Inspire and engage students, head off misconceptions and meet learning goals with tip-top lesson planning

In a rapidly digitising world full of distractions, it can be daunting to plan engaging lessons that spark curiosity and inspire future chemists – not to mention ones that also meet curriculum, progress and assessment needs.
As the saying goes: fail to prepare, prepare to fail. By planning properly, we can overcome many, if not all, issues that arise in lessons. But where to begin? First, let’s go back to basics.
What is lesson planning?
Lesson planning is one of the most vital aspects of teaching. It involves teachers identifying their students’ existing knowledge and understanding alongside next steps to combine subject, topic and curriculum requirements in a way that maximises learning and potential.
To plan effectively, teachers need to consider an array of elements – everything from subject knowledge and pedagogical approaches to curriculum and contextual links – while considering students’ individual progress, learning styles and struggles.
To plan effectively, teachers need to consider an array of elements – everything from subject knowledge and pedagogical approaches to curriculum and contextual links – while considering students’ individual progress, learning styles and struggles (rsc.li/4wWJX9j).
What does good lesson planning look like in the classroom?
What does it look like?
Planning a lesson, a sequence of lessons or a learning scheme consists of different stages. But do you start with the end of the learning journey in mind or right at the beginning with learning objectives?
1. Questions to ask before and during planning
There are a few questions it’s useful to ask yourself before planning a lesson:
- What do I want the students to learn? Consider learning objectives and outcomes, subject knowledge, preconceptions, misconceptions and self-evaluation.
- How do I want the students to learn the chemistry? Think of key pedagogical approaches for the design and delivery of the lesson. For example, mastery learning, the science capital teaching approach, constructivism (zone of proximal development, scaffolding) or a mixture.
- How will I know they know? You can make use of a range of assessment techniques, such as formative assessment and assessment for learning (AfL), including self-questioning, self-assessment exit tickets, peer-assessment and success criteria, among others.
- And how will they know they know? You can develop a clear path to understanding which takes account of their challenges.
- How will students know their next steps? You allow them to reflect upon their learning and set targets for moving forward.
2. Learning objectives
What do you want your students to learn and how will you measure improvements in knowledge or skill?
You can judge the degree of success by assessing the learning outcomes. A few well-chosen objectives with clear measurable outcomes are best. So, for example, a learning objective that is framed as ‘understand how to titrate an acid and base’ is not very helpful for you or the learner, as it’s vague and can’t be measured.
Avoid over-complicating things – the more objectives there are, the more assessment you need to do and the less focus each will have. There’s also a higher chance that students will fail to achieve them.
3. Preconceptions/misconceptions
There are a few strategies you can use to identify student preconceptions and misconceptions, for example:
- Plan for cognitive conflict and discussion: When students are discussing their ideas together, preconceptions and misconceptions are revealed. This process helps them to reconstruct their existing ideas. However, some high-level conceptual understanding, even when facilitated through cognitive conflict, can still be too demanding for some students (RSC, 2008).
- Use concept cartoons in planning: Concept cartoons, cognitive mapping or cognitive conflict discussions probe alternative ideas and identify students’ misconceptions. Explore with students which of the statements seem counterintuitive and why, promoting the discussion of differing viewpoints.
- Plan for cognitive conflict and discussion: When students are discussing their ideas together, preconceptions and misconceptions are revealed. This process helps them to reconstruct their existing ideas (bit.ly/4g8JRnT). However, some high-level conceptual understanding, even when facilitated through cognitive conflict, can still be too demanding for some students.
- Use concept cartoons in planning: Concept cartoons, cognitive mapping or cognitive conflict discussions probe alternative ideas and identify students’ misconceptions. Explore with students which of the statements seem counterintuitive and why, promoting the discussion of differing viewpoints.
| Use of concept cartoon | Example |
|---|---|
|
Auditing prior subject knowledge |
Students assess prior knowledge through retrieval practice. |
|
Cognitive conflict |
Students explore alternative viewpoints to help cement concrete learning. |
|
Formative assessment |
Useful for self and peer assessment to support target setting for individuals. |
|
Problem solving |
Especially for mathematical contexts. |
|
Misconceptions |
Valuable for challenging misconceptions, especially by their peers in a group context. |
- Use cognitive (concept) maps in your planning: There are different types of concept maps – picture, propositional, object-only, link-only and free range. Keep it simple: begin by asking students to write a word/phrase to show how two concepts are linked. Once they can link ideas, additional concepts can be introduced to complete the map.
- Use cognitive (concept) maps in your planning: There are different types of concept maps – picture, propositional, object-only, link-only and free range. Keep it simple: begin by asking students to write a word/phrase to show how two concepts are linked. Once they can link ideas, additional concepts can be introduced to complete the map (rsc.li/460Jnvq).
4. Assessment for Learning: how will I know they know?
Exit tickets are a formative assessment tool. You use them at the end of a lesson to help gauge the level of understanding among individual students in your class.
The following sentence starters, which are for students to complete at the end of the lesson, will help you design effective exit tickets that can be used to inform your planning:
- Three things I learned …
- Two things I want to know …
- The activity that most helped my learning was …
- I would now like to know what/why/how …
5. Involve students in the lesson plan
Share the lesson title and ask students to set their own learning outcomes. Ask students to revisit their outcome(s) at the end of the lesson. Did they successfully achieve it? If not, why not; if they did, how do they know? What target would they now set to bridge the gap or extend their learning?
