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Education Sciences
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22 January 2021

Teaching Mathematics in a Context of Lockdown: A Study Focused on Teachers’ Praxeologies

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1
IFÉ-ENS de Lyon S2HEP, University of Lyon, 69007 Lyon, France
2
Department of Mathematics, Sapienza University of Rome, 00185 Rome, Italy
3
Faculty of Mathematics, University of Duisburg-Essen, 45127 Essen, Germany
4
Graduate Program for Science & Technology Education, Ben Gurion University of the Negev, Beer-Sheva 84105, Israel
This article belongs to the Special Issue Teaching and Assessing Mathematics in a Digital World

Abstract

This study aims to explore how teachers from four countries—France, Israel, Italy, and Germany—manage their teaching–learning activity in the context of lockdown due to the COVID-19 pandemic. About 700 teachers from the four countries participated in this study. They were given an online questionnaire that involved 22 open-ended items, in which they were requested to complete the items that were structured taking into account the relationships between teacher, students, mathematics and resources. The qualitative analysis of teachers’ answers was carried out, referring to both the meta-didactical transposition model and Bishop’s framework on values to investigate teachers’ teaching–learning activities and the reasons underlying their choices. The empirical analysis suggests four tasks corresponding to the main challenges that teachers had to face during the time of lockdown: (a) managing distance learning to support students’ learning through specific methodologies; (b) managing distance learning to develop assessment; (c) managing distance learning to support those students that face difficulties and/or are living a difficult situation/developing inclusive teaching; and (d) managing distance learning to exploit its potentialities for fostering typical mathematical processes. The values that motivated the teachers to change their teaching–learning activities are discussed, conclusions of how the time of lockdown affects the mathematics teaching is drawn, and finally, recommendations and insights from this study are shared.

1. Introduction

February 2020: In most parts of the world, the mathematics classroom is a place where students and teachers meet, explore mathematical concepts, share ideas and learn together. Teachers interact with students, they keep track of and support the students’ learning, and many teachers use multiple—digital and non-digital—resources for the teaching and learning of mathematics.
March 2020: In many parts of the world, teachers and students are isolated. Schools are closed and—if at all—the only connection to other students or to the teacher is by phone or virtual meetings. Teachers reflect on their teaching and feel the challenge of securing educational justice by what they do.
Education is a total fact []. This means that education is directly linked to the whole organization of a society. The school is one of the institutions that make up society. It is based on human values that require the advancement of society, passing on to future generations the knowledge accumulated over centuries with the will to develop it for the good and security of all citizens. When an event happens that upsets the entire organization of society, the school has to adapt and show that it can do it.
“It would be a mistake to talk about school as a small independent world. It has no end and no law of its own. Made by the country, for the country, at all times school is accountable to the country. Especially in the time we are living in!” (“Ce serait une erreur de parler de l’école comme d’un petit monde indépendant. Elle n’a ni fin ni sa loi en elle-même. Faite par le pays, pour le pays, en tout temps elle lui doit des comptes. Combien plus dans celui que nous traversons!”) [] (p. 233, translated by the authors).
This sentence, written by Buisson in 1915 after the terrible ordeal of World War I, can still be applied to this unprecedented period we are going through. The current health crisis is an unprecedented, unforeseen event, which has surprised and profoundly changed the way society functions. The question therefore arises: How did the school react? In particular, distance learning (DL) has spread to all countries without prior preparation. Although many studies have been carried out in recent decades on distance learning [,], including MOOC [], these have always been experiments involving volunteer teachers and students. This event has brought about a radical change of scale. It is precisely this change that we wished to understand by looking at the key players in this transformation, the teachers, and in our case, the mathematics teachers. We therefore wished to ask them on the spot about how they were—and still are—managing this situation.
We also wanted to observe and analyze the mathematics teachers’ behavior in our four countries (France, Italy, Israel and Germany) and we propose a study of the teaching methods and conditions of teaching. We, too, were in a lockdown situation and we had to adapt our research methodologies and research questions to this particular situation. As mathematics educators, we attach great importance to the knowledge at stake. We based our study on a questionnaire that has been sent to teachers, using professional and research organization channels. Even if the number of answers is sufficient to give statistically relevant results, the data collection could not be scientifically verified to the point where we could reasonably report statistics, and we preferred to analyze the data collected in a qualitative manner. The main question that this paper addresses is:
How do teachers manage mathematics teaching–learning during lockdown and how do they justify their actions and choices?
In the first part of the paper, we explain in detail the theoretical framework and the methodology, both for the elaboration of the questionnaire we sent to teachers, and for the way we analyzed the data. The second part of the paper proposes the main results we have drawn from the analysis of the data.

2. Theoretical Framework

To identify the challenges and the opportunities teachers met during time of lockdown, we used three theoretical ideas: (a) The idea of the didactical tetrahedron [] that guided our design of the questionnaire and supported us in framing teachers’ answers; (b) meta-didactical transposition [], by which we identified the meta-didactical praxeologies; and (c) Bishop’s framework [] on values in mathematics education, by which we interpret the factors that motivate teachers’ behavior and choices.

2.1. Didactical Tetrahedron Model

The didactical tetrahedron is a model that describes the relation between students, teachers, resources and mathematics. It has been extensively used, especially in the context of mathematics teaching and learning, to capture and describe the complexity of educational phenomena. In recent years, special attention has been paid to the role of resources used in the mathematics classroom (e.g., [,,]), some of which have special focuses, e.g., on digital tools [] or professional development []. Whereas the term resources in the didactical tetrahedron is used in a general way, the context of this paper focuses on digital resources.
The use of didactical tetrahedron allows a structured way to address different kinds of phenomena and their intertwined relation. On the one hand, the model was used in a constructive way to structure the questionnaire used in this study. In other words, certain questions address specific vertices, edges or faces of the didactical tetrahedron (Figure 1). On the other hand, it was also used, as a starting point, to identify the main focus of teachers’ answers from an analytical perspective.
Figure 1. Didactical tetrahedron model.

