Citation: Mary J Schleppegrell (2007): The Linguistic Challenges of Mathematics
Teaching and Learning: A Research Review, Reading & Writing Quarterly, 23:2,
139-159
The study of linguistics and mathematics education is based
on the premise that we use language in order to participate in ways of knowing.
Language and learning cannot be separated. In the case of mathematics, the goal
of the teacher is to move students from more informal (everyday) ways of using
language and understanding to more formal ways of understanding. In the case of
mathematics education, this means the goal is for students to use more
technical language of the discipline in effective ways; this formal language is
called the ‘mathematical register’.
A mathematical register, “is a set of meanings that is
appropriate to a particular function of language, together with the words and
structures which express these meanings. We can refer to a ‘mathematics
register’, in the sense of the meanings that belong to the language of
mathematics (the mathematical use of natural language, that is: not mathematics
itself), and that a language must express if it is being used for mathematical
purposes. (p. 195)
The mathematical register includes semiotic systems such as
symbols, oral language, written language graphs and diagrams. It also includes
grammatical patterns. One central aspect of Schleppegrell’s research review is
that language issues is math are not solely about terminology or specialized
terminology. Rather mathematical reasoning uses grammatical patterns that are
dense and quite different from informal language use. Mathematical thinking is
not just about using precise terms but the way that one uses terms must also be
precise. For example, in explanations, teachers or students might use number
operations (such as squaring) as nouns rather than verbs. Teachers may also fail
to recognize that students use terminology in ways that are different from the ways
that teachers intend it to be used. Students tended to use mathematical
terminology as description, sequence or choice while teachers use mathematical terminology
for classification, principles and evaluation. In one example a teacher and
student pair are working with tangrams. The teacher uses the term parallelogram
as a classification but the student uses it as a description.
Some strategies for developing the mathematical register include:
-interactive activities that allow students to construct meaningful
discourse about mathematics
-verbal explanation of word problems
-develop connections between everyday meanings of words and
their mathematical meanings
-recognize and use technical language rather than informal
language wen defining and explaining concepts
-explicitly evaluate the use of technical language
-use writing but be explicit about not writing in a
narrative form. Rather use other forms of writing such as procedures,
descriptions/classifications, explanations/findings and arguments about math
theorems
There are two tensions that teachers encounter as they teach
the math. One is the dilemma of mediation: this is when a teacher has to decide
when it is best to validate the perspective of the learner by listening and when
to introduce more formal ways of explaining concepts. The second is the dilemma
of transparency: this is when a teacher has to decide when to talk and when not
to talk. Scleppenberg also described how focus on linguistics is important for low
SES and culturally diverse learners.
STOP:
One idea that I took away from this article is about the
effective use of writing in mathematics teaching. A few weeks ago, in my post about
ethno-mathematics, I questioned if the discussions and writing I am using in
math class is working for ELL learners. Last week, the Marion and Walter
article talked about creating a culture of mathematicians by having students
create math academic journals that are posted up in the room and critiqued by
peers. Schleppegrell’s article states that in order to use writing to further
mathematical understanding it should not just be narrative but rather teacher
should explicitly teach students how to use writing for procedural and explanatory
purposes. To me, this reminded me of our conversation about genre last week and
how important it is to teach different genres.
It also made me think about primary learners and how sometimes
their math journal writing seems to show pseudo-mathematical understanding. This
article makes me wonder if this is because young students are writing in a narrative way?
Developing a sense of story is a huge component of Kindergarten curriculum. Furthermore, students only recently learned
that the orientation of a symbol changes its meaning: ‘p’ is different from ‘q’
is different from ‘b’ is different than ‘d’. Now, we expect them to understand that
numbers don’t magically change but that we perform operations on them and then
they change. That a 6 and 7 are nouns,
but that a + and – are verbs. Looking at this developmentally, I can see how
this would be extremely confusing to a young person.
Question:
There is a common held assumption that math as the least
language-dependent subject. What do you think? Agree or disagree? How did this
assumption come to be?
This is a very familiar question for me because most of my students’ parents assume that it is a least language-dependent subject, so lack of language proficiency does not affect mathematics learning. From my point of view, students usually face with a new mathematics topic, when teacher teach this topic. So, how does this teaching take place? Is it possible that teachers only write some random number on the board and expect students to magically understand the lesson? Or extensive explanation and description are required? There is no doubt that without clarification and making several examples, most of the mathematical subjects cannot be taught. Now, the question is, what is the language of these descriptions and explanations? People usually think because in mathematics students use formula (numbers and signs) to solve the questions, they do not need to talk about it, therefore, the language is not important.
ReplyDeleteOn the other hand, if there was not any communication, how students must ask their questions and explain their mistakes? As a math tutor, I have faced with students who are second English language learner, so they have difficulties asking questions or explaining situation in the classroom. They afraid to talk and ask, so, lots of points have been remain nucleated for them. This problem gets worst when students are at the exam and they need to clarify some parts of the question, but they cannot communicate, so they leave the question unanswered.
This is a really interesting question. The obvious piece is that mathematics can be expressed in universal symbols that and lie outside of language for reading, writing, and speaking. Although, to work with another person on mathematics, it is necessary to converse in a culturally specific language. I spent a year as an Aboriginal literacy teacher. In that time, I thought a lot about what literacy is and how mathematics is a literacy, relations of symbols and words.
ReplyDeleteI agree with the article that different disciplines have different languages. And, I know that I use the ‘mathematical register’ when teaching math. When I was studying life sciences, I often felt like I was also studying Latin.
I am curious about the relation of subject and object, and of verbs and nouns in different languages and how that relates to different ways of being, or ontologies. I think that the way mathematics is connected to language is often unacknowledged in classrooms because it assumed that the dominant language interpretation is the only interpretation.