¹MPT, Department of Physiotherapy, Santosh Paramedical College and Hospital, Ghaziabad, India

²Professor, Department of PSM, Health & Hospital Administration, BFUHS, &GGSMC, Faridkot. India

³Assistant Professor, Department of Physiotherapy, Santosh Paramedical College and Hospital, Ghaziabad, India

⁴*Professor/Principal, Department of Physiotherapy, Santosh Paramedical College and Hospital, Ghaziabad, India

⁵Dean, Santosh Paramedical College and Hospital, Ghaziabad.

⁶Professor&Head, Department of Paediatrics, Santosh Medical College, Santosh
Deemed to Be University Ghaziabad,
India

Corresponding Author Email: deepak.raghav@santosh.ac.in

 

 

Article Publishing History

INTRODUCTION

Attention and concentration are core cognitive functions that underpin learning and academic success in childhood. During the primary school years, neural networks responsible for executive functioning and self-regulation undergo rapid maturation [1]. Educational interventions that target these cognitive domains may enhance not only classroom behavior but also academic achievement. Recent advances in developmental neuroscience have emphasized the importance of multisensory integration in supporting higher-order learning. Visual-based somatosensory training (VBST) combines visual feedback with proprioceptive and kinesthetic activities to stimulate cognitive processing, enhance focus, and improve learning readiness [2].

Despite theoretical support, limited empirical studies have explored the role of structured VBST programs in typically developing children. This study was therefore designed to assess the effects of an eight-week VBST program on attention, concentration, and academic outcomes among children aged 7–10 years in a controlled school environment. Sensory integration theory suggests that the brain’s ability to organize and process input from multiple sensory modalities (e.g., tactile, visual, proprioceptive) underlies efficient motor planning, learning, and behaviour [3].

Deficits in sensory processing have been linked to inattentiveness, distractibility, and academic underperformance [4]. While much of the early research has focused on children with diagnosed sensory integration dysfunction or developmental conditions such as ADHD and autism spectrum disorder, more recent work has shown that typically developing children also benefit from structured sensory-motor activities [5].

This 2025 study examined the effects of an 8-week multisensory movement training (involving coordinated visual, tactile, and proprioceptive activities) on attention, working memory, and academic engagement among 8–10-year-old students. The intervention, delivered within classroom environments, produced significant improvements in sustained attention and math performance compared to control peers. The authors concluded that structured multisensory exercises support executive control development and classroom concentration — strongly paralleling your VBST framework.

Somatosensory Training and Visual Feedback: Somatosensory training (SST) targets the body’s sense of position, movement, and tactile feedback, often through activities like balance exercises, resistance-based motion, or object manipulation². When augmented with visual stimuli—such as real-time tracking on a screen, mirrors, or patterned visual cues—the brain is required to integrate proprioceptive and visual feedback, enhancing attentional control and error monitoring [6].

The hypothesis that visual-based somatosensory training (VBST) can lead to measurable improvements in attention is supported by neuroplasticity research. Multisensory interventions have been shown to increase activity in frontoparietal circuits associated with attention switching, inhibition, and working memory. Specifically, children trained in visual-motor coordination demonstrate improved performance on tasks of sustained attention and executive control [7].

Despite promising theoretical models, empirical evidence for VBST in school settings remains sparse. Prior studies have focused on fidget toys, dynamic seating³, or auditory sensory modulation tools. Most of these interventions show mixed effects, especially when not personalized or used in non-diagnostic groups.

MATERIAL AND METHODS

Study Design and Participants: The study adopted a randomized controlled trial design to evaluate the effectiveness of visual-based somatosensory training (VBST) in improving attention, concentration, and academic performance among school-going children. Ethical clearance was obtained from the institutional ethical committee (REF NO.- SCOP/OCT-24/ECN-94510023672) prior to the commencement of the study. A total of sixty children aged between 7 and 10 years were recruited from local primary schools. Following baseline assessment, participants were randomly allocated in equal numbers to either the intervention group, which received VBST, or the control group, which continued with their regular classroom activities. Randomization was carried out using a computer-generated sequence, and allocation was stratified by grade to ensure balanced distribution across groups.

