Sure, I can try to help you with that. Procedural and conceptual understanding are two types of knowledge that are important for learning mathematics and science. Procedural understanding is the ability to perform facts and algorithms, such as adding fractions or balancing chemical equations. Conceptual understanding is the ability to reason and comprehend mathematical concepts, operations and relations, such as why fractions can be added by finding a common denominator or why chemical equations need to be balanced to conserve mass.
An activity where procedural and conceptual understanding co-exist is one that requires students to apply both types of knowledge to solve a problem and explain their reasoning. For example, in geometry, an activity could be to find the area and perimeter of a rectangle with given dimensions, and then explain how the area and perimeter formulas work and why they are useful for real world situations. This activity would involve procedural understanding to select and use the correct formulas, and conceptual understanding to understand what area and perimeter mean and how they relate to the properties of rectangles.
Another example, in chemistry, an activity could be to design an experiment to test how different factors affect the rate of a chemical reaction, such as temperature, concentration, or catalysts. This activity would involve procedural understanding to follow the steps of scientific inquiry, such as formulating hypotheses, measuring variables, controlling confounding factors, and repeating measurements. It would also involve conceptual understanding to understand why these steps are essential for ensuring objectivity, reliability, and validity of the experiment.
To link procedural and conceptual knowledge to the teaching and learning processes, it is important to provide students with opportunities to practice both types of knowledge and receive feedback on their performance and understanding. It is also important to encourage students to make connections between different skills and concepts, and to explain their thinking using appropriate terminology and representations. Some strategies that can help with this are:
- Using multiple representations, such as words, symbols, diagrams, graphs, tables, etc., to illustrate concepts and procedures.
- Asking students to compare and contrast different methods or solutions for solving a problem.
- Providing students with open-ended or non-routine problems that require them to apply their knowledge in new or unfamiliar contexts.
- Asking students to justify their answers or critique the reasoning of others using evidence and logic.
- Providing students with feedback that focuses on both their accuracy and their understanding of the underlying concepts and principles.