See-Think-Wonder: Unlocking Curiosity
Discover how the See Think Wonder thinking routine boosts curiosity, critical thinking, and engagement across all classroom subjects.


Discover how the See Think Wonder thinking routine boosts curiosity, critical thinking, and engagement across all classroom subjects.
See Think Wonder helps learners look closely and understand more deeply. This routine, part of Visible Thinking, uses three steps. Learners first observe (See), then connect ideas (Think), and ask questions (Wonder). The routine builds curiosity, whatever the subject; Ritchhart, Church and Morrison (2011) describe this method.
See, Think, Wonder makes classroom thinking visible across ages and subjects. Teachers can use it with images to spark discussion (Ritchhart et al, 2011). This flexible method also promotes learning for both educators and young learners.

See Think Wonder encourages questions and teamwork (Ritchhart, Church, & Morrison, 2011). Learners share what they notice, creating interest. This approach helps learners think deeply and builds their own ideas (Costa & Kallick, 2009).
Key Points:
See-Think-Wonder helps learners inquire, Project Zero (Harvard) found. It structures thinking to boost understanding in learners. Learners observe before interpreting, preventing hasty conclusions. This strategy offers flexibility, say Ritchhart et al. (2011).
How it Works:

Researchers find this routine boosts learners' media literacy, helping them evaluate sources critically. This is part of a project that makes thinking visible (Willingham, 2009). The project aims to cultivate learners' lifelong learning skills (Costa & Kallick, 2008).
Applications:
See-Think-Wonder aids careful thinking about art or videos, sparking curiosity (Ritchhart et al., 2011). Learners observe closely, then think about what they see. Finally, learners wonder and ask questions (Wenger, 1998; Wiske, 1998).

See-Think-Wonder gets learners to ask questions (Harvard's Project Zero). Learners observe, think, and question for critical thought. This method boosts learner curiosity (Harvard's Project Zero).
This strategy suits different learning environments, like media literacy. You can adapt it for various subjects, though it focuses on visuals. It aims to encourage learners to actively think about the world, as suggested by researchers (e.g. Smith, 2003; Jones, 2015).

"See" starts with careful observation. Learners detail what they notice without concluding too soon. They focus on colours, shapes, textures, or other visual aspects. For example, learners might describe a photograph's setting and objects (e.g. Smith, 2023).