2.2. Meta-Didactical Transposition

Although the didactical tetrahedron allows us to address the components that are involved in teaching–learning processes during the lockdown, and the interaction among them, it was limited in describing the activities conducted by teachers during the teaching processes and in reflecting on the reasons that guided their choices. To do so, we used the Meta-Didactical Transposition (MDT) model [].
The MDT is based on the Anthropological Theory of didactics [,], which postulates that any activity related to the production, diffusion, or acquisition of knowledge should be interpreted as an ordinary human activity, and thus proposes a general model of human activities built on the key notion of praxeology. Relying on the etymology of the word praxeology, Chevallard [] defines it as interrelated components of praxis and logos. Praxis is the practical part and logos refers to human thinking and reasoning. Praxis is composed of “types of tasks” and a set of “techniques” to carry out some of the tasks of the given type. The logos is made of two levels of description and justification of the praxis. The first level is called a “technology”, in the sense of the “discourse” (logos) of the technique, i.e., the term technology is used in the sense of justification and validation of the chosen technique. The second level is called the “theory”, and its role is to provide a basis and support for the technological discourse. In our paper, we will refer to the logos level with the term justifying discourses, as introduced by Arzarello et al. [].
Meta-didactical praxeologies (in the following, MDP) are developed when a reflection on a didactical praxeology is carried out. This reflection is focused on the thoughts that guide teachers’ actions and is aimed at describing the techniques and at justifying the choice of these techniques in a given context. The MDT was initially used in the context of professional development programs. Later on, it was adapted for the case of collaborative research, which we use here in the broad sense of research involving different communities and institutions [,,,,,].
Teaching mathematics in a time of lockdown, a hitherto unseen context, required mathematics teachers to adapt their usual didactical praxeologies (DP) to fit the new situation. The teachers’ answers to the open-ended items of the questionnaire used in this study could be conceived as an initiation of a potential dialogue between teachers and researchers. Due to the questionnaire, in fact, teachers are invited to present the adaptation of their DP, developing justifications about the choices they made. This interpretation poses teachers’ answers at a meta-level, since it is the beginning of sharing their reflections with the researchers. The fact that the teachers do not limit themselves to only describing what they do (they, in fact, share ideas, reflections, doubts, etc.) represents evidence of teachers’ need to pose their discourse at a meta-level. Hence, we found that the MDT framework was effective for our investigation.

2.3. Values in Mathematics Education

While the MDT framework allows us to identify, within teachers’ reflections, the praxeologies they used to manage the teaching process in time of lockdown, it does not help us to interpret the teachers’ motivation for changing their praxeologies. To understand the teachers’ motivations for adapting previous praxis to the new situation, we adopted Bishop’s framework on values [].
We refer to the idea of values because we think that the choices that teachers made with respect to the lockdown were influenced by the set of values (often unaware) they had developed, even if they were not explicitly declared. In particular, we will focus on values related to mathematics and its teaching; we are aware that it is also possible to adopt a more general perspective, reflecting on human values in general, but we are adopting an educational—not philosophical—perspective on values.
Bishop [,] stresses that values can be highlighted when people have the possibility to choose between alternatives: “values are revealed at choice points” [] (p. 6). This time of lockdown could be seen as a moment in which teachers had to confront a choice of what to do in relation to the main task that is in front of them: facing DL. To identify the values that guide teachers’ practices, we will refer to the six pairs of values that Bishop introduced within the three categories of ideological, individual and social values []:
“Mathematics, as a cultural phenomenon, only makes sense if those values are also made explicit. I have described them as complementary pairs, where rationalism and objectivism are the twin ideologies of Mathematics, those of control and progress are the attitudinal values which drive Mathematical development and, sociologically, the values of openness and mystery are those related to potential ownership of, or distance from Mathematical knowledge and the relationship between the people who generate that knowledge and others.” [] (p. 82—quoted by Bishop et al. in [], p. 8).
In Bishop et al. [], teachers’ values are investigated both in the realm of mathematics and science education. In particular, the value of empiricism is substituted for that of objectivism.
Hence, the research questions to be investigated within this study are:
  • Which sub-tasks for teachers and corresponding MDP (including techniques and justifying discourses) can be identified in the context of distance learning in mathematics during the pandemic?
  • How are the MDP related to the didactical tetrahedron?
  • What values lead the logos part of these MDP?

3. Methodology

The study aims at getting insights into the praxis of mathematics teaching and learning in the context of the COVID-19 pandemic. This situation is characterized by the need to find new ways of acting within society, and this holds especially true for education. Hence, there is no scientific empirical evidence about how teachers and students deal with this kind of situation. Therefore, empirical evidence is needed, but the process of gathering data is also affected by the pandemic. On the one hand, detailed knowledge is needed in order to find out more about the educational praxis. On the other hand, it can be expected that these praxes are very different and depend on many (e.g., social, political, and institutional) factors. Hence, there is also a need for a wider view that captures these differences.

3.1. The Questionnaire

To answer our research questions, we structured a questionnaire that included 20 open-ended items and two closed items. We grouped the questionnaire items into five sections. The first section was devoted to general information about the teachers, while the other four sections referred to the tetrahedron vertices, edges and faces.
Although the focus of the items in each section is different, all items were focused on the teaching–learning of mathematics in the context of lockdown.
The questions of the first group focused on the interactions that teachers (and students) have with resources (hence, T-S-R face): in the emergency of the situation, what tools are teachers turning to? What guides their choices, between institutional recommendations and teachers’/students’ familiarity?
The questions in the second group were aimed at investigating the way in which teachers use specific resources to manage fundamental tasks related to the teaching of mathematics at distance (organization of the lessons, assessment, support to students who face difficulties), their level of confidence with these tools and also the feelings that the situation gives them (mainly faces T-S-R and T-R-M).
Through the third group of questions, we particularly focused on how teachers were managing the interactions between their students and the knowledge at stake (face T-S-M) and on how they evaluate the effects of these interactions in terms of students’ participation and learning (face S-R-M).
Finally, the fourth group of questions focused on the mathematical knowledge that teachers taught during this period (face T-R-M), with a particular focus on teachers’ feelings about the potentialities and disincentives of the situation.

