16 NaTIoNal SCIENCE TEaChERS aSSoCIaTIoN
Chapter 1 The Teaching of Science: Contemporary Challenges
as not viable. Science teachers need to participate in efforts to clarify what the
education community means by scientific inquiry: It is a content goal—that is,
students should understand scientific inquiry and develop cognitive abilities.
Inquiry also can be instructional approaches to achieve these goals.
Undoubtedly, some confusion about teaching science as inquiry emerges
from the fact that inquiry is both a set of instructional strategies (e.g., labora-
tory investigations and activities) and education outcomes (e.g., knowledge
such as “science advances through legitimate skepticism” and abilities such as
“thinking critically and logically to make relationships between evidence and
explanations”).
A Brief History of Inquiry
Inquiry has been an explicit goal of science education for almost 50 years (Bybee
and DeBoer 1993). In A History of Ideas in Science Education, George DeBoer states,
“If a single word had to be chosen to describe the goals of science educators
during the 30-year period that began in the 1950s, it would have to be inquiry”
(1991, p. 206). Like many goals, inquiry provides a rallying point of apparent
common agreement that fosters a sense of community and support among the
advocates. Also, as is common with most education goals, there emerges the
need for concrete examples of the abstract ideas and attitudes conveyed by the
goal. This discussion provides examples of inquiry in the science curriculum as
one approach to making the abstract more concrete in science education.
An Example of Inquiry in Curriculum and Instruction
From its earliest days, BSCS had included inquiry in its programs. Indeed, in the
late 1950s, the deliberate, explicit, and comprehensive inclusion of “biology as
inquiry” was a radical departure from other biology textbooks. At the time, H.
J. Muller, a Nobel laureate and BSCS steering committee member, stated, “The
trouble is not that there is too much science but too much shortsighted applica-
tion of it, too little dissemination of its deeper meanings, and too little appre-
ciation of the need for proceeding by its method of free inquiry” (1957, p. 252).
Although scientists such as Bentley Glass, H. J. Muller, Bruce Wallace, and John
Moore supported the inclusion of inquiry, Joseph Schwab likely contributed the
most to actually implementing the theme of science as inquiry. Schwab’s classic
statement on the theme, his 1961 Inglis Lecture titled “The Teaching of Science
as Enquiry,” became a foundational statement for curriculum development
(Schwab 1966).
Inquiry in Textbooks and Laboratories
The original BSCS programs used four avenues for implementing inquiry. First,
the texts used expressions that indicated the uncertainty and incompleteness
of science and the possibilities that through inquiry the uncertainty might be
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