[Excerpted from Turning Points 2000: Educating Adolescents in the 21st Century. Reprinted with permission from Middle Ground, October 2000, National Middle School Association. Davis and Jackson are the book's authors.]
We are grateful to NMSA for permission to post this excerpt. We encourage our visitors who are not members to join NMSA and receive Middle Ground, the Middle School Journal, and other valuable middle grades resources.
In 1989, Carnegie Corporation of New York released a groundbreaking report
about improving the education of young adolescents. Turning Points: Preparing
American Youth for the 21st Century provided a comprehensive approach
to educating adolescents that resonated deeply with practitioners. As experience
with the effect of these recommended reforms grew, and as research into
middle grades education continued and strengthened, it became clear to us
that the progress made since the publication of the original Turning Points
warranted further examination and analysis. We believed that such an effort
would produce a new understanding of what works and what doesn't, based
on actual experience rather than on theory or anecdote. The result of our
efforts, Turning Points 2000: Educating Adolescents in the 21st Century,
will be published this fall by Teachers College Press as a project of Carnegie
Corporation.
Turning Points 2000 substantially fleshes out the ideas in the original
report. The book builds on the notion, implicit in the original Turning
Points, that various aspects of middle grades education, such as curriculum,
instruction, teacher preparation and professional development, can be thought
of as design elements of a system in which changes in one element influence
the others. And each element in the system affects the goal of ensuring
success for every student. The rest of this article draws on excerpts from
the chapter highlighting curriculum and assessment, the first of seven key
elements in the design system described in Turning Points 2000.
Using Curriculum and Assessment to Improve Teaching and Learning
To prepare all students to think critically, lead healthful lives, and behave
ethically and as responsible citizens, the original Turning Points
recommended that middle level schools teach a core of common knowledge.
Since the report's 1989 publication, educators have learned a great deal
about how to do this. All of what has been learned affirms an essential
truth about education: Improvement in student performance across all groups
requires a relentless focus on the heart of schooling, that is, on teaching
and learning.
We have moved away from the term "core of common knowledge" because
it implies a prescribed, fixed universe of knowledge, a concept inappropriate
for the information age. It also ignores the skills and habits of mind (see
below for examples) that students should also acquire, the changing concerns
of young adolescents, and the growing understanding of how students learn
best. We now recommend teaching a curriculum grounded in rigorous, public
academic standards relevant to the concerns of adolescents and based on
how students learn best. A standards-based curriculum provides the opportunity
for every young adolescent to learn to use his or her mind well - to think
creatively; to solve complex, meaningful problems; and to develop the base
of factual knowledge and skills needed for these higher order capacities.
Content or academic standards, which spell out what students should know
and be able to do, form the basis for the curriculum we recommend. Academic
standards provide the link between excellence and equity by setting consistently
high, public expectations for every student. As a reflection of the school's
broader goal of enabling young adolescents to reach their full intellectual
potential, the effort to support every student, including special education
and English language learners, in meeting or exceeding high academic standards
should drive all other aspects of school improvement.
A discussion of teaching and learning based on standards must address three
aspects of day-to-day life in a classroom: curriculum, assessment, and instruction.
Backward design - an approach that weaves together curriculum, assessment,
and instruction in developing rigorous units of study - begins with identifying
the relevant standards and developing the curriculum based on them (see
sidebar for more details). Educators then
decide what assessment methods will best allow students to demonstrate what
they have learned, and finally, they determine how to prepare students,
through diverse instructional methods, to do well on the assessments.
One common complaint is that the sheer number of standards some states and
school districts require makes it impossible for a school to attend to every
one of them. Taken together, such mandated standards in the disciplines,
or even within a single discipline, may require more time for teaching,
learning, and assessment than any school could ever hope to provide. Teachers'
and administrators' concerns about "covering" everything that
the standards apparently demand often tie directly to their concern (or
fear) about being held accountable for "a little bit about everything."
Coverage means touching on many topics or facts in a shallow fashion (to
wit, the American textbook). On a test covering a myriad of topics, students
are hard-pressed to recall facts presented in isolation, devoid of meaning
or connection, and teachers are held accountable for the inevitably highly
variable performance.