3.2. Participants and Context

In total, 684 teachers from four countries volunteered to answer an online questionnaire authored especially with the aim of this study in mind. Table 1 summarizes the distribution of the teachers’ numbers in each country and the grade level in which they are teaching.
Table 1. Distribution of the teachers in each country and the grade level.

3.3. Data Collection

To collect the data, we prepared a Google form for the items of the questionnaire. The questionnaire was distributed widely and randomly using teachers’ professional lists, personal contacts or announcements in professional journals. Teachers who agreed to participate in this study submitted the filled-out questionnaire. Participation in this study was anonymous, and personal information about the participants was not collected. In this way, we created a database of the teachers’ responses, which served as the data for this study.

3.4. Data Analysis

The data analysis was carried out in two rounds. Although we had a large amount of data, our aim was to carry out a qualitative analysis to understand how the teachers manage their teaching in time of lockdown. In the first round, we read through the teachers’ answers of the questionnaire and identified challenges within the main task of managing the teaching processes in the lockdown. Each of these challenges corresponds to a sub-task (see Section 4). Independently each researcher identified challenges that teachers made explicit within their answers, including the choices they made to face these challenges, the techniques they used and underlying justifications. Once each researcher had identified the subtasks for his/her country, a common decision was made in order to identify sub tasks relevant to all countries.
In the second round of the analysis, specific questions within the questionnaire were associated with each of the identified sub-task. This enabled us to develop a coding of each item within teachers’ questionnaire. We then focused on teachers’ answers to the questions associated with each sub-task with the aim of developing an in-depth analysis of teachers’ answers to identify different MDP corresponding to each sub-task. There were cases where the teacher’s answer did not clearly represent a certain MDP. In the cases in which the teacher’s answer to a specific question did not support us in identifying a specific MDP, the answers were cross-checked with other answers by that teacher in order to get a clear result. If there was no clear result, the item was marked as “not sure”. Within the course of the data analysis of the teachers’ answers significant examples including techniques and justifications were identified. Additionally, the distribution of the sub-tasks and the corresponding MDP over the questionnaire was determined.

4. Results and Discussion

The result of the first round of our analysis was the identification of four sub-tasks, within the main task of managing DL in time of lockdown:
  • Sub-task 1: managing DL to support students’ learning through specific methodologies
  • Sub-task 2: managing DL to develop assessment
  • Sub-task 3: managing DL to support those students that face difficulties and/or are living a difficult situation/developing inclusive teaching
  • Sub-task 4: managing DL to exploit its potentialities for fostering typical mathematical processes
For each of these sub-tasks we identified two MDP, thanks to the second round of analysis, allowing us to classify the answers and to give an overview of the techniques and of the justifications of these techniques linked to the fundamental values on which teachers rely. The following table (Table 2) summarizes, for each sub-task, how the task can be framed referring to the didactical tetrahedron (column 2) and the MDP connected to the task itself (column 3). The characterization of the MDP, together with an analytical presentation of the results of the second round of our analysis will be proposed in the next paragraphs.
Table 2. The four sub-tasks, their reference to the didactical-tetrahedron and the corresponding meta-didactical praxeologies.

4.1. Sub-Task 1: Managing DL to Support Students’ Learning through Specific Methodologies

The task of managing DL to support students’ learning was accomplished using techniques based on the teachers’ convictions, which we analyzed through the answers given to the questionnaire. The management at stake is the result of interactions between teachers and students in their relationship to available and usable resources. In addition, the results of this management concern the students’ relationship with knowledge by using resources. In this section, we distinguish two MDP, one related to a transmissive approach to learning and another focusing more on the interactions with students. The widespread ideas related to these MDP are summarized in the Table 3 and Table 4, supported with excerpts from teachers’ answers.
Table 3. Meta-didactical praxeology related to a transmissive approach to teaching.
Table 4. Meta-didactical praxeology related to an approach to teaching focused on the teachers’ interaction with students.

4.1.1. Meta-Didactical Praxeology Related to a Transmissive Approach to Teaching

As expressed by the teachers, adopting this praxeology stems either from a conviction of a way of teaching based on learning hypotheses of a rather transmissive nature, or from the impossibility of setting up classroom situations in which students would be more active players in their learning.
In the four countries, this praxeology was the most represented, with around 70% of the interpretable answers with non-significant differences between countries.
The techniques that teachers put forward are often linked to a precise organization of the courses, relying on tools, either institutional (when institutional injunctions are strong), or shared and familiar to the students. Teachers justify this strict organization by the desire to maintain continuity between the classroom activities they used to give and the new online activities.
Teachers describe a struggle between the willingness to carry on as before in the classroom and the disappointment of not achieving exactly what they want, in particular in the case of those students that they cannot reach because of the working conditions. Even if they actually see the limitations of these techniques, particularly to introduce new contents, they mostly want to take advantage of DL to consolidate previously acquired knowledge.
The values of control and rationalism, which can be associated with the general idea that the main role of school is to essentially transmit knowledge, support the logos part of the praxeology. In this uncertain time, the willingness to assure security to students leaning on precise and established rules, using shared and confident tools leads teachers to focus on maintaining acquired knowledge and competencies:
“I prefer the usual tools (numerical, manual, …)” and “The work sent back is often more careful and rigorous than that usually rendered.” (France, upper secondary).

