The Science of Reading: A Teacher's GuideSecondary students aged 12-14 in navy blazers engaged in a discussion about literacy and brain function with their teacher

Updated on  

April 10, 2026

The Science of Reading: A Teacher's Guide

|

October 9, 2025

Discover evidence-based teaching methods from 50+ years of research. Learn how children actually learn to read and transform your literacy instruction.

Course Enquiry
Copy citation

Main, P. (2026, January 9). The Science of Reading: A Comprehensive Guide to Evidence-Based Literacy. Retrieved from www.structural-learning.com/post/the-science-of-reading

The Science of Reading shows how learners read and which teaching methods work best. This research, built over decades (Scarborough, 2001), uses studies in psychology and neuroscience. It gives teachers proven strategies for every learner, instead of relying on intuition or trends (Seidenberg, 2005; Ehri, 2020).

Evidence Overview

Chalkface Translator: research evidence in plain teacher language

Academic
Chalkface

Evidence Rating: Load-Bearing Pillars

Emerging (d<0.2)
Promising (d 0.2-0.5)
Robust (d 0.5+)
Foundational (d 0.8+)

‍ For phase-specific guidance, see our guide on oracy and critical thinking.

Key Takeaways

  1. Reading proficiency is the culmination of multiple interwoven skills, not a single ability. As depicted in Scarborough's Reading Rope, effective reading necessitates the intricate blending of both word recognition skills, such as phonological awareness and decoding, and language comprehension abilities, including vocabulary and background knowledge (Scarborough, 2001). Teachers must address all strands explicitly to ensure learners develop robust literacy.
  2. Systematic and explicit phonics instruction is non-negotiable for developing proficient readers. Research consistently demonstrates that direct teaching of letter-sound correspondences and blending skills is fundamental for learners to decode words accurately and efficiently (Adams, 1990). This foundational skill enables learners to develop the alphabetic code, which is crucial for early reading success and preventing reading difficulties.
  3. Language comprehension is as critical as decoding for understanding written text. The Simple View of Reading posits that reading comprehension is the product of decoding ability and linguistic comprehension (Gough & Tunmer, 1986). Therefore, alongside phonics, teachers must actively build learners' vocabulary, background knowledge, and syntactic awareness to ensure they can make meaning from what they read.
  4. Developing automatic word recognition through orthographic mapping is essential for reading fluency and comprehension. Learners move beyond sounding out words to instantly recognising them by forming connections between spoken words, their pronunciations, and their spellings in memory, a process known as orthographic mapping (Ehri, 2005). This automaticity frees up cognitive resources, allowing learners to focus on understanding the text rather than struggling with individual words.

Scarborough's Reading Rope

Select any strand to explore its definition, classroom strategies, and key year groups. Based on Scarborough (2001).

Language Comprehension strands

Word Recognition strands

Skilled Reading

Select a strand above to explore its role in skilled reading.

The reading brain
The reading brain

  • Only 18.7% of 8-18 year olds in the UK read daily, the lowest in 20 years
  • This represents a 20 percentage point drop since 2005
  • Only 32.7% of children aged 8-18 report enjoying reading, another 20-year low

Source: National Literacy Trust

What Is the Science of Reading?

The Science of Reading uses research from many fields to explain reading (Snowling & Hulme, 2011). Studies over five decades show how learners read and why some struggle (Seidenberg, 2017). Researchers like Scarborough (2001) show effective teaching methods.

The "Science of Reading" uses research from many fields, like psychology and linguistics. The Reading League says it is evidence from many studies (Seidenberg, 2005). Research shows how learners read well and why some find it hard (Scarborough, 2001; Ehri, 2020). It also shows effective teaching methods (Castles et al., 2018).

Infographic defining Science of Reading with 5 key evidence-based characteristics for literacy instruction
What is the Science of Reading?

Research strengthens when fields overlap. Cognitive psychology findings (e.g., metacognition, attention) agree. Neuroscience shows the brain rewires itself for reading (Researcher names, dates). Linguistics explains language structure, sounds to word parts (Researcher names, dates).

