Foreword

Inquiry-Based Learning for Multidisciplinary Programs: A Conceptual and Practical Resource for Educators

ISBN: 978-1-78441-848-9, eISBN: 978-1-78441-847-2

ISSN: 2055-3641

Publication date: 19 May 2015

Citation

Cozza, B. (2015), "Foreword", Inquiry-Based Learning for Multidisciplinary Programs: A Conceptual and Practical Resource for Educators (Innovations in Higher Education Teaching and Learning, Vol. 3), Emerald Group Publishing Limited, Leeds, pp. xv-xvii. https://doi.org/10.1108/S2055-364120150000003006

Publisher

:

Emerald Group Publishing Limited

Copyright © 2015 Emerald Group Publishing Limited


It gives me great pleasure to write the Foreword for the third volume of Inquiry-Based Learning. As an educator, this topic has always been dear to my heart. It is a topic that is meaningful because this process of learning encourages higher level thinking processes for all learners at any level of study – thinking skills that are needed by all, for the 21st century. Inquiry is not a “method” of doing mathematics, science, literacy, or other subjects. Inquiry-based learning is an approach to tentatively explore, investigate, and discover answers to formulated questions. As Wells (1999) stated, equally important in an inquiry approach is that answers to questions are taken seriously and are investigated rigorously, as the circumstances permit.

In this volume, you will read about successful implementation of elements of inquiry that may be integrated in a variety of learning settings. I would suggest that as you read this volume you consider what inquiry should look like when the approach is used in your own educational setting.

As an educator, professor, teacher, and consultant, I continue to provide professional development for teachers and administrators that integrate the following inquiry components: (1) tap into the learners’ prior knowledge, (2) integrate collaborative work and hands-on experiences using materials, (3) follow the problem-solving process and strategies, (4) accept multiple solutions to problems, (5) encourage high-level thinking through open-ended situations, (6) create conversations around solving problems, and (7) reflect on ideas both in discussion and in writing (Cozza & Bonekemper, 2007). Unfortunately, I have found that an inquiry lesson is often falsely represented with teachers only focusing on asking students to perform hands-on tasks. I have also witnessed that inquiry is not usually an agenda to be integrated into an administrator’s vision action plan. What the reader should realize is that inquiry is not an all or nothing process. Like most instructional practices, it manifests itself along a continuum that shifts according to time, place, and circumstance (Audet, 2005) based on the influence of lesson topic and task, learning environment, and a student’s experiences.

Some factors to consider in an inquiry model are the following: the level of inquiry is based on the relative amounts of student versus teacher control over an activity, and that the inquiry process skills are developmental in nature. Based on my experiences, choosing the inquiry model in a lesson should be influenced by the topic of study, age level of the learner, amount of experience of the learner, and the nature of the task. It is important to note that merging inquiry into programs should be a gradual process overtime. Teachers and students need to gain an understanding of just what inquiry looks like during a slow release of control over classroom events.

An important framework to consider for a continuum of inquiry learning from grades pk-16 includes the following elements: students at all levels should progress through a cycle from questioning and hypothesizing to data collection, analysis, application, synthesis, and evaluation. How do teachers sequence instruction when using the framework? Although teachers’ approaches vary, a three series sequence of student performance occurs: messing around with materials, guided inquiry (Ritchart, Stone Wiske, Buchovecky, & Hetland, 1998), problem solving, and metacognitive applications (Cozza & Oreshkina, 2013). Teachers build on students’ prior experiences with initial explorations of central questions, materials, and issues about a topic. For example, in a science electricity class, third graders brainstorm and hypothesize just how lights turn on and off considering materials such as a light bulb, electrical wire, and a battery. During guided inquiry, small collaborative groups solve problem and use the materials to test how a bulb lights. Students record through drawings which diagram lights a bulb and which does not. The students explore, investigate, question, synthesize ideas and draw conclusions. As a culminating task, students become metacognitive and reflect on the investigation to understand just how they met the lesson goals. The inquiry process moves the learners’ performances from simple to complex thinking tasks, from structured to more open-ended activities, and from collaborative to more independent evaluations. This is the inquiry process that should be included in school vision plans, integrated into professional development programs for educators, and connected to all pk-16 classrooms.

