e-Didactics

Engineering of Learning: Conceptualizing e-Didactics
Chapter 1. E-didactis: Digital age didactics. Mourat Tchoshanov.
A Reading Report.
By CEAF
Traditionally, we have considered Didactics as the study of teaching and learning to facilitate instruction and to make the teaching-learning process effective through the analysis of content, learning styles, group arrangement, assessment, etc.; however, the fact that we have a well established conception of this discipline doesn´t mean it is free of questions and argumentation.
One of the main discussions is about considering Teaching as an Art rather than a Science. Both groups have their arguments to state their point; while the Teacher in front of a group has to face to reality: he needs to find a road to join and combine this Art and Science at the same time to do his best and to get the best from his students. He has to analyze the different elements (content, assessment, learning objectives, etc.) to design and implement the adequate academic sequence that will help him to reach his final goal. This is called by Tchoshanov as Didactic Engineering.
Additionally, the teacher has to consider that his students are way different from those he had 10 years ago; the world is evolving every day, and so has he and his Teaching. The classical triangular representation of Didactics as the interaction between Teacher, Learner and Content in a unique context doesn´t represent anymore the truth of the classroom. Tchoshanov suggests to consider it as a Tetrahedron, because we have to consider the influence of technology on teaching and learning; this figure represents the existent relationships between teacher-learner-content, learner-content-technology (e-learning), teacher-content-technology (e-teaching) and teacher-learner-technology (e-advising). This tetrahedron represents the integration of technology, pedagogy and content.
Consequently, the teacher has to change his teaching method, his planning needs to be re-evaluated, re-designed and re-built, specially if he is teaching an online or partially-online course. He is no more the wise person that transmits his knowledge, now he is an engineer of student’s learning and the student is a connected learner more than a receptor. The material he used to prepare and use in his lessons is no longer useful, he needs to include hypertext, media, interactive content.
From a traditional knowledge and application of Didactic the actual teacher has to move to the new e-Didactic “(The) ICT-integrated didactics with a focus on engineering of learning.”(Tchoshanov,2013), considering engineering as the: analysis, design, modeling, construction and development of effective learning environments, through the change of learning objectives, the creation and use of digital content and an appropriate assessment..





Chapter 3- The Engineering of Learning Toolkit

At the end of the day, despite all the multiple factors a teacher has to think on to prepare and plan his lessons, he must know that the design of Learning Objectives is a keystone made by specific objectives, contents and expected outcomes that will assure success. Its design will be easier if the teacher follows Bloom’s Taxonomy to assure he is not stocking his students on a level neither assigning upper-leveled tasks.
Created 50 years ago, Bloom’w Taxonomy has been a guide for educators and there have been several researchers, who analyzed it, some of them have suggested to modify it at some points; some of the suggested modifications are: a)It doesn’t explicit address the cognitive processes of perception, memory, thinking and intuition, b)Application, analysis and synthesis are not well distinguished.
On the other hand, W. Gerlach and A. Sullivan (1967) propose a Taxonomy based on learning objectives, consisting of:


Additionally, J. Guilford (1967) proposes a spatial model based on: contents, products and operations to develop the intellectual abilities of students.


While Gange and Merill(Gagne, 1964; Merrill, 1971)  propose a Taxonomy that integrates different domains of learning: cognitive, affective and psychomotor.



On the other hand, Marzano and Kendall (2006) propose a model based on3 systems and a knowledge domain.


All of these contributions will help the teacher to turn himself into an engineer and build his own representation. He has to select and build the learning activities based on the learning objective because they will make possible the existence of learning outcomes. To design appropriate didactical situations, the author proposes KUTP model.

Cognitive Tutoring
Cognitive tutoring is a result of innovation and technology, which provides individualized tutoring. An example of it is the called CTA (Cognitive Tutor Algebra that proved to motivate students because: it presents authentic problem situations, its structure is similar to playing a video game, students don’t feel exposed if they make a mistake, and they feel empowered knowing that they are mastering Math. These computer programs are based on cognitive models that adapt the activities according to students’ answers by identifying misconceptions they can provide of appropriate help, scaffolding the user.
However,  Tutoring programs cannot substitute a teacher, they are able of presenting external representations to students, of providing immediate feedback and scaffolding, but they cannot identify their internal representations. Curriculum standards require students to manage both, external and internal representations to identify situations, solve problems and interpret the real world through a continuous, mutual, influence.
To assure that students are building a complete recognition and understanding of the world, the presented activities have to change him through internalization and externalization. A multi-representational approach is needed to help student understand contents and enrich their representational thinking. The best method to attain it is through Authentic practices.
When designing tasks, the teacher has to include some strategies (a) situate authentic practices in meaningful contexts; (b) reduce the complexity of authentic practices or cognitive load; (c) make implicit elements of authentic practices explicit; and (d) sequence learning activities according to developmental progression. Considering at the same time, the curriculum , tools, resources and social structures the group has.


Strategies to engage students’ prior knowledge:




Strategies to develop students’ procedural fluency within the conceptual framework



Strategies to foster student’s metacognition and self-monitoring



Assessment of Learning Outcomes

TRADITIONAL ASSESSMENT
NEW ASSESSMENT

Discrete
Continuous
Learning is a continuous process, the student can correct his mistakes while he advances
Isolated
Interdisciplinary
Instead of memorizing and knowing of procedures, understanding and reasoning have to be evaluated. In university levels, the student should include other subjects to solve a situation.
Focusing on a single measure
Focusing on diverse assessment
Variability of instruments. Diversity of assessment methods, group assessment, multiple intelligences.
Primarily quantitative
Qualitative and integrated
It must be multi-dimensional to have a long term evaluation of students’ intellectual potential as a learner
Prescribed
Flexible
Traditional system is strictly determined by policy regulations
Standardized
Open
It should be open and natural to relieve stress and tensions, with personal, cultural and social relevance to students
Assessment
Self- Assessment
Teacher is not a judge, he is a consultant, a facilitator
 Tchoshanov, M. (2013).Engineering of Learning:Conceptualizing e-Didactics.

UNESCO.

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