Outcomes from skills projects conducted in the United States illustrate workplace
perspectives regarding mathematical skills needed by workers. Following earlier research
by a task force of the American Society of Training and Development (Carnevale, Gainer,
and Meltzer, 1990), the Secretary of Labor's Commission on Achieving Necessary
Skills (SCANS) (Packer, 1997) has differentiated between mastery of basic arithmetical
skills and much broader and flexible understanding of principles and underlying ideas,
subsumed under the notion of mathematical skills:
SCANS arithmetical skills: Performs basic computations; uses basic
numerical concepts such as whole numbers and percentages in practical
situations; makes reasonable estimates and arithmetic results without a
calculator; and uses tables, graphs, diagrams and charts to obtain or convey
quantitative information.
SCANS mathematical skills: Approaches practical problems by choosing
appropriately from a variety of mathematical techniques; uses quantitative
data to construct logical explanations for real world situations; expresses
mathematical ideas and concepts orally and in writing; and understands
the role of chance in the occurrence and prediction of events. (SCANS,
1991, p. 83)
Based on a later survey of employers, industry trainers, and educators, among
others, Forman and Steen (1999) similarly argued that quantitative skills desired
by employers are much broader than mere facility with the mechanics of addition,
subtraction, multiplication, and division and familiarity with basic number facts;
they
also include some knowledge of statistics, probability, mental computation strategies,
some grasp of proportional reasoning or modeling relationships, and broad problem-solving
and communication skills about quantitative issues. Buckingham (1997), who
studied what she called "specific and generic numeracies of the workplace" in
some manufacturing industries in Australia, concluded that workplace numeracy
is now about
making decisions in the face of uncertainty in real situations, and that it encompasses
far more than the basic skills traditionally associated with the term numeracy
(as this
term had been used in Australia).
Outcomes from skills projects are echoed in educational specifications. For example,
basic skills projects in the United Kingdom and Australia influenced vocational education
frameworks that name numeracy as an important skill, and describe stages or levels of
accomplishment (Australian Education Council, 1992). The National Council for
Vocational Qualifications Core Skills in the United Kingdom identified five levels of
numeracy skill (Oates, 1992) that are closely linked to the sequence of content in the
national school mathematics curriculum.
1.2 Broader life purposes
Since numeracy involves action in the real world, it is important to reflect on the kinds
of purposes served by people's ability to act in a numerate way. Since people's numeracy
is related to and may at times depend on people's literacy skills or other lifeskills, the
purposes served by numeracy are expected to parallel those served by adults' literacy.
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