VNS through the ear (taVNS) is a growing area of autism research
Published pilot studies show improvements in anxiety and social behavior in children with ASD
The vagus nerve is the longest nerve in the body, running from the brain to the gut. It controls your child's ability to calm down, regulate emotions, and shift from "fight or flight" into a relaxed state. Vagus nerve stimulation helps activate this calming system. Non-invasive versions stimulate the nerve through the ear, and research is showing promising results for children with autism, anxiety, and nervous system dysregulation.
Transcutaneous Vagus Nerve Stimulation: A Promising Method for Treatment of Autism Spectrum Disorders
2017Key finding: VNS may treat not just comorbid conditions like epilepsy and depression in ASD, but also core autism symptoms by activating brain regions associated with social communication.
View on PubMedRemotely supervised at-home delivery of taVNS for autism spectrum disorder: feasibility and initial efficacy
2023Key finding: Pilot study in children ages 7-16 with ASD: 88.5% completion rate, approximately 37% improvement in anxiety scores, and improved sleep quality with at-home ear-based VNS.
View on PubMedVagus Nerve Stimulation and Seizure Outcomes in Pediatric Refractory Epilepsy: Systematic Review and Meta-analysis
2021Key finding: Meta-analysis in Neurology (a top-tier journal) confirming VNS effectiveness in children with drug-resistant epilepsy. Early referral leads to better outcomes.
View on PubMedTranscutaneous Auricular Vagus Nerve Stimulation in Pediatric Patients: A Systematic Review of Clinical Treatment Protocols and Stimulation Parameters
2023Key finding: Systematic review of 15 publications and 15 clinical trials using non-invasive VNS in children, documenting the rapidly growing clinical interest in pediatric applications.
View on PubMedResolving the reflexes that should have disappeared
Babies are born with primitive reflexes that should integrate (disappear) by age 1-2
When these reflexes persist, they can interfere with attention, balance, reading, and coordination
A randomized controlled trial in The Lancet showed reflex exercises improved reading in children
Retained reflexes are found at higher rates in children with autism, ADHD, and learning disabilities
Your baby was born with automatic movement patterns called primitive reflexes. These are essential early in life, but they're supposed to "integrate" (turn off) as the brain matures. When they don't, they can create a hidden roadblock: interfering with balance, coordination, attention, reading, and emotional regulation. Reflex integration therapy uses specific movement patterns to help the brain complete the developmental process it missed.
Effects of replicating primary-reflex movements on specific reading difficulties in children: a randomised, double-blind, controlled trial
2000Key finding: Gold-standard RCT published in The Lancet: reflex integration exercises significantly improved reading in children aged 8-11 with persistent primitive reflexes and reading difficulties.
View on PubMedRetained Primitive Reflexes and Potential for Intervention in Autistic Spectrum Disorders
2022Key finding: Retained primitive reflexes in ASD correlate with motor and cognitive difficulties. Motor-based reflex inhibition exercises may stimulate neuroplasticity and improve outcomes.
View on PubMedThe "little brain" that controls more than you think
The cerebellum contains more neurons than the rest of the brain combined
Cerebellar abnormalities have been found in autism, ADHD, dyslexia, and developmental delays
The cerebellum controls not just movement, but timing, coordination, and cognitive processing
Timing-based interventions show improvements in attention, motor control, and reading in children with ADHD
The cerebellum (Latin for "little brain") sits at the back of the head and was once thought to only control movement. We now know it plays a crucial role in attention, language, emotional regulation, and cognitive processing. Research published in the New England Journal of Medicine has shown cerebellar abnormalities in children with autism, and studies on cerebellar-targeted interventions show improvements across multiple developmental areas.
Hypoplasia of cerebellar vermal lobules VI and VII in autism
1988Key finding: Landmark NEJM study: first to identify that specific cerebellar regions are structurally underdeveloped in individuals with autism, opening the door to understanding the cerebellum's role in developmental disorders.
View on PubMedThe Cerebellum and Neurodevelopmental Disorders
2016Key finding: Cerebellar dysfunction is common across autism, ADHD, dyslexia, and developmental coordination disorder. The cerebellum is far more than a motor structure; it is critical for cognition, language, and emotional regulation.
View on PubMedCerebro-cerebellar circuits in autism spectrum disorder
2015Key finding: Disrupted connections between the cerebellum and the rest of the brain contribute to the social, communication, and motor challenges seen in autism.
View on PubMedEffect of Interactive Metronome training on children with ADHD
2001Key finding: Children with ADHD who received timing-based cerebellar training showed significant improvements in attention, motor control, language processing, and reading.
View on PubMedHelping the brain make sense of the senses
Sensory integration therapy is an evidence-based practice for children with autism ages 4-12
A meta-analysis of 24 studies confirmed effectiveness for autism, ADHD, cerebral palsy, and developmental delays
Ayres Sensory Integration targets the root cause: how the brain organizes and responds to sensory input
Research shows improvements in individualized goals related to daily function and participation
Sensory integration is the brain's ability to organize and make sense of information from the senses: touch, movement, balance, sight, sound, smell, and more. When this process doesn't work efficiently, children may be overwhelmed by textures, avoid movement, seek intense input, or struggle to focus in busy environments. Ayres Sensory Integration therapy uses purposeful, play-based activities to help the brain process sensory information more effectively, leading to improvements in attention, coordination, emotional regulation, and daily function.
A systematic review of Ayres Sensory Integration intervention for children with autism
2019Key finding: Using rigorous Council for Exceptional Children standards, this review found that Ayres Sensory Integration meets the criteria as an evidence-based practice for children with autism ages 4-12.
View on PubMedEffectiveness of sensory integration therapy in children, focusing on Korean children: A systematic review and meta-analysis
2024Key finding: Meta-analysis of 24 studies confirmed sensory integration therapy is effective for children with cerebral palsy, autism, ADHD, developmental disorders, and intellectual disabilities.
View on PubMedState of the Science of Sensory Integration Research with Children and Youth
2018Key finding: Comprehensive review including four systematic reviews, confirming the growing evidence base for sensory integration interventions and identifying best practices for assessment and treatment.
View on PubMedQuestions about our approach?
We love when parents ask questions. If you want to learn more about any of the research or therapies we use, we're happy to discuss them during your consultation.
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