For Educators
Applying NeuroToggle® in the Classroom
If a student is struggling with emotional regulation
Emotional regulation should be treated as a skill that can be developed through structured practice, not just as a behavior to react to in the moment.
Build
Explicitly teach a calming routine, sensory support, movement break, or communication strategy the student can use before escalation.
Strengthen
Practice the routine repeatedly during calm states so the pathway becomes easier to access under stress.
Time
Use the support early, before overload peaks. Regulation is more effective when it begins at the first signs of dysregulation.
Expand
Generalize the strategy across transitions, classes, adults, and levels of independence so it becomes usable in more than one setting.
Start by teaching one regulation routine clearly, rehearsing it while the student is calm, and using it consistently before demands escalate.
If a student needs a replacement behavior
A replacement behavior works best when it meets the same need as the original behavior but provides a more functional way to respond.
Build
Teach a new response that serves the same function, such as requesting help, asking for a break, or using a visual cue instead of acting out.
Strengthen
Reinforce the replacement immediately and consistently so the new pathway becomes more efficient and rewarding than the old one.
Time
Prompt the replacement behavior at the point when the old behavior usually starts, not after the full reaction has already happened.
Expand
Use the replacement across people, settings, and tasks so it becomes the student’s more flexible default response.
Do not just suppress the original behavior. Build and reinforce a functional alternative that the student can actually use in real time.
If a behavior needs to be pruned
NeuroToggle® treats weakening a behavior as a neuroplastic process. Pathways weaken when they are not reinforced and when stronger competing pathways are used more consistently.
Build
Establish a competing pathway first. A behavior is easier to weaken when a more functional option is already available.
Strengthen
Increase reinforcement for the desired behavior so the student gets more success from the new pathway than the old one.
Time
Catch the behavior early. Redirection and feedback are most effective at the start of the sequence, not after full escalation.
Expand
Help the desired response hold across settings so the old behavior is not reactivated every time the context changes.
Pruning is not immediate elimination. It is the gradual weakening of a pathway through reduced reinforcement and stronger use of a competing one.
If a student needs stronger retention through cross-modal plasticity
Cross-modal plasticity and multisensory reinforcement can help make learning more memorable by activating more than one processing pathway at the same time.
Build
Introduce the concept using more than one input, such as visual support, spoken language, movement, touch, or manipulatives.
Strengthen
Pair the same concept with repeated multisensory practice so multiple neural routes support recall.
Time
Revisit the concept through spaced retrieval, not just same-day repetition, so retention is reinforced over time.
Expand
Apply the concept in new formats and settings so the student can access it beyond the original teaching context.
Example: pair a vocabulary word with a picture, verbal rehearsal, a gesture, and a hands-on sorting task rather than relying on one mode alone.
If a student is struggling to engage with a task
Engagement is part of learning, not separate from it. Motivation, novelty, feedback, and emotional relevance help activate the pathways needed to start and sustain effort.
Build
Use novelty, scaffolding, and active participation to create an entry point the student can actually access.
Strengthen
Use immediate feedback, successful repetitions, and meaningful reinforcement so engagement becomes more rewarding.
Time
Alternate challenge with settle time. Too much demand too fast can weaken engagement instead of building it.
Expand
Link tasks to the student’s interests, reflection, and broader application so participation becomes more flexible and durable.
Start smaller, make the entry point clearer, and build success early. Engagement often improves when the pathway is more accessible.
Understanding Neurodivergent Learning Through Neural Development
Why Student Performance Can Look Inconsistent
NeuroToggle® is a neuroplasticity-informed instructional system built on a simple idea: skills and behaviors are stored in sensory, cognitive, and motor neural circuits. Understanding how those circuits develop can help explain inconsistent performance, communication differences, regulation challenges, and learning variability in neurodivergent students.
NeuroToggle®
A neuroplasticity-informed instructional system for building, strengthening, expanding, and timing the neural circuits involved in skills and behaviors.
Speech Access
Learn why nonverbality needs to be examined through speech-access pathways, including sensory, cognitive, motor, timing, and regulatory systems.
Share With Your Team
Use the educator letter to introduce NeuroToggle® to a school team, IEP team, or professional learning group.
