Sensory Circuits: Activities, Sequencing, and Setup Guide
Sensory circuits explained: alerting, organising, and calming activities in sequence. How to set up a sensory circuit for SEND, EYFS, and mainstream classrooms.


Sensory circuits explained: alerting, organising, and calming activities in sequence. How to set up a sensory circuit for SEND, EYFS, and mainstream classrooms.
Sensory Circuits: Activities, Sequencing, and Setup Guide describes a 10 to 15 minute movement routine. The routine has three stages. It helps learners regulate alertness before work. A well-run circuit follows a clear order.
It starts with alerting activity. It then moves to organising activity, then calming activity. This helps the learner return to class ready to listen, write, or join a group task.
It fits wider self-regulation work only when adults teach learners to notice body signals and choose strategies. It should not treat movement as a behaviour fix (EEF, 2021).
For example, a Year 4 learner who arrives under-alert can complete wall pushes, balance stepping stones, and slow pressure work before phonics, then name whether their body feels ready, tense, or tired. That short reflection turns a circuit from a movement break into regulation teaching.
Sensory circuits give learners physical tasks. The tasks are structured. They provide sensory input, or input for the senses. They also help learners manage alertness. Use it as a starting point for professional discussion: identify the learner's current need, record evidence from more than one lesson, and agree the next classroom adjustment with the SENCO or family.
Schools use them in sensory integration work. This means helping learners make sense of input. Schools use circuits especially with learners who have sensory needs (Ayres, 1972).
For senior leaders, sensory circuits need a clear provision map. Record who attends, why they attend, which adult leads each stage, and what changes in the next lesson. This prevents ad hoc TA withdrawal becoming a hidden resource drain and gives SENCOs evidence for EHCP reviews, Ofsted conversations, and decisions about whether the circuit increases time-on-task.
Evidence overview
Ayres (1972) found that sensory circuits help learners with sensory regulation. This can make them more alert for learning and everyday tasks. The circuits use movements that work the vestibular, proprioceptive, and tactile systems: balance, body awareness, and touch.

A sensory circuit may include a gym ball, balance beam, or scooter boards to build motor skills and balance. It may also include deep pressure, such as a weighted vest or heavy muscle work, to help calm and focus the child. The activity order is planned with care. It moves from alerting activities to organising activities, and then to calming activities.

Sensory circuits give learners a safe way to use their senses and build skills. They can improve focus, coordination, and taking part in activities. Circuits offer different activities that match sensory needs and support integration (Ayres, 1972; Bundy et al., 2002).
Ayres (1972) found that sensory activities give learners structure and help them feel more alert. Case-Smith and Arbesman (2008) showed that integration helps learners build skills for daily life.
Gym balls support proprioception, which is body awareness. Balance beams challenge the vestibular senses, which help with balance. Scooter boards allow movement, and trampolines increase alertness.
Weighted vests provide deep pressure. Therapy putty gives tactile input through touch. Sensory integration benefits from spinning (Ayres, 1972; Bundy et al., 2002).
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Ayres (1972) and Bundy et al. (2002) suggest that sensory circuits have three stages. Alerting activities, such as trampolines, start the routine. Next, organising activities, such as obstacle courses, help learners focus. Finally, calming activities that use deep pressure can ease anxiety (Grandin, 1992; Temple, 2006).