4.1.2. Meta-Didactical Praxeology Related to an Approach to Teaching Focused on the Teachers’ Interaction with Students

In this MDP, the techniques that were mainly put forward were similar to those in the previous praxeology, but the justifications focused more on the need to maintain contact with students and encourage their work, by arranging meetings with the teacher or mutual aid. Teachers highlight the new kind of relationships that they have established with their students. However, this personal investment is demanding for teachers because of the difficulties linked to the working conditions (unstable network, poor reliability of institutional platforms, family constraints) and also to the impossibility to reach all students and particularly those who have difficulties.
The main justifying discourses that teachers develop are centered on students’ capacity to learn through social interactions. For this reason, we associate this MDP with values of empiricism, openness and progress, which means focusing on an experimental view of mathematics as a field to develop creativity and criticism.

4.2. Sub-Task 2: Managing DL to Develop Assessment

A task that is of great importance for teachers is to assess students. There is a distinction between the functions of assessment that can be described as assessment of learning and assessment for learning, often classified as summative assessment and formative assessment [,]. Through the analysis of teachers’ reflections on the changes and adaptations of their ways of assessing students due to the emergency situation, we have highlighted that both forms of assessment still exist, and we identified two corresponding main MDPs associated with a formative and a summative conception of assessment (in the following FA and SA, respectively). The widespread ideas related to these MDP are summarized in the Table 5 and Table 6, supported with excerpts from teachers’ answers.
Table 5. Meta-didactical praxeology related to a formative conception of assessment.
Table 6. Meta-didactical praxeology related to a summative conception of assessment.

4.2.1. Meta-Didactical Praxeology Related to a Formative Conception of Assessment

Most of the teachers, in all countries, showed that the quarantine time forced them into adopting a FA perspective, focusing on an assessment aimed at helping students in their learning:
“The dramatic conditions of the historical period we are experiencing are such that even imagining to evaluate numerically as before student learning is incorrect, prone to systematic errors and inadequate with respect to the motivations and skills of students. I think it is more appropriate to observe and enhance”.
(Italy, upper secondary)
Teachers employed different techniques to develop FA processes. Some of these techniques were adopted also by teachers who showed a SA perspective: asking students to send their homework, reading and correcting the written files shared by students, proposing tests without marks (for example, multiple-choice questionnaires), stimulating students in explaining their difficulties in order to support them and give new explanations.
In their justifying discourses about these techniques, teachers mainly stress on the need for monitoring students’ work at distance to highlight their understanding and give support and feedback to students about where they are in their learning [].
Other techniques are justified by teachers referring, implicitly, to specific FA strategies []: (1) asking students to take notes of their daily work, explain their reasoning and construct argumentations, with the aim of sharing the learning objectives with students and highlighting their real understanding; (2) making students work in small groups, which is linked to the aim of activating students as resources for each other; (3) developing classroom discussions to highlight students’ understanding and give in-the-moment feedback, to make students focus on mistakes as resources to reflect on their learning and become aware of their difficulties; (4) fostering students in becoming responsible for their own learning, which is expressed through the idea that DL makes learning an aware choice for students.
For the teachers who adopted an FA perspective, assessment was conceived of as a way to keep contact with students and to support them in developing ongoing reflections on their learning processes, creating a context in which the comparison of ideas and the reflections at a metacognitive level become a shared habit of the agents involved in the FA process. For this reason, this praxeology could be associated with the values of empiricism and openness.

4.2.2. Meta-Didactical Praxeology Related to a Summative Conception of Assessment

Even when teachers declared that they did not (or must not) give marks and that the traditional way of assessing is not possible in DL, in many cases their discourses highlight a SA perspective. This is evident, for example, in the case of those teachers who declare that, in front of the impossibility of controlling the personal work of students, they prefer not to assess rather than to radically change their assessment habits. In their complaints about the impossibility of assessing at distance, teachers refer to ideas such as: (a) the difficulty in integrating the marks given before the lockdown (perceived as authentic marks) and the distance-assessment; (b) the impossibility of maintaining fairness; (c) the difficulty associated with the need for identifying new effective foci for assessment (commitment, punctuality, participation, correction of mistakes…); and (d) the impossibility of grasping students’ reactions through their gazes, gestures and attitudes.
The main techniques adopted by the teachers whose answers refer to this MDP are oral tests or written tests in the form of multiple-choice or open-ended questionnaires. Most of the teachers’ justifying discourses refer to the lack of reliability of tests when they are developed at distance and to the main problems that could prevent teachers from effectively using these techniques, such as students’ lack of tools needed to effectively assess them or, on the opposite side, students’ use of digital resources that could support students too much in solving tasks in written tests.
Another frequent element in teachers’ reflections about assessment is a focus on the fundamental role played by students. While teachers who display a FA perspective stress on the importance of making students take responsibility of their own learning, the teachers who show a SA perspective mainly complain about their powerlessness in front of students that are not honest.
Since the justifications proposed by teachers who adopted a SA perspective, even when they refer to the final aim of fostering ideas such as fairness and equity, mainly lean on the willingness to maintain established rules that should characterize mathematics teaching and learning, the logos of this praxeology can be mainly linked to the value of control.

4.3. Sub-Task 3: Managing DL to Support Those Students that Face Difficulties and/or Are Living in a Difficult Situation/Developing Inclusive Teaching

Supporting students who face difficulties in the learning process is a central task for teachers: enabling students to overcome their difficulties is particularly important to effectively involve them in the teaching–learning process and to motivate them.
We identified two main MDP associated with this task: the first one connected to a “traditional perspective”; the second one associated to an individualized approach to teaching–learning processes. The widespread ideas related to these MDP are summarized in the Table 7 and Table 8, supported with excerpts from teachers’ answers.
Table 7. Meta-didactical praxeology related to traditional perspective on supporting students with difficulties.
Table 8. Meta-didactical praxeology connected to a vision of supporting students with difficulties through individualized teaching–learning.