To direct teaching and learning toward understanding will require uncovering
the absolutely essential concepts and ideas embedded in lengthy standards
and developing a curriculum that reflects these essential concepts, both
subject-specific and generic, thus revealing connections within and across
content areas. With concepts as the framework for learning, the topics and
facts can be hooked into a structure, within which those seemingly disconnected
scraps become part of a coherent whole. Concepts frame the big ideas a curriculum
will address.
A second common complaint is that many standards are not focused on the
big ideas within or across subject areas. Even a poorly designed standard,
such as one based on a list of facts, can be transformed into a useful guideline
if teachers incorporate those discrete facts into a system that addresses
the essential concepts, the big ideas that such standards do not explicitly
state. For example, a standard might indicate that students should know
the dates for the major battles of the American Civil War. Learning to this
"standard" is a memorization task, not an exercise in conceptual
understanding. However, if the Civil War were studied as part of analyzing
the concept patterns, a connection could be made to a generalization
about patterns - for example, that patterns allow for predictions. With
that concept and generalization in mind, the list of dates no longer stands
in isolation, but becomes part of a larger understanding that the dates
tie into a pattern of engagement determined by such factors as weather,
road conditions, supply lines, and military tactics. This pattern allows
for predicting not just approximate dates of battles in the Civil War but,
with modifications, patterns of military engagement generally, providing
students with an opportunity to understand contemporary conflicts such as
the crisis in Kosovo.
Developing Curriculum Based on Standards
Reviewing what standards are assessed at the state level is only a beginning
point in developing middle grades curriculum, which should be grounded in
three strategies. First, the entire curriculum - including what is addressed,
how it is addressed, and in what sequence - should be organized around important
concepts and questions. Second, the curriculum should reflect the concerns
of young adolescents. And third, the work should be oriented toward the
assessments, the tasks that students will undertake to demonstrate their
knowledge and skills.
Young adolescents are ready to seek out patterns, to make connections, to
try to figure out the world around them and their place in it as part of
their journey toward adulthood. With the big ideas guiding their learning
in school, they can see how historical precedents could affect their own
futures, how mathematics can help them make sense of the seemingly random,
and how literature provides insight into the state of humanity.
Like concepts, essential questions can be generic, cross-disciplinary, or
subject-specific:
Examples of Essential Questions
-- Can novels reveal inner life without falsifying it?
-- Do statistics lie?
-- "War is diplomacy by other means." Is this true? Is it immoral if we believe it?
-- Are some aspects of language and culture not understandable by people from other
cultures?
-- Is terrorism wrong? Do revolutionaries differ from terrorists? Or from criminals? Were our country's founders terrorists?
-- Is gravity a fact or a theory?
-- Do mathematical models conceal as much as they reveal?
-- In what ways are animals human? In what ways are humans animals?
-- Is biology destiny?
-- What natural disasters are most likely to occur in your area, and how should the community prepare?
-- What would happen if all bacteria and fungi were eliminated from earth?
-- Is there life in outer space?
-- If the sale of tobacco in the United States were banned, what types of replacement crops could be used to maintain the economy?
-- Does the United States or the United Nations have the right or the responsibility to interfere in the internal affairs of foreign countries?
[Note: This list was adapted from Educative Assessment: Designing Assessment to Inform and Improve Student Performance (Jossey-Bass, 1998) and Learning in Overdrive: Designing Curriculum, Instruction, and Assessment for Standards (North American Press, 1995).]
Five years ago, Salem, Massachusetts, merged its two middle schools into
one. Today, despite having more than 100 teachers and 1,100 students - half
of them poor and a third of them Dominican immigrants whose first language
is Spanish - Collins Middle School is a thriving learning community.
Teacher collaboration makes possible Collins' school-wide emphasis on a
purposeful form of curriculum planning often called backward design. Employing
this method, teachers start by studying standards and then setting goals
for students based on those standards. They then conceive of projects that
will give students opportunities to demonstrate that they have gained the
requisite understandings and skills. Then teachers choose instructional
activities that support their overall intent.
As Collins teachers create curriculum, revisiting and fine-tuning their
plans every year, they always begin by asking the question: What is it we
want students to know and be able to do? The standards teachers consult
to answer that question are the seven Massachusetts Curriculum Frameworks:
Arts, English/Language Arts, Health, Mathematics, Science and Technology,
Social Studies, and World Languages.