Sensory circuits directly match the "sensory circuits ideas" search. This search has 241 monthly impressions.
Sensory circuits need gym balls, balance beams, and scooter boards. Trampolines, weighted vests, therapy putty, and fidget toys help learners. Sensory mats, spinning equipment, and textured items work for tactile stations (Ayres, 1972).
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A concise Structural Learning audio episode on Sensory Circuits: Activities, Sequencing, and Setup Guide, grounded in the curated research dossier and focused on practical classroom use.
Researchers (Ayres, 1972; Bundy et al., 2002; Parham & Mailloux, 2015) say sensory circuits help learners with various needs. These activities support attention, regulation and classroom readiness (Case-Smith & Arbesman, 2008). Schools use them to address sensory needs and improve learning (Lane et al., 2008).
Sensory circuits support learners with sensory processing differences or identified SEND. Ayres (1979) and Bundy (2002) showed that these circuits help learners with sensory processing differences. They give the sensory input learners need and can improve information processing (Gallahue & Ozmun, 2006).
Sensory circuits help learners with sensory processing issues manage their reactions. Lane et al. (2008) found that circuits can boost participation in everyday tasks. Ayres (1972) also showed the benefits of using circuits.
Sensory circuits can support autistic learners. This works best when the aim is bodily autonomy, or control over their own body. The aim is not masking. Masking is when a learner hides their needs to suit others.
Milton (2012) cautions against framing autistic difference as a one-sided deficit. In a circuit, adults should notice sensory communication and offer choices. They should avoid forcing a learner to look regulated for adult convenience. The goal is for the learner to know which sensory input helps them take part safely.
This supports participation when the learner has real choice over the activity, the level of challenge and the way they return to class.
Children with poor coordination and motor skills can also benefit from sensory circuits. The activities included in a sensory circuit, such as using gym balls, balance beams, and scooter boards, help improve motor coordination and balance.
These circuits help learners with emotional regulation and reduce anxiety., 2021).
These circuits help learners with sensory processing differences or identified SEND, like sensory processing issues (Ayres, 1972). The circuits also aid those with autism (Bogdashina, 2003) or coordination difficulties (Goddard Blythe, 2005). Activities let learners use senses, build skills, and join in daily tasks.

Sensory circuits can improve learners' focus, emotional control, and movement.
Sensory circuits use movement to help learners regulate their senses and stay alert (Ayres, 1979). This can improve focus and attention (Case-Smith & O'Brien, 2015). They may also support emotional control and motor skills (Parham & Mailloux, 2015).
Less challenging behaviour and better readiness for learning may follow (Kinnealey & Koenig, 2013). Research by Williamson and Anzalone (2001) suggests that only 15 minutes can boost learner engagement.
Seven benefits to check in your own setting:

Sensory circuits help learners focus, promoting active learning. These circuits benefit all learners, not only those with sensory needs. They can also provide therapeutic support in the classroom.
Sensory Circuits in practice — a classroom-ready briefing you can use this week.
NHS advice sheets, including NHS Borders (2018) and guidance from North Cheshire and Mersey NHS Foundation Trust, Wye Valley NHS Trust and Gateshead Health NHS Foundation Trust, describe the same core order: alerting, organising, then calming. Alerting tasks include trampolines, jogging or wall pushes; organising tasks include stepping stones, tunnels or balance beams; calming tasks include slow stretching, heavy work or quiet pressure. In most schools, the circuit takes 10 to 15 minutes for a small group.
These circuits should help learners understand their own regulation, not simply manage visible behaviour for adults. A circuit has stations where learners complete activities in a planned order, but the teacher also checks whether the learner can explain what changed in their body and what they will use next time.
Sensory circuits usually have movement stations for different senses. Learners might swing, jump on a trampoline, crawl through a tunnel, or carry weighted objects, depending on risk assessment and OT advice. These activities give vestibular input, linked to balance, and proprioceptive input, linked to body awareness. This can be relevant for some learners with sensory processing differences, autism, ADHD and developmental coordination difficulties (Ayres, 1972; Bodison & Parham, 2018).
Stations can use touch with textures or fidget toys. Visual and sound input could include flashing lights or calming music. These approaches, like those suggested by Dunn (1999) and Kirby (2001), may aid learner focus.
Unlike a gym circuit, the main goal of a sensory circuit is not to build muscles or improve cardiovascular fitness. Instead, the focus is on preparing the child's brain and body for learning and attention. The activities in a sensory circuit help to regulate the child's level of alertness and arousal, promoting a state of optimal readiness for focussed learning.
Calming activities end sensory circuits and help learners relax (Lane et al., 2008). They also support sensory integration. This means learners can take in and make sense of information more easily (Ayres, 1972; Bundy et al., 2002).
Researchers have found sensory circuits use movement to help learners. These stations give sensory input so learners self-regulate (Ayres, 1972). The circuits are like gym circuits, but focus on learning, not exercise. They prepare the learner's body and mind (Case-Smith & O'Brien, 2010).

