By Betsy Hill and Roger Stark
“The greatest obstacle to discovery is the illusion of knowledge” — Roger Stark
The Illogical Logic of Title I Funding
Title I of the Elementary and Secondary Education Act of 1965 was intended to reduce the educational achievement gap for children from low socio-economic status (SES) families. The policy assumed that providing additional funding for schools with large populations of low-SES students—funds for teachers, buildings, technology and curriculum—would level the playing field. Decades later, achievement disparities persist. One reason is that equalizing external resources does not necessarily equalize students’ internal capacity to learn.
The compensatory funding model presumes that students from different SES backgrounds enter classrooms with similar cognitive readiness and an equal ability to benefit from improved resources. Research shows this assumption is flawed: poverty and related environmental factors can affect early brain development and cognitive skills. On average, children from low-SES families arrive at school with less-developed cognitive capacities that are critical for learning. Importantly, however, neuroscience and educational research also show these cognitive abilities can be developed and that targeted interventions can accelerate learning and academic progress.
More than an Achievement Gap — A Capacity Gap
Hart and Risley’s landmark longitudinal research highlighted how early family interactions and language exposure influence children’s IQ and school readiness. That work, and subsequent studies, revealed that SES-related disparities are not limited to vocabulary size or how many words a child has heard by age three. Low-SES disadvantage correlates with broader deficits across multiple cognitive domains—beyond language—affecting how students process information, focus, remember, and reason.
These underlying cognitive differences often appear in classrooms as lower test scores, attention difficulties, or behavioral challenges. But beneath those observable problems lie specific differences in core cognitive processing systems that shape a child’s ability to learn. The table below summarizes key cognitive systems, the skills they support, and their educational impact.
Cognitive Skills and Their Relationship to Educational Performance
| Cognitive System | Cognitive Skills | Examples of Educational Impact |
|---|---|---|
| Occipitotemporal / Visual Cognition System | Perceiving patterns and visualizing information | Impacts non-verbal tasks such as visual-spatial organization, interpreting non-verbal social cues, understanding math and science concepts that rely on visualization, and creating mental images of read or heard information. |
| Parietal / Spatial Cognition System | Perceiving and manipulating spatial relationships, sequencing | Affects mathematics (particularly geometry and procedures), visual problem solving and estimation, and physical coordination. |
| Medial Temporal / Memory System | Forming new memories and integrating distributed information into coherent memories | Essential for learning that requires remembering multiple related concepts and retaining information over time. |
| Left Perisylvian / Language System | Learning and understanding words; discriminating speech sounds | Supports vocabulary development, phonological awareness, grammar and pronunciation, and effective communication. |
| Prefrontal / Executive Function System | Controlling attention and managing goal-directed behavior | Enables delaying gratification, planning, decision-making, and organizing complex tasks. |
| Anterior Cingulate / Cognitive Control System | Overriding competing impulses and choices | Critical for decision-making, resisting distractions in the classroom, and adjusting behavior to different contexts. |
| Lateral Prefrontal / Working Memory System | Retaining and manipulating information briefly | Working memory underpins complex reasoning, problem solving, and many day-to-day learning functions. |
Developing the Capacity to Learn
Cognitive deficits do not vanish instantly when students receive better instruction or curriculum. Such deficits can limit both the amount and the speed of learning. Before students with significant cognitive weaknesses can progress academically at typical rates, they often need to develop the capacity to learn. Fortunately, scientific research supports the malleability of the brain across the lifespan—neuroplasticity—so improvements are possible when interventions are appropriately designed and delivered.
Scholars and practitioners note that younger brains are generally more malleable, but measurable brain change can occur at many ages. This provides hope that targeted interventions can help children from disadvantaged backgrounds catch up. Traditional school-wide approaches—improving curriculum, teaching quality, and resources—are valuable but may take years to shift outcomes and often do not target the specific cognitive processes that limit some students’ progress.
Clinical disciplines such as vision therapy, speech-language pathology, and educational therapy have long used practices to remediate cognitive weaknesses. The challenge in education has been scaling these individualized approaches. Recent advances show that technology-supported, evidence-based cognitive training programs can be deployed at scale in school settings to strengthen attention, working memory, visual processing and other critical skills.
Cognitive Skills Development in Schools
Some schools have implemented neurocognitive development programs that address the cognitive systems most affected among low-SES students. Research into comprehensive, integrated cognitive training delivered via engaging, game-like software indicates measurable gains in cognitive functions that translate into faster academic progress.
These programs have been used with diverse student groups, from struggling learners to higher-performing students, and while they are not limited to Title I populations, studies report notable improvements for low-SES students when cognitive training is combined with quality instruction. Strengthening underlying cognitive skills allows students to benefit more effectively from classroom teaching and curriculum.
School Case Examples
Edgar Evans Academy for Boys, Indianapolis, IN
A program used cognitive training with fourth- and fifth-grade boys from low-SES backgrounds who had disciplinary histories. Pre- and post-testing with select subtests from the Woodcock-Johnson III Cognitive Battery showed a marked change: students who began testing well below their chronological age demonstrated substantial gains in measured cognitive age following training.
Glenwood Schools for Boys and Girls, Glenwood, IL
Ninety-six students from second through eighth grades in a community-supported setting used integrated cognitive training. On average, cognitive test improvements ranged from about 1.5 grade equivalents in early grades to as much as 3.0 grade equivalents in later grades; academic test gains were also reported, with larger gains in higher grades.
Lyons Elementary School, Tucson, AZ
Title I students who were behind in reading received cognitive skills training and were tracked using DIBELS Oral Reading Fluency (ORF). Third- and fourth-grade participants accelerated their reading fluency gains during the year of training, with continued acceleration into the following year. For many students, the gap between expected and actual performance narrowed substantially.
These examples suggest that strengthening cognitive skills can narrow and, in some cases, close elements of the achievement gap. That said, cognitive development is complementary to—not a replacement for—high-quality instruction, curriculum, and learning environments. When students gain greater capacity to learn, they can take fuller advantage of educational opportunities.
Conclusion
Neuroscience and educational research highlight that underlying cognitive skills matter greatly for academic and life success. Students from disadvantaged backgrounds tend, on average, to have less-developed cognitive skills that limit readiness to learn. Interventions that merely equalize external resources without addressing students’ internal learning capacity are unlikely to fully close the gap.
To help low-SES students catch up, schools should combine excellent teaching and curriculum with targeted cognitive-skills interventions that build attention, memory, language processing, and executive functions. Evidence indicates such interventions can produce meaningful improvements in cognitive functioning and accelerate academic progress, making it more possible to close long-standing achievement gaps.
About the Authors
Betsy Hill is President of BrainWare Learning Company, which applies neuroscience to help parents and educators unlock children’s learning potential. An experienced educator, she has collaborated with experts in brain-based learning and served on the board of trustees at Chicago State University. She teaches strategic thinking in an MBA program and holds a Master of Arts in Teaching and an MBA.
Roger Stark is Co-founder and CEO of BrainWare Learning Company. He has led efforts to translate research on the science of learning into practical, affordable cognitive training tools used in schools and other settings. He has overseen the development of widely used cognitive literacy training products and advocates for bringing evidence-based cognitive interventions within reach of all learners.