For each framework, the Salem school district has a team that includes teachers
from kindergarten through the 12th grade, parents, community leaders, and
experts, such as staff from local museums. They decide which part of each
framework will be done at each grade level. With the information from the
district framework teams in hand, Collins teachers meet as grade-level subject-area
teams and hammer out what units they'll do.
Nancy Pelletier, a seventh grade science/math teacher at Collins, and her
team chose three units for the year: the characteristics of life, which
included cell biology, classification, and one-celled organisms; the human
body; and biomes.
The team made sure that these units addressed the state standards. For example,
the science framework says that children should be able to describe the
idea that in complex multicellular organisms, cells have specialized functions,
communicate with each other, and are mutually dependent. Two of the seventh
grade units - the characteristics of life and the human body - help students
achieve mastery of that standard.
As they develop units, Collins teachers often use the Atlas template, a
tool developed by the Cambridge-based Education Development Center, to guide
schools in developing curriculum. The Atlas template requires teams to fill
in blanks describing the theme of each unit, the questions that will drive
their exploration, and the essential understandings - the most important
concepts, generalizations, and issues - they want students to grasp.
The science teachers also delineated the skills students would practice
and develop during the unit and the habits of mind that would be stressed
throughout. They divided the skills into those needed for science, reading
and writing, research and technology, and critical thinking. And they said
that students would learn to ask questions that could be answered by experiments,
measure accurately, make predictions, write lab reports, find reference
materials, develop graphs, and
recognize cause and effect.
Then, the science teachers planned how they would address and assess understandings
and skills. They decided on key products, called benchmark performances,
which students would develop. They had to think about what kinds of practice
and instruction students would need as they develop their products and what
kind of feedback would help students understand the criteria for high-quality
work.
After the team signed off on the units and the major understandings and
skills, Pelletier paired off with another science teacher to work out the
nitty-gritty of how her unit would proceed. Teachers at Collins often pair
off this way, Pelletier says. "The work is so involved, it's difficult
to do it alone," she adds. "Kids could write questions about micro-
and macro-organisms til the end of time, but we needed to focus them on
developing questions they could investigate and research. They had to come
up with a plan for an experiment and show me it would work."
Pelletier made a rubric for all the components of her unit, which included
quizzes, tests, speeches, and writing journals, as well as the final exhibition.
The criteria she established for the final exhibition meant that students
would be assessed on how well they understood and used the scientific method,
cited research, and drew on a variety of resources.
Pelletier introduced the students to the scientific method and took them
to a local pond, where they collected protists and fungi. She worked with
small groups of students, pushing them to hone their questions in ways that
would lead them to the essential understandings she knew they had to get
out of the unit.
The kids also discussed what made a good question, and critiqued each other's
ideas. One student wanted to ask, What is athlete's foot, and why do people
get it? The student was going to scrape fungus between kids' toes, Linda
Darisse, the math/science curriculum coordinator, says. "The kids decided
that was the grossest thing they ever heard. 'Redesign your experiment,'
they said.'" The student decided to do a survey instead.
The three-fold storyboards students presented at the unit's finale had to
show the scientific process. They had to include their original hypothesis
and how it changed, data, illustrations, a conclusion, and a description
of new questions raised by their experiment. "They were masterpieces,"
Pelletier says, calling the unit "the most rewarding thing" she's
ever done. "It wasn't just about curriculum. We're teaching them how
to be independent learners."
Darisse points out that Pelletier's unit worked well both for the kids who
in other schools might be tracked into gifted and talented programs and
for those who might be tracked into so-called remedial programs. "If
you individualize, everyone works at their own level," says Darisse.
(The classes at Collins are heterogeneously grouped, though the district
has alternative placements outside Collins for children whose behavior problems
make them disruptive in the classroom.) "Some of the exhibits were
sophisticated and others were plain and ordinary, but all the students learned
about scientific methods."
"This kind of curriculum planning is as much circular as it is backward
because you keep going back," says Darisse. Laura Chesson, director
of math and science programs at the Center for Collaborative Education in
Boston, coaches the Collins faculty and attends the school's curriculum
meetings. On a regular basis, Collins teachers reflect on whether they've
met their goals. Chesson explains, "You plan the curriculum, teach
it, assess the students, and then look at the student work and review the
assessment to see if you need to make changes to your curriculum and instruction
in order to help your students better meet standards."
-- Gayle A. Davis and Anthony W. Jackson