Skills and Behaviors Develop Through Neural Circuits
What Educators Need to Know
Students do not perform skills from understanding alone. They perform skills through neural circuits that receive information, process information, and coordinate responses. If one part of that pathway is less developed, less accessible, or poorly timed, the student may know more than they can consistently show.
Sensory Circuits
These circuits receive information from the classroom environment, instructional materials, the body, and social context.
Cognitive Circuits
These circuits organize, interpret, store, retrieve, and connect information for learning, memory, and problem solving.
Motor Circuits
These circuits coordinate physical expression through speech, writing, gestures, pointing, movement, task completion, and behavioral responses.
Why Performance Can Be Inconsistent
Inconsistent Performance Is Information
A student may perform a skill one day and struggle with the same skill another day. That does not automatically mean the skill disappeared or that the student is refusing. Neural circuits can vary in accessibility depending on regulation, stress, fatigue, sensory load, motor demands, task complexity, and context.
The Skill Is Still Developing
The student may need more explicit instruction, modeling, scaffolding, repetition, feedback, or task breakdown before the skill becomes stable.
The Skill Is Hard to Access
The skill may exist but be harder to retrieve, initiate, sequence, or express under stress, fatigue, sensory load, or increased demands.
The Skill Has Not Expanded
A skill may appear in one setting, with one adult, or under one condition but not yet transfer across environments, tasks, or expectations.
Fight, Flight, Freeze, and Fawn in the Classroom
Learn More About ABA vs NeuroToggle®Behavior May Reflect a Stress Response
Some classroom behaviors may reflect autonomic nervous system activation rather than intentional noncompliance. When a student is in a threat state, regulation and access may need to be supported before instruction, compliance, or higher-order skill use can be expected.
PDA Profile: Control Under Threat
May present as arguing, refusal, escalation, aggression, controlling interactions, or interrupting when demands are experienced as threatening.
PDA Profile: Escape Under Threat
May present as eloping, avoiding tasks, panic, rushing, restlessness, distraction, excessive talking, or frantic attempts to move away from demands.
RSD Profile: Shutdown
May present as blanking, staring, withdrawal, inability to initiate, indecision, dissociation, or appearing unresponsive despite internal awareness.
RSD Profile: Appeasement
May present as people-pleasing, masking distress, over-agreement, compliance without understanding, or prioritizing adult emotion to avoid conflict.
Behavior vs Skill Development
Behavior frameworks often focus on observable responses. NeuroToggle® focuses on the neural circuitry that stores and executes the skill or behavior.
Build the Circuit
NeuroToggle® targets the neural circuits behind skills and behaviors through building, strengthening, timing, and expanding.
Build the Circuit Behind the Skill
NeuroToggle® applies neuroplasticity to instruction by treating skills and behaviors as neural circuitry that can be built, strengthened, expanded, and timed. Instead of focusing only on the visible outcome, it asks whether the pathway required for that skill has been sufficiently developed, supported, coordinated, and generalized.
Build
Create the neural connection required for a skill to begin forming through explicit instruction, modeling, scaffolding, and task breakdown.
Strengthen
Reinforce the circuit so the skill becomes more stable through repetition, feedback, accuracy, and multisensory reinforcement.
Expand
Connect the skill to new settings, tasks, materials, and contexts so it can generalize beyond one instructional condition.
Time
Support pacing, sequencing, wait time, rhythm, fluency, and retrieval so the skill can be activated more efficiently.
Nonverbality Needs to Be Separated by Pathway
Nonverbality is often interpreted through language and cognitive processing. Kitzerow’s work expanded that conversation by examining the sensory and motor systems required to physically produce speech. For educators, this matters because a learner may understand more than they can express through speech, writing, gestures, or classroom performance.
Beyond Language Processing
Speech depends on sensory, cognitive, motor, timing, and regulatory systems working together. Sensory and motor speech-access systems should not be overlooked.
Three Types of Nonverbality
Type 1: Structural or injury-based.
Type 2: Developmental dysregulation.
Type 3: Situational inhibition.
Diagnostic and Prognostic Protocols
Families need clearer protocols to identify speech-access mechanisms, guide support decisions, and better understand likely outcomes.
Support the Pathway Behind the Performance
Instruction Should Build Access
Educators cannot control every factor that affects learning, but they can design instruction that respects neural development, regulation, communication access, motor output, retention, timing, and generalization. The goal is to understand what pathway a student is struggling to access, then support that pathway more directly.