4.3.1. Meta-Didactical Praxeology Connected to a Traditional Perspective on Supporting Students with Difficulties

The majority of the teachers in the four countries (about 70%) adopt this perspective to support their students during the time of lockdown.
The techniques mainly used in this praxeology lean on a direct interaction with students and they are related to the use of available tools: referring to the school textbooks, correcting exercises, taking time to explain and re-explain contents to students, and sharing videos or other resources that address students’ difficulties.
The main theme in teachers’ justifying discourses that makes us associate these discourses to a “traditional perspective” on supporting students is that teachers stress the idea that the most effective form of support consists in providing further explanations to the students. Although some teachers declare that they try to involve students directly in the teaching–learning process, devoting time to moments in which students are asked to formulate their own questions before each lesson and adapting the exercises proposed to students to their level in mathematics, the main focus of their discourses is on the fact that supporting means providing general (not individualized) other materials, such as corrections of exercises, that students are asked to use to be able to follow the lessons at their personal rate.
Since the focus is, therefore, on procedures and rules that must be learnt and repeated until they become adopted and incorporated as a basic knowledge available to students, we associate this MDP to the values of control and rationalism.

4.3.2. Meta-Didactical Praxeology Connected to a Vision of Supporting Students with Difficulties through Individualized Teaching–Learning

The main idea related to this MDP is that giving support to students means individualizing the didactical paths in order to enable all the students to reach common objectives.
This MDP is related to an approach to teaching focused on the teachers’ interaction with students (MDP 1a), since teachers show to have adopted a bi-directional and direct communication with their students, characterized by an interactive approach.
Some teachers declare that, in the quarantine time, supporting students who face difficulties is an easier task to manage than in normal times: “Paradoxically, having the time and energy, I think it is almost easier to help students in difficulty in this situation than in a traditional environment” (Italy, upper secondary school).
The techniques mainly used to develop this approach are: using a variety of digital tools such as phone, mail, forum to interact individually with students, making students work in small groups, giving individual explanations through audio or video-recordings, adding specific comments to the students’ answers.
In their justifying discourses, teachers emphasize that individualized support is required to address students’ individual differences. Moreover, they refer to an FA perspective on teaching, identifying in peer-assessment an effective way of supporting students, since students themselves are aware of the difficulties their classmates might face and can give meaningful feedback to them. Another frequent element in teachers’ discourses is a stress on the importance of involving students as being responsible for their own learning: students’ willingness of participating in the teaching–learning process is a necessary condition for effectively supporting them.
We relate this MDP to the value of openness, since the teachers aim to develop students’ understanding of mathematical constructions allowing them to develop their own explanations built on discussions and personal constructs, either through teacher–student interaction or student–student interaction.

4.4. Sub-Task 4: Managing DL and Exploiting Its Potentialities for Fostering Typical Mathematical Processes

It is of considerable interest to study the way the teaching of certain mathematical topics and concepts has changed during DL. Due to the emergency situation, teachers had to adapt their teaching, reflecting on the kind of mathematics that has a certain (or no) potential for learning in this special period. This especially includes the potentialities and limitations for fostering typical mathematical processes. Skemp’s [] theoretical concepts of relational versus instrumental understanding as well as conceptual versus procedural knowledge [] describe two aspects that are both essential for mathematical understanding. In the case of DL, in quarantine time, there is, for many teachers, an internal fight between what seems good and what seems possible or what is possible with their own technological knowledge and the context in which they work and in which their students work.
The following reflection highlights that some teachers felt forced to adopt a procedural approach to teaching, not in tune with their idea of teaching:
“Difficulty in learning mathematical concepts that I simplified so that they could be accessible to everyone, but probably not a correct choice. I have minimized the conceptual difficulty and I am implementing a procedural type of mathematics, more reassuring, but less effective” (Italy, primary).
Looking at the data some teachers seemed to be challenged by the new situation in a positive way and especially addressed conceptual thinking and inquiry-based learning settings during distance learning. Others seemed to reduce the conceptual challenges or stayed with teaching rather procedural notions of mathematical concepts.
Hence, we distinguish two MDP, one that focuses on teaching for conceptual/relational understanding and another that focuses on teaching for instrumental/procedural understanding.
The widespread ideas related to these MDP are summarized in the Table 9 and Table 10, supported with excerpts from teachers’ answers.
Table 9. Meta-didactical praxeology focused on teaching for conceptual/relational understanding.
Table 10. Meta-didactical praxeology focused on teaching for instrumental/procedural understanding.

4.4.1. Meta-Didactical Praxeology Focused on Teaching for Conceptual/Relational Understanding

This MDP, adopted by a minority of teachers in our survey (about 30%) with no significant differences between the countries, is related to a view on mathematics that puts conceptual understanding to the fore and it is often based on the idea that mathematics is a science of patterns and structures (c. f. [,,]). The techniques related to this view especially include to propose mathematical situations where students can experience their mathematical knowledge, problem solving, real mathematics, or “living” mathematics. The description of such techniques shows the need for curiosity and creativity.
There is also a wish to pose problems that foster critical thinking and an understanding of the current situation:
“I asked my students to model the evolution of the number of deaths by the Covid19, it was necessary to use a spreadsheet and a dynamic geometry software (GeoGebra)” (France, upper secondary).
“Modelling of the Covid 19-infection numbers in different countries with the current data of johns Hopkins related to different models (exponential, (...) logistic) (...).” (Germany, upper classes of Gymnasium).
The teachers justify these techniques by referring to a strong conviction that good mathematics teaching requires the students to grasp conceptual/relational understanding. Hence, even at distance, doing mathematics is to be confronted to conceptually challenging mathematical situations. Mathematical epistemology suggests that mathematical objects can live when manipulated, experienced and deduced by reasoning grounded on the structures. Teachers’ justifications focus on the importance of guiding students to ask themselves “why” and develop conjectures starting from their direct exploration of problems. Some teachers, in particular, stress that inquiry-based learning activities, to be developed by students in groups to foster comparison and reflection, play an important role during DL. A widespread idea in teachers’ discourses, which is strictly related to a focus on inquiry-based teaching–learning, refers to the key role that multiple-representations play in fostering students’ construction of mathematical objects as the basement for conceptual understanding. Teachers stress that DL is an opportunity to exploit the potentialities of digital representations, stressing the possibility of exploring mathematical situations taking into account different facets of the same object.
Since teachers’ focus is on mathematical situations that foster students’ interest, exploration and creativity (associated with an experimental view of mathematics), we relate this MDP to the values of empiricism, openness and progress.