This knowledge, amassed over decades, is based on studies from multiple fields. These include psychology, linguistics, and neuroscience (Scarborough, 2001; Seidenberg, 2005). Applying this research helps teachers support every learner's reading process (Castles et al., 2018). We can use evidence-based strategies to improve learner outcomes (Snowling & Hulme, 2011).

Science of Reading framework showing what it is, how it works, and why explicit instruction is needed" loading="lazy">
Science of Reading

Why Reading Requires Explicit Instruction

Dehaene (2009) and Wolf (2007) show reading isn't innate; we evolved for speech. Brains build new pathways linking symbols to sounds, Rayner (1998) explains. Learners need clear, planned teaching to read well, Rose (2006) suggests.

Unlike learning to speak, which humans acquire naturally through exposure, reading is not an innate ability. The human brain did not evolve to read. Writing systems are recent inventions in human history. Learning to read requires explicit instruction to build new neural pathways that connect visual symbols to sounds and meanings.

This fundamental insight drives the Science of Reading. We must intentionally teach children how to decode the complex code of written language. Without direct instruction, many learners are left to guess, struggle, and fall behind. Approaches that assume children will naturally absorb reading through exposure have been debunked by

Scarborough's Reading Rope Model Explained

Scarborough's Reading Rope is a visual framework that illustrates the many interwoven skills and knowledge sources required for skilled reading. It highlights two main strands: word recognition and language comprehension. These strands intertwine, with stronger skills in each area leading to more fluent and proficient reading.

Scarborough's Reading Rope shows how reading skills link together (date not provided). Word recognition uses phonics, decoding, and word knowledge. Language skills include knowledge, words, and grammar. Address all parts of reading for good teaching. Learners may decode but lack vocabulary to understand text.

Learners need phonemic awareness to use sounds in words. Assess reading's five areas: phonemic awareness, phonics, fluency, vocabulary, comprehension. Find learner weaknesses (Adams, 1990; Snow, Burns & Griffin, 1998). Then plan interventions to address reading problems.

Track learner progress in reading interventions with regular data collection. Brief assessments monitor skills, like letter sounds and fluency. Nonsense word fluency shows phonics gains (Deno, 1985). Oral reading fluency measures automaticity (Fuchs & Deno, 1991). Use data to inform teaching every two weeks (Stecker et al., 2005). Adjust your teaching if learners struggle.

Match explicit teaching to learner needs from assessments. Use five-minute sound sessions daily for phonemic awareness (Torgesen et al., 1994; Wise et al., 1999). Small synthetic phonics groups help with phonics (Johnston & Watson, 2005). Group learners by skill; for example, blends (Denton et al., 2020).

Teachers check assessment patterns to find skill gaps and learning rates. Fuchs and Fuchs show level and progress predict intervention results. Graph learner progress regularly to monitor growth. Poor progress, despite teaching, means more support is needed (Fuchs & Fuchs). This may indicate underlying issues needing assessment.

Schools quickly assess learners with SEND and give support. They plan assessments, record data and provide helpful interventions. Research evidence (researcher names and dates) helps learners to become successful readers.

Practical Implications for Teachers

The Science of Reading has profound implications for classroom practise. Here are some key strategies teachers can implement:

  • Use Systematic Phonics Instruction: Teach letter-sound relationships in a clear, sequential order. Provide ample opportunities for students to practise decoding words.
  • Develop Phonemic Awareness: Engage students in activities that focus on manipulating sounds in words, such as blending, segmenting, and rhyming.
  • Build Vocabulary: Explicitly teach new vocabulary words, provide opportunities for students to use them in context, and encourage wide reading.
  • Promote Reading Fluency: Provide opportunities for students to practise reading aloud, focusing on accuracy, rate, and prosody (expression).
  • Teach Comprehension Strategies: Model and teach strategies such as summarising, questioning, and making inferences. Encourage students to actively engage with the text.
  • Use Assessment to Inform Instruction: Regularly assess students' reading skills to identify areas of strength and weakness. Use this information to tailor instruction to meet individual needs.
  • Scarborough (2001) connects early language to later reading skills. Her research appears in Neuman & Dickinson's literacy handbook. This offers evidence, theory, and practice for teachers.

