Adults already bring with them everyday knowledge on virtually every topic, with which they are able to address and solve certain questions in their own way. If new knowledge is now imparted without reference to this everyday knowledge, there is a danger that the new knowledge will never become effective.
CENF wants to build on these previous experiences and lead the learners to a higher level in everyday mathematics. The aim is to increase the self-confidence of the learners.
This module shows a model of concrete competence based on experience and presents the instruction methods (directly/indirectly).
In order to achieve learning success, it is important to take up the everyday knowledge of the learners and to make it possible for the learners to experience how the new knowledge develops their previous knowledge. The idea of Realistic Mathematics is an instructional method that is ideally suited to achieving learning success.
Teachers reflect on the suitability of these concepts for their teaching and consider examples that they can use. They also keep an eye on the different levels of performance of the learners.
Key issues
It’s about:
- to provide a model of effective knowledge and situational competence of adults
- Represent different learning objectives of adults and derive appropriate teaching methods from them
- Introduce the instruction methods direct instruction
- Get to know the approach of Realistic Mathematics
PD – Activity 2
Mr. Miller has a job interview
To study and discuss two or more examples of how this can be addressed in an Adult Numeracy activity. Mr. Müller has a Job interview
PD – Activity 3
Find your own examples and describe learning paths
To design by/with teachers of one or more Adult Numeracy Activities for his/her own teaching situation, exchange results between the teachers. Discuss. Suggestions
Reflection
Challenges for teaching?
To reflect on the levels addressed in this mini-module.
Information/background
- Knowledge Theory
- Productive Failure
- Needs of learning adults
- Realistic Mathematics
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Kees Hoogland (2010). Realistic Numeracy problems: in Maths At Work – Mathematics in a Changing World; Proceedings of the 17th International Conference of Adults Learning Mathematics (ALM); Oslo, 28th – 30th June 2010, p 58
Kaiser, H. (2009). Bausteine für ein Rahmenkonzept zur Förderung alltagsmathematischer Kompetenz. Zürich: SVEB. Knowledge Types – Integrated Learning Model http://www.hrkll.ch/typo/fileadmin/Texte/ILM/arten_des_wissens.pdf
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