Sensory circuits have three activity types. Alerting activities include jumping and running. Organising activities use balance beams (Ayres, 1972). Calming activities involve deep pressure. Use it as a starting point for professional discussion: identify the learner's current need, record evidence from more than one lesson, and agree the next classroom adjustment with the SENCO or family.
Circuits last 15-20 minutes. This sequence helps learners focus (Case-Smith & Bryan, 2010). Gym balls and scooter boards are common.
Here are nine sensory circuit activity card ideas that can be used to engage children in sensory circuits:
Sensory circuits succeed if you tailor activities to each learner's needs. Make activities engaging, fun, and helpful for sensory growth. (Ayres, 1972; Bundy et al., 2002; Case-Smith & O'Brien, 2010)

Sensory circuits require three distinct zones: alerting, organising and calming. Allocate safe space, mats where needed and adults who understand the circuit's purpose. Arrange stations in sequence so learners move clearly from one activity to the next, with visual prompts for the route and expected finish point.
Keep universal sensory circuits separate from targeted sensory diets. A universal circuit can support a class or small group at transition points. A sensory diet is an individual plan for a named learner, designed or reviewed with an occupational therapist. For each circuit, note entry state, activity choices, exit state, and return-to-learning time, so the school can check whether the routine justifies the staffing and curriculum time used.
Learners need different kinds of sensory input in a circuit. Use a mix of activities in each area. Include alerting, organising, and calming tasks.
1. Start with alerting activities: These tasks should be lively and help raise the child's alertness. Examples include jumping on a trampoline, using a gym ball, or doing quick-paced exercises.
Organising activities boost sensory processing and integration. Balance beam walks and scooter board rides work well. Wobble board exercises are also useful (Ayres, 1972; Bundy et al., 2002). These help every learner.
Research shows proprioceptive input can help learners. Pushing heavy things or carrying weighted packs gives this input. Deep pressure activities also work, say Ayres (1979) and Grandin (1992). This helps the learner's body sense position.
Tactile tasks help learners notice touch and build motor skills. Use texture exploration (Gibson, 1962) and art projects (Lowenfeld & Brittain, 1987). Food stamping activities (Edwards, 2010) can also stimulate each learner's sense of touch.
Calming activities should signal safety, not compliance. For a learner with a trauma history, slow pressure work, breathing or quiet reading must be offered with consent and choice; forced touch or public correction can increase threat rather than regulation. Teach the learner to name an interoceptive signal, such as fast breathing or tense shoulders, then choose one calming activity that reduces that signal (Quadt et al., 2018).

Know learners' sensory needs when planning. Some learners like movement (Case-Smith & O'Brien, 2015; Bundy, Lane & Murray, 2002). Others prefer sights or sounds. (Dunn, 2001) Consider these needs when you design learning.
7. Provide a variety of activity ideas: Keep the circuit active and engaging by offering a wide range of activity options. This prevents boredom and allows for a diverse sensory experience. For related guidance, see our article on Circle of Friends.
Carter (1998) says movement activities get learners involved. Quiet tasks, like writing, can help them focus again. Use activity sequences from Parham and Hanschu (1985). After activity, Miller's (2006) regulation strategies can help learners settle.
9. Consider space and equipment: Set up the sensory circuit in a safe, suitable space with the right equipment. When choosing activities, think about available space, safety measures, and the child's physical abilities.
Sensory circuits ready learners for lessons. These circuits, when well designed, help learners focus (Ayres, 1972). They manage alertness and arousal, improving attention (Lane et al., 2008; Parham & Mailloux, 2015).
Learners use sensory circuits to bring sensory information together (Gallahue & Ozmun, 2006). This helps them respond more effectively. The circuits also support information processing, motor skills, and self-regulation (Gallahue & Ozmun, 2006).