    Plan Your Evidence-Based Literacy Approach

    EEF strategies support learners effectively. Choose the key stage, literacy area and current level. Then create a plan to improve their learning. (EEF, various dates)

    EEF Literacy Strategy Planner

    Generate a targeted literacy improvement plan with EEF-recommended strategies, expected progress, and example activities.

    1

    Reading Strategy Selector

    Find the best reading strategy for your classroom context

    1 Select your Key Stage

    2 Select your focus area

    3 Select your main challenge

    Recommended Strategies

    Further Reading: Key Research Papers

    These peer-reviewed studies support the science of reading and its classroom use. The papers provide teachers with research-based insights into phonics and comprehension instruction (Researcher, Date).

    The Simple View of Reading View study ↗
    1,235 citations

    Kim, H. (2012)

    The Simple View of Reading (Gough & Tunmer, 1986) says reading relies on decoding and language skills. Some learners decode well but struggle to understand text. Teachers must explicitly teach both decoding and language (Hoover & Gough, 1990).

    The Science of Reading Comprehension Instruction View study ↗
    127 citations

    Duke, N. K. and Ward, A. E. (2021)

    Duke and Ward reviewed reading comprehension instruction research. They identified strategies with strong support. Their work helps primary teachers choose strategies for all learners and specific groups. They argue comprehension teaching should start in Reception (Duke & Ward).

    EEF Improving Literacy KS1 Recommendations

    Evidence-based recommendations from the Education Endowment Foundation

    Effect Size
    +6
    months
    Implementation Cost
    £
    Evidence Strength
    Very

    Use a systematic phonics programme. Teach letter sounds, blending, and segmenting in a structured sequence. Ensure daily, focused phonics teaching.

    Effect Size
    +6
    months
    Implementation Cost
    £
    Evidence Strength
    Strong

    Teach explicit comprehension strategies: predicting, questioning, clarifying, summarising. Model these during read-alouds.

    Effect Size
    +5
    months
    Implementation Cost
    £
    Evidence Strength
    Strong

    Build vocabulary and language through singing, rhymes, storytelling, and conversation. Ensure all children participate.

    Effect Size
    +4
    months
    Implementation Cost
    £
    Evidence Strength
    Moderate

    Work with small groups on texts at their level. Ask questions, teach strategies, and provide scaffolding.

    Effect Size
    +5
    months
    Implementation Cost
    £
    Evidence Strength
    Strong

    Read together as a class. Stop to discuss, predict, and connect. Allow pupils to see you reading for pleasure.

    Effect Size
    +4
    months
    Implementation Cost
    £
    Evidence Strength
    Moderate

    Teach key vocabulary before reading. Use pictures, actions, and examples. Review vocabulary repeatedly.

    Effect Size
    +5
    months
    Implementation Cost
    £
    Evidence Strength
    Moderate

    Develop quick, automatic sight word recognition through repeated practice. Use decodable texts with familiar patterns.

    Effect Size
    +4
    months
    Implementation Cost
    £
    Evidence Strength
    Moderate

    Provide early support for writing. Use mark-making, letter formation practice, and oral rehearsal before writing.

    Frequently Asked Questions

    schema.org/FAQPage">

    What is the Science of Reading in education?

    The Science of Reading uses research from psychology, neuroscience, and linguistics. It shows how reading develops and why learners struggle (Seidenberg, 2005). This gives teachers strategies for literacy, based on evidence not intuition (Castles et al., 2018; Kilpatrick, 2015).

    How do teachers implement the Science of Reading in the classroom?

    Explicit teaching helps learners succeed. Dates' research (Dates, year) shows five key teaching areas. These are phonemic awareness, phonics, fluency, vocabulary, and comprehension. Teachers directly instruct in decoding and text structure. They do not assume learners will automatically learn these skills.

    Why does reading require explicit instruction?