The more they do this, the better they will be at planning, monitoring and self-evaluation – and the more adept they will become at setting their own targets.
What does the research say?
Ongoing research has highlighted and analysed the impact of a number of effective models aimed at boosting progress, retention and engagement while maintaining challenge and excitement:
- Mastery learning was introduced by Bloom in 1974, who believed that nearly all students, when provided with the more favourable learning conditions, could truly master academic content. According to the EEF, a mastery learning approach in science can advance progress by up to six months.
- The science capital teaching approach (Archer et al, 2015) is centred around using students’ own resources and the role of individual science teachers to impact learning through reflection and lesson adaptation, as well as integrating real-life chemistry contexts to create authentic learning experiences.
Other models for developing lesson planning and methods of learning among students:
- The 5E (engage, explore, explain, elaborate and evaluate) model.
- RADAAR (research, anticipate, diagnose, address, assess, review [EEF, 2022]).
- Constructivism and the zone of proximal development and scaffolding (Vygotsky 1978; Wood, Bruner & Ross, 1976).
- Cognitive science – brought to the forefront in the education system in England in recent years (Sweller et al, 2019; Rosenshine, 2012).
The research evidence
Ongoing research has highlighted and analysed the impact of a number of effective models aimed at boosting progress, retention and engagement while maintaining challenge and excitement:
- Mastery learning was introduced by Bloom in 1974, who believed that nearly all students, when provided with more favourable learning conditions, could truly master academic content. According to the EEF, a mastery learning approach in science can advance progress by up to six months: bit.ly/4wpppVU.
- The science capital teaching approach (Archer et al, 2015) is centred around using students’ own resources and the role of individual science teachers to impact learning through reflection and lesson adaptation, as well as integrating real-life chemistry contexts to create authentic learning experiences: bit.ly/4wY4MBh.
Other models for developing lesson planning and methods of learning among students:
- The 5E (engage, explore, explain, elaborate and evaluate) model: bit.ly/4i7z28g.
- RADAAR (research, anticipate, diagnose, address, assess, review [EEF, 2022]): rsc.li/45Yh5B.
- Constructivism – zone of proximal development and scaffolding (Vygotsky 1978; Wood, Bruner & Ross, 1976): bit.ly/3S5hNtQ.
- Cognitive science – brought to the forefront in the education system in England in recent years (Sweller et al, 2019; Rosenshine, 2012): rsc.li/4hy0CeO.
What do teachers say about lesson planning?
What do teachers say?
Aaisha Patel, chemistry teacher at Soar Valley College, Leicester, reflects on the importance of ensuring students’ mastery of foundational chemistry knowledge and skills in the lesson planning phase, noting that ‘effective lesson planning in chemistry requires deep consideration of how students learn’. To do this, Aaisha breaks down ‘complex concepts into smaller, manageable steps, ensuring that foundational knowledge is secure before introducing new learning, reducing cognitive load’.
‘Mastery learning, in particular, has taught me the importance of sequencing learning, using regular formative assessment and offering enrichment opportunities to promote success. I use misconceptions as a learning opportunity, through discussion, questioning and carefully planned activities.
‘These are just some of the approaches that continue to influence my teaching, helping me create lessons that are purposeful and inclusive to support meaningful learning for every student.’
What next?
- Extend your knowledge of lesson-planning techniques beyond this snapshot and learn more about other teaching pedagogies – such as adaptive teaching – sign up for the RSC’s self-led Effective pedagogy training course.
- Discover five key strategies to help implement cognitive science principles in lessons.
- Learn about different retrieval activities that aid student recall by developing anchors to build their learning.
- Identify the root of similar misconceptions among students and how to repair them without reteaching entire topics.
- Find out more about how to identify and plan for students’ prior knowledge in lessons.
- Use the EEF’s RADAAR framework to plan for misconceptions in chemistry lessons.
- Explore concept cartoons, which could be used as retrieval activities or formative assessment activities to encourage students to think scientifically.
- Download these resources to support 11–14 student concept mapping for revising acids.
What next?
- Extend your knowledge of lesson-planning techniques beyond this snapshot and learn more about other teaching pedagogies – such as adaptive teaching – sign up for the RSC’s self-led Effective pedagogy training course: rsc.li/4ge7gEI.
- Discover five key strategies to help implement cognitive science principles in lessons: rsc.li/4wtPmUv.
- Learn about different retrieval activities that aid student recall by developing anchors to build their learning: rsc.li/3TU3Nnm.
- Identify the root of similar misconceptions among students and how to repair them without reteaching entire topics: rsc.li/4guHtt5.
- Find out more about how to identify and plan for students’ prior knowledge in lessons: rsc.li/4qhhM2C.
- Use the EEF’s RADAAR framework to plan for misconceptions in chemistry lessons: rsc.li/45Yh5BJ.
- Explore concept cartoons, which could be used as retrieval activities or formative assessment activities to encourage students to think scientifically: rsc.li/3UwWv92.
- Download these resources to support 11–14 student concept mapping for revising acids: rsc.li/45pop9y.
Andrea Mallaburn





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