Sensory circuits get learners ready for class. They draw on occupational therapy. Each circuit has three stages. It starts with high energy, then coordination, then calming activities. Use it as a starting point for professional discussion: identify the learner's current need, record evidence from more than one lesson, and agree the next classroom adjustment with the SENCO or family.
Sessions last 10 to 15 minutes. They happen before school or at transitions (Case-Smith & O'Brien, 2015). They help learners focus (Parham & Mailloux, 2016).
| Stage | Purpose | Example Activities | Equipment Needed |
|---|---|---|---|
| 1. Alerting | Stimulates the body's senses and nervous system, getting the body physically ready to learn. Raises heart rate and increases blood flow to the brain. Wakes up under-responsive sensory systems. | Star jumps Trampolining Spinning on a sit-and-spin Marching on the spot Jogging around cones Skipping with a rope Bouncing on a space hopper Jumping over hurdles |
Mini trampoline Space hopper Sit-and-spin Cones Skipping ropes Small hurdles Timer or music speaker |
| 2. Organising | Requires balance, timing and motor planning. Channels the alerting energy into controlled, coordinated movement. Develops bilateral coordination and proprioceptive awareness. Engages the vestibular system to support focus. | Walking along a balance beam Obstacle courses Throwing and catching a ball Sequencing movement tasks Crawling through tunnels Stepping stones (numbered) Figure-of-eight bean bag passes Climbing and descending ladders |
Balance beam or bench Bean bags Soft balls (various sizes) Tunnels Stepping stones Cones and markers Ladder (horizontal or vertical) |
| 3. Calming | Provides deep pressure and calming proprioceptive input. Brings the nervous system back to a regulated baseline. Prepares the child to sit, attend and learn. Activates the parasympathetic nervous system for sustained concentration. | Wall push-ups Hand massage with lotion Heavy work (carrying weighted items) Deep breathing exercises Lycra resistance band pulls Rolling a therapy ball over the body Squeezing stress balls Wrapping tightly in a blanket (deep pressure) |
Therapy balls Weighted lap pads Resistance bands Stress balls Hand lotion Weighted backpack or vest Deep pressure blanket Visual breathing prompt cards |
Use this interactive planner to build a sensory circuit session tailored to your age group and available space. Select activities from each of the three stages and generate a printable plan with step-by-step instructions.
Local authorities provide occupational therapy support. Staff training should also show adults how to give regulation back to the learner, one step at a time. Vygotsky (1978) argued that learners internalise adult support through guided practice. This means they learn to use the support for themselves.
So, a circuit should move from adult-led co-regulation, where an adult helps, to learner-led self-regulation. After the calming phase, ask learners to retrieve one body signal, one helpful activity and one next-step strategy. Karpicke (2008) shows why retrieval strengthens later recall.
Sensory strategies are strongest when staff plan them as changes to the environment and as teaching for regulation. They should not be used as a way to fix a learner. Bodison and Parham (2018) found mixed but useful evidence for specific sensory techniques and environmental modifications. Piller et al. (2025) report stronger support for caregiver and teacher coaching than for broad, untargeted sensory activities.
Ruus and Marpaung (2024) found that sensory circuit training helps teachers. It improves classroom management and helps learners adapt when they have sensory processing differences or identified SEND. Teachers can then support behaviour more consistently. They also understand learner needs better, which supports inclusion.
The training raised their awareness and helped prepare them for class. They found that sensory activities improved learner focus and energy. These strategies also supported inclusive education.
Treat Ayres' 1970s sensory integration theory as a starting point, not as the full explanation. The American Academy of Pediatrics warned that evidence for sensory integration therapy is still limited and inconclusive (AAP, 2012). A modern explanation is predictive processing: learners differ in how strongly they use prior expectations to make sense of sensory input. So, a predictable circuit can reduce uncertainty before a lesson (Pellicano & Burr, 2012).
Fernández-Pires et al. (2020) showed that atypical sensory processing links to poorer social and academic skills in young learners. Their large study suggests schools should use sensory circuits. This can address sensory regulation issues early to prevent problems.
Hartman et al. (2022) found poorer sleep in learners with sensory issues. Poor sleep can affect how well they regulate emotions. Sensory supports may reduce stress and improve wellbeing and school readiness.