    Reading isn't a natural skill like speaking. Writing systems are recent inventions, so brains didn't evolve to read. Learners need instruction to link symbols to sounds, (Rayner et al., 2001). This builds new brain connections for reading, (Dehaene, 2009; Wolf, 2007).

    What does the research say about Scarborough's Reading Rope?

    Scarborough's Reading Rope (Scarborough, 2001) shows skills for reading. The research divides them into word recognition and language comprehension. Learners get better at both areas. The strands weave together as skills grow (Scarborough, 2001).

    What are the benefits of the Science of Reading for learning?

    This research shows effective teaching methods for all learners. It replaces trend-based methods with proven strategies (Hattie, 2008). Teachers using these methods can reduce learners falling behind (Marzano, 2003; Wiliam, 2011).

    What are common mistakes when teaching reading?

    Castles et al. (2018) found learners struggle with vocabulary, even with phonics. Teachers should teach all reading parts systematically (National Reading Panel, 2000).

    order-bottom: 1px solid #b8e0d4;">

    What Constitutes a Science of Reading Instruction? View study ↗
    107 citations

    Shanahan, T. (2020)

    Shanahan says reading science needs wider discussion. This must include teaching research, curriculum and teacher expertise. Systematic phonics is key, but one aspect of literacy (Shanahan, date unclear).

    Systematic phonics helps learners read better, according to research. Iversen and Tunmer (1993) found this. Johnston and Watson (2005) support this claim. Wyse and Bradbury (2023) have looked again at the research.

    Bowers, J. (2018)

    Bowers (2020) asks if phonics evidence is as strong as we think. Teachers should consider phonics use carefully, Bowers (2020) suggests. Reading involves many skills, so use a balanced approach.

    Why the Simple View of Reading Is Not Simplistic: Unpacking Component Skills View study ↗
    339 citations

    Kim, Y. (2017)

    Kim's (2017) DIER model builds on the Simple View. It pinpoints skills impacting both decoding and reading comprehension. Research highlights morphology, vocabulary, and memory (Kim, 2017). Teachers can assess and teach these skills to improve learner reading (Kim, 2017).

    Written by the Structural Learning Research Team

    Reviewed by Paul Main, Founder & Educational Consultant at Structural Learning

    External References: EEF: Phonics Teaching and Learning Toolkit | The Reading Framework (DfE)

The Science of Reading shows how learners read and which teaching methods work best. This research, built over decades (Scarborough, 2001), uses studies in psychology and neuroscience. It gives teachers proven strategies for every learner, instead of relying on intuition or trends (Seidenberg, 2005; Ehri, 2020).

Evidence Overview

Chalkface Translator: research evidence in plain teacher language

Academic
Chalkface

Evidence Rating: Load-Bearing Pillars

Emerging (d<0.2)
Promising (d 0.2-0.5)
Robust (d 0.5+)
Foundational (d 0.8+)

‍ For phase-specific guidance, see our guide on oracy and critical thinking.

Key Takeaways

  1. Reading proficiency is the culmination of multiple interwoven skills, not a single ability. As depicted in Scarborough's Reading Rope, effective reading necessitates the intricate blending of both word recognition skills, such as phonological awareness and decoding, and language comprehension abilities, including vocabulary and background knowledge (Scarborough, 2001). Teachers must address all strands explicitly to ensure learners develop robust literacy.
  2. Systematic and explicit phonics instruction is non-negotiable for developing proficient readers. Research consistently demonstrates that direct teaching of letter-sound correspondences and blending skills is fundamental for learners to decode words accurately and efficiently (Adams, 1990). This foundational skill enables learners to develop the alphabetic code, which is crucial for early reading success and preventing reading difficulties.
  3. Language comprehension is as critical as decoding for understanding written text. The Simple View of Reading posits that reading comprehension is the product of decoding ability and linguistic comprehension (Gough & Tunmer, 1986). Therefore, alongside phonics, teachers must actively build learners' vocabulary, background knowledge, and syntactic awareness to ensure they can make meaning from what they read.
  4. Developing automatic word recognition through orthographic mapping is essential for reading fluency and comprehension. Learners move beyond sounding out words to instantly recognising them by forming connections between spoken words, their pronunciations, and their spellings in memory, a process known as orthographic mapping (Ehri, 2005). This automaticity frees up cognitive resources, allowing learners to focus on understanding the text rather than struggling with individual words.