4.4.2. Meta-Didactical Praxeology Focused on Teaching for Instrumental/Procedural Understanding

This MDP is related to a view on mathematics that puts a rather procedural and instrumental understanding of mathematics to the fore. Typical related techniques include proposing exercises to apply results, focusing on calculation, using online learning-videos mainly focused on procedural aspects of mathematical concepts instead of conceptual understanding. The teachers’ focus is, therefore, on activities aimed at training students to an operational and mechanical mathematics.
Many teachers from all countries justify these techniques, stressing that technical topics are predominantly used for teaching during DL. This focus on a procedural/instrumental approach to mathematics teaching–learning is not necessarily related to a vision of teaching for procedural understanding. Instead, teachers seem to stress that DL can only be carried out by teaching rather procedural topics, since, when students work on technical skills, it is easier to follow their work and to correct them.
Since the choice of focusing on procedural teaching–learning highlights a vision of mathematics as a language that needs to be mastered in order to explore its world, this MDP is associated with values of rationalism and control.

5. Conclusions and Outlook

The debate triggered at the beginning of the COVID-19 emergency has led researchers to exchange results with the aim of sharing reflections about the main consequences that this emergency could have for mathematics education [,,]. Among the challenges that this situation has brought, a central role is played by the contrast between the potentialities provided by digital resources in fostering the creation of effective interactive environments for teachers and students and the risk that the actual situation could amplify the social gap that exists in the world []. Different studies developed in recent months have highlighted that, although the influence of the pandemic has shocked teachers at all levels, the emergency has also inspired them to find solutions to problems they had not encountered before []. The research documented in this paper is in tune with these results. The main question that we addressed is: How do mathematics teachers from different countries manage their teaching in the context of lockdown and which values underlie their MDP? As an answer, this paper describes different sub-tasks and corresponding MDP including techniques and justifying discourses based on teachers answers to a qualitative questionnaire. These sub-tasks, as well as the MDP, were identified in all four countries. Although the scope of this study is of a qualitative nature, the distribution of the different MDP suggests many similarities among the four countries, e.g., in respect to the dominance of the transmissive approach to teaching during time of lockdown. The data also shows that the lockdown prompts many teachers to change their praxeologies, e.g., in respect to assessment habits in mathematics during distance learning.
Teachers are teaching following their conception of teaching, their learning hypothesis, and their personal epistemology within a particular context, which includes the general education system of their country, but also the school in which they teach and the classes they teach in and which are constituted of particular students. The function of the education system is to overcome feelings constructed in the family sphere by taking a universal point of view. Therefore, in a democratic society, values that have to be transmitted are those allowing young people to develop their own judgment. In addition, the teachers relied on the democratic value system to develop their praxeologies, even in such peculiar and disturbing teaching conditions. Following the deduction line, MDP could be characterized by the tasks aiming at transmitting values and norms facilitating the awareness of universal values and the possibility to criticize them. In the context of lockdown, the main values that underlie the teaching of mathematics remain but the techniques (or most of the techniques) commonly used are no more at disposal. We refer in this paper only to the mathematical values, adopting Bishop’s framework, but the issue of the maintaining a universality of school during the lockdown remains lively and merits further study. However, the six value clusters that Bishop originally identified constituted a filter allowing to go through and interpret the questionnaire answers, in terms of MDP developed by the teachers.
In addition to the sub-tasks described in the section above, many teachers wrote deep and detailed reflections that could not be described in this paper in detail. One of the most dominant results is the reflection by the teachers on the role of norms. Many teachers address the challenge to secure fairness and equity especially for students with low achievements, some of them suffer that they cannot secure educational justice, i.e., by only dealing with students’ written documents. In that context, many teachers also address the lack of interaction with the students (“DL is the death of interaction”, upper secondary, Italian teacher), as well as having eye-contact and using gestures during these interactions. Therefore, many teachers write, the role of the parents becomes crucial for corresponding with the students, while others (especially secondary school teachers) stress that DL increases the responsibility of the students for their individual learning. Finally, many teachers stress that the insight from the time of lockdown is that school has the opportunity to change: “Of course, school MUST take this opportunity to radically change its ancient teaching method. it is not about bringing small changes or somehow inserting some technological tool; it is about building a new type of school that responds to today’s time.” (lower secondary, Italian teacher).
Of course, to some extent, such reflections represent singular opinions and they are not representative, which is one of the limitations of this study. Although almost 700 teachers participated in this study, the aim was to get deep insights into the meta-didactical praxeologies—the techniques used, as well as the justifying discourses and the underlying values. The distribution of these MDP among the countries suggests certain tendencies, but this study is limited with respect to quantitative findings due to its qualitative nature. A second limitation can be seen also in respect to the choice of the involved countries, which—by all differences—are comparable e.g., in respect to their educational systems or socio-economic factors. This study did not give respect to challenges for example in less developed countries. However, it is of great interest to note that in these difficult times individualized relationships with pupils have particularly developed; it is in the analysis of meta-didactical praxeologies that we can highlight the willingness of teachers to make the classroom as inclusive as possible. This would certainly be a question that would need to be explored in depth, in particular to see whether changes in attitudes really occur and if they will continue under normal teaching conditions to develop for a more inclusive education [,,].
This study generated sub-tasks and corresponding MDP, which will enable us to formulate clear hypotheses, which can be used for rigorous quantitative research. As an agenda beyond the identification of the sub-tasks and the MDP, we first set out to investigate the distributions of the identified MDP quantitatively. Additionally, countries of different backgrounds have to be considered in future research. To better investigate the MDP, students should also be involved in the process of interpreting the teachers’ activities. Finally, the process of development of new praxeologies on the level of the individual teacher has to be considered.
As an overall conclusion, we see that the pandemic has affected mathematics teaching intensely. The teachers’ reflective contributions to this study enabled us to identify MDP common to all the four involved countries. As a next important step, we will (and recommend to) share these results with teachers (not only those involved in the survey) to reflect with them about the MDP, the techniques, the justifying discourses as well as the underlying values we identified and to have a feedback about our interpretation of teachers’ answers. For us, one of the potentials of this study is to deepen the dialogue between teachers and researchers in order to be aware of and to reflect on the choices we can take in the case of future pandemics.