Inclusion and Exclusion Criteria: Children were eligible for participation if they were enrolled in grades two to four, had normal or corrected-to-normal vision and hearing, and were free from any diagnosed neurological, developmental, or psychiatric conditions. Only children whose parents or guardians provided written informed consent, along with child assent, were included in the trial. Exclusion criteria comprised the presence of sensory impairments such as uncorrected visual or auditory deficits, previously diagnosed attention-deficit/hyperactivity disorder (ADHD), autism spectrum disorder (ASD), or other neurodevelopmental disorders that could confound the results.

Interventions: The VBST intervention consisted of structured training sessions designed to stimulate the integration of visual and somatosensory inputs. Each session lasted approximately 25 minutes and was conducted three times a week for a total of eight weeks. Activities included visual-tracking exercises using projected paths, mirror feedback training involving bilateral hand coordination tasks, proprioceptive challenges such as balance board tasks and resistance games, and visuospatial puzzles like tangram assembly. Sessions were delivered in small groups of five to six children by trained facilitators in a quiet room adjacent to the classroom. The control group did not receive additional training and continued with their standard curriculum and free play periods.

Outcome measures: Attention, which evaluates processing speed, accuracy, and error monitoring, and the Conners Continuous Performance Test (CPT-3), which provides measures of vigilance, omission and commission errors, and response variability. Secondary outcomes included academic performance, assessed through standardized mathematics and language achievement tests aligned with the national curriculum. These assessments were administered at baseline and immediately after the eight-week intervention period by evaluators who were blinded to Primary outcomes focused on attention and concentration. These were measured using the d2 Test of group allocation.

All statistical analyses were conducted using IBM SPSS Statistics (Version 27)

RESULTS

Participant Flow and Baseline Characteristics: Sixty children (n = 60) aged 7–10 years were included in the final analysis, with equal allocation to the VBST intervention group (n = 30) and the control group (n = 30). All participants completed pre- and post-tests with no attrition. Independent t-tests confirmed no significant group differences in age, gender distribution, or baseline scores.

Table 1. Participant Demographics and Baseline Measures (Mean ± SD)

Variable	VBST (n = 30)	Control (n = 30)	p-value
Age (years)	8.31 ± 0.72	8.28 ± 0.75	.831
% Female	50.0%	46.7%	.783
Math(baseline)	74.1 ± 9.84	75.0 ± 9.91	.701
Language(baseline)	71.2 ± 10.23	71.5 ± 9.91	.892
d2 CP(baseline)	120.6 ± 13.4	119.9 ± 12.8	.791
CPT Omissions (%)	14.3 ± 4.91	14.5 ± 4.79	.883

Table 2. Attention and Concentration Outcomes (Pre–Post by Group)

Measure	Group	Pre test M(SD)	Post-test M (SD)	F (1,58)	p-value
d2 CP Score	VBST	120.6 (13.4)	129.7 (11.2)	9.22	.003
	Control	119.9 (12.8)	121.3 (12.7)
CPT Omissions (%)	VBST	14.3 (4.91)	10.1 (4.82)	6.87	.011
	Control	14.5 (4.79)	13.8 (4.71)

Table 3. Academic Performance Outcomes (Pre–Post by Group)

Measure	Group	Pre-test M (SD)	Post-test M (SD)	F (1,58)	p-value
Mathematics Score	VBST	74.1 (9.84)	80.2 (8.88)	5.42	.024
	Control	75.0 (9.91)	77.1 (9.56)
Language Score	VBST	71.2 (10.23)	74.8 (9.33)	4.21	.045
	Control	71.5 (9.91)	72.4 (9.77)

DISCUSSION

The present randomized controlled trial evaluated the effects of an 8-week visual-based somatosensory training (VBST) intervention on attention, concentration, and academic performance in typically developing schoolchildren aged 7–10 years. With a sample size of 60 participants (VBST = 30; Control = 30), findings indicate that VBST significantly improved sustained attention (d2 CP), reduced omission errors (CPT), and enhanced performance in both mathematics and language tasks compared to a control group The findings of this randomized controlled trial demonstrate that visual-based somatosensory training (VBST) produced significant improvements in attention, concentration, and academic performance in typically developing children aged 7–10 years.