Scarborough's Reading Rope

Select any strand to explore its definition, classroom strategies, and key year groups. Based on Scarborough (2001).

Language Comprehension strands

Word Recognition strands

Skilled Reading

Select a strand above to explore its role in skilled reading.

The reading brain
The reading brain

  • Only 18.7% of 8-18 year olds in the UK read daily, the lowest in 20 years
  • This represents a 20 percentage point drop since 2005
  • Only 32.7% of children aged 8-18 report enjoying reading, another 20-year low

Source: National Literacy Trust

What Is the Science of Reading?

The Science of Reading uses research from many fields to explain reading (Snowling & Hulme, 2011). Studies over five decades show how learners read and why some struggle (Seidenberg, 2017). Researchers like Scarborough (2001) show effective teaching methods.

The "Science of Reading" uses research from many fields, like psychology and linguistics. The Reading League says it is evidence from many studies (Seidenberg, 2005). Research shows how learners read well and why some find it hard (Scarborough, 2001; Ehri, 2020). It also shows effective teaching methods (Castles et al., 2018).

Infographic defining Science of Reading with 5 key evidence-based characteristics for literacy instruction
What is the Science of Reading?

Research strengthens when fields overlap. Cognitive psychology findings (e.g., metacognition, attention) agree. Neuroscience shows the brain rewires itself for reading (Researcher names, dates). Linguistics explains language structure, sounds to word parts (Researcher names, dates).

This knowledge, amassed over decades, is based on studies from multiple fields. These include psychology, linguistics, and neuroscience (Scarborough, 2001; Seidenberg, 2005). Applying this research helps teachers support every learner's reading process (Castles et al., 2018). We can use evidence-based strategies to improve learner outcomes (Snowling & Hulme, 2011).

Science of Reading framework showing what it is, how it works, and why explicit instruction is needed" loading="lazy">
Science of Reading

Why Reading Requires Explicit Instruction

Dehaene (2009) and Wolf (2007) show reading isn't innate; we evolved for speech. Brains build new pathways linking symbols to sounds, Rayner (1998) explains. Learners need clear, planned teaching to read well, Rose (2006) suggests.

Unlike learning to speak, which humans acquire naturally through exposure, reading is not an innate ability. The human brain did not evolve to read. Writing systems are recent inventions in human history. Learning to read requires explicit instruction to build new neural pathways that connect visual symbols to sounds and meanings.

This fundamental insight drives the Science of Reading. We must intentionally teach children how to decode the complex code of written language. Without direct instruction, many learners are left to guess, struggle, and fall behind. Approaches that assume children will naturally absorb reading through exposure have been debunked by

Scarborough's Reading Rope Model Explained

Scarborough's Reading Rope is a visual framework that illustrates the many interwoven skills and knowledge sources required for skilled reading. It highlights two main strands: word recognition and language comprehension. These strands intertwine, with stronger skills in each area leading to more fluent and proficient reading.

Scarborough's Reading Rope shows how reading skills link together (date not provided). Word recognition uses phonics, decoding, and word knowledge. Language skills include knowledge, words, and grammar. Address all parts of reading for good teaching. Learners may decode but lack vocabulary to understand text.

Learners need phonemic awareness to use sounds in words. Assess reading's five areas: phonemic awareness, phonics, fluency, vocabulary, comprehension. Find learner weaknesses (Adams, 1990; Snow, Burns & Griffin, 1998). Then plan interventions to address reading problems.

Track learner progress in reading interventions with regular data collection. Brief assessments monitor skills, like letter sounds and fluency. Nonsense word fluency shows phonics gains (Deno, 1985). Oral reading fluency measures automaticity (Fuchs & Deno, 1991). Use data to inform teaching every two weeks (Stecker et al., 2005). Adjust your teaching if learners struggle.