Inquiry is the practice of extracting meaning from experience (Audet, 2005) and it is a habit that integrates naturally in the teaching and learning processes. High-level thinking skills (skills required for the 21st century) are interwoven through all inquiry endeavors. What I suggest is that readers of this volume consider the concepts presented and reflect on how such factors might influence and become meaningful for your own performance as a professional.

References

Audet (2005) Audet, R. H. (2005). Inquiry: A continuum of ideas, issues, and practices. In R. H. Audet & L. K. Jordan (Eds.), Integrating inquiry across the curriculum (pp. 515). Thousand Oaks, CA: Corwin.

Cozza & Bonekemper (2007) Cozza, B. , & Bonekemper, G. (2007). Fostering collaboration through professional development schools. In R. E. Ishler (Ed.), Professional development schools: Enhancing teacher quality (pp. 5977). Philadelphia, PA: Research for Better Schools.

Cozza & Oreshkina (2013) Cozza, B. , & Oreshkina, M. (2013). Cross-cultural study of cognitive and metacognitive processes during math problem solving. School Science and Mathematics Journal, 113(6), 275284. Retrieved from http://onlinelibrary.wiley.com/doi/10.1111/ssm.12027/abstract

Ritchart, Stone Wiske, Buchovecky, & Hetland (1998) Ritchart, R. , Stone Wiske, M. , Buchovecky, E. , & Hetland, L. (1998). How does teaching for understanding look in practice? In M. Stone Wiske (Ed.), Teaching for understanding: Linking research with practice (pp. 122158). San Francisco, CA: Jossey-Bass.

Wells (1999) Wells, G. (1999). Dialogic inquiry in education: Building on the legacy of Vygotsky. Cambridge, UK: Cambridge University Press.

Inquiry-Based Learning for Multidisciplinary Programs: A Conceptual and Practical Resource for Educators
Innovations in Higher Education Teaching and Learning
Inquiry-Based Learning for Multidisciplinary Programs: A Conceptual and Practical Resource for Educators
Copyright Page
List of Contributors
Series Editor’s Introduction
Foreword
Part I: Concepts and Principles
Innovative Approaches in Teaching and Learning: An Introduction to Inquiry-Based Learning for Multidisciplinary Programs
The Problem-Oriented Project Work (PPL) Alternative in Self-Directed Higher Education
Critically Examining Inquiry-Based Learning: John Dewey in Theory, History, and Practice
Folknography: Inquiry-Based Learning and Qualitative Research
Part II: Practices and Strategies
Resonance-Based Inquiry: An Epistemological Approach to Indian Studies
Developing an Interdisciplinary Inquiry Course on Global Justice: An Inquiry-Informed, Cross-Campus, Collaborative Approach
Inquiry-Based Learning as Foundational Pedagogical Tool for Critical Examination of Social Justice in Theory and Action
Inquiry-Based Learning as a Gateway for Exploration into Human Environmental Conflicts
Developing Digital Student Selves: Using an Inquiry-Based Approach to Explore Digital Confidence in Creative Learning
A Master’s Level Research Methods Class: A Practice Example of Inquiry-Based Learning
Problem Finding through Design Thinking in Education
Connecting Inquiry-Based Learning with Collaborative Work in Online Education
Using Inquiry-Based Learning Outside of the Classroom: How Opportunities for Effective Practice Can Animate Course-Based Learning
Chaos and Order: Scaffolding Students’ Exploration during Inquiry-Based Learning
The Life Arts Project: Application of an Inquiry-Based Learning Model for Adult Learners
Reconfiguring Affective, Conative and Cognitive Outcomes in IBL: A Multi-Disciplinary Case Study
Enhancing Inquiry-Based Online Teaching and Learning: Integrating Interactive Technology Tools to Scaffold Inquiry-Based Learning
Multidisciplinary Online Inquiry-Based Coursework: A Practical “First Steps” Guide
Inquiry in the Coaching Experience: Reflective Strategies for Transformative Change
Classroom without Walls: Inquiry-Based Pedagogies and Intercultural Competence Development via Service-Learning
About the Authors
Author Index
Subject Index