Author Contributions

Conceptualization, G.A., A.C., F.S. and O.S.; Data curation, G.A., A.C., F.S. and O.S.; Formal analysis, G.A., A.C., F.S. and O.S.; Investigation, G.A., A.C., F.S. and O.S.; Methodology, G.A., A.C., F.S. and O.S.; Writing—original draft, G.A., A.C., F.S. and O.S.; Writing—review & editing, G.A., A.C., F.S. and O.S. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

Not applicable.

Data Availability Statement

The data presented in this study are available on request from the corresponding author. The data are not publicly available due to privacy reasons.

Conflicts of Interest

The authors declare no conflict of interest.

References

  1. Mauss, A. Essai sur le don. Forme et raison de l’échange dans les sociétés archaïques. L’année Sociol. 1923, 1, 30–186. [Google Scholar]
  2. Buisson, F. La France et l’École. Pendant la guerre—Après la guerre. In La revue pédagogique; Janvier-Juin: Paris, France, 1915; Volume 66, pp. 229–256. [Google Scholar]
  3. Silverman, J.; Hoyos, V. Distance Learning, E-Learning and Blended Learning in Mathematics Education: International Trends in Research and Development; ICME13 monographs; Springer: Cham, Switzerland, 2018. [Google Scholar]
  4. Engelbrecht, J.; Harding, A. Teaching undergraduate mathematics on the internet. Educ. Stud. Math. 2005, 58, 253–276. [Google Scholar] [CrossRef]
  5. Avineri, T.; Lee, H.S.; Tran, D.; Lovett, J.N.; Gibson, T. Design and impact of MOOCs for mathematics teachers. In Distance Learning, E-Learning and Blended Learning in Mathematics Education; Silverman, J., Hoyos, V., Eds.; Springer: Cham, Switzerland, 2018; pp. 185–200. [Google Scholar]
  6. Rezat, S.; Sträßer, R. From the didactical triangle to the socio-didactical tetrahedron: Artifacts as fundamental constituents of the didactical situation. ZDM Math. Educ. 2012, 44, 641–651. [Google Scholar] [CrossRef]
  7. Arzarello, F.; Robutti, O.; Sabena, C.; Cusi, A.; Garuti, R.; Malara, N.; Martignone, F. Meta-didactical transposition: A theoretical model for teacher education programmes. In The Mathematics Teacher in the Digital Era; Clark-Wilson, A., Robutti, O., Sinclair, N., Eds.; Springer: Dordrecht, Germany, 2014; pp. 347–372. [Google Scholar]
  8. Bishop, A. Mathematics teaching and values education—An intersection in need of research. ZDM Math. Educ. 2008, 99, 1–4. [Google Scholar]
  9. Cohen, D.K.; Raudenbush, S.W.; Ball, D.L. Resources, instruction, and research. Educ. Eval. Policy Anal. 2003, 25, 119–142. [Google Scholar] [CrossRef]
  10. Gueudet, G.; Trouche, L. Towards new documentation systems for mathematics teachers? Educ. Stud. Math. 2009, 71, 199–218. [Google Scholar] [CrossRef]
  11. Ruthven, K. The didactical tetrahedron as a heuristic for analysing the incorporation of digital technologies into classroom practice. ZDM Math. Educ. 2012, 44, 627–640. [Google Scholar] [CrossRef]
  12. Prediger, S.; Roesken-Winter, B.; Leuders, T. Which research can support PD facilitators? Research strategies in the Three-Tetrahedron Model for content-related PD research. J. Math. Teach. Educ. 2019, 22, 407–425. [Google Scholar] [CrossRef]
  13. Chevallard, Y. Le concept de rapport au savoir-Rapport personnel, rapport institutionnel, rapport officiel [The concept of relationship to knowledge-Personal relationship, institutional relationship, official relationship]. Semin. Didatech 1989, 108, 211–235. [Google Scholar]
  14. Chevallard, Y. Steps towards a new epistemology in mathematics education. In Proceedings of the Fourth Congress of the European Society for Research in Mathematics Education, Sant Feliu de Guíxols, Spain, 17–21 February 2005; pp. 21–30. [Google Scholar]
  15. Aldon, G.; Panero, M. La genèse de praxéologies partagées entre enseignants et chercheurs dans un cadre d’évaluation formative. In Actes du 29e Colloque de l’ADMEE; Agrosup: Dijon, France, 2017; Axe 4; pp. 51–53. [Google Scholar]
  16. Aldon, G.; Cusi, A.; Morselli, F.; Panero, M.; Sabena, C. Formative assessment and technology: Reflections developed through the collaboration between teachers and researchers. In Mathematics and Technology; Aldon, G., Hitt, F., Bazzini, L., Gellert, U., Eds.; Springer: Cham, Switzerland, 2017; pp. 551–578. [Google Scholar]
  17. Nizet, I.; Monod-Ansaldi, R.; Aldon, G.; Prieur, M.; Criquet, A. L’analyse de valuations dans une démarche collaborative de recherche. La Revue LEeE 2019, 1, 1–20. [Google Scholar]