Match explicit teaching to learner needs from assessments. Use five-minute sound sessions daily for phonemic awareness (Torgesen et al., 1994; Wise et al., 1999). Small synthetic phonics groups help with phonics (Johnston & Watson, 2005). Group learners by skill; for example, blends (Denton et al., 2020).

Teachers check assessment patterns to find skill gaps and learning rates. Fuchs and Fuchs show level and progress predict intervention results. Graph learner progress regularly to monitor growth. Poor progress, despite teaching, means more support is needed (Fuchs & Fuchs). This may indicate underlying issues needing assessment.

Schools quickly assess learners with SEND and give support. They plan assessments, record data and provide helpful interventions. Research evidence (researcher names and dates) helps learners to become successful readers.

Practical Implications for Teachers

The Science of Reading has profound implications for classroom practise. Here are some key strategies teachers can implement:

  • Use Systematic Phonics Instruction: Teach letter-sound relationships in a clear, sequential order. Provide ample opportunities for students to practise decoding words.
  • Develop Phonemic Awareness: Engage students in activities that focus on manipulating sounds in words, such as blending, segmenting, and rhyming.
  • Build Vocabulary: Explicitly teach new vocabulary words, provide opportunities for students to use them in context, and encourage wide reading.
  • Promote Reading Fluency: Provide opportunities for students to practise reading aloud, focusing on accuracy, rate, and prosody (expression).
  • Teach Comprehension Strategies: Model and teach strategies such as summarising, questioning, and making inferences. Encourage students to actively engage with the text.
  • Use Assessment to Inform Instruction: Regularly assess students' reading skills to identify areas of strength and weakness. Use this information to tailor instruction to meet individual needs.
  • Scarborough (2001) connects early language to later reading skills. Her research appears in Neuman & Dickinson's literacy handbook. This offers evidence, theory, and practice for teachers.

    Plan Your Evidence-Based Literacy Approach

    EEF strategies support learners effectively. Choose the key stage, literacy area and current level. Then create a plan to improve their learning. (EEF, various dates)

    EEF Literacy Strategy Planner

    Generate a targeted literacy improvement plan with EEF-recommended strategies, expected progress, and example activities.

    1

    Reading Strategy Selector

    Find the best reading strategy for your classroom context

    1 Select your Key Stage

    2 Select your focus area

    3 Select your main challenge

    Recommended Strategies

    Further Reading: Key Research Papers

    These peer-reviewed studies support the science of reading and its classroom use. The papers provide teachers with research-based insights into phonics and comprehension instruction (Researcher, Date).

    The Simple View of Reading View study ↗
    1,235 citations

    Kim, H. (2012)

    The Simple View of Reading (Gough & Tunmer, 1986) says reading relies on decoding and language skills. Some learners decode well but struggle to understand text. Teachers must explicitly teach both decoding and language (Hoover & Gough, 1990).

    The Science of Reading Comprehension Instruction View study ↗
    127 citations

    Duke, N. K. and Ward, A. E. (2021)

    Duke and Ward reviewed reading comprehension instruction research. They identified strategies with strong support. Their work helps primary teachers choose strategies for all learners and specific groups. They argue comprehension teaching should start in Reception (Duke & Ward).

    EEF Improving Literacy KS1 Recommendations

    Evidence-based recommendations from the Education Endowment Foundation

    Effect Size
    +6
    months
    Implementation Cost
    £
    Evidence Strength
    Very

    Use a systematic phonics programme. Teach letter sounds, blending, and segmenting in a structured sequence. Ensure daily, focused phonics teaching.

    Effect Size
    +6
    months
    Implementation Cost
    £
    Evidence Strength
    Strong

    Teach explicit comprehension strategies: predicting, questioning, clarifying, summarising. Model these during read-alouds.

    Effect Size
    +5
    months
    Implementation Cost
    £
    Evidence Strength
    Strong

    Build vocabulary and language through singing, rhymes, storytelling, and conversation. Ensure all children participate.