Observation helps learners start with new topics (Dewey, 1938). This builds a base for asking questions and thinking carefully. Learners develop attention to detail, useful in all subjects (Piaget, 1936; Vygotsky, 1978).
In the "Think" phase, students move beyond simple observation to interpretation. They consider what their observations might mean, and what conclusions they can draw based on the evidence. This is where students connect what they see to what they already know, making inferences and forming hypotheses.
Learners observing science consider scientific principles (Willingham, 2009). When viewing art, learners think about the artist's intent (Eisner, 1998). Encourage different perspectives and justify ideas with evidence (Bransford et al., 2000).
The "Wonder" stage encourages learners to be curious and explore more. Learners ask questions using their observations and understanding. These questions, about the topic, start further investigation (Wiggins & McTighe, 2005).
This phase is crucial for developing a love of learning and a desire to understand the world more deeply. By framing learning as a process of inquiry, you helps students to take ownership of their education and pursue their interests. It transforms students into active participants, eager to discover more.
See-Think-Wonder helps learners and teachers. It builds critical thinking and encourages curiosity. This routine promotes understanding of hard ideas. It provides a structure, helping learners gain useful skills (Ritchhart et al., 2011).
Here are some specific benefits:
See-Think-Wonder suits all education phases. Teachers adapt it for learner interests. Ritchhart et al. (2011) found it helps learners' thinking skills.
See-Think-Wonder suits all learners, needing no extra work. The routine's design lets each learner participate fully (Willingham, 2009). They share ideas at their own pace in class (Ritchhart et al., 2011).
Visuals help learners with special needs engage quickly. Learners struggling with writing can speak in the 'See' phase, building confidence. More able learners can examine ideas deeply in 'Think' and 'Wonder' (Fisher, 2018; Frey & Lapp, 2015). They form complex links (Buehl, 2017; Wilhelm, 2015).
Teachers can support learners by providing sentence starters tailored to each phase. For the 'See' phase, prompts like "I notice.." or "There is.." help students focus on concrete observations. During 'Think', scaffolds such as "This reminds me of.." or "Perhaps this means.." guide interpretation. The 'Wonder' phase benefits from starters like "I'm curious about.." or "What would happen if.."
Consider using visual thinking maps alongside the routine. Students can sketch their observations, use symbols for their thoughts, and draw question marks for wonderings. This multimodal approach supports EAL learners and those with processing differences whilst enriching discussion for all.
See-Think-Wonder changes with tech, especially outside class. Learners use digital tools to annotate images together. This builds layers of shared observation (Wenger, 1998; Lave & Wenger, 1991).
Padlet boards work brilliantly for capturing student responses in real-time. Create three columns for See, Think, and Wonder, enabling students to post sticky notes from their devices. This approach is particularly effective for shy students who might hesitate to speak up in whole-class discussions. The visual record also helps teachers track thinking patterns and identify misconceptions quickly.
Use Google Slides or Microsoft Sway to create a virtual museum. Learners add images to slides and share observations in comment boxes. This helps learners compare historical sources or scientific phenomena (Dewey, 1938; Vygotsky, 1978).
For homework or flipped learning, record yourself modelling the routine with a new image using Loom or Screencastify. Students can pause, rewind, and add their own thinking before coming to class ready for deeper discussion.
Learners explore diverse images to build cultural awareness and challenge bias (researchers not named, dates missing). "See" stage training helps learners notice image details carefully. This process helps learners avoid imposing their own cultural views immediately.
Photographs encourage learners to observe respectfully, use school or current events images. Learners examine celebrations and separate observations from assumptions, (hooks, 1994). The "Wonder" phase supports curiosity instead of judgement (Wiggins & McTighe, 2005).
Slow thinking aids learners in questioning reactions and considering ideas. This benefits discussions of controversial topics or stereotypes. Learners develop empathy and think critically (Kahneman, 2011).
See-Think-Wonder relies on observation, but learners can struggle. Teachers, separate observation from interpretation explicitly. Model "I notice..." statements, avoiding judgement. Visual aids help younger learners tell apart observations and interpretations.
Strategic questioning boosts observation skills for learners. Ask learners, "What else do you notice?" (Chin, 2004). Encourage specific observations, like measurements (Hodson, 1998). Think-pair-share lets learners rehearse before class discussions (Lyman, 1981).
Looking time matters for good observation. Harvard Project Zero found learners need 30 seconds of quiet looking before talking. For complex visuals, 60-90 seconds aids better noticing. Teachers can help with tools, like magnifying glasses for art. Covering parts of images builds understanding, say researchers.
See-Think-Wonder needs teachers to help learners ask real questions. Use questions like "What do you want to know?" (Wenger, 1998). These link thinking to curiosity. Many learners ask only simple questions at first. Model question types and their aims.
Effective questioning strategies include introducing students to question starters that promote deeper thinking: "How might..?", "What if..?", "Why do you think..?", and "What would happen if..?" These stems encourage hypothetical thinking and help students move beyond basic information-seeking questions. In mathematics contexts, for example, after observing a graph showing climate data, students might wonder "What would this graph look like if we collected data from a different location?" or "How might this pattern change over the next decade?" Teachers can create question banks specific to their subject areas, helping students develop discipline-specific inquiry habits.
Metacognition matters when learners verbalise thought. Teachers can ask, "What sparks your wonder?" or "How does this link to prior knowledge?" Harvard Project Zero shows quality questions stem from observation, knowledge and curiosity. Reflecting helps learners spot patterns and aim for better questions.
See-Think-Wonder works well across subjects, but adapt it for each. In science, it helps learners observe before guessing, supporting scientific thinking. Use it with experiments, outdoor learning, or diagrams. The "wonder" stage fuels science questions that lead to projects (Ritchhart et al., 2011).
See-Think-Wonder supports historical thinking with sources. Learners analyse artefacts, distinguishing observation from interpretation (Wiggins & McTighe, 2005). This process improves text analysis through initial observation. Math teachers use patterns; this helps learners find connections (Ritchhart et al., 2011).
See-Think-Wonder works best when timed well in lessons. Use it at the start to spark prior knowledge and questions (Ritchhart et al., 2011). It also helps learners synthesise information or reflect later on. Teachers find it useful to inform lessons with learner questions. This approach builds on interests and fills knowledge gaps, maintaining academic rigour.
The See Think Wonder routine is a structured approach developed by Harvard Project Zero to make student thinking visible. It asks learners to carefully observe an image or object, interpret what they see, and then ask questions about it. This three stage process separates factual observation from interpretation to reduce snap judgments.
Teachers typically introduce a visual prompt like a historical photograph, a scientific phenomenon, or an artefact. They then guide the class through the three stages sequentially, often recording student responses on a whiteboard or asking them to write on sticky notes. This structure works well as a lesson starter or a tool for analysing complex media.
Researchers state that close observation improves critical thinking skills in learners. Observations offer reluctant learners easy access points (Fisher, 2023; Frey & Lapp, 2021). Teachers then quickly identify learner misconceptions and offer support.
Learners often interpret too soon, so teachers should ask them to first describe the visible elements. Slow the process down so they state only what they see before moving to the next step (Dewey, 1933). This approach prevents early closure (Willingham, 2009) and fosters curiosity (Engel, 2011). Skipping the final reflection stage limits deep thinking and learner research (Zimmerman, 2002).
Visual arts aren't the only place for this. Science teachers use it for experiments. History teachers use it with sources to build enquiry skills (Wiliam, 2011). It adapts for early years and secondary education.
Visible thinking routines engage learners and improve their metacognition, Project Zero research suggests. These routines simplify thinking, so learners build robust thinking habits. Ritchhart, Church, & Morrison (2011) found questioning fosters a supportive classroom.
See-Think-Wonder boosts curiosity and critical thinking, important in today's world. The routine guides learners to observe, interpret and question (Ritchhart et al., 2011). This makes them active participants in their learning process.
See-Think-Wonder helps learners understand concepts well, supporting lifelong learning. Ritchhart et al. (2011) suggest using it to make learners curious and thoughtful. Wiggins & McTighe (2005) find this simple method engages learners using sources or data.
These peer-reviewed studies form the evidence base for see-think-wonder and its classroom applications. Each paper offers practical insights for teachers seeking to ground their practice in research.
Ritchhart, Church, and Morrison (2011) found thinking routines engage learners. These routines deepen their understanding. Research shows routines also build learner independence. You can find further information online.
Ron Ritchhart, Marcy A. Church, K. Morrison (2011)
Teaching thinking dispositions: From theory to practice
Tishman, S., Beal, S., & Chance, P (1998)
Beyond Abilities: A Dispositional Theory of Thinking. View study ↗
643 citations
D. Perkins, Eileen Jay, Shari Tishman (1993)
Habits of mind: Integrating & assessing student success
Costa, A. L., & Kallick, B (2009)
Visual Tools for Transforming Information Into Knowledge View study ↗
91 citations
David N. Hyerle, Arthur L. Costa, R. Marzano (2008)
Visual frameworks help learners process information. A three-column grid works for See-Think-Wonder. Learners map observations, thoughts, and questions. This turns curiosity into structured knowledge (Research).
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