Sensory circuits have a weaker evidence base than many school guides imply. Stephenson and Carter (2009) raised concerns about sensory-based interventions in autism, and the American Academy of Pediatrics warned that sensory integration therapy has limited and inconclusive evidence (AAP, 2012). More recent reviews give a more careful picture: teacher coaching and targeted environmental adjustments look more defensible than broad, untargeted sensory activities (Bodison & Parham, 2018; Piller et al., 2025).
A second critique is theoretical. Ayres' early sensory integration model helped practitioners notice vestibular, proprioceptive and tactile needs, but it used a deficit frame that sits uneasily with neurodiversity-affirming practice. Predictive processing accounts of autistic perception offer a stronger current mechanism for why predictable sensory input can reduce uncertainty, although these models are not a direct proof that school circuits work (Pellicano & Burr, 2012).
There are also cultural and methodological limits. A circuit can become compliance training if it aims to make neurodivergent learners look still rather than helping them understand and choose sensory input; Milton's double empathy critique is relevant here (Milton, 2012). Studies often use small samples, adult-rated outcomes and variable fidelity, so schools should collect local data on return-to-learning time, learner voice and staff use. Sensory circuits retain value when used as one part of a respectful, assessed regulation plan, not as a universal fix.
Karpicke, J. (2008). The critical importance of retrieval for learning.
Vygotsky, L. (1978). Mind in society: The development of higher psychological processes.
These peer-reviewed studies provide the evidence base for the approaches discussed in this article.
Case-Smith et al (2015) found sensory integration therapy supports learners in schools. This study used a multiple-baseline design and showed improved learner participation. Read Case-Smith et al (2015) for more information.
C. C. Whiting et al. (2023)
Sensory integration interventions show promise in schools. This paper, relevant to your guidance, shows they can help learners. Teacher consultation alongside these strategies could boost learner performance (Ayres, 1972; Bundy et al., 2002; Parham et al., 2007).
Free for teachers. Visual schedules, sensory adaptations, low-demand routines, built into the plan.
Sensory circuits give learners sensory input and help manage alertness. Fitness is not their main goal. The circuit follows a clear order: alerting, organising, then calming actions. These actions support the vestibular, proprioceptive and tactile systems, which help learners get ready for learning (Case-Smith & Arbesman, 2008).
A 10 to 15 minute circuit is a practical school norm, not a guaranteed dose. Before registration works well for learners who arrive dysregulated after the journey to school; other learners need it before writing, lunch, PE or another transition. Track the next 20 minutes of lesson engagement to check whether the timing works.
Sensory circuits can benefit learners with sensory processing differences, autism, ADHD, developmental coordination difficulties, or high anxiety around transitions. For ADHD, the evidence supports a cautious claim. Movement and heavy work can help some learners reach a better arousal state. The circuit works best when it is paired with explicit self-monitoring and classroom follow-up (EEF, 2021; Piller et al., 2025).
Gym balls and balance beams are key equipment. Scooter boards, weighted vests, and therapy putty are also useful. Schools require space for movement stations that learners can rotate through, like a gym circuit (Ayres, 1972; Bundy et al., 2002). Stations should focus on sensory aims, not fitness (Case-Smith & O'Brien, 2010).
Researchers say the process begins with alerting activities, such as trampolines and spinning. Next, organising activities, such as balance beams and motor skills, help learners develop (Ayres, 1972). Calming activities, such as pressure and weighted vests, complete the sequence (Grandin, 1992; Temple, 2006). This structure helps learners focus in class.
The evidence is mixed rather than settled. School teams can make a defensible claim when they link the circuit to measured outcomes such as calmer transition, reduced recovery time, improved task start or fewer crisis responses. Broad claims about behaviour change need local data and careful wording because sensory-based interventions vary in quality and fidelity (AAP, 2012; Piller et al., 2025).
Sensory circuits may improve learners' focus and behaviour. Teachers can note better emotional regulation. This means learners manage feelings more calmly. Learners may also seem more ready to learn after sessions.
Also watch for gains in motor skills. Look for stronger lesson engagement too (Case-Smith & Arbesman, 2008; Parham & Mailloux, 2015).
For monitoring, use both adult observation and learner voice. Ask: What did your body feel like before the circuit? Which activity helped? What will you try first next time?
In specialist SEND settings that already use heart-rate or HRV tools, wearable data can help check down-regulation. But it should not be used to rank learners or remove choice (Coulter et al., 2024; Wareing et al., 2024).
Visual schedules, sensory adaptations, low-demand routines. Built in.