Volume: | 20 | 19 | 18 | 17 | 16 | 15 | 14 | 13 | 12 | 11 | 10 | 9 | 8 | 7 | 6 | 5 | 4 | 3 | 2 | 1 |
Copyright is retained by the first or sole author, who grants right of first publication to Practical Assessment, Research & Evaluation. Permission is granted to distribute this article for nonprofit, educational purposes if it is copied in its entirety and the journal is credited. PARE has the right to authorize third party reproduction of this article in print, electronic and database forms. |
Pandey, Tej (1990). Authentic mathematics assessment. Practical Assessment, Research & Evaluation, 2(1). Retrieved May 28, 2015 from http://PAREonline.net/getvn.asp?v=2&n=1 . This paper has been viewed 44,686 times since 11/13/1999.
Authentic Mathematics AssessmentTej PandeyCalifornia Department of Education There is a growing consensus among many educators that the fundamental goals of teaching and learning mathematics are to help students solve problems of everyday life, to help them participate intelligently in civic affairs, and to prepare them for jobs, vocations, or professions. These goals suggest that school mathematics should diminish the role of routine computation and focus instead on the conceptual insights and analytical skills that are at the heart of mathematics. New tests are needed to track progress in these areas. This article discusses how well authentic mathematics assessment tests can be expected to meet these needs. It defines authentic assessment in relation to more traditional mathematics testing methods. Aspects of the progressive California Mathematics Program, which has been using authentic assessment for several years, are presented. EMERGING IDEAS IN AUTHENTIC MATHEMATICS ASSESSMENT The new mathematics curriculum calls for an instructional setting which is very different from the typical classroom settings of the past. This curriculum combines new as well as traditional topics; mathematics is presented to students in the form of rich situational problems that actively engage the students. The situational lessons or real-life problems attempt to include four dimensions:
In short, students work to construct new knowledge that is integrated with their prior knowledge. The role of the teacher is that of a facilitator. The learning helps students acquire mathematical power to cope with ambiguity, to perceive patterns, and to solve unconventional problems. Traditionally, assessment has been derived from the curriculum; however, assessment has not been part of a feedback loop linked to instruction. It is now widely believed that assessment must be an integral part of teaching, so that it is used as a tool not merely to collect data, but also to influence instruction. This requires developing and implementing assessment tasks that measure students' productivity, their performance on tasks that require mathematical thinking in pursuit of a result that has meaning to the student. Because these tasks have essentially the same character as instructional tasks, they also have meaning for teachers and, therefore, are useful for improving instruction. The new assessment tasks require students to formulate problems, devise solutions, and interpret results. While multiple-choice test items can be used to check students' knowledge of some concepts and some of their skills, other modes of assessment may be better for evaluating students' products and their choices of formulation or approach. This means that performance tasks should increasingly become the basis for judging mathematical achievement required for success in the technological world. TYPES OF ASSESSMENTS Several state assessment programs are currently engaged in developing new modes of assessment that reflect the emerging consensus on mathematics instruction and evaluation. In California, for example, educators are developing the following types of assessment items:
In Connecticut, educators are developing curriculum-assessment modules. These modules are made up of individual or group tasks that may take a week or more to complete. The tasks are real-life problem-solving situations that require students to use all available resources and tools, including computers. THE CALIFORNIA MATHEMATICS PROGRAM Recognizing these emerging ideas in mathematics assessment, California has emphasized the use of open-ended mathematics questions. According to "A Question of Thinking," a 1989 report from the California State Department of Education, open-ended questions can:
In California, this type of assessment has been in place for the last three years at the twelfth-grade level. Each year new questions are developed and each twelfth-grade student answers one of the questions together with the multiple-choice part of the test. The questions are scored holistically on a six-point scale and reported both separately and in combination with the multiple-choice part of the scores. Current plans call for an annual assessment using open-ended, performance-based items. All students take the open-ended exercises, but only a relatively small sample of student responses are scored by the state and count toward the total score for a given school. These exercises provide opportunities for districts to become involved in the state assessment, to administer the essays, and to train teachers to score them. ADDITIONAL READING California Department of Education (1985) Mathematics framework for California public schools, kindergarten through grade twelve. Sacramento. California Department of Education (1989) A question of thinking: A first look at students' performance on open-ended questions in mathematics. Sacramento. Mumme, J. (1990) Portfolio assessment in mathematics, California Mathematics Project, Santa Barbara. National Council of Teachers of Mathematics (1989) Curriculum and Evaluation standards for school mathematics, Reston, VA. Stenmark, J. K. (1989) Assessment alternatives in mathematics, An overview of assessment techniques that promote learning. Berkeley: EQUALS and the California Mathematics Council. ----- |
Descriptors: *Educational Assessment; Educational Change; Elementary Secondary Education; Grade 12; Mathematics Instruction; *Mathematics Tests; Multiple Choice Tests; Portfolios (Background Materials); *Problem Solving; *State Programs; *Test Construction; Test Items |