    Effect Size
    +4
    months
    Implementation Cost
    £
    Evidence Strength
    Moderate

    Work with small groups on texts at their level. Ask questions, teach strategies, and provide scaffolding.

    Effect Size
    +5
    months
    Implementation Cost
    £
    Evidence Strength
    Strong

    Read together as a class. Stop to discuss, predict, and connect. Allow pupils to see you reading for pleasure.

    Effect Size
    +4
    months
    Implementation Cost
    £
    Evidence Strength
    Moderate

    Teach key vocabulary before reading. Use pictures, actions, and examples. Review vocabulary repeatedly.

    Effect Size
    +5
    months
    Implementation Cost
    £
    Evidence Strength
    Moderate

    Develop quick, automatic sight word recognition through repeated practice. Use decodable texts with familiar patterns.

    Effect Size
    +4
    months
    Implementation Cost
    £
    Evidence Strength
    Moderate

    Provide early support for writing. Use mark-making, letter formation practice, and oral rehearsal before writing.

    Frequently Asked Questions

    schema.org/FAQPage">

    What is the Science of Reading in education?

    The Science of Reading uses research from psychology, neuroscience, and linguistics. It shows how reading develops and why learners struggle (Seidenberg, 2005). This gives teachers strategies for literacy, based on evidence not intuition (Castles et al., 2018; Kilpatrick, 2015).

    How do teachers implement the Science of Reading in the classroom?

    Explicit teaching helps learners succeed. Dates' research (Dates, year) shows five key teaching areas. These are phonemic awareness, phonics, fluency, vocabulary, and comprehension. Teachers directly instruct in decoding and text structure. They do not assume learners will automatically learn these skills.

    Why does reading require explicit instruction?

    Reading isn't a natural skill like speaking. Writing systems are recent inventions, so brains didn't evolve to read. Learners need instruction to link symbols to sounds, (Rayner et al., 2001). This builds new brain connections for reading, (Dehaene, 2009; Wolf, 2007).

    What does the research say about Scarborough's Reading Rope?

    Scarborough's Reading Rope (Scarborough, 2001) shows skills for reading. The research divides them into word recognition and language comprehension. Learners get better at both areas. The strands weave together as skills grow (Scarborough, 2001).

    What are the benefits of the Science of Reading for learning?

    This research shows effective teaching methods for all learners. It replaces trend-based methods with proven strategies (Hattie, 2008). Teachers using these methods can reduce learners falling behind (Marzano, 2003; Wiliam, 2011).

    What are common mistakes when teaching reading?

    Castles et al. (2018) found learners struggle with vocabulary, even with phonics. Teachers should teach all reading parts systematically (National Reading Panel, 2000).

    order-bottom: 1px solid #b8e0d4;">

    What Constitutes a Science of Reading Instruction? View study ↗
    107 citations

    Shanahan, T. (2020)

    Shanahan says reading science needs wider discussion. This must include teaching research, curriculum and teacher expertise. Systematic phonics is key, but one aspect of literacy (Shanahan, date unclear).

    Systematic phonics helps learners read better, according to research. Iversen and Tunmer (1993) found this. Johnston and Watson (2005) support this claim. Wyse and Bradbury (2023) have looked again at the research.

    Bowers, J. (2018)

    Bowers (2020) asks if phonics evidence is as strong as we think. Teachers should consider phonics use carefully, Bowers (2020) suggests. Reading involves many skills, so use a balanced approach.

    Why the Simple View of Reading Is Not Simplistic: Unpacking Component Skills View study ↗
    339 citations

    Kim, Y. (2017)

    Kim's (2017) DIER model builds on the Simple View. It pinpoints skills impacting both decoding and reading comprehension. Research highlights morphology, vocabulary, and memory (Kim, 2017). Teachers can assess and teach these skills to improve learner reading (Kim, 2017).

    Written by the Structural Learning Research Team

    Reviewed by Paul Main, Founder & Educational Consultant at Structural Learning

    External References: EEF: Phonics Teaching and Learning Toolkit | The Reading Framework (DfE)

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