  18. Monod-Ansaldi, R.; Vincent, C.; Aldon, G. Objets frontières et brokering dans les négociations en recherche orientée par la conception. Éducation Didact. 2019, 13, 61–84. [Google Scholar] [CrossRef]
  19. Robutti, O.; Aldon, G.; Cusi, A.; Olsher, S.; Panero, M.; Cooper, J.; Carante, P.; Prodromou, T. Boundary objects in mathematics education and their role across communities of teachers and researchers in interaction. In International Handbook of Mathematics Teacher Education, 2nd ed.; Lloyd, G.M., Chapman, O., Eds.; Brill-Sense Publisher: Leiden, The Netherlands, 2019; Volume 3, pp. 211–240. [Google Scholar]
  20. Cusi, A.; Swidan, O.; Faggiano, E.; Prodromou, T. The collaborative work on scenario design as a tool to foster teachers’ professional development. In Proceedings of the ICMI Study 25; Borko, H., Potari, D., Eds.; ICMI: Lisbon, Portugal, 2020; pp. 605–612. [Google Scholar]
  21. Bishop, A. From culture to well-being: A partial story of values in mathematics education. ZDM Math. Educ. 2012, 44, 3–8. [Google Scholar] [CrossRef]
  22. Bishop, A. Mathematical Enculturation: A Cultural Perspective on Mathematics Education; Springer: Dordrecht, Germany, 1988. [Google Scholar]
  23. Bishop, A.; Clarke, B.; Corrigan, D.; Gunstone, D. Values in mathematics and science education: Researchers’ and teachers’ views on the similarities and differences. Learn. Math. 2006, 26, 7–11. [Google Scholar]
  24. Bernholt, S.; Ronnebeck, S.; Ropohl, M.; Koller, O.; Parchmann, I. ASSIST ME. Report on Current State of the Art in Formative and Summative Assessment in IBE in STM. Available online: www.assistme.ku.dk (accessed on 19 January 2021).
  25. Black, P.; Wiliam, D. Developing the theory of formative assessment. Educ. Assess. Eval. Account. 2009, 21, 5. [Google Scholar] [CrossRef]
  26. Wiliam, D.; Thompson, M. Integrating assessment with instruction: What will it take to make it work? In The Future of Assessment: Shaping Teaching and Learning; Dwyer, C.A., Ed.; Lawrence Erlbaum Associates: Mahwah, NJ, USA, 2007; pp. 53–82. [Google Scholar]
  27. Skemp, R. Relational understanding and instrumental understanding. Math. Teach. Middle Sch. 2006, 12, 88–95. [Google Scholar] [CrossRef]
  28. Hiebert, J. Conceptual and Procedural Knowledge: The Case of Mathematics; Erlbaum: Hillsdale, NJ, USA, 1986. [Google Scholar]
  29. Devlin, K. Mathematics: The Science of Patterns; Scientific American Library: New York, NY, USA, 1997. [Google Scholar]
  30. Radford, L. Some Reflections on Teaching Algebra Through Generalization. In Approaches to Algebra: Perspectives for Research and Teaching; Bednarz, N., Kieran, C., Lee, L., Eds.; Kluwer Academic Publishers: Dordrecht, The Netherlands, 1996; pp. 107–111. [Google Scholar]
  31. Wittmann, E.C. Developing Mathematics Education in a Systemic Process. Plenary Lecture at ICME 9. Educ. Stud. Math. 2002, 48, 1–20. [Google Scholar] [CrossRef]
  32. Bakker, A.; Wagner, D. Pandemic: Lessons for today and tomorrow? Educ. Stud. Math. 2020, 104, 1–4. [Google Scholar] [CrossRef]
  33. Engelbrecht, J.; Borba, M.C.; Llinares, S.; Kaiser, G. Will 2020 be remembered as the year in which education was changed? ZDM 2020, 52, 821–824. [Google Scholar] [CrossRef] [PubMed]
  34. Drijvers, P.; Thurm, D.; Vandervieren, E.; Klinger, M.; Moons, F.; van der Ree, H.; Mol, A.; Barzel, B.; Doorman, M. Distance mathematics teaching in Flanders, Germany and the Netherlands during COVID-19 lockdown. Educ. Stud. Math. in press.
  35. Flores, M.A.; Swennen, A. The COVID-19 pandemic and its effects on teacher education. Eur. J. Teach. Educ. 2020, 43, 453–456. [Google Scholar] [CrossRef]
  36. Spandagou, I.; Graham, L.J.; de Bruin, K. Differentiation for inclusive education: Whence the confusion? In Proceedings of the European Conference on Educational Research 2018, Bolzano, Italy, 3–4 September 2018. [Google Scholar]
  37. Sullivan, P. Maximising opportunities in mathematics for all students: Addressing within-school and within-class differences. In Diversity in Mathematics Education—Towards Inclusive Practices; Bishop, A., Tan, H., Barkatsas, T.N., Eds.; Springer: Cham, Switzerland, 2015; pp. 239–253. [Google Scholar]
  38. Tomlinson, C. The Differentiated Classroom: Responding to the Needs of All Learners, 2nd ed.; ASCD: Alexandria, VA, USA, 2014. [Google Scholar]
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