The robust gains in d2 concentration scores and reduction of omission errors in the CPT highlight that VBST enhances sustained attention and vigilance, which are foundational cognitive skills for learning. These results are consistent with theories of multisensory integration that emphasize the synergistic role of visual and proprioceptive inputs in strengthening executive function and self-regulation. The observed academic improvements, particularly in mathematics, suggest that the cognitive benefits of VBST transfer to scholastic domains, supporting the notion that interventions targeting core attention processes can have broader educational outcomes.

These findings align with previous research demonstrating the cognitive benefits of physically embodied and sensorimotor-based training but extend prior work by showing that a structured, school-based VBST program can be both feasible and effective in everyday classroom contexts. Importantly, this intervention differs from prior sensory tools such as wobble cushions or noise-reducing devices, which have shown mixed or limited effects, by engaging children in active, structured, and visually guided somatosensory activities that directly stimulate attentional control systems.

The study has several practical implications: VBST is a low-cost, scalable intervention that can be integrated into school routines to enhance learning readiness and classroom engagement. However, limitations must also be acknowledged, including the relatively small sample size, the absence of long-term follow-up data, and the potential influence of facilitator engagement on outcomes. Future research should therefore include larger, more diverse samples, examine long-term maintenance of effects, and explore neurophysiological measures to better understand the underlying mechanisms of change. Overall, the present study provides compelling preliminary evidence that VBST can serve as a practical tool to improve children’s cognitive and academic outcomes, reinforcing the importance of multisensory approaches in developmental and educational psychology.

Although this study provides promising evidence for the benefits of visual-based somatosensory training (VBST), several critical considerations must be acknowledged. The randomized controlled design and use of standardized measures such as the d2 Test of Attention and the CPT-3 strengthen internal validity and reliability, aligning with best practices in cognitive intervention research [1,8]. However, the relatively small sample size and limited geographical scope restrict generalizability, a concern raised in similar school-based cognitive training studies². Moreover, the short intervention period and absence of follow-up assessments limit conclusions regarding the durability of observed improvements, echoing cautions expressed by [6] that short-term attentional gains may not always persist long-term.

Another methodological limitation lies in the lack of an active control group. While the control group received the standard curriculum, they did not engage in an alternative structured activity. This makes it difficult to rule out potential novelty or facilitator effects, as engagement with new, interactive tasks itself has been shown to boost attentional performance independent of intervention content [9]. Additionally, the role of teacher or facilitator enthusiasm in motivating participants cannot be overlooked, as previous work has highlighted the importance of environmental and interpersonal context in shaping children’s learning outcomes [10].

From a theoretical perspective, the study’s findings are consistent with multisensory integration frameworks [7] and support the notion that combining visual and proprioceptive feedback can enhance executive functioning and academic outcomes. Yet, the mechanisms remain speculative without direct neurophysiological evidence. Incorporating methods such as EEG or eye-tracking could clarify whether VBST strengthens attentional control through increased frontoparietal engagement, as suggested by prior research [11]. Furthermore, subgroup analyses might reveal whether children with lower baseline attention benefit more strongly from VBST, reflecting differential susceptibility observed in developmental interventions.

Taken together, while the present findings add meaningful evidence to the field of developmental cognitive training, they should be interpreted as preliminary. Replication with larger and more diverse samples, inclusion of active control conditions, and integration of neurocognitive measures will be essential to establish the robustness, mechanisms, and scalability of VBST as a school-based intervention.

CONCLUSION

The current study provides preliminary evidence that visual-based somatosensory training significantly improves attention, concentration, and academic performance in school-aged children. By integrating visual cues with proprioceptive movement and structured tasks, VBST enhances sustained attention and learning readiness. Given its practicality and effectiveness, VBST has the potential to be scaled into regular classroom practice or early intervention frameworks, particularly for children showing early signs of attentional challenges.

Ethical Clearance: Ethical clearance was obtained from Santosh College of Physiotherapy, Santosh Medical College and Hospital, Ghaziabad, dated 18-10-24 (REF NO.- SCOP/OCT-24/ECN-94510023666).

Conflict of Interest– None

Funding– Self-funded

ACKNOWLEDGEMENT

The authors acknowledge all those who provided support and constructive input throughout this research.

Data availability: The data associated with the paper are not publicly available but can be obtained from the corresponding author